Tekla Structures Detailing Manual 24h1d

\environments\<environment>\system folder. If you modify the file, the Search view and the Search results branch in the Folders view change.

•

The default tree settings for the Folders view are stored in the ComponentCatalogTreeView.txt file that is located in the ..\Tekla Structures\ \environments\<environment>\system folder. If you modify the file, the Folders view changes.

Symbols The first column in the catadicates the component types with following symbols:

Symbo l

Component type System connections System detail System modeling tool

TEKLA STRUCTURES 16 Getting Started

19

Symbo l

Component type Custom connections and seams Custom details Custom parts Sketched cross sections

Pop-up menus System components

Right-click a system component in the Search view list to open a pop-up menu containing the following commands:

• • • • • • • • Custom components

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Add to Favorites Add to Search result... Remove from Search result Change picture... AutoDefaults Import

Properties... Edit keywords... Add to Favorites Add to Search result... Remove from Search result Change picture... AutoDefaults Export Import Edit custom component Delete custom component

Right-click a sketch in the Search view list to open a pop-up menu containing the following commands:

• • • • • • • • See also

Edit keywords...

Right-click a custom component in the Search view list to open a pop-up menu containing the following commands:

• • • • • • • • • • • Sketched cross sections

Properties...

Properties... Edit keywords... Add to Favorites Add to Search result... Remove from Search result Export Import Delete cross section sketch

Thumbnail images (p. 21)


Descriptions and keywords (p. 21) Grouping components (p. 22) Managing custom components (p. 106) Sketched cross sections

Thumbnail images Most system components have a default thumbnail image in the component catalog, which shows you a typical situation where the component can be used. For example, this is what the thumbnail image for Bolted gusset (11) connection looks like:

To edit a thumbnail image for a component: 1.

Create an image and save it in bmp format in ..\Tekla Structures\ \nt\bitmaps folder. To create the image, you can use Create View > Default Views of Component and Screenshot commands, for example.

2. 3. 4. 5. 6.

Press Ctrl + F to open the component catalog. Right-click the component and select Change picture... Locate the thumbnail and select it. Click OK. Tekla Structures links the thumbnail to the component.

Descriptions and keywords Descriptions

To view a component description, select the component in the Component catalog. Use the

button to show or hide descriptions.

You can create new descriptions and edit existing ones:

• • • Keywords

The default component descriptions are stored in the xslib.db1 file, located in the model folder. To add or edit a description, type text in the description field. When you select another component in the component catalog, Tekla Structures prompts you to save the description you added or edited. After you have saved the description, save the model also. Edited component descriptions are model-specific.

To add or edit keywords, right-click a component in the component catalog, and select Edit keywords...

Keywords you add or edit are saved in ComponentCatalog.txt file in the current model folder.


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You can combine ComponentCatalog.txt files and move them to the system folder:..\Tekla Structures\ \environments\<environment>\system.

Grouping components To create a new folder based on the results of a search:

1. 2. 3. 4. Removing components from groups

In the Component catalog, enter your search criteria and click Search. To group the search results in a new folder, click Store. In the Store search result dialog box, enter a name for the folder and click OK. The new folder appears in the tree.

To remove components from a group, right-click the component and select:

•

Remove, if it is a default group.

or

•

Remove from search result if the folder was created from a search.

Copying components to another folder To copy components from one folder to another: 1. 2. 3. 4. 5.

In the component catalog, click the Folders icon to open the Folders view. Go to the folder where the component to be copied is located. Select the component, right-click and select Copy. Go to the folder where you want to copy the component. Right-click and select Paste. If the copying does not succeed for some reason, store the component temporarily to a new folder. 1. 2. 3.

Click the Search icon and search for the component to be copied. Select the component and click Store to create a new folder for the component. In the Folders view, go to the new folder and copy the component from there to the desired folder.

Customizing and saving components Many components are suitable for use in different situations. You can define the properties of a component to use in a specific situation, then save a copy in the component catalog to use in similar situations. For example, we’ll use the Bolted gusset (11) component to connect a single brace at the base plate of column.

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1.

To save a copy of the component, we’ll right-click the component symbol in the model, and select Publish in catalog.... The Publish in catalog dialog box appears.

2.

We can add the component to a specific group. By default, the component is added to the All group. By default the component uses the same thumbnail image as the original component. To change the thumbnail, see Thumbnail images (p. 21).

3.

1.3 Using components Introduction

This section explains how to use components. It also includes examples.

Topics

Creating components (p. 24) Example: Adding an end plate (p. 24) Example: Adding a base plate and anchor rods (p. 25) Example: Adding a beam to column connection (p. 26) Viewing components (p. 27) Modifying components (p. 27) Conceptual components (p. 27) Converting a conceptual component to a detailed component (p. 28) Tips on working with components (p. 29)


23

Creating components You create different types of component in different ways. For example, you select existing parts to indicate which a connection or a detail is attached to. You need to pick points to indicate the location or length of a detail or a modeling tool. See also Selection order (p. 13). When you create connections, Tekla Structures prompts you to select the main part (the part secondary parts connect to), then the secondary part(s). For an example of using a connection, see Example: Adding an end plate (p. 24). Status

Tekla Structures uses different-colored component symbols to show the status of connections and details:

Color

Status

Tip

Component created successfully. Green Component created, but has problems.

Often occurs when bolts or holes have an edge distance less than the default value for that component.

Component failed.

A common reason is that the up direction is not appropriate. See Up direction (p. 13).

Yellow

Red

When applying a component that you are unfamiliar with, accept the default properties and apply the component. Then look to see what needs to be modified. This is quicker than trying to set the values for the component before seeing what the component actually creates.

Example: Adding an end plate This example shows how to create an end plate connection. The End plate (144) connection connects two beams, or a beam to a column, using a bolted end plate. To create the end plate connection: 1. 2. 3. 4.

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In the component catalog, enter 144 and click Search. Double-click the End plate (144) component. Tekla Structures displays the component dialog box and starts the End plate (144) command. Click Apply to create the component using the default properties. Tekla Structures prompts you to select the main part (column) and then the secondary part (beam). Tekla Structures creates the connection.

5.

Select the next main part or interrupt the command.

If you need to change the number of bolts or plate dimensions, for example, you need to modify the component. For more information, see Modifying components (p. 27). If you use incorrect properties, Tekla Structures may fail to create the component. For more information, see Creating components (p. 24).

Example: Adding a base plate and anchor rods Component catalog contains several base plate details. This example shows how to create a base plate and anchor rods. Before you start:

• •

create a column create an elevation view

To add a base plate to a column: 1. 2. 3.

Open an elevation view. Open the component catalog. Enter base plate in the Search field and click Search.

4.

To view pictures of the components in the search results, click the Thumbnails icon


.

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5. 6. 7.

Click Base plate (1004). This component creates a base plate with anchor bolts. The prompt Pick part appears on the status bar. Select the column. The prompt Pick position appears on the status bar. Pick the point at the base of the column to indicate where to create the base plate. 8. Tekla Structures creates the base plate. 9. Examine the component to see if you need to make any changes. 10. Check that the connection symbol is green, which indicates that the connection was created successfully. 11. Change the dimensions of the anchor rods. To make it easier to select components, click the Select component icon

.

12. Double-click the component to open the Tekla Structures Base plate (1004) dialog box. 13. Go to the Anchor rods tab. Change the dimensions of the anchor rods. 14. To change only this base plate, select Ignore other types in the list in the top section of the dialog box:

15. 16. 17. 18.

Click Modify. Tekla Structures changes the dimensions of the anchor rods. Click OK to close the dialog box. Right-click and select Interrupt from the pop-up menu to end the command. Check that the connection symbol is green, which indicates that the connection was created successfully.

Example: Adding a beam to column connection Component catalog contains several beam to column connections. This example shows how to create a beam to column connection. Before you start:

• •

create a beam and a column create an elevation view

To create a beam to column connection: 1.

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Open the component catalog.

2.

Select Beam to column connections in the list. The list of beam to column connections appears in the main pane. 3. Select Column with stiffeners (186). 4. The prompt Pick main part appears on the status bar. Select the column. 5. The prompt Pick secondary part appears on the status bar. Select the beam. 6. Tekla Structures creates the connection. 7. Click OK to close the dialog box. 8. Right-click and select Interrupt from the pop-up menu to end the command. 9. Check that the connection symbol is green, which indicates that the connection was created successfully. 10. Examine the component to see if you need to make any changes.

Viewing components You can create several views of a component to view it from different viewpoints. To create views of a component: 1. 2.

Click the component symbol to select the component. To create views, right-click and select Create View > Default Views of Component in the pop-up menu. Tekla Structures creates four views: front, end, top, and perspective.

To check dimensions, such as bolt locations and edge distances, work in the Component front view and use the Measure tool.

Modifying components To modify a component, double-click the component symbol in the model. The component dialog box appears. This is where you modify the component properties.

If you have Select component switched on , you do not have to pick component symbol, but you can just pick any object belonging to a component. This is the only method for selecting custom parts, because they do not have any symbol. You can also indicate which connections and details are affected by the modifications:

•

•

Modify connection type: If you have selected several connections details, clicking the Modify button modifies all the selected connections and details irrespective of their type. If

the connection type is not the same as in the dialog box, Tekla Structures changes the connection type. Ignore other types: Tekla Structures only modifies connections and details of the type shown in dialog box.

Conceptual components Conceptual components are meant to be used as reference information for further fabrication detailing. Conceptual components look similar to detailed components but do not include the option to change part numbering or assembly numbering settings.


27

Conceptual components can be created only with Engineering and Reinforced Concrete Detailing configurations. However, you can edit conceptual components in Full, Steel Detailing, or Precast Concrete Detailing configurations. Conceptual components can be converted to detailed components that include all the information needed for fabrication, such as assemblies, cast units, and reinforcing bars. The conversion to detailed components can be done in Full, Steel Detailing, or Precast Concrete Detailing configurations. Modifying part properties, such as the size of the component main part, does not automatically convert a detailed component to a conceptual one, or vice versa. For example, if you use the Engineering configuration and modify the model, detailed components do not convert back to conceptual components.

Component

Symbol

Conceptual

Configuration

Description

Engineering

Conceptual component does not create assemblies or cast units.

Reinforced Concrete Detailing

The dialog box is the same as in detailed component, but does not contain fields for part and assembly positions.

Rectangular Detailed

Full Steel Detailing Precast Concrete Detailing

Detailed component contains part and assembly numbering fields, and creates needed assemblies and cast units.

Round

Detailed components can be converted to conceptual components in Engineering and Reinforced Concrete Detailing configurations.

See also

Converting a conceptual component to a detailed component (p. 28)

Converting a conceptual component to a detailed component An individual conceptual component that has been created with Engineering or Reinforced Concrete Detailing configuration can be converted to a detailed component in Full, Steel Detailing, and Precast Concrete Detailing configurations. To convert a conceptual component to a detailed component: 1. 2.

Select the component symbol. Click Detailing > Component > Convert to Detailing Component. If you want to convert a detailed component to a conceptual component in Engineering or Reinforced Concete Detailing configuration, rightclick and select Convert to Conceptual Component.

See also

28

Conceptual components (p. 27)


Tips on working with components No component created

If you have difficulty applying a component, check the status bar for prompts. For example, you may need to click the middle mouse button to stop selecting parts, before Tekla Structures creates the component.

Many parts found

If you are applying a connection that only allows for one secondary member, you may see the message Many parts found on the status bar. This means that Tekla Structures cannot determine which parts to connect. You may have several parts in the same location, or the view may be set too deep.

Switch parts on/ off

If the component does not create the parts you need by default (for example, stiffener plates), look for a switch to turn them on. If there is no switch, try entering a value in the thickness field for that part (for example, on the Stiffeners tab). If the component creates parts you do not need, look for the switch to turn them off. If there is no switch, enter a zero (0) in the thickness field for that part.

Default: Tekla Structures creates stiffeners or uses value retrieved from AutoDefaults. Automatic: Tekla Structures creates or omits stiffeners depending on the situation in the model.

Tekla Structures does not create stiffeners

Tekla Structures creates stiffeners.

Entering valid profiles

You need to specify profiles for some components. If a component fails, try entering a valid profile.

1.4 Defining parts and plates Use the Parts tab to define the parts that Tekla Structures creates when you use a component. Topics

Using the dialog box (p. 29) Dimensioning parts (p. 30) Defining materials (p. 32)

Using the dialog box Some components list all parts on one tab, others list parts on separate tabs as shown in the following examples. One Parts tab

Where there is one tab, the label is usually Parts or Plates.


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Several Parts tabs

Plates can also appear on separate tabs. For example, in connection 56, Corner tube gusset, the parts appear on both the Gusset and Brace conn tabs.

Dimensioning parts Use the Parts tabs to dimension specific part types in components.

To delete a part, enter zero (0) in the t (thickness) field.

Plates Enter the following dimensions for plates:

Dimension

Description

t

Plate thickness

b

Plate width

h

Plate height

You do not have to enter these dimensions for every component type, as Tekla Structures determines the plate shape differently for different components. For example, in end plate connections, Tekla Structures calculates width and height using the number of bolts and bolt edge distances. Click Help in a component dialog box to check which dimensions you need to enter.

Beams To specify a library or parametric profile to use for beams:

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•

Enter the profile name.

•

Or click

, and select a profile from the profile catalog.

The profile must exist in the profile catalog.

Part position number Use the Pos_no field to enter the part position number for each part the component creates. This overrides the settings on the Tools > Options > Options... > Components tab. Specify a prefix and a start number, as shown below.

Prefix Start number Some component dialog boxes have a second row of Pos_no fields for you to enter the assembly position number.

Using the Components tab To set the default prefix and start number for all the parts that components create, click Tools > Options > Options... > Components. You define different prefixes and start numbers according to the part’s relationship to other parts in the component. Separate the prefix and part number using the \ character (for example, p\1).


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Prefix Part number

Defining materials To define the materials for the parts that components create, click against the Material field. Tekla Structures opens the Select Material dialog box. Click a material type, then click the material to use for the part.

32


Using the Components tab To set the default part material for the parts that components create, click Tools > Options > Options... > Components tab, and use the Part material field. Tekla Structures uses this default if you leave the Material field blank in the component dialog box when you apply the component.

1.5 Defining bolts and welds Use the Bolts or Welds tabs to define which bolts, assemblies, and welds to use in specific components. Topics

Using the Bolts tab (p. 33) Defining bolts (p. 35) Creating holes (p. 35) Number of bolts and spacing (p. 36) Bolt group orientation (p. 36) Bolt group pattern (p. 37) Edge distance (p. 37) Bolt position (p. 37) Defining slotted holes (p. 39) Deleting bolts (p. 40) Defining bolt assemblies (p. 41) Welds (p. 41)

Using the Bolts tab This illustration shows the properties you can set on the Bolts tab of component dialog boxes:


33

Slotted hole dimensions Slotted to create slotted hole in part Check bolt components to include (bolt, washer, screw). Shank length protruding from the nut Bolt spacing - vertical Number of bolts

34


Enter bolt order number of bolt to delete. Edge distance Bolt spacing (horizontal) Number of bolts Bolt group pattern Horizontal Vertical

Defining bolts Use the following fields on the Bolts tab to specify the type of bolts to use in individual components:

Dialog box text

Description

Bolt size

Must be defined in the bolt assembly catalog. See also The bolt and bolt assembly catalogs.

Bolt standard

The bolt standard to use inside the component. Must be defined in the bolt assembly catalog.

Tolerance

Gap between bolt and hole.

Thread in mat

Indicate if the thread can be inside bolted parts when using bolts with a shaft. Has no effect if using full-threaded bolts.

Site/Workshop

Location where bolts should be attached.

Increasing bolt length To allow for additional material thickness, increase the length of the bolt on the Bolts tab. For example, you could use this for painted parts. Enter extra bolt length

Tekla Structures uses this value in bolt length calculation. See Bolt length calculation.

Creating holes To only create a hole, deselect all the components in the illustration on the Bolts tab.


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Number of bolts and spacing Use the Bolts tab to specify the number of bolts and bolt spacing, both horizontally and vertically. Enter the number of bolts in the shorter field, and the spacing between bolts in the longer field, as shown below. Use a space to separate bolt spacing values. Enter a value for each space between bolts. Example

For example, if there are 3 bolts, enter 2 values.

Number of bolts Bolt spacing The settings above result in this bolt group layout:

Bolt group orientation Some connections include the following options on the Bolts tab to orientate bolt groups:

Option

Description Square. Staggered in the direction of the secondary part.

Sloped in the direction of the secondary part.

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Bolt group pattern For some components you can select different bolt group patterns. You have the following options:

Option

Edge distance Edge distance is the distance from the center of a bolt to the edge of the part. Enter top, bottom, left, and right edge distances on the Bolts tab. A dimension line on the illustration shows each dimension. See also Using the ts.def file (p. 46).

Edge distance dimension line Enter edge distances here

Bolt position In the list box on the Bolts tab, select an option to indicate how to measure dimensions for vertical and horizontal bolt position. Then enter the dimension in the fields indicated below. If you leave this field blank, Tekla Structures uses a system default value.


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Enter dimensions Measure dimension from....

Vertical bolt position Use these options to indicate how Tekla Structures measures vertical dimensions:

Option

Dimension from

Top

Upper edge of secondary part to uppermost bolt.

Middle

Centerline of bolts to centerline of secondary part.

Bottom

Lower edge of secondary part to lowest bolt.

Illustration

Horizontal bolt position Use these options to indicate how Tekla Structures measures horizontal dimensions:

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Option

Dimension from

Left

Left edge of secondary part to far left bolt.

Middle

Centerline of bolts.

Right

Right edge of secondary part to far right bolt.

Illustration

Defining slotted holes To define slotted holes in components: 1. 2. 3. 4.

Open the component properties dialog box and click on the Bolts tab. Different bolt groups may appear on different tabs in different dialog boxes. Set Hole type to Slotted. Select which parts have slotted holes from the Slots in list box. Select No to create round holes. To shape slotted holes, enter the x or y dimensions of the hole. To produce a round hole, enter zero (0) for both dimensions.


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Slotted hole length = x or y dimension + Bolt size + Tolerance

For some components you can specify which parts have slotted holes using the Bolts tab. For example, Clip angle (141), Shear plate simple (146).

You can also use the Bolt command to modify bolt groups after creating components. For more information, see Holes.

Deleting bolts To delete bolts from a bolt group: 1. 2. 3. 4. 5. 6. Example

Double click the component symbol to open the component dialog box. Go to the Bolts tab. Check Delete. Enter the bolt number(s) of the bolt(s) to delete, separated by a space. Bolt numbers run left to right and top down. Click Modify to change the selected component. Click OK to exit the component dialog box.

You start with this bolt group:

You enter the following bolt numbers:

The bolt group now looks like this:

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Defining bolt assemblies On the illustration on the Bolts tab, check the pieces to use in the bolt assembly (bolt, washers, and nuts).

To change the bolt assemblies in the current component: 1. 2. 3. 4.

Click the component symbol to select it. Check the pieces to use. Check Effect in modify. Click the Modify button.

Welds To define the properties of the welds Tekla Structures uses in a component, click the Welds button in the component properties dialog box. Tekla Structures displays the appropriate weld dialog box. The illustration identifies each weld using a number. For each weld, use row 1 to define the arrow side of the weld, and row 2 for the other side.


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See also

Welds

1.6 AutoConnection Introduction

Use AutoConnection to automatically select and apply connections with predefined properties to selected parts. Use AutoConnection to have Tekla Structures automatically create similar connections for similar framing conditions.

Topics

Using AutoConnection (p. 42)

Using AutoConnection Use AutoConnection to have Tekla Structures automatically create connections using a predefined set of rules, or rule group. Creating connections

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To create connections using AutoConnection: 1. 2. 3.


Pick the parts to connect. Click Detailing > AutoConnection... to display the AutoConnection dialog box. Select a rule group in the first list box on the Rule groups tab as shown below.

Rule group for AutoConnection Rule group for AutoDefaults 4.

Click the Create connections button.

When you use AutoConnection, Tekla Structures ignores the properties in the connection dialog boxes and creates connections using the properties defined in the rule group. Tekla Structures does not modify existing connections. You can change the properties of connections you create using AutoConnection. Additional options

Use the options on the Advanced tab to indicate which rule groups you want to use for each Framing condition (beam to beam web, beam to beam flange, etc.). You also have the option not to apply a rule group, or to apply a specific connection.


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Example

You can use a rule group for all framing types other than beam to column flange, and indicate a particular connection to use for that framing type.

Options

Use Connection selection to indicate your preferences for each framing condition. You have the following options:

Option

Result

None

Tekla Structures does not create a connection.

AutoConnection

Tekla Structures applies the connection defined in the rule group you have indicated in the first list box on the Rule groups tab.

A named connection

Click Select to pick from a list of available connections. Click a connection, then OK. Tekla Structures creates the connection you specify using the default properties. See Automatic and default properties (p. 14).

Use Parameters selection to indicate which connection properties you want to use. The options are:

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Option

Result

AutoDefaults

Tekla Structures applies the properties of the rule group you have indicated in the first list box on Rule groups tab.

No AutoDefaults

Tekla Structures applies the default connection properties. See Automatic and default properties (p. 14).

1.7 AutoDefaults Introduction

Use AutoDefaults to automatically apply connections. When you use AutoDefaults, Tekla Structures automatically creates connections with predefined properties. For example, you can use AutoDefaults to automatically adjust the thickness of each base plate you create, according to the main part profile. If the main part profile changes, Tekla Structures will also automatically adjust the thickness of the base plate.

Topics

Using AutoConnection (p. 42) Using AutoDefaults (p. 45) How to use AutoDefaults effectively (p. 46) Checking AutoDefaults properties (p. 46) Checking AutoDefaults rules (p. 46)

Using AutoDefaults With AutoDefaults you can have Tekla Structures apply connection properties using a predefined set of rules. You can use AutoDefaults together with AutoConnection to define connection properties, or separately to define the properties of a single connection. To use AutoDefaults for a single connection: 1. 2. 3.

Open the connection dialog box. On the General tab, select a rule group (the rule group cannot be None). On all the tabs, set the fields that you want AutoDefaults to override to Default by

4.

selecting the options marked with the arrow symbol. Click Apply to create the connection using AutoDefaults.

To quickly set all the fields in a dialog box to Default, load in the connection dialog box.


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How to use AutoDefaults effectively Use default values when you create a connection, then use AutoDefaults to modify the properties. If you manually modify connection properties after using AutoDefaults, Tekla Structures will not automatically update the connection properties, even if AutoDefaults is active. AutoDefaults does not change connection properties that have been modified. It only modifies connection properties in fields containing the default properties. For example, you have manually set a base plate thickness of 20 mm in the Base plate dialog box of a connection. AutoDefaults is active and sets plate thickness according to the main part profile. If you modify the main part profile, Tekla Structures does not update the base plate thickness. It remains at 20 mm.

Checking AutoDefaults properties To check the properties AutoDefaults has applied to a connection: 1. 2. 3.

Double-click the connection symbol to open the connection dialog box. In the list box in the upper left corner of the dialog box, select . Click Load. Tekla Structures shows the applied properties in the fields. You can also see all the combined properties used for that connection.

Checking AutoDefaults rules You can check which rules AutoDefaults has used for a particular connection. 1. 2.

Select the connection symbol and right-click. Select Inquire.

Tekla Structures shows the rule group and rule sets that the connection ed. You can also see all the properties files used for that connection.

1.8 Using the ts.def file This section explains how to use the ts.def text file to set the default properties for different connection types. Not all connections use ts.def.

If you are new to using ts.def, we suggest you read each of the topics in this section thoroughly before making any changes.

Topics

About ts.def (p. 47) Defining general defaults (p. 48) Defining bolt diameter and number of rows (p. 49) Defining other bolt and part properties (p. 50) How Tekla Structures uses ts.def (p. 56) Connections that use ts.def (p. 56)

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About ts.def Changing the ts.def file changes the default values for different connection types. You can open the ts.def file in any standard text editor.

Tekla Structures only uses the values in ts.def for blank fields. AutoDefaults and manual entries override ts.def.

If you use ts.def, you can still use some system default properties. To force Tekla Structures to use the system default for a particular property, give it the value -2147483648 in ts.def. By default, Tekla Structures includes the ts.def file in the system folder. Tekla Structures searches for ts.def in the standard search order.

How ts.def works For each connection type, Tekla Structures follows these steps to assign bolt and part properties. 1.

Tekla Structures determines bolt diameter and number of bolts according to the following criteria:

Connection type

According to

Clip angle

Secondary beam height

Shear plate


End plate


Gusset

Length of angle profile

Diagonal

Height of angle profile

2.

Tekla Structures uses bolt diameter to assign other bolt and part properties.

How to read ts.def Lines beginning with // are comment lines. They are there to help you read the file, Tekla Structures does not use the information in comment lines. The first few lines contain some general settings: Set the following line to the unit of measure appropriate to the version you are using (for example, inches in the Imperial version).

To have Tekla Structures use the default values in ts.def, set the following line to 1. Set it to 0 to have Tekla Structures use the system defaults.

Properties for each connection type appear in individual sections, as shown below. Each section begins with a header row containing the column labels. Do not add columns to the file.


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Entering values When you edit ts.def:

• • • •

Enter absolute values or names Do not use feet and inch symbols Ensure that profiles exist in the profile catalog Ensure bolts exist in the bolt catalog.

Defining general defaults If Tekla Structures cannot find a property for a connection in the connection-specific sections of ts.def, it looks for the default property in the General section. Example

In clip angles, Tekla Structures uses the default bolt diameter in the General section if the secondary beam height is larger than the highest value in the Clip angle section of ts.def. The properties in the General section of ts.def are:

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Properties

Description

boltdia

Bolt diameter.

pitch

Distance from the center of one bolt to the center of the next.

clipweld

Weld size.

angle-cc-inc

Tekla Structures adds bolt to bolt distance and web thickness, then rounds the result up by this value. Complies with US AISC standard.

lprofgapinc

Tekla Structures rounds the angle profile gap up by this value. Complies with US AISC standard.

lsize

Size of the angle profile.

copedepth

Determines notch size.

copelength

Determines notch size.

boltedge

Edge distance.

webplatelen

Haunch plate height (h).

webplatewid

Haunch plate width (b).

beamedge

Distance from the upper edge of the angle profile to the top of the secondary beam.

knifeclr

No longer used.

clipedge

Edge distance for bolts (clip angles only).

gap

No longer used.

shearplatethk

Shear plate thickness.

endplatethk

End plate thickness.

shearweld

Size of weld.

cliplsize

Size of angle profile (clip angles only).

flangecutclear

Flange cut clearance.

slotsize

Size of slotted hole.

Properties

Description

clipslots

Which part gets slotted holes: 1 for beam 2 for angle profiles 3 for both Refers to the Slots in list box options on the Bolts tab. See individual connection help for details.

clipattach

How the clip angle is attached to the secondary and main parts: 1 is Both bolted 2 is Main bolted / Secondary welded 3 is Main not welded 4 is Main welded / Secondary bolted 5 is Both welded 6 is Main not bolted 7 is Secondary not welded 8 is Secondary not bolted 9 is Both bolted / welded Refers to the attachment type list box options on the Bolts tab. See individual connection help for details.

copedepthinc

Tekla Structures rounds cope depth up using this value.

copelengthinc

Tekla Structures rounds cope length using this value.

Defining bolt diameter and number of rows Before you start, read How ts.def works (p. 47). Use the rows beginning with BOLTHEIGHT in each connection-specific section of ts.def to define the default bolt diameter and default number of horizontal bolt rows for the following connection types:

• • •

Clip angle, shear plate, and end plate connections (p. 49) Gusset connections (p. 50) Diagonal connections (p. 50)

Clip angle, shear plate, and end plate connections Tekla Structures calculates the default bolt diameter and number of rows horizontally according to the height of the secondary beam. You can enter the following properties:

Property

Description

name

Use the name BOLTHEIGHT

part

Use the part name ANGLECLIP

sec.beam.height

Height of secondary beam

diameter

Bolt diameter. Must exist in the bolt catalog.

number_of_bolts

Number of bolts horizontally


49

Gusset connections Tekla Structures calculates the default bolt diameter and number of bolt rows horizontally according to the length of the angle profile. You can enter the following properties:

Property

Description

name


part

Use the part name GUSSET

lproflength

Length of angle profile

or angleproflength diameter

Bolt diameter. Must exist in bolt catalog

number_of_bolts


Diagonal connections Tekla Structures calculates the default bolt diameter and number of bolt rows horizontally according to the height of the angle profile. You can enter the following properties:

Property

Description

name


part

Use the part name DIAGONAL

profileheight

Height of angle profile

diameter

Bolt diameter. Must exist in bolt catalog.

number_of_bolts

Number of bolts (horizontally)

Defining other bolt and part properties Before you start, read How ts.def works (p. 47). Once Tekla Structures has used ts.def to calculate bolt diameter, it uses the result to assign other properties to bolts and parts, according to connection type. Example

Enter the default properties for bolts and parts in clip angle connections in the rows beginning ANGLECLBOLTPART in the CLIP ANGLE section of ts.def.

Properties lookup table

The table below lists the properties you assign for bolts and parts for each connection type. Gusset and diagonal connections have additional properties. See Gusset connection properties (p. 51) and Diagonal connection properties (p. 54).

Key to lookup table

50


Connection type

Full name

C

Clip angle

S

Shear plate

E

End plate

G

Gusset

D

Diagonal

Connection Type Property

Description

C

S

E

G

D

name

Identifies the connection type.

*

*

*

*

*

*

*

*

*

*

Example GUSSETBOLTPART for gusset connections. bolt diameter

Bolt diameter. Must exist in the bolt catalog. See also Profile typedependent bolt dimensions (p. 55)

shear plate thickness

Thickness of shear plate

end plate thickness

Thickness of end plate

gusset thickness

Thickness of the gusset

conn. plate thickness

Thickness of the connection plate

angle profile

Name of the angle profile to use:

or L profile

• • •

* * * * *

*

*

Must exist in the profile catalog Enter the exact name Example: L100*100*10

number

Number of bolts in each row:

• •

*

*

*

*

*

*

*

*

*

vertically horizontally

pitch

Distance between bolts from the center of each bolt. For vertical and horizontal bolts

*

*

edge distance

Distance from the center of a bolt to the edge of the part. For vertical and horizontal bolts

*

*

*

vert.bolt firsthole

Position of the first vertical row of bolts

*

*

*

Gusset connection properties Enter these additional default properties in the row beginning GUSSETDEFDIM. Not all gusset connections use all these properties:


51

Affects plate shape

Option

Description

name

GUSSETDEFDIM

boltdia_def

Bolt diameter for all bolt groups. Leave the Bolt size field blank in the dialog box to have Tekla Structures use the value in ts.def.

tol_prim

See illustration.

tol_sec

See illustration.

dist_diag_prim

Clearance between the first secondary part selected and the main part.

dist_diag_sec

Perpendicular distance from last secondary part selected to the nearest secondary.

angle_first_corner

See illustration.

Yes

angle_sec_corner

See illustration.

Yes

dist_between_diag

Clearance between braces.

first_bolt_from_lin e

Bolt edge distance for the bolt groups on the Gusset tab.

corner_dx

See illustration.

corner_dy

See illustration.

movey

On the Gusset tab:

movey movez

On the Gusset tab:

movez dist1

The length of the edge of the gusset plate that is perpendicular to the lowest brace.

Yes

dist2

The length of the edges of the gusset plate perpendicular to the braces.

Yes

dist3

The length of the edge of the gusset plate perpendicular to the uppermost brace.

Yes

tol_lprof

See illustration.

tol_stiffener

Tolerance of stiffener.

chamfer_dx chamfer_dy

Dimensions of stiffener chamfer on the Gusset tab:

chamfer_corner_dx

chamfer_corner_dx

chamfer_corner_dy chamfer-corner_dy

52


Option

Description

Affects plate shape

side_length diafit_length

Fit length in connection 19. Leave the Distance gusset flanges cut field blank in the dialog box to have Tekla Structures use the value in ts.def.

The illustration below shows the properties on the Picture tab of the Boomerang wrapped diagonal (58) connection dialog box.

tol_lprof corner_dy corner_dx dist_diag_sec tol_sec angle_sec_corner dist3 dist_between_diag dist2 dist1


53

dist_diag_prim tol_prim

Diagonal connection properties Enter these additional default properties for bolts and parts in the rows beginning DIAGDEFDIM. Not all diagonal connections use all these properties:

Property

Description

name

DIAGDEFDIM

boltdia_def

Bolt diameter for all bolt groups. Leave the Bolt size field blank in the dialog box to have Tekla Structures use the value in ts.def.

dist_gus_diag

Gap between the gusset plate and the brace. If tube profiles are closed with end plates, the gap between the gusset plate and the end plate.

dist_in

Depth of the cut in the brace. Enter a negative value to prevent the connection plate from being inside the tube brace.

dist_dv

Distance from the edge of the brace to the edge of the connection plate. This dimension changes the width of the connection plate.

sec_cut_tol

On the Tube diag tab:

slot_length_tol sec_cut_tol slot_length_tol tube_cut_tol


tube_cut_tol conn_cut_dx


conn_cut_dy

conn_cut_dy

conn_cut_dx round_plate_tol

On the Tube diag tab: end_plate_thk

flanges_cut_angle

On the Brace conn tab:

dist_flanges_cut

flanges_cut_angle

dist_skew_cut dist_flanges_cut dist_skew_cut end_plate_thk

54


End plate field t in the Tube diag tab.

This illustration shows the properties that appear on the Picture tab of the Tube crossing (22) connection:

dist_dv dist_in dist_gus_diag

Profile type-dependent bolt dimensions For some connections, Tekla Structures calculates bolt size according to profile size. For example, Clip angle (141) and Two sided clip angle (143) connections. In this type of connection, Tekla Structures takes bolt size from the PROFILE TYPEDEPENDENT BOLT DIMENSIONS section of ts.def, if you leave the corresponding fields blank on the Bolts tab in the connection dialog box, as shown below:

The options are:

Example

Property

Description

width

Width of the profile

one bolt firsthole

For single bolts, distance from the heel of the profile angle to the first hole.

two bolts firsthole

For two bolts, distance from the heel of the profile angle to the first hole.

pitch

Distance between bolts from the center of each bolt. For vertical and horizontal bolts.

To find the bolt dimensions to use with an L6X6X1/2 profile in a clip angle connection: 1.

Tekla Structures searches the rows beginning PROFILEBOLTDIM for L6X6X1/2 in the PROFILE TYPE-DEPENDENT BOLT DIMENSIONS section of ts.def.


55

2.

If there is no match, Tekla Structures searches the rows beginning ANGLECLBOLTPART in the CLIP ANGLE section of ts.def.

How Tekla Structures uses ts.def This example explains how Tekla Structures calculates bolt diameter and other properties using ts.def. We are using a Bolted gusset (11) connection. The height of the diagonal profile is 10".

• •

•

Tekla Structures calculates bolt size and number of bolts according to profile height. It searches the BOLTHEIGHT rows for a profile height of 10". The profile height is greater than 8.0 but less than 12.0, so Tekla Structures uses the row with the profile height 8.0. This sets the bolt diameter to 0.75.

Tekla Structures assigns the bolt and part properties according to the bolt diameter. It searches the DIAGBOLTPART rows for a bolt diameter of 0.75.

Result

Property

Value

Bolt diameter

0.75


2

Edge distance horizontally

1.5

Edge distance vertically

1.5

Distance between bolts horizontally

2.5

Distance between bolts vertically

system default

Tekla Structures does not use the connection plate thickness or angle profile properties in this connection.

Connections that use ts.def Only the following connections use ts.def

56


Connections

Connections

Two sided angle cleat (25)

Boomerang bracing cross (60)

Beam with stiffener (129)

Corner bolted gusset (57)

Column with shear plate (131)

Boomerang tube diagonal (59)

Bolted moment connection (134)

Corner tube gusset (56)

Clip angle (141)

Boomerang wrapped diagonal (58)

Two sided end plate (142)

Corner wrapped gusset (63)

Two sided clip angle (143)

Bolted gusset (11)

Connections

Connections

End plate (144)

Bracing cross (19)

Shear plate simple (146)

Tube gusset (20)

Welded to top flange (147)

Tube crossing (22)

Welded to top flange S (149)

Gusset wrapped cross (62)

Moment connection (181)

Wrapped cross (61)

Column with stiffeners W (182)

Welded gusset (10)

Full depth (184) Full depth S (185) Column with stiffeners (186) Column with stiffeners S (187) Column with stiffeners (188) Bent plate (190) Shear plate tube column (189)

1.9 Using Excel in connection design You can link system components and Excel spreadsheets, so when a component is applied or modified, an associated Excel spreadsheet application can be run. The configuration information is ed from the component to the spreadsheet, calculation run within the spreadsheet and component properties ed back to the connection.

You can use Excel in connection design for all steel components that have the Design tab in their properties dialog box.

Tekla Structures includes sample spreadsheet for connection design and a template spreadsheet you should use to create your own spreadsheet applications to use with Tekla Structures components. Before you start:

• •

Create the connections and parts. Create the Excel spreadsheet for connection type, or use a predefined file. See more in Setting up Excel files (p. 58).

To use the Excel spreadsheet for connection design: 1. 2. 3. 4. 5. 6. Topics

Double-click the connection to open the connection properties dialog box. Go to the Design (or Design type) tab and select Excel in the External design list box. Click Modify. The connection properties are transferred from Tekla Structures to a connection type specific Excel spreadsheet, where the properties are calculated. The calculated properties are saved to an output file. The modified properties are transferred back to Tekla Structures and the connection is modified according to the changes.

Setting up Excel files (p. 58) Sample implementation (p. 58)


57

Indicating component status (p. 60)

Setting up Excel files The following list describes what kind of files are needed for performing connection design with Excel:

• •

Visual Basic script file linking Tekla Structures with external software. Excel spreadsheet containing calculations.

• • •

When you run the connection design, the connection properties and information of the main and secondary parts are transferred to the Input and Component sheets of the spreadsheet.

Connection specific result file, which displays the modified connection properties is stored to model folder.

• • • File names and locations

Component type specific spreadsheet, which contains predefined calculations.

This file is created automatically from the Calculation sheet of the spreadsheet. The file is updated each time you modify the connection. Calculation results can be stored as Excel spreadsheet, HTML or PDF format, depending on how calculation spreadsheet is configured.

Excel.vb file (located in the ..\Tekla Structures\ \environments\common\exceldesign folder) defines the Excel spreadsheet file names and the locations. Excel searches for the spreadsheet in the following order and with following name: 1.

File named component_ + number or name + .xls, from the current model folder: ..\<model>\exceldesign For example, ..\test_model\exceldesign\component_144.xls

2.

File name and path defined with advanced option XS_EXTERNAL_EXCEL_DESIGN_PATH: XS_EXTERNAL_EXCEL_DESIGN_PATH (=%XS_DIR%\environments\common\exceldesign\) + "component_" + number + ".xls"

By default, the result file is stored in the model folder and named with component ID. For example, component_9502_res.xls.

Sample implementation Below is descibed the contents of an Excel spreadsheet which is used for End plate (144) connection: When clicks Modify in the End plate (144) properties dialog box, Excel.vb file calls Excel spreadsheet named component_144.xls. Contents

The sample spreadsheet includes the following sheets: Inputs ( inputs on connection dialog).

•

58


Tekla Structures transfers the component properties from the component properties dialog box to this sheet.

Component

•

•

Tekla Structures transfers the component geometry and information on the main and secondary parts (for example, part profiles) into this sheet. The component attributes in the spreadsheet are the same as in the corresponding .inp file. See more about .inp files in Input files. This sheet includes calculations (the calculations can be as Visual Basic macros in the sheet).

Calculation

•

Summary of calculation is collected to the Calculation sheet. This page or full Excel spreadsheet can be stored as a report of the calculation.


59

Outputs

•

Excel adds the modified values to the Output sheet. These values are tranferred back to the connection and connection in the model is modified accordingly.

Indicating component status When you use Excel in connection design, you can have Tekla Structures use different colored component symbols to indicate the status of a component in the model. To do this, include the error attribute on the Output page of the Excel spreadsheet for the component. The possible values are:

Value

Color

Status

1

Green

Bolt edge distances are sufficient. es the connection design check using the UK and US design codes embedded in the system.

2

Yellow

Bolt edge distances are insufficient according to the value in Tools > Options > Options... > Components.

3

Red

Tekla Structures cannot calculate the component properties. Possible reasons include:

• • • •

60


Incorrect connection direction Incorrect workplane Inappropriate connection selected The connection design check was carried out using the embedded UK and US design codes and the connection cannot the loading defined by the .

2

Introduction

Custom Components

Tekla Structures contains a set of tools for defining intelligent connections, parts, seams, and details, called custom components. You can create your own components, similar to Tekla Structures system components. Tekla Structures creates a dialog box for the custom component, which you can easily customize, if required. You can then use custom components in the same way as any Tekla Structures system component.

You can also edit custom components to create parametric custom components that automatically adjust to changes in the model. Audience

This chapter is aimed at people who know how to use Tekla Structures components.

Contents

This chapter includes the following topics, which are the steps you follow to create custom components:

• • • • • • •

Defining custom components (p. 62) Editing custom components (p. 69) Defining variables (p. 73) Functions to use in formulas (p. 82) Defining custom component properties (p. 90) Managing and using custom components (p. 100) Custom components reference (p. 111)

TEKLA STRUCTURES 16 Custom Components

61

2.1 Defining custom components Introduction

You can build custom components either by exploding and modifying an existing component, or by creating the component objects individually. You then define a custom component by selecting the objects to include in the custom component, and specifying the information the needs to input, for example, main part, secondary parts, or points they need to pick. You can now apply the custom component in a similar location in the model to where it was originally created.

To create a parametric custom component, you need to do some more editing. For more information, see Editing custom components (p. 69).

Go to Detailing > Component > Define Custom Component to define the properties of a new custom component. To browse a list of custom components, 1. 2. Topics

Press Ctrl + F to open the Component catalog. Select Search results > Custom.

Exploding components (p. 62) Defining a custom component (p. 62) Custom component types (p. 66) Custom component basic properties (p. 68)

Exploding components Explode Component is a very useful command to use when defining custom components. It

ungroups the objects in an existing component, you can then remove and modify parts and other objects in the component. To explode a component: 1. 2. 3.

Click Detailing > Component > Explode component. Select the component to explode. Tekla Structures ungroups the objects in the component.

Defining a custom component You can define and save custom components in the component library. Before you can define a custom component, you need to create a sample component in the model containing all the necessary component objects, such as parts, fittings, bolts, and so on.

To quickly create a custom component, explode a similar existing component, then change it to suit your needs. See Exploding components (p. 62).

Use the Custom Component Wizard on the Detailing menu to define the properties of a new custom component. See the following example.

62


Follow the steps in the custom component wizard. Some steps are different for different types of custom component.

Example

In the following example we will create a custom component based on an existing end plate component that we have exploded.

To explode a component, select the component, right-click and select Explode Component from the pop-up menu.

1.

Click Detailing > Component > Define Custom Component... to open the Custom Component Wizard dialog box.

2. 3.

On the Type/Notes tab, set Type to Connection. Enter a Name for the custom component. On the Position and Advanced tabs, set the Position type and other properties for the custom component. For more information on other properties, see Detailing > Component > Define Custom Component... (p. 112). Click Next. Select the objects to use in the custom component and click Next.

4. 5.


63

You can use area select to select the objects to include. Tekla Structures ignores the main part, secondary parts, grids and component symbols when you are selecting objects to include in the custom component. 6.

64


Select the main part and click Next.

7.

Select the secondary part(s). To select several secondary part(s), hold down the Shift key while you select the parts. The maximum number of secondary parts in a custom component is 30. Pay attention to the order in which you select secondary parts. The custom component will use the same selection order when you use it in a model.

8.

Click Finish.


65

9.

Tekla Structures displays a component symbol for the new component.

You have now defined a simple custom component, which you can use in similar locations to where it was originally created. This component is not parametric and Tekla Structures does not adjust dimensions to suit any changes in the model. To create a parametric custom component, see Editing custom components (p. 69). See also

Custom component basic properties (p. 68) Custom component types (p. 66)

Custom component types Custom component types are:

66


Type

Description

Connection

Creates connection objects and connects secondary part(s) to a main part.

Example

Component symbol is green.

Detail

Creates detail objects and connects them to a main part at a picked location. Component symbol is green.

Seam

Creates seam objects and connects parts along a line picked with two points. Component symbol is green.

Creates a group of objects which may contain connections and details.

Part

Gets no symbol, has same position properties as beams.

Main part Secondary part


67

Custom component basic properties Tekla Structures automatically creates each custom component with a set of basic properties, which we describe in this section. To view the properties of a custom component: 1. 2. 3. Basic properties of custom connections, seams, and details

Press Ctrl + F to open the Component catalog. In the Search result listbox, select Custom. A list of custom components appears in the lower pane. Double-click a custom component on the list to open its properties dialog box.

Custom connections, seams, and details have the following basic properties:

Field

Description

More information

Up direction

Rotates the component.

Up direction (p. 13)

Position in relation to secondary part

The creation point of the component relative to the main part.

General tab (p. 15)

Available for details by default. To use this property in connections and seams, select the Allow multiple instances of connection between same parts checkbox on the Advanced tab when you create

the component.

Basic properties of custom parts

68

Class

The class of the parts that the custom component creates.

About parts

Connection code

Identifies the connection. Tekla Structures can display this connection code in connection marks in drawings.

Mark elements

AutoDefaults rule group

The rule group used for setting the connection properties.

Using AutoDefaults (p. 45)

AutoConnection rule group

The rule group Tekla Structures uses to select the connection.

Using AutoConnection (p. 42)

Custom parts have the following basic properties:


Field

Description

More information

On plane

Changes part location on work plane.

Position on the work plane

Rotation

Rotates part in steps of 90 degrees.

Rotation

Field

Description

More information

At depth

Changes part location perpendicular to work plane.

Position depth

Show third handle

Sets the third handle of a nested custom part to be visible in the desired direction.

Part handles

You can bind the third handle in the desired direction and thus force the part to follow the rotation of another part. You have the following options:

• •

• See also

Above: the handle is shown

above the first handle in custom part local coordinate system. On the left: the handle is shown on the left-hand side of the first handle in custom part local coordinate system. No: the third handle is not shown.

Defining a custom component (p. 62) Using a custom component (p. 106) Detailing > Component > Define Custom Component... (p. 112)

2.2 Editing custom components Introduction

To make a simple custom component parametric, so that it adapts to changes in the model, you must edit it in the Custom component editor. Here you can build dependencies between component objects and model objects. For example, you could specify that the size of a stiffener depends on the size of the beam. So, if you change the size of the beam, the size of the stiffener also changes. You can also add distance variables, for example to specify the gap between a plate and a beam.

Topics

Custom component editor (p. 69) Plane types (p. 120) Construction plane (p. 121)

Custom component editor Use the custom component editor to modify custom components and create intelligent, parametric custom components. First, create a custom component in the model. Opening the editor

To open the custom component editor: 1. 2.

Click Detailing > Component > Edit Custom Component. Select the custom component. The Custom component editor opens. It shows the Custom component editor toolbar, the Custom component browser and four views of the custom component.


69

Custom parts do not have a component symbol. To be able to select custom parts, make sure the Select components switch is active.

Custom component toolbar

The toolbar contains the following icons and list boxes:

Icon/ List box

Description Creates a distance. Creates a reference distance. Creates distances automatically. Creates a construction plane. Creates a construction line.

Plane types

Displays plane types you can use when defining distance variables. For more information, see Plane types (p. 120).

Position types

Define the position (or origin) of the custom component, relative to the main part. For more information, see Position type (p. 114). Allows you to edit the type or the position of a custom component or add notes after you have created the component. Shows all created variables. Displays Custom component browser. Saves the custom component with another name. Saves and updates the existing component(s) in the model. Closes the editor.

For more information on these tools, see Custom components reference (p. 111). Editing properties

70

You can add and edit many custom component properties:


Library component vs. model component

Editing task

More information

Create fields for material grade, profile, bolt size, and other properties that will be visible in the custom component dialog box.

Creating parameter variables (p. 80)

Define part dimensions, spacings, gaps, etc. that will be visible in the custom component dialog box.

Creating distance variables (p. 75)

Bind component objects to model objects so that component objects adjust for new beam size or profile.

Automatic distances (p. 125)

Create formulas to calculate values, for example for calculating bolt edge distance using bolt size.

Creating parameters that use formulae (p. 81)

Use the custom component editor to modify custom component. You can open a custom component in the editor even if you have already used it in a model. When you have edited the custom component, you can choose to apply the changes to all copies of the custom component, or to save the component with a new name.

• •

Closing the editor


To apply your changes to the library and to all copies of the custom component in the model, use the Copy component to library command. To save the edited custom component with a new name, use the Copy component to library with new name command and enter a new name for the custom component.Tekla Structures does not apply the changes to the other copies of the custom component in the model.

To close the custom component editor: 1. 2.

. Click the Close icon Tekla Structures asks if you want to save the custom component with its original name.

If you click Yes, Tekla Structures will overwrite the copies of the custom component in the library and the model.

Creating automatic backup files

When you modify a custom component, Tekla Structures automatically creates a backup file of the custom component. The backup files have the extension .inp_bak, and they are located in the model folder. Tekla Structures displays a notification when the backup file is created. See also Custom component browser (p. 71)

Custom component browser The Custom component browser shows the contents of a custom component in a hierarchical, tree-like structure. The Custom component browser works with Custom component editor views. Click a part in the view and Tekla Structures highlights it in the browser, or click a part in the browser to have Tekla Structures highlight it in the view. The Custom component browser contains the following information about a custom component:


71

Model objects, to which custom component is attached The objects the custom component creates You can create links between custom component variables and component object properties You can create links between custom component parameter variables and component object properties. For example, variable "m" defines the material grade for all plates in your component. It appears as "Material = m" in the Custom component browser (see above illustration). "m" is also a field in the custom component dialog box. When a enters a value in the "m" field in the dialog box for plates, Tekla Structures saves the value to the part properties in the model. Popup menu

You can also use the popup menu in the Custom component browser to copy names, values, and references from main and secondary parts in the component. Then use them in the Variables dialog box to define the properties of custom components. For example, to report how many secondary parts to pick when applying a component, you can use a variable called Number of secondaries. You can then use the variable in formulas, and copy the name, value and reference to other custom components.

72


Copies just the value the object currently has Copies the link to the property. Link is dynamic, so when the property later changes the reference reflects the change Using custom part properties

If you have created a custom part in to your model, you can access the object properties of the custom part when the custom part is used an input part. You can access the name, profile, material and class of the input custom part, and use the properties of the input part in the component objects. This is useful in cases where the material for a new part needs to be taken from the inner or outer layer of an existing part.

See also

Defining variables (p. 73) Creating parameter variables (p. 80) Creating parameters that use formulae (p. 81)

2.3 Defining variables Variables are the properties of a custom component. Some of them appear in the custom component dialog box, others are hidden and are only used in calculations. There are two types of variable:


73

Variable type

Description

See also

Distance

Distance between two planes or between a point and a plane. Binds parts together or works as a variable reference distance.


All other properties, including name, material grade, bolt size, etc. Also used in calculations.

Creating parameter variables (p. 80)

Parameter

Viewing variables

Creating reference distances (p. 77)

Creating parameters that use formulae (p. 81)

To see all distance and parameter variables in a component, in the custom component editor, click the Display variables icon The Variables dialog box appears:

• •

The Component parameters category lists all distances and parameters that belong to the current custom component. The Model parameters category lists all distances and parameters in the current model.

When you select a distance variable from a list, Tekla Structures highlights it in the model. To delete the selected distance or parameter, click Delete. To add a new parameter variable, click Add. For more information to other properties, see Display variables (p. 115). Topics

Creating distance variables (p. 75) Creating reference distances (p. 77)

74


Using magnetic construction planes (p. 79) Creating parameter variables (p. 80) Creating parameters that use formulae (p. 81)

Creating distance variables Use distance variables to bind handles, fittings, cuts, and so on, to planes so that the custom component can adapt to different situations, such as different main profile shapes and sizes. You can create a distance variable from point to plane or from plane to plane. These distances can be visible or hidden. Use visible distances when you want the to enter a distance value in the custom component dialog box. To simply bind objects to planes, use hidden distances. You can bind the corners of polygon plates also in directions other than the plane of the plate. You can, for example, bind the corner of a contour plate in the z direction.

Use the automatic distances command to automatically create distances for the handles of picked components:

For more information, see Automatic distances (p. 125). How

In this example we will create a distance variable that binds the upper edge of the end plate to the upper flange of the secondary part. Whenever you create this custom component in the model, the end plate will follow the upper flange, regardless of the profile or size the secondary part. Before you start, ensure that the part representation is set to rendered. Part surfaces and available planes can be selected only in rendered views. To create the distance variable: 1.

Select the object from which to measure the distance. This object will follow the plane to which you bind it. In this example, select the plate’s topmost reference point (magenta or yellow)

2.

Click the Create distance icon or right-click the reference point and select Bind to Plane from the pop-up menu. Move the mouse cursor over a view to see the available planes.

3.


75

Highlighted boundary plane You can change plane types before selecting the plane

You can also use the Hide Part command if the plane is not accessible.

4.

To create the distance, click when the plane you want to use is highlighted. Tekla Structures draws a distance symbol in the views of the custom component editor. Tekla Structures displays a distance symbol in the custom component editor views. You can bind one object to a maximum of three planes.

Distance object 5. 6.

To end the command, right-click and select Interrupt. Double-click the distance object. The Distance properties dialog box appears.

7.

Enter a descriptive Name for the distance. To test the distance variable, enter different values and click Modify to see the changes in the model.

8.

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Click Cancel.

9.

To hide or show the distance variable in the dialog box and to set the other properties, click to open the Variables dialog box. For more information, see Display variables (p. 115).

Limitations

You cannot pick points in secondary or main parts. You cannot change an existing distance binding. You must delete the distance and then rebind it.

To be able to select distances, make sure the Select distances switch is active.

See also

Create distance (p. 123)

Creating reference distances Use reference distances to measure the distance between two points or a point and a plane. You can then use the reference distance in calculations, for example, to determine the spacing of rungs on a ladder. A reference distance changes as you move the objects it refers to. Tekla Structures displays reference distances in orange. You cannot move objects by changing their reference distances.

To be able to select reference distances, make sure the Select distances switch is active.


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Example

In this example we will define several variables: distances, reference distances, and parameters, and use them in a custom component that creates a ladder with rungs spaced at set intervals, for any length of ladder. Here is how the variables appear in the Variables dialog box:

1. 2. 3. 4.

Create a ladder frame with one rung 285 mm from the bottom of the frame. To make the ladder a custom component, select Detailing > Define custom component... and follow the steps in the Custom component wizard. Right-click the ladder and select Edit custom component... from the popup menu. In the Custom component editor, use the Array of objects (29) component to create the rest of the rungs. Use the Create distance tool to bind the bottom rung to the bottom of the ladder frame (D1 and D2 in the in the Variables dialog box). See Create distance (p. 123) for step-by-step instructions.

5.

Use the Create reference distance tool to create a reference distance from a handle on the bottom rung to the plane at the top of the ladder. • Select a rung handle

•

On the Custom component editor toolbar, click the Create reference distance icon

•

Bind the handle to the horizontal plane at the top of the ladder frame.

This distance appears as D3 in the Variables dialog box. 6. 7. 8.

Go to the Variables dialog box. Add a parameter (P1) to define rung spacing. Give it the value 250. Add another parameter (P2) to define the distance from the bottom of the ladder to the first rung. Give it the value 285. 9. Give the distances D1 and D2 the formula =P2. This forces both distances to be the value defined by P2. 285 in this case. 10. Add a new parameter (P3) to define the number of rungs. Give it the formula =(D3-P2)/P1. 11. We want the number of rungs to be an integer, so add a new parameter (P4) and give it the formula =ceil (15.52).This rounds P3 up to the nearest integer.

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12. Add a new parameter (P5) to calculate the distance between the rungs. Give it the formula =(D3-P2)/P4. This formula subtracts the distance from the bottom of the ladder to the bottom rung from the reference distance (D3) and divides the result by the number of rungs (P4). 13. Go to the Custom component browser and link the following properties of the Array of objects (29) component to parameters P4 and P5, as shown below:

When you use this custom component to create a ladder in a model, Tekla Structures automatically calculates the correct spacing for the rungs. See also

Create reference distance (p. 124) Defining custom components (p. 62)

Using magnetic construction planes You can bind several objects at one time using magnetic construction planes. The objects directly on a magnetic plane will move with the plane. So you only need to create a distance variable for the plane and not for each object separately. As you can see from the example below, it is much easier and faster to use magnetic planes than to bind handles with individual distance variables. Example

Different methods of binding chamfers to the inner face of a flange:


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Option 1: Control the stiffeners by using 4 magnetic construction planes - one in each direction. Then you only bind each magnetic plane with one distance variable Option 2: Bind each chamfer separately - a total of 32 bindings For more information on magnetic construction planes, see Construction plane (p. 121).

By default, the handles of contour plates are not visible. To show them, set the advanced option XS_DRAW_CHAMFERS_HANDLES to HANDLES.

Creating parameter variables You can use parameter variables to set basic properties for objects that custom component creates, for example, name, material, profile, position number, etc. Example

In this example we create a parameter variable "Weldsize" that sets all welds in a custom component to a given size: 1. 2. 3.

On the Custom component editor toolbar, click Click the Add button. Enter following information: • Name = Weldsize

• • • • • • 4. 5.

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to open the Variables dialog box.

Formula = Value = 0.0 Variable type = parameter Value type = length Visibility = Show (this makes Weldsize visible in the dialog box) Label in dialog box = WeldSize

Click OK button to close the dialog box. In the Custom component browser, click Component objects > Weld > General properties and right-click Size above line and select Add equation. Type after the equal sign "Weldsize". Repeat this step for all welds.

6. 7.

Click Save. Click Close icon to exit the Custom component editor.

Your custom component dialog box should now contain the field WeldSize. When anyone creates the component, all welds are of the size you enter in the WeldSize field.

Creating parameters that use formulae This example shows how to create a hidden parameter variable that includes a formula to set weld size to half the thickness of the secondary part flange. This variable will not be visible in the custom component dialog box. When you create the component, Tekla Structures uses the thickness of the secondary part flange to calculate the size of the weld(s). 1.

In the Custom component browser, click Input objects > Secondary parts > Part > Profile properties and right-click Flange thickness 1 and then select Copy reference. Tekla Structures copies the reference to secondary part flange thickness to the Windows Clipboard.

2.

In the Custom component editor toolbar, click

3. 4. 5.

Click Add button. Set Variable name to w. Click the Formula field, type =, then right-click and select Paste. Tekla Structures pastes the reference to flange thickness from the Clipboard. Now enter *0.5. Formula should now read:

to open the Variables dialog box.


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=fP(Flange thickness 1.1525)*0.5.

6.

Set other values:

• • • 7.

8.

Variable type = Parameter Value type =Length Visibility = Hide

In the Custom component browser, click Component Objects > Weld > General properties and right-click Size above line and select Add equation. Type in after the equal sign "w". Click OK button to close the dialog box.

2.4 Functions to use in formulas This section lists all the functions you can use in formulas in custom components. Formulas always begin with the equals character (=). You can use the following functions in formulas:

• • • • • • •

Reference function (p. 83) Mathematical functions (p. 84) Statistical functions (p. 85) Data type conversions (p. 86) String operations (p. 86) Trigonometric functions (p. 88) Framing condition functions (p. 88)

Arithmetic operators You can use the following arithmetic operators:

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Operator

Description

Notes

+

addition

Use also to create strings of parameters.

-

subtraction

Operator

Description

Notes

*

multiplication

Multiplication is faster than division, so it is faster to use =D1*0.5 rather than =D1/2.

/

division

Logical statement You can use if-then-else statements to test a condition and set the value according to the result: =if (D1>200) then 20 else 10 endif

You can also use the operators && (the logical AND operator) and || (the logical OR operator) inside the if statement.

• •

&& - both conditions must be true || only one condition must be true

For example to use a value 6:

•

=if (D1==200 && D2<40) then 6 else 0 endif

D1 must be 200 and D2 must be less than 40.

•

=if (D1==200 || D2<40) then 6 else 0 endif

D1 must equal 200, or D2 must be less than 40.

Reference function A reference function refers to the property of another object, such as the plate thickness of a secondary part. Tekla Structures refers to the object on the system level, so if the object property changes, so does the reference function value. fP(propertyname, ObjectId) To ensure the function includes the correct parameters, cut and paste it from the Custom component browser:

1. 2.

Right-click the property in the Custom component browser and select Copy reference. Right-click the Formula cell in the Variables dialog box and select Paste.

Note that template attribute and -defined attribute names must be written inside double quotation marks:


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Name

Description

Example

fTpl("template attribute", object ID)

Returns the value of template attribute with given object ID.

fTpl("WEIGHT",6290) returns the weight of object, whose ID is 6290.

For a list of available template attributes, see Template attributes reference. fP("-defined attribute", object ID)

Returns the value of defined attribute with given object ID.

fP("comment", 741) returns the -defined attribute comment of object, whose ID is 741.

Mathematical functions The mathematical functions are:

Name

Description

Example

fabs(parameter)

Returns the absolute value of the specified parameter.

fabs(D1) returns 15

Returns e raised to the specified power.

exp(D1) returns 7.39

Natural logarithm of the specified parameter (base number neper).

ln(P2) returns 2.71

Returns the logarithm of the specified parameter (base number 10).

log(D1) returns 2

Returns the square root of the specified parameter.

sqrt(D1) returns 4

mod(dividend, divider)

Modulo

mod(D1, 5) returns 1

pow(base number, power)

Returns base number raised to the specified power.

exp(power) ln(parameter)

log(parameter)

sqrt(parameter)

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if D1 = -15

if D1=2 if P2=15

if D1=100

if D1=16

if D1=16 pow(D1, D2) returns 9 if D1=3 D2=2

Name

Description

Example hypot(D1, D2) returns 5

hypot(side1,side2)

if D1=3 D2=4

side1 hypotenuse side2 n!()

Factorial

n!(4) returns 24 (=1*2*3*4)

round(parameter, accuracy)

Round off according to given accuracy.

round(P1, 0.1) returns 10.600 if P1=10.567

fMarketSize(materi al, thickness, extrastep)

Returns the next available market size for the material from the marketsize.dat file, based on the thickness you specify.

fMarketSize("S235JR", 10, 0) See also Using market sizes.

Insert the material in the parentheses. For extrastep enter a number to define the increment to the next size (default is 0).

Statistical functions The statistical functions are:

Example (P1=1.4 P2=2.3)

Name

Description

ceil()

Returns the smallest whole number greater than or equal to the specified parameter.

ceil(P1) returns 2

floor()

Returns the largest whole number less than or equal to the specified parameter.

floor(P1) returns 1

min()

Returns the smallest of specified parameters.

min(P1, P2) returns 1.4

max()

Returns the largest of specified parameters.

max(P1, P2) returns 2.3

sum()

Sum of specified parameters

sum(P1, P2) returns 3.7


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Example (P1=1.4 P2=2.3)

Name

Description

sqsum()

Sum of squared parameters: (parameter1)2 + (parameter2)2

sqsum(P1, P2) returns 7.25

ave()

Average of parameters

ave(P1, P2) returns 1.85

sqave()

Average of squared parameters.

sqave(P1, P2) returns 3.625

Data type conversions Conversion functions perform conversions between the three ed data types, integers, doubles and strings.

Name

Description

int()

Conversion to integer. This is useful especially for calculating profile dimensions: 100.0132222000 -> 100

double()

Converts data to a double

string()

Converts data to string

imp()

Converts imperial units to millimeters

imp (1,1,1,2) meaning 1 foot 1 1/2 inches returns 342.90 mm imp(1,1,2) meaning 1 1/2 inches returns 38.10 mm imp(1,2) meaning 1/2 inches returns 12.70 mm imp(1) meaning 1 inch returns 25.40 mm

vwu(value , unit)

Converts the value to millimeters. The available units are:

• • • • • • •

vwu(4.0, "in") returns 101.6 mm

"ft" ("feet", "foot") "in" ("inch", "inches") "m" "cm" "mm" "rad" "deg"

String operations Include string parameters inside double quotation marks within the argument list of string operations.

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Name

Description

match(parameter1 , parameter2)

Returns 1 if parameters are equal and 0 if different. You can also use wildcards *, ?, and [ ] with the match function.

Example (P1="PL100*10") match(P1, "PL100*10") returns 1 Accept all profiles starting with PFC: match(P4, "PFC*") Accept profiles starting with PFC, and height starts with 2,3,4 or 5: match(P4, "PFC[2345]*") Accept profiles starting with PFC, heights are 200,300,400 or 500 and width starts with 7: match(P4, "PFC[2345]00?7")

length(parameter)

Returns the number of characters in the parameter.

length(P1) returns 8

find(parameter, string)

Returns the order number (starting at zero) of the specified string and -1 if the specified string is not found from the parameter.

find(P1, "*") returns 5

getat(parameter, n)

Returns the n:th (starting at zero) character from the parameter.

getat(P1, 1) returns "L"

setat(parameter, n, character)

Sets the n:th (starting at zero) character to the specified character in the parameter.

setat(P1, 0, "B") returns "BL100*10"

mid(string, n, x)

Returns x characters from the given string starting from n:th (starting at zero) character. If you leave out the last argument (x), returns the last part of the string.

mid(P1,2,3) returns

Reverses the given string.

reverse(P1) returns

reverse(string)

"100"

"01*001LP" When you handle strings in formulas, you must use quotation marks. For example, to define profile size PL100*10 with two variables P2=100 and P3=10 enter the formula as follows: ="PL"+P2+"*"+P3

Tekla Structures handles bolt spacings as strings. To define bolt spacing, select variable type to distance list and enter the formula like this: =P1+" "+P2 This results in 100 200, if P1=100 (length) and P2=200 (length).


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Trigonometric functions You can include trigonometric functions in the formulae. Be sure to include the unit using the following prefixes. If you do not include a prefix, Tekla Structures uses radians as the default unit:

• •

d is degree. For example sin (d180) r is radians (Default). For example sin (r3.14) or sin (3.14)

Name

Description

sin()

Sine

cos()

Cosine

tan()

Tangent

asin()

Inverse function of sin(), return value in radians

acos()

Inverse function of cos(), return value in radians

atan()

Inverse function of tan(), return value in radians

sinh()

Hyperbolical sine

cosh()

Hyperbolical cosine

tanh()

Hyperbolical tangent

atan2(,)

Returns the angle whose tangent is the quotient of two specified numbers. Return value in radians

Framing condition functions The following functions return the skew, slope, and cant angle of the secondary beam relative to the main part (column or beam).

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Name

Description

Example

fAD("skew", ID)

Returns the skewed angle of the secondary part, whose ID is given.

fAD("skew", 12345) returns 45 where 12345 is the ID of the secondary part, which is in 45 degree angle to main part.

Beam to column

Name

Description

Example

fAD("slope", ID)

Returns the sloped angle of the secondary part, whose ID is given.

fAD("slope", 12345)

fAD("cant", ID)

Returns the cant angle of rotated secondary part, whose ID is given.

fAD("cant", 12345)

Note that slope and skew are relative to a beam framing into a column.

Side view Top view Slope Skew Column Beam Beam to beam

If you are working with two beams, "slope" is actually the skew of the beam framing into the other beam, and the vertical slope of the beam relative to the main is actually the "skew" angle.


89

Side view Top view Skew Slope Beam Limitations

• •

These functions do not return positive and negative "slope" and "skew" values. So it is not possible to determine up or down "slope" and left or right "skew" with these functions. Maximum skew angle to return is 45 degrees.

2.5 Defining custom component properties This section explains how to add different properties for custom components. Topics

Adding an option to create parts (p. 90) Defining bolt size and standard (p. 91) Defining bolt group location (p. 92) Replacing a sub-component (p. 94) Changing the properties file (p. 96) Defining meshes in custom components (p. 97)

Adding an option to create parts To include an option to create or not create parts in a custom component properties dialog box: 1. 2. 3. 4.

90


In the Variables dialog box, add a new property Set the Value type to Yes/No, Set Visibility to Show Enter a Label to display in the custom component dialog box:

5.

In the custom component browser, link the property to a part:

6.

Save the custom component and exit the custom component editor. When you open the custom component properties dialog box, you now have the option to create or not create the part:

Defining bolt size and standard To add an option for selecting the bolt size in the custom component, you must add two options:

• •

Bolt size Bolt standard

They work together and cannot be used separately.


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To define the bolt size and standard options:

5.

on the Custom Component editor toolbar to open the Click the Variables icon Variables dialog box. Click Add twice. Now you have two variables P1 and P2. In the Value Type field, select Bolt size for P1 and Bolt standard for P2. Tekla Structures automatically adds the extensions "_diameter" and "_screwdin" to the name of the variables. Do not change these extensions. Change P2_screwdin to P1_screwdin. The prefix must be the same, otherwise the variables do not work. Modify P1_diameter label to "Bolt size" and P1_screwdin label to"Bolt standard".

6.

In the custom component browser, link the parameters to the bolt:

7.

Save the custom component and exit the custom component editor.

1. 2. 3.

4.

Defining bolt group location To define the vertical distance from the secondary beam top flange to the first bolt, we add the following option to the custom component dialog box.

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This option requires a distance that binds the bolt group handle to the secondary beam top flange and a parameter for inputting the value in the interface. 1.

Double-click bolts in the custom component editor view. The Bolt properties dialog box appears. Remove any dimensions from the Offset fields, then click Modify. Bolts will move to the same level with the first handle of the bolt group.

2.

Select the bolts, then select the top handle. Right-click and select Bind to plane from the popup menu.

3.

Select the top flange of the secondary beam.

4.

A new distance parameter D1 appears in the Variables dialog box.


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5.

6.

Click Add to add a new parameter P1. In the Formula field, change the distance value. In the Label in dialog box field, enter a suitable label, for example: "Vertical distance to bolt". In the Formula field of D1, type in the equation "=-P1".

7.

Save the custom component and exit the custom component editor.

Replacing a sub-component Use the Name property in the Custom component browser to replace a sub-component inside a custom component with another sub-component. In this example we have created a custom component that contains a pair of cast-in embeds as sub-components (castin1 and castin2):

Castin 1 Then we will replace castin1 with castin2. To do this: 1. 2. 3.

Select the custom component. Right-click and select Edit custom component from the pop-up menu to open the custom component editor. In the Variables dialog box, add a new parameter. • In the Formula field, enter the name of the sub-component, castin1.

• •

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Set Value type to Component name. Enter a name for the parameter in the Label in dialog box field and set Visibility to Show.

4.

In the Custom component browser, add the equation P1_name for both subcomponents:

The field Cast-in plate will appear in the dialog box of our custom component.


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To change the sub-component: 1. 2. 3.

Click the ... button next to the name field. The Select component dialog box opens. Select the component to use (in our case castin2) and click OK. In the custom component dialog box, click Modify. Tekla Structures changes the component in the model.

Castin 2

Changing the properties file Use the Attribute file property in the Custom component browser to use different properties files for sub-components in a custom component. To add the properties file field to the custom component dialog box:

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1. 2. 3.

Select the custom component. Right-click and select Edit custom component from the pop-up menu to open the custom component editor. In the Variables dialog box, add a new parameter. • In the Formula field, enter the name of the properties file (in our example, prop1).

• •

4.

Set Value type to Component attribute file. Tekla Structures automatically adds the extension _attrfile to the parameter name. Do not change this extension, but make sure that the prefix is the same as for the component name (in our example, P1). Enter a name for the parameter (in our example, Properties file) in the Label in dialog box field and set Visibility to Show.

In the Custom component browser, add the equation P1_attrfile for Attribute file.

To use another properties file for a sub-component, in the component’s dialog box, click the ... button next to the Properties file field, and then select the properties file from a list:

Defining meshes in custom components You can include rectangular meshes and change the mesh in your custom components.


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To define a rectangular mesh type in a custom component: 1.

3.

Create the mesh in the model or in the Custom component editor. See Reinforcement mesh (p. 154) for more information. In the Custom component editor, select the mesh, right-click, and select Properties... to open the Reinforcement properties dialog box. Click the Select button next to the Mesh: field to open the Select mesh dialog box:

4.

Copy the name of the mesh you want to use.

5.

on the Custom component editor toolbar to open the Click the Variables icon Variables dialog box. Click Add. In the Value Type field select the Text option. Paste the mesh you copied into the Formula field.

2.

6. 7. 8.

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9.

In the Custom component browser, add "=P1" after Catalog name in Component > Component objects > Reinforcement mesh > General properties.

to close the Custom Component editor. Tekla 10. Click the Close editor icon Structures prompts you to save your changes. Click Yes to save your changes. You have now defined the mesh in the Custom Component editor.


99

If the mesh is defined in the custom component, other mesh properties, for example, longitudinal diameters, override the properties defined in the mesh catalog, so do not use Catalog name and other mesh properties at the same time. To change the mesh in the custom component: 1. 2. 3. 4.

Select the mesh in the 3d view. Right-click and select Properties.... Copy and paste another mesh into the Parameter 1 field (in our example, the Mesh field). Click Modify to save your changes.

Creating surface treatments in custom components To create surface treatments in the Custom component editor: 1.

Select Outline planes on the toolbar instead of Boundary planes (which is the default).

2.

Click Detailing > Create Surface Treatment and select the command to create the surface treatment. Optional: To select the surface treatment, set on the Select surface treatments selection

3.

switch

. This switch is set off in the Custom component editor by default.

2.6 Managing and using custom components This section describes the custom component dialog box and explains how to use and manage custom components. Topics

Custom component dialog box (p. 100) Customizing the dialog box (p. 102) Using a custom component (p. 106) Managing custom components (p. 106) Performing actions on custom components (p. 108) Using Excel with custom components (p. 109) Using ASCII files with custom component (p. 109)

Custom component dialog box Tekla Structures automatically creates a dialog box when you define a custom component. By default the dialog box has a General tab for connections, details, and seams and a Position tab for parts.

100


Tekla Structures automatically creates tabs containing the parameters and distances you set to visible in the custom component editor. Tabs are named Parameter 1, Parameter 2, etc. Each tab can contain up to 25 fields. If you have more than 25 visible fields, Tekla Structures creates another tab. A typical custom component dialog box looks like this:

This information relates only to details For seams you can select whether to place a seam at the point you pick, or let Tekla Structures automatically place the seam.


101

To place the seam at the point you pick, select the Place to picked positions checkbox

To automatically place the seam, clear the Place to picked positions checkbox, and select one of the positioning options Tekla Structures creates an input file with the extension .inp for each dialog box in the model folder. You can modify the input file. See Customizing the dialog box (p. 102).

If you modify the input file, then edit and save the custom component dialog box using the custom component editor, you will lose the changes you made to the input file.

Customizing the dialog box To customize the dialog box that Tekla Structures creates for the custom component you need to modify the input file which defines the dialog box. The input file has the same name as the custom component and file extension inp. It is located in the model folder.

This topic is for advanced s. Take care when modifying an input file. Errors may cause the dialog box to disappear.

The input file is a text file that you can edit using any text editor, for example Notepad. You can customize the dialog box by:

• • • • • •

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Changing the order of fields (p. 103) Changing the location of fields (p. 103) Renaming tabs (p. 104) Adding more tabs (p. 104) Adding pictures (p. 105) Preventing modifications (p. 105)

To use the modified custom component dialog box, save the input file, then close and restart Tekla Structures.

Changing the order of fields To change the order of fields, in the input file, change the last number in the parameter definition, as shown below:

Change these numbers to change the order of fields (listed from to bottom of dialog box)

Changing the location of fields To change the location of fields, in the input file, change the last number in the parameter definition. Enter three numbers to define the exact location of the field in the dialog box: the x coordinate, y coordinate, and length of field. The example below shows these values for the second field in the dialog box:

x = 374


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y = 25 length = 160

Renaming tabs To rename a tab, change the tab definition in the input file. You can rename any tab except the General tab. In the example below, you would change the text Parameters 1 to the new tab name (for example, Parts):

Adding more tabs Each tab can contain 25 fields. If there are more than 25 visible fields, Tekla Structures creates another tab. You can also add tabs by modifying the input file. To add a second tab, edit the input file as shown below. to adjust the location of the fields, if necessary.

to adjust the field location

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The fourth tab is reserved for the General properties, so you cannot add your own parameter to it.

Adding pictures Add images to make your custom component easier to use. First create the image and save it as a bitmap file (file extension bmp) in the ..\Tekla Structures\ \nt\bitmaps folder. To add the image to the custom component dialog box, edit the input file as shown below:

y = 100 x = 50 height = 75 width = 100

The first pixel in the top left corner of a bitmap must be the same color (gray) as the background of the dialog box.

Preventing modifications Once the dialog box is ready, you can make the input file read-only to prevent accidental modifications. If the input file is not read-only, and someone else updates the custom component in the custom component editor, all your modifications to the input file will be lost. To make the input file read-only: 1. 2.

In Windows Explorer, browse to find the input file. Right-click the file and select Properties... .


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3.

Select the Read-only checkbox.

When an input file is read-only, and you try to update the custom component, Tekla Structures displays a warning message saying that the *.inp file is read-only and changes to it will not be saved. You have the following options:

• •

Click Cancel to return to the custom component editor. Click Continue to skip updating the *.inp file, but make all the other updates.

Using a custom component To use a custom component in a model: 1. 2. 3. 4. 5.

Use the keystrokes Ctrl + F to open the Component catalog dialog box. In the Search results list box, select Custom. Tekla Structures lists all custom components in the bottom pane. Double-click a custom component in the list to open it’s properties dialog box. Enter the properties you want to use and click Apply. Tekla Structures prompts you to pick the parts or points and parts needed to create the component.

Managing custom components Use the Component catalog to manage custom components. To open the Component catalog, use:

106

•

keystrokes Ctrl + F or

•

the Find a component icon on a components toolbar


To find all custom components, select Custom in the Search result list box All custom components have the Number -1 To view the properties of a custom component, double-click its name

Exporting and importing You can export custom components to a file, and then import the file into another model. Exporting

To export custom components to a file: 1. 2. 3.

Importing

Select the custom components in the component catalog. Right-click and select Export.... The Export components dialog box opens. Enter a name for the file in the Selection field. By default, the file extension is .uel and the file is located in the current model folder.

To import custom components from a file: 1. 2.

Right-click the list of custom components in the component catalog and select Import.... The Import components dialog box opens. Browse to find the exported file (*.uel), click the file name and then click OK.

If the custom component contains sketched cross sections, you need to export and import both the sketches and the component.

To automatically import all *.uel files from a folder when creating a new model, use the advanced option XS_UEL_IMPORT_FOLDER. After importing custom components, you can check from the Log file how many components were succesfully imported. To open the log file, click Tools > Display log file > Session History...


107

See also

Performing actions on custom components (p. 108)

Protecting custom components with s You can protect custom components with s. protection allows you to share components while protecting your work. To specify a for a custom component: Usage

1. 2.

Select the custom component you wish to protect and right-click. To open the Custom component editor, select Edit Custom Component on the pop-up menu.

3.

to display the In the Custom component editor, click the Display variables icon Variables dialog box. In the Variables dialog box, add a new parameter by clicking the Add button. In the Name column, enter . In the Formula column, enter the desired .

4. 5. 6. Result

After you have added this parameter, every time you try to edit this custom component Tekla Structures asks for the . Tekla Structures informs you about an incorrect . If you enter an incorrect , you cannot use the custom component editor to modify the component. Example

Performing actions on custom components Information regarding custom components is stored in the ComponentCatalog.txt file, located in the model folder. If the properties of the file are set to read-only, the following actions are not possible:

• • • • • • •

adding to favorites adding to search results changing picture deleting the custom component editing keywords importing the custom component removing from search results

In these cases Tekla Structures displays a warning dialog box and the action is cancelled. To change the properties of the file: 1. 2. 3.

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In Windows Explorer, browse to find the file. Right-click the file and select Properties.... Clear the Read-only checkbox.

Using Excel with custom components You can link Excel spreadsheets to custom components, for example, to check connections. For custom components, you need to add the property Use external design to the custom component dialog box.

Spreadsheet location

1.

Select the component, then right-click and select Edit custom component.

2. 3.

In the custom component editor, click to open the Variables dialog box. Click Add and enter the following information:

4.

Save the component and close the custom component editor. The custom component dialog box now contains the Use external design property.

The template spreadsheets are located in folder ..\Tekla Structures\ \environments\common\exceldesign. By default, Tekla Structures searches for the spreadsheet in the following order:

• • Spreadsheet name

From the model folder: ..\<model>\exceldesign\. From folder defined with advanced option XS_EXTERNAL_EXCEL_DESIGN_PATH

The name of the file must be component_*component name*.xls. For example component_custom1.xls for a custom component named custom1. For more information on the required Excel files, file locations and how to perform the connection check with Excel, see Using Excel in connection design (p. 57).

Using ASCII files with custom component You can use ASCII format files to get the default values from cold rolled files for custom components, for example. The format for reading files is following:

•

fVF(filename, key value of row, column number)

• • • • Example

Key value for row is a unique text value (for example, HEA300). Column value is an index (integer) starting from 1.

Function returns value as text. will define the correct type for parameter in editor.

For example, in the custom component editor, add function fVF("Overlap.dat", "MET202Z25", 4) in the Variables dialog box. The function gets the default value for bolt diameter 16.0 for profile MET-202Z25, from the Overlap.dat file.


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Key value of row Column number File search order

Tekla Structures searches for the files as system files in the following order:

• • • • •

model ..\TeklaStructuresModels\<model>\CustomComponentDialogFiles\ project (set with advanced option XS_PROJECT) firm (set with advanced option XS_FIRM) system (set with advanced option XS_SYSTEM)

Tips on working with custom components These tips will help you to efficiently create, save, and share parametric and non-parametric custom components: General

Use library profiles when possible. So you do not have to copy -defined profiles when you copy the component to other locations. Use short, logical names. Use the description field to describe the component and explain what it does. Store custom components together. It makes them easy to find and export. Consider creating a component model. Use this model to create and test custom components. Provide essential information. If you distribute your component to other s, to list the profiles it works with. to copy -defined profile cross sections with your custom component.

Creating nonparametric components

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Use the simplest part you can. For example, if all you need is a rectangular shape, use a rectangular plate, not a contour plate. Rectangular plates only have 2 handles, so you only need to create a few bindings or magnetic planes to manipulate them. Contour plates require more because they have 4 chamfers and handles, when you set the advanced option XS_DRAW_CHAMFERS_HANDLES to CHAMFERS or HANDLES.


Rectangular plate Contour plate Only model parts as accurately as you need. If the only part information required is a part mark on the GA drawing and a quantity on the materials list, create a simple bar or plate. If, later, you need to include it in a detailed view, simply re-model the part more accurately. Creating intelligent (parametric) components

Plan to use magnetic planes to bind objects together. This makes intelligent components simpler, and easier to use, because it reduces the number of dimensions and parameters the must enter. Model as many parts on the same plane as you can, and then use offsets to position them accurately.

Not using magnetic planes: Pick all 10 handles to bind the parts together Using 3 magnetic planes: Pick 3 points to bind the parts together (pick 1 point on each magnetic plane) Model embeds as custom parts and include them in components. Create simple components for specific situations. It is faster and easier to model simple components. They are also much easier to use. Avoid creating a ’super’ component to use in every possible situation.

2.7 Custom components reference This section consists of the reference pages for the custom component commands. The following table lists the commands used to define, create, and manage custom components.


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Command

Icon

Description

Detailing > Component > Define Custom Component... (p. 112)

Starts the custom component wizard which guides you through defining a custom component.

Display variables (p. 115)

Displays a list of distance and parameter variables.

Browser (p. 119)

Displays the custom component browser that shows the contents of a custom component in a hierarchical, tree-like structure.

Plane types (p. 120)

Defines which planes can be selected.

Construction plane (p. 121)

The command to create your own plane.

Custom component settings (p. 122)

Allows you to edit the type or the position of a custom component or add notes after you have created the component

Create distance (p. 123)

The command to create distance variables.

Create reference distance (p. 124)

The command to create variable reference distancies.

Automatic distances (p. 125)

Automatically generates distance variables for custom component objects.

Detailing > Component > Define Custom Component... Synopsis

This command defines a new custom component and saves it to a library for later use.

Preconditions

All the necessary objects (parts, cuts, fittings, bolts, etc.) must exist in the model, because you will need to select different objects, points etc. to define the custom component. See also Exploding components (p. 62).

Description

This command defines a simple custom component, which you can use in similar locations to where it was originally created. This component is not parametric and Tekla Structures does not adjust dimensions to suit any changes in the model. To create a parametric custom component, see Editing custom components (p. 69).

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Field

Description

More information

Type

Affects how the inserts the custom component into the model. Also defines if the custom component connects to existing parts.

Component types (p. 10)

Name

Unique name for the custom component. If the name already exists, the Next button is grayed out.

Description

Short description of the custom component. This will be shown in the component browser.

Field

Description

More information

Component identifier

To include this in drawings, include Code in the connection mark.

Mark elements

Up direction

The default up direction. Used only in connections and details.

Position type

Position (or origin) of the connection, relative to the main part.

Position type (p. 114)

Detail type

Determines on which side of the main part the detail is located. The options are:

Only affects asymmetric details (for example a one-side stiffener).

Intermediate detail - Tekla Structures creates all details on the same side of the main part. End detail - Tekla Structures creates all details on the side of the main part closest to the detail.

Only available for details and connections.

Definition point position in relation to primary part

The position you pick to create the detail, relative to the main part.

Allow multiple instances of connection between same parts

When checked, allows you to create many connections to the same main part, in different locations.

Only available for connections.

Exact positions

When you select this checkbox, Tekla Structures positions the seam based on the positions you pick in the model.

Only available for seams.

For connections, this determines where the connection is created, relative to the secondary part.

This is always possible for details.

If you clear this checkbox, Tekla Structures uses automatic seam recognition to position the seam. This is useful especially with warped seams. Use the center of the bounding box in positioning

Usage

1. 2. 3. 4. 5.

When you select this checkbox, Tekla Structures positions the custom part based on the center of its bounding box (the box which surronds the actual part profile).

Only available for parts.

Click Detailing > Component > Define Custom Component... to start the Custom component wizard. Select a Type and enter the other properties, then click Next. Select the objects that the custom component will create. Click Next. The next step differs depending on the Type you select in step 2: • For connections, select the main part, click Next, then select the secondary part(s).

•

For details, select the main part, and click Next. To position the detail by the main part, select Main part, and go to step 6. To position the detail by a reference point, select Reference point, and then pick a point.

• •

For seams, select the main part, click Next, then select the secondary part, click Next, then pick two points to indicate the seam location. For parts, pick one or two points.


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6. See also

Click Finish.

Defining a custom component (p. 62) Editing custom components (p. 69) Using a custom component (p. 106) Managing custom components (p. 106)

Position type Synopsis

Defines the position (or origin) of the custom component, relative to the main part. This command is available in the custom component wizard. Position type affects which type of main parts you can use the custom component with.

Preconditions Description

Determines the location of the objects the custom component creates, relative to main part. The options are:

•

Middle

Where the center lines of the main and secondary parts intersect.

•

Box plane

Where the main part box and the center line of the secondary part intersect.

•

Collision plane

Where the main part and the center line of the secondary part intersect.

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•

End end plane

Where the center line of the secondary part hits the end of the main part.

•

Gusset plane

Where the center lines of the main part and the first secondary part intersect. The x direction is perpendicular to the center line of the main part.

Display variables Synopsis

Shows all variables and lets you to add new parameter variables. You can also use it to manage distance and parameter variables. Tekla Structures uses variables with the following features:

• • • Preconditions

Custom Components (p. 61) Sketched cross sections Parametric modeling

To use this command, you must:

Feature

Preconditions

Custom components

• •

Description

Sketched cross sections

•

Parametric modeling

-

define a custom component, see Defining a custom component (p. 62) open the Custom component editor, see Custom component editor (p. 69) open the Cross section sketch editor, see Sketched cross sections

Variables are the properties of a custom component/sketch/parametric model. Use the Add button to add parameter variables. To add new distance variables, use the commands

• •

Create distance (p. 123) or Automatic distances (p. 125) for custom components. Sketch free distance, Sketch horizontal distance, or Sketch vertical distance for

sketched cross sections. Use the Delete button to delete selected parameters and distances. You define the following properties for a variable:


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Field

Description

More information

Variable name

A unique name for variable. Use this name to refer to the variable in the custom component/sketch/ model browser.

Custom component browser (p. 71)

Formula

Can contain a value or a formula. Copy values using the popup menu in the browser. See Custom component browser (p. 71).

Sketch Browser Creating parameters that use formulae (p. 81) Functions to use in formulas (p. 82)

Formulae begin with = Variable value

Shows the current value from the formula field.

Variable type

Distance or parameter.

Defining variables (p. 73) Adding dimensions to a sketched cross section

Usage

Value type

Defines the type of information to input.

Display variables (p. 115)

Visibility

Shows or hides the variable in the custom component/Select profile dialog box.

Custom component dialog box (p. 100)

Label

The field name in the custom component/Select profile dialog box. Maximum length is 30 characters.

Usage depends on the feature:

Feature

Usage

Custom components

• • • •

Sketched cross sections Parametric modeling Value types

Creating distance variables (p. 75) Creating reference distances (p. 77) Creating parameter variables (p. 80) Variables

-

The options are:

Value type

Description

Number

A whole (integer) number. Used for quantity and multiplier.

Length

A decimal (floating point) number. for lengths and distances. Length numbers have unit (mm, inch etc.) and are rounded to two places of decimals. Tekla Structures enables millimeter to inch conversion for the Length and Distance list types.

Text

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A text (ascii) string.

Value type

Description

Factor

A decimal value without a unit. You can set the number of decimals for the value type in Tools > Options > Options... > Units and decimals.

Angle

A special decimal number type for storing angles, stored to 1 place of decimals, in radians.

Material

A special data type linked to the material catalog. On input you can select material from the standard material dialog.

Profile

A special data type linked to the profile catalog. On input you can select profile from the standard profile dialog.

Bolt size

Special data types linked to the bolt catalog. Bolt size works with Bolt standard. They have fixed naming: Px_diameter and Px_screwdin. Do not change the fixed name.

Bolt standard

To automatically show values for these in the component’s dialog box, x must be the same for both, for example, P1_diameter and P1_screwdin.

Bolt type

For defining the bolt type (site/workshop) in the custom component dialog box. Linked to the Bolt type property of bolts in the Custom component browser.

Stud size

Special data types linked to the bolt catalog. Stud size works with Stud standard. They have fixed naming: Px_size and Px_standard. Do

Stud standard

not change the fixed name. To automatically show values for these in the component’s dialog box, x must be the same for both, for example, P9_size and P9_standard.

Distance list

For fields with several length values, such as bolt spacings.


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Value type

Description

Weld type

A special data type for selecting weld type.

Weld types Chamfer type

A special data type for defining the shape of a chamfer.

Welding site

A special data type for defining the welding place: workshop or building site.

Rebar grade

Special data types linked to reinforcement catalog. Rebar grade, Rebar size, and Rebar bending radius work together. They have fixed naming

Rebar size Rebar bending radius

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format: Px_grade, Px_size, and Px_radius where the x is a number. Do not change the fixed name. To automatically show values for these in the component's dialog box, x must be the same for all, for example, P1_grade, P1_size, and Px_radius.

Reinforcement mesh

For defining meshes in custom components. Linked to the Catalog name property of reinforcement meshes in the Custom component browser.

Component name

For replacing a subcomponent inside a custom component with another subcomponent. Linked to the Name property of objects in the Custom component browser.

Value type

Description

Component attribute file

For setting the properties of a subcomponent inside a custom component. Works with Component name using the format Px_name and Px_attrfile, where the x is a number. Do not change the fixed name. To automatically show values for these in the component's dialog box, x must be the same for both, for example, P2_name and P2_attrfile.

Yes/No

For defining whether or not Tekla Structures creates an object in a custom component. Linked to the Creation property of objects in the Custom component browser.

Browser Synopsis

This command shows the browser for the following features.

• • • Preconditions

Custom component: Custom component browser Sketched cross section: Display sketch browser Parametric modeling: Model browser

To open the browser:

Feature

Preconditions

Custom components

• •


Define a custom component, see Defining a custom component (p. 62) Open the Custom component editor, see Custom component editor (p. 69)

Open the Cross section sketch editor, see Opening the cross section sketch editor

Parametric modeling Click the Display model browser icon Tools toolbar. Description

in the

The browser shows the objects, their properties, and hierarchy included in the:

• • •

Custom component Sketched cross section Parametric model


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Usage

Usage depends on the feature:

Feature

Usage

Custom components

Custom component browser (p. 71)


Sketch Browser

Parametric modeling

Parametric modeling

Plane types Synopsis

This command changes the plane type.

Preconditions

Open the Custom component editor. See Custom component editor (p. 69).

Description

You need planes to define distance variables. For example, you can bind the reference point of a plate to the top plane of a beam. You can change the plane type when the Create distance command is active. See Create distance (p. 123). The table below shows an example of each plane type:

Plane type

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Example

Definition

Boundary planes

The edges of a box surrounding a profile.

Center planes

The center planes of a profile

Plane type

Example

Definition

Outline planes

The outer and inner surfaces of a profile.

Cut planes

If parts contain line, part, or polygon cuts, this option selects the cut surfaces. Fittings cannot be selected.

Component planes

Depends on which Position type the custom component originally had.

Grid planes

Shows grid planes. This plane type is only available in models and sketches.

Boundary and component planes work for most profile types, so try to use them whenever you can.

Usage

To see which planes are available in each group: 1. 2.

See also

Select a plane type from the Custom component toolbar. Move the mouse cursor over a component view. Tekla Structures highlights the available planes.


Construction plane Synopsis

This command creates a construction plane. If the plane is magnetic, the objects directly on it move with the plane.


121


You may occasionally need to define your own planes. For example, when you create special model parameters for floor height, building width, etc. Magnetic planes are also useful. You can use them to bind and move groups of objects. Rather than binding lots of handles and chamfers to faces, simply create a plane that goes through all the handles and chamfers. Then make this plane magnetic and bind the plane to the appropriate face. When you move the plane, the attached handles and chamfers move with it. The custom component editor contains many default planes, for more information see Plane types (p. 120).

Usage

To add a construction plane: 1. 2. 3.

Click the Create construction plane icon. Pick four points. Click the middle mouse button. Tekla Structures draws the plane.

4.

Double-click the plane in the model. The Construction plane properties dialog box appears. Type a name for the plane. Select Magnetic, if you want Tekla Structures to bind touching objects to the plane. When you move a magnetic plane, objects directly on that plane automatically move with it.

5. 6.

Tekla Structures only binds objects to the plane whose reference points are directly on the plane. By default the magnetic distance is 0.05 mm. To change this use the variable XS_MAGNETIC_PLANE_OFFSET.

7. See also

Click Modify.

Plane types (p. 120)

Custom component settings Synopsis

With this command you can go back and change the settings which you have used for defining a custom component.

Preconditions

To use this command in the Custom component editor, you must:

• • Description

Add notes Change the position Allow multiple instances

To add notes: 1.

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Open the Custom component editor, see Custom component editor (p. 69).

You can do the following changes after you have created a custom component:

• • • Usage

Define a custom component, see Defining a custom component (p. 62).


In the Customer component editor, click the Custom component settings icon.

2.

On the Type/Notes tab, insert the notes you want to add to the Description field.

To change the position type: 1. 2.

In the Customer component editor, click the Custom component settings icon. On the Position tab, change the Position type. Tekla Structures repositions the planes. The objects retain their relative position to the component planes, and they must be moved back into position manually.

In many cases you need to use a component inside another component, or make a complex connection out of simple connections. To apply multiple connections to the same main part, select the Allow multiple instances of connection between same parts checkbox. By default this checkbox is not selected. To allow multiple instances: 1. 2.

In the Customer component editor, click the Custom component settings icon. On the Advanced tab, select the Allow multiple instances of connection between same parts checkbox.

Create distance Synopsis

Creates a distance variable. You can create a distance variable from any of the following objects to a plane:

• • • • • • • Preconditions

construction plane reference points of parts (only custom component objects) reference points of bolt groups chamfers part cut handles line cuts fittings


• •

define a custom component, see Defining a custom component (p. 62) open the Custom component editor, see Custom component editor (p. 69)

To use this command in a model, click Modeling > Add Distance > Fixed. Description

Distances are dependencies that bind two parts together. You can also use distances to define part dimensions, bolt edge distances, gaps, etc. For example:


123

Distances These distances bind plate’s reference points to the top and bottom plane of a beam You define the following properties for distance variables:

Usage

Field

Description

Name

Name of the distance variable. Shown in the custom component dialog box.

Value

Numeric value of distance.

See Creating distance variables (p. 75). To see all distances included in the custom component, open the Variables dialog box. For more information, see Defining variables (p. 73).

See also

Automatic distances (p. 125) Plane types (p. 120)

Create reference distance Synopsis

Creates a variable reference distance between objects.

Preconditions


• •

define a custom component, see Defining a custom component (p. 62) open the Custom component editor, see Custom component editor (p. 69)

To use this command in a model, click Modeling > Add Distance > Reference. Description

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Use reference distances in calculations, for example, for determining the spacing of rungs in a ladder.


Usage

See Creating reference distances (p. 77). To see all distances included in the custom component, open the Variables dialog box. For more information, see Defining variables (p. 73).

See also

Plane types (p. 120) Creating distance variables (p. 75) Automatic distances (p. 125)

Automatic distances Synopsis

Creates distance variables for picked objects. The distance variables are created between the picked objects and the main and the secondary parts of a connection or a detail.

The command does not work with custom parts since they do not have a main part.

Preconditions

Open the Custom component editor (p. 69).

Description

This command attaches picked objects, or their reference points or handles, to existing planes, if the objects, or their reference points or handles, are located exactly on the plane. Tekla Structures creates distance variables from a maximum of three direction to existing planes. Tekla Structures selects planes in the following order:

Usage

• • •

Construction plane (p. 121)

1.

Click the Automatic distances icon.

Custom Components (p. 61) Plane types (p. 120)


125

2. 3. 4.

Pick any type of an object that has handles. Click the middle mouse button to complete the command. To check the created distances, open the Display variables (p. 115) dialog box.

For reinforcement you may have to remove some distances. If the last handle is bound to too many planes and the concrete cross-section enlarges, the other end of the reinforcement might not react to changes.

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3

Introduction

Reinforcement

Once you have created a model of concrete parts, you will need to reinforce the parts. This chapter explains how to create reinforcement in Tekla Structures. It also includes a general description of reinforcement properties and an overview of reinforcement commands.

Audience

This chapter is aimed at concrete detailers and designers.

Assumed background

Before you start to create reinforcement, you need to have concrete parts in your model, as explained in Concrete Detailing. Running the structural analysis as explained in Analysis and Design gives you the required area of reinforcement. Read Loads for instructions on how to create loads.

3.1 Getting started with reinforcement In Tekla Structures, you can use different methods to create reinforcement. You can create:

• • • • Concepts

Single reinforcing bars Reinforcing bar groups Reinforcement meshes Reinforcement components.

We recommend that you use reinforcement components to create reinforcement whenever possible. They are adaptive, attached to a concrete part, and updated automatically if the dimensions of the reinforced part change, for example. Then create additional reinforcing bars using other tools. Reinforcing bar groups consist of several identical, or very similar, bars. Tekla Structures

always treats these bars as a group, modifies them in the same way, deletes them all at the same time, etc. Reinforcement meshes include bars in two perpendicular directions, i.e. main bars and

crossing bars. Tekla Structures treats mesh bars as one unit but distinguishes the main and crossing bars.

TEKLA STRUCTURES 16 Reinforcement

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Reinforcement properties

Every reinforcement object has properties which define it (for example, grade, diameter or size, minimum bending radius). Use the reinforcement properties dialog boxes to view or modify the properties of reinforcement. Click Detailing > Properties > Reinforcement to open reinforcement properties dialog boxes, or double-click an existing reinforcement object in the model.

Filtering by properties

You can use reinforcement properties in filters. For example, you can select, modify, or hide reinforcing bars based on their properties.For more information, see Filtering objects.

In reports and drawings

You can include reinforcement properties and -defined attributes in drawing and report templates.

See also

Basic reinforcement properties (p. 128) Getting Started (p. 9) with Detailing

3.2 Basic reinforcement properties This section explains properties that are common to most types of reinforcement in Tekla Structures. Name

You can enter names for reinforcing bars. Tekla Structures uses names in reports and drawing tables.

Grade

The strength of the steel used in reinforcing bars. Can also indicate other factors, such as the weldability or surface deformations of the bar.

Size

Depending on the environment, the nominal diameter of the bar, or a mark that defines the diameter.

Bending radius

Complies with the design code you are using. Main bars, stirrups, ties, and hooks usually have their own minimum internal bending radii, which are proportional to the diameter of the reinforcing bar. The actual bending radius is normally chosen to suit the size of the mandrels on the bar-bending machine.

Bending types

Tekla Structures reinforcing bar bending types are recognized using internal bending type definitions. Internal bending types are hard coded to the software. However, these internal bending types are mapped to area specific reinforcing bar bending type codes in the rebar_schedule_config.inp file in the ..\Tekla Structures\ \environments\<environment>\system\ folder. This file can be localized to match local requirements. For more information on internal bending types, see Reinforcing bar bending types (p. 161).

Reinforcement catalog

Grade–size–radius combinations are predefined in the reinforcement catalog. You can select which catalog to use, and add, modify, and delete the information it contains. See The reinforcing bar catalog.

Select...

To define the grade, size, and bending radius of a reinforcing bar, click Select... next to the Grade, Size, and Bending radius fields in the Reinforcing bar properties dialog box. The Select reinforcing bar dialog box appears, showing the available bar sizes for the chosen grade. You can also define whether the bar is a main bar or a stirrup or tie:

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You can also enter the grade, size, and bending radius of individual reinforcing bars using the appropriate fields in the Reinforcing bar properties dialog box.

Class

Use Class to group reinforcement. To display reinforcing bars of different classes in different colors, click View > Representation > Object Representation... and select Color by class from the Color list box. For more information, see Color settings for parts.

Bar groups

Reinforcing bar groups mainly have the same properties as single reinforcing bars. They can also have the following extra properties:

• • • See also

Number of bars Spacing (see Spacing reinforcing bars (p. 132)) Tapering (see Tapered bar group (p. 151))

Hooks (p. 129) Concrete cover (p. 131) Spacing reinforcing bars (p. 132) Omitting reinforcing bars (p. 132) -defined attributes of reinforcement (p. 133) Meshes (p. 133) Numbering reinforcement (p. 147)

Hooks To add hooks to the ends of reinforcing bars for anchoring purposes, use the Hooks section of the Reinforcing Bar Properties dialog box, or the Hooks tab in the Reinforcement Mesh Properties dialog box:


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The options for the hook at the beginning and end of the bar are:

Option

Description No hook Standard 90-degree hook Standard 135-degree hook Standard 180-degree hook Custom hook

The reinforcement catalog contains predefined dimensions for all standard hooks (minimum bending radius, minimum hook length). See The reinforcing bar catalog. Custom hook

To manually define the angle, radius, and length of a hook, select the Custom hook option and enter values to the following fields in the Reinforcing Bar Properties dialog box:

Field

Description

Angle

Enter a value between – 180 and +180 degrees.

Radius

Internal bending radius of the hook. Use the same radius for the hook and for the reinforcing bar. If the hook and the reinforcing bar have different radiuses, Tekla Structures does not recognize the shape of the reinforcing bar.

Length

Length of the straight part of the hook. If the length is set to zero, no hooks are created.

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Angle Radius Length

Concrete cover Reinforcing bars need a concrete cover, to protect them against harmful elements, such as the weather and fire. When you create single bars, Tekla Structures uses the thickness of concrete cover to determine the position of the bar. You pick points to define the shape and plane of the bar. Cover thickness

Use the Cover thickness fields in the reinforcement properties dialog boxes to define concrete cover.

Example

To create a beam stirrup, pick the corner points on the cross-sectional end plane of the beam to define the bar shape and plane. The cover thickness on the plane is the distance from beam’s bottom, top, and side surfaces to the stirrup. The cover thickness from the plane is the distance from the end surface of the beam to the stirrup, and perpendicular to the bar plane.

Concrete cover

Description Concrete cover on the plane For example, the distances from a beam’s bottom, top, and side surfaces to a stirrup. To specify different concrete covers on the different legs of a reinforcing bar, enter a thickness value for each leg in the On plane field, in the order you pick points to create the bar. If you enter less values than there are bar legs, Tekla Structures uses the last value for remaining legs. Concrete cover from the plane For example, the distance from a beam’s end surface to the closest stirrup, perpendicular to the stirrup plane.

Leg length

At the start and end point of a reinforcing bar, you can also define the concrete cover in of cover thickness or leg length.

Option

Description Cover thickness

Defines the distance from the bar end to the concrete surface.

Leg length

Defines the length of the ultimate leg of the bar.

To define the length of an ultimate leg of a bar, use the Leg length option and the Snap to nearest points switch. Then pick anywhere on a part edge or line to indicate the direction for the bar leg.

Reinforcement components

When you use reinforcement components, Tekla Structures places the reinforcement using the dimensions of the part and the values in the Cover thickness field, or the graphic fields shown below:


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Spacing reinforcing bars Bar groups

There are several ways to distribute bars in a reinforcing bar group. To create a bar group, open the Reinforcing Bar Properties dialog box. On the Group tab, select an option from the Creation method list box. The options are:

See also

Option

Description

By exact spacing value with flexible first space

Creates fixed, equal spaces between the bars. The first space adjusts to even out bar distribution. Enter the spacing value in the Exact spacing value field. If the first space is less than 10% of the exact spacing value, Tekla Structures removes one bar.

By exact spacing value with flexible last space

Same as the first option, but the last space adjusts to even out bar distribution.

By exact spacing value with flexible middle space

Same as the first option, but the middle space adjusts to even out bar distribution. If there are an odd number of bars (two middle spaces), the other middle space adjusts to even out bar distribution.

By exact spacing value with flexible first and last space

Same as the first option, but both the first and last spaces adjust to even out bar distribution.

By exact spacings

Distributes the bars using the information you specify in the Exact spacing values field, so you can enter every spacing value manually. Use the multiplication character to repeat spacings, e.g. 5*200, to create five spaces of 200.

Equal distribution by number of reinforcing bars

Tekla Structures determines the spacing value based on the fixed number of bars. Enter the number in the Number of reinforcing bars field.

Equal distribution by target spacing value

Tekla Structures aims the spacing value as closely as possible at the value in the Target spacing value field and determines the number of bars compatibly.

Omitting reinforcing bars (p. 132)

Omitting reinforcing bars You may occasionally need to omit specific reinforcing bars. For example, when several reinforced areas intersect, causing reinforcing bars to overlap, or when you want to start bar distribution at a specific distance from the end of a part. To indicate which bars to omit, select an option from the Reinforcing bar(s) not to be created to the group list box:

•

132


None (all reinforcing bars included)


First Last First and last

Spacing reinforcing bars (p. 132)

-defined attributes of reinforcement Create -defined attributes to add information about reinforcing bars, bar groups, or reinforcement meshes. Attributes can consist of numbers, text, or lists. To create -defined attributes, click the -defined attributes button in the reinforcement properties dialog box. Use the field 1...4 fields to define the attributes you need. You can also change the name of these fields, and add new ones, by editing the objects.inp file. For more information, see Adding properties.

Meshes A reinforcement mesh consists of reinforcing bars in two directions. You can define the following properties.

Diameter 2 Spacing 2 Overhang Spacing 1 Diameter 1 Length Overhang Width Create mesh

Create mesh using the Detailing > Create Reinforcement > Reinforcement Mesh command or a component.

Mesh shape

Reinforcement meshes can be:


133

• • • Distribution pattern of bars

Rectangular Polygonal Bent

You can create meshes with unevenly-spaced bars. You can also define a different bar size or multiple different bar sizes for the longitudinal bars and the crossing bars. Multiple bar sizes enable pattern creation. For example, if you enter bar diameters 20 2*6 in the longitudinal direction, Tekla Structures creates a pattern with one size 20 bar and two size 6 bars. This pattern can be repeated in the mesh along the longitudinal direction.

For more information, see Customizing reinforcement meshes (p. 145). Mesh size

The way you define the size of the mesh depends on the shape of the mesh and how it was created:


Evenly-spaced rectangular meshes - manually define the size Polygonal and bent meshes - Tekla Structures automatically calculates the width and length Unevenly-spaced meshes - Tekla Structures calculates the size of the mesh using the values in the Distance(s), Left overhang, and Right overhang fields.

Reinforcement mesh (p. 154)

3.3 Working with reinforcement This section explains how to create, place, attach, and modify reinforcement. Topics

Placing reinforcement (p. 134) Attaching reinforcement to parts (p. 135) Modifying reinforcement (p. 135) Customizing reinforcement meshes (p. 145) Defining custom reinforcement components (p. 147) Numbering reinforcement (p. 147)

Placing reinforcement To place a reinforcing bar group, pick two sets of points: 1. 2.

The first set of points defines the plane of the first bar and the shape of a single bar in the group. Click the middle mouse button to end picking. Pick a second set of points to indicate the distribution direction and length of the bars.

To place reinforcement components, select the part to reinforce. See also Using reinforcement handles (p. 136).

134


Attaching reinforcement to parts Attach reinforcement to a part or cast unit when you want the reinforcing bars to follow the part or cast unit if it is moved, copied, deleted, etc. Tekla Structures automatically attaches a reinforcement to the part you pick before you place the reinforcement. You can also manually attach reinforcement to a part or cast unit.

You must attach reinforcement to a part or cast unit to have Tekla Structures merge automatic reinforcing bar marks. See What is automatic merging of reinforcement marks.

Attaching manually

Detaching

To manually attach reinforcement to a part or cast unit: 1. 2. 3.

Select the reinforcement to attach. Right-click and select Attach to Part from the pop-up menu. Select the part to attach the reinforcement to.

To detach reinforcement from a part: 1. 2.

Select the reinforcement to detach. Right-click and select Detach from Part from the pop-up menu.

Modifying reinforcement To modify a single reinforcing bar, bar group, or reinforcement mesh, double-click the reinforcement to open the properties dialog box. To modify the properties of a reinforcement component, double-click the blue modeling tool symbol (M). To update the reinforcing bar, bar group, reinforcement mesh, or component you selected, click Modify. Topics

Changing reinforcement shape (p. 135) Using reinforcement handles (p. 136) Using adaptivity (p. 137) Ungrouping a reinforcement (p. 139) Grouping reinforcements (p. 141) Adding points to a reinforcement (p. 142) Removing points from a reinforcement (p. 143) Splitting reinforcing bar groups (p. 144) Splitting reinforcing bars in a group (p. 144) Combining two reinforcing bars or reinforcing bar groups into one (p. 144) Exploding reinforcement (p. 144)

Changing reinforcement shape To change the shape of the reinforcement, you can:

• • • •

Add bar corners Remove bar corners Move bar and mesh corners Add points to reinforcing bars, bar groups, and bent meshes


135

• • •

Remove points from reinforcing bars, bar groups, and bent meshes Change the direction of the longitudinal mesh bars Change the distribution length of bar groups

Using reinforcement handles Tekla Structures uses handles to indicate:

• • •

The ends and corners of a reinforcing bar The distribution length of a bar group The corners and main bar direction of a mesh

When you select a reinforcement, the handles turn magenta. Examples

Here are some ways to use handles to modify reinforcement:

Handles to change group distribution length Handles to move bar corners

136


Handles to move mesh corners Handles to change main bar direction To use handles to modify reinforcement: 1. 2. 3.

Select the reinforcement to display its handles. Click the handle you want to move. Tekla Structures highlights the handle. Move the handle(s) like any other object. If Drag and drop is active, just drag the handle to a new position.

For more information, see Moving an object, Moving an object using drag-and-drop and Polygon cuts.

Using adaptivity Reinforcements follow the shape of the part also when their handles are located on the face or edge of the part. The following types of adaptivity are available:

• •

Fixed adaptivity: handles retain their absolute distances to the nearest part faces. Relative adaptivity: handles retain their relative distances to the nearest part faces in relation to the part’s overall size.

To modify the general adaptivity settings, go to Tools > Options > Options... > General. You can modify the adaptivity settings for each part separately. These modifications override the general settings. Example

•

Reinforcing bars in their original positions:


137

138

•

Fixed adaptivity:

•

Relative adaptivity:


Ungrouping a reinforcement You can ungroup reinforcing bar groups and reinforcement meshes. Only reinforcements where each reinforcing bar is in one plane can be ungrouped. To ungroup a reinforcement: 1. 2.

Click Detailing > Create Reinforcement > Ungroup. Select one of the reinforcing bars in a reinforcing bar group or in a reinforcement mesh. The reinforcing bar group is replaced with single reinforcing bars. The single bars get the same properties and offsets as the group. If you ungroup a reinforcement mesh, the offsets for single bars are zero.

Limitations

You cannot ungroup circular or curved reinforcing bar groups.


139

Example

Before ungrouping:

After ungrouping:

See also

Grouping reinforcements (p. 141) Reinforcing bar (p. 149) Reinforcing bar group (p. 150) Reinforcement mesh (p. 154)

140


Grouping reinforcements You can group single reinforcing bars and reinforcing bar groups. Only reinforcements where each reinforcing bar is in one plane can be grouped. All groups are created with exact spacings. Single reinforcing bars need to have the same bending shape. To group single reinforcing bars or reinforcing bar groups: 1. 2. 3. 4.

Limitations

Click Detailing > Create Reinforcement > Group. Select all the reinforcing bars or reinforcing bar groups that you want to group. Click the middle mouse button. Select one reinforcing bar or reinforcing bar group to copy the properties from. The new group gets the same properties as the selected reinforcing bar.

You cannot create circular or curved reinforcing bar groups by grouping.

Example

Before grouping:


141

After grouping:

See also

Ungrouping a reinforcement (p. 139) Reinforcing bar (p. 149) Reinforcing bar group (p. 150)

Adding points to a reinforcement You can modify the shape of a single reinforcing bar, reinforcing bar group, or a bent mesh by adding points to the reinforcement. To add points to a reinforcement: 1. 2. 3. 4. 5.

Select a single reinforcing bar, a reinforcing bar group, or a bent mesh. Click Detailing > Modify Polygon Shape. Pick the first existing polygon point (1). Pick new points (2, 3). Pick the second existing polygon point (4).

The new points are added to the reinforcement, and the shape of the reinforcement is modified.

142


Limitations

You cannot modify the shape of polygonal or rectangular meshes, or the shape of tapered reinforcing bar groups by adding points.

See also

Removing points from a reinforcement (p. 143) Modifying the shape of a polygon

Removing points from a reinforcement You can modify the shape of a single reinforcing bar, reinforcing bar group, or a bent mesh by removing points from the reinforcement. To remove points from a reinforcement: 1. 2. 3. 4. 5.

Select a single reinforcing bar, a reinforcing bar group, or a bent mesh. Click Detailing > Modify Polygon Shape. Pick the first existing polygon point (1). Pick the second existing polygon point (2). Pick a point to be removed (3 or 4). The point to be removed needs to be in between the two previously picked (1) and (2) points.

The points are removed from the reinforcement, and the shape of the reinforcement is modified.

Limitations

You cannot modify the shape of polygonal or rectangular meshes, or the shape of tapered reinforcing bar groups by removing points.

See also

Adding points to a reinforcement (p. 142) Modifying the shape of a polygon


143

Splitting reinforcing bar groups You can split normal and tapered reinforcing bar groups into two groups. 1. 2. 3.

Click Edit > Split. Select the reinforcing bar group. Pick two points to indicate where to split the group.

You cannot split reinforcing bar groups diagonally.

See also

Splitting reinforcing bars in a group (p. 144) Combining two reinforcing bars or reinforcing bar groups into one (p. 144)

Splitting reinforcing bars in a group You can split reinforcing bars in normal and tapered reinforcing bar groups using a split line. 1. 2. 3.

Click Edit > Split. Select the reinforcing bar group. Pick two points to indicate where to split the bars. Once split, each new reinforcing bar group retains the properties of the original group. For example, if the bars in the original group had hooks at both ends, bars in the new groups also have hooks at both ends. Modify the properties of the new groups if needed.

See also

Splitting reinforcing bar groups (p. 144) Combining two reinforcing bars or reinforcing bar groups into one (p. 144)

Combining two reinforcing bars or reinforcing bar groups into one You can combine two single reinforcing bars or reinforcing bar groups into one. Reinforcing bars can be combined if their end points are connected, or the bars are parallel and close to each other. However, in certain cases it is possible to combine reinforcements that are not connected nor parallel. The combined reinforcement gets the same properties as the first selected bar. To combine two single reinforcing bars or two reinforcing bar groups into one: 1. 2. 3.

Click Edit > Combine. Select the first single bar or bar group to be combined. Select the second single bar or bar group to be combined.

Limitations

You cannot combine Tapered N reinforcing bar groups.

See also

Splitting reinforcing bar groups (p. 144) Splitting reinforcing bars in a group (p. 144)

Exploding reinforcement Before you can modify or remove single bars in a reinforcement component, you need to use the Explode Component command to ungroup the bars that the reinforcement contains. To ungroup reinforcing bars: 1. 2.

144


Click Detailing > Component > Explode Component. Select the blue modeling tool symbol (M) on the reinforcement. Tekla Structures ungroups the reinforcing bars.

Reinforcement geometry validity Reinforcement creation or modification can result in invalid reinforcement geometry. For example, too big bending radius can cause invalid reinforcement geometry. The invalid geometry is visualized in the model. Tekla Structures displays a warning message, and draws a thin line between the reinforcement handles to show the invalid geometry. You can correct the reinforcement geometry by selecting the line and modifying the reinforcement properties. You can check the reinforcement geometry validity by running the command Tools > Diagnose & Repair Model > Dianose Model. The report lists the reinforcements with invalid geometry. If a model contains reinforcements with invalid geometry, the reinforcements are not shown in the drawings. The reinforcements become visible when the geometry is corrected. Limitations

Reinforcement geometry validity check does not work with circular or curved reinforcing bar groups.

Conceptual reinforcements Conceptual reinforcements can be created only with Steel Detailing and Engineering configurations. Engineers or detailers can model conceptual reinforcements that show the geometry of the reinforcements. Conceptual reinforcements look similar to detailed reinforcements but do not include the option to perform numbering. When you create a conceptual reinforcement, Tekla Structures displays a warning message noting that you cannot number the reinforcement. You can use the Inquire command to check whether the reinforcement is conceptual or detailed. Conceptual reinforcements can be converted to detailed reinforcements. You can convert individual conceptual reinforcements to detailed reinforcements in Full, Precast Concrete Detailing and Reinforced Concrete Detailing configurations. Detailed reinforcements can be converted to conceptual reinforcements in Steel Detailing and Engineering configurations. Modifying part properties does not automatically convert a detailed reinforcement to a conceptual one, or vice versa. For example, if you use the Engineering configuration and modify the model, detailed reinforcements do not convert back to conceptual reinforcements. See also

Converting conceptual reinforcements to detailed reinforcements (p. 145)

Converting conceptual reinforcements to detailed reinforcements Individual conceptual reinforcements that have been created with Steel Detailing or Engineering configuration can be converted to detailed reinforcements in Full, Precast Concrete Detailing, and Reinforced Concrete Detailing configurations. To convert conceptual reinforcements to detailed reinforcements: 1. Select the reinforcement. 2. Right-click and select Convert to detailed reinforcement. If you want to convert detailed reinforcements to conceptual reinforcements in Engineering or Steel Detailing configuration, right-click and select Convert to conceptual reinforcement. See also

Conceptual reinforcements (p. 145)

Customizing reinforcement meshes You can customize reinforcement meshes using the Select Mesh dialog box.


145

1. 2. 3. 4. 5. 6.

In the Reinforcement Mesh Properties dialog box, click the Select button next to the Mesh field to open the Select Mesh dialog box. In the Select Mesh dialog box, select a standard mesh from the mesh catalog and use it as a basis for the customized mesh. Modify the mesh properties. Enter a name for the mesh in the Selected mesh field. The default name is CUSTOM_MESH. Click OK to close the Select Mesh dialog box and to save the properties. To save customized mesh properties for later use, enter a name in the Save as field in the Reinforcement Mesh Properties dialog box and click the Save as button. To later use saved mesh properties in the Reinforcement Mesh Properties dialog box, select the name of the mesh properties in the Load list box and click the Load button.

Custom mesh properties

You can define the following properties for the customized reinforcement meshes:

Property

Description

Spacing method

Defines how the mesh bars are distributed. The options are:

•

Same distance for all: Use to create meshes with

•

Multiple varying distances: Use to create meshes with

evenly-spaced bars. unevenly-spaced bars. Distance(s)

Spacing values of longitudinal or crossing bars. If you select the Multiple varying distances spacing method, enter all spacing values, separated by spaces. You can use multiplication to repeat spacing values. For example: 2*150 200 3*400 200 2*150

Left overhang Right overhang

Extensions of longitudinal bars over the outermost crossing bars. Extensions of crossing bars over the outermost longitudinal bars.

Diameter

Diameter or size of longitudinal or crossing bars. You can define multiple diameters for the bars in both directions. Enter all the diameter values, separated by spaces. You can use multiplication to repeat diameter values. For example, 12 2*6 in longitudinal direction and 6 20 2*12 in crossing direction.

See also

Width

Length of crossing bars.

Length

Length of longitudinal bars.

Grade

The steel grade of the bars in the mesh.

Reinforcement mesh (p. 154) Meshes (p. 133)

146


Defining custom reinforcement components You can create customized reinforcement details and save them in the component catalog for later use. Preconditions

Create a concrete part and reinforce it in the way you want the reinforcement to appear in the custom component. You can create the reinforcement either by exploding and modifying an existing reinforcement component, or by creating the reinforcing bars individually.

Usage

1. 2.

Click Detailing > Component > Define Custom Component.... On the Type/Notes tab, select Detail in the Type list box, and enter a name for the custom reinforcement. Click Next. Select the reinforcing bars to use in the custom reinforcement and click Next. Select the main part and click Next. In DETAIL POSITION, select Main part to position the reinforcement by the main part. Click Finish.

3. 4. 5. 6. 7. Result

You have now defined a simple custom reinforcement component, which you can use in locations similar to the one where it was originally created. This component is not parametric and Tekla Structures does not adjust dimensions to suit any changes in the model. To create a parametric custom component, see Editing custom components (p. 69). See also

Using a custom component (p. 106) Detailing > Component > Define Custom Component... (p. 112) Exploding components (p. 62)

Numbering reinforcement Tekla Structures numbers reinforcement in the same way as it numbers parts. For more information, see Asg a numbering series to a part. This section contains information that you should consider when you plan reinforcement numbering. For more information on how to set up and carry out numbering, see Numbering the model. Topics

What affects reinforcement numbering (p. 147) How reinforcement affects part numbering (p. 148)

What affects reinforcement numbering Tekla Structures treats reinforcing bars as identical, and gives them the same number, if the following properties are the same:

• • • • • Defining identical bar geometry

Bar geometry Numbering series Size Grade Bending radius

Tekla Structures uses the values in the rebar_config.inp file in the ..\Tekla Structures\ \environments\<environment>\system\ folder to round bar dimensions up or down. For example, if you set the rounding accuracy for bar dimensions to 5 and rounding direction to up, Tekla Structures rounds all bar dimensions up to the nearest 5 mm. So, bars with dimensions of 131 mm and 133 mm would both round up to 135 mm. This gives them identical bar geometry. For more information, see Reinforcement settings for drawings.


147

Class

Class does not affect numbering. Tekla Structures gives the same number to identical reinforcing bars that belong to different classes.

-defined attributes

Tekla Structures treats reinforcing bars as different, and so numbers them differently, if the values of a -defined attribute differ. If a -defined attribute has the variable consider_in_numbering set to yes, Tekla Structures takes this -defined attribute into when numbering. For more information on defining -defined attributes, see Adding properties.

How reinforcement affects part numbering To force Tekla Structures to give otherwise identical concrete parts and cast units different numbers if they have different reinforcement: 1. 2. 3.

Click Drawings & Reports > Numbering > Numbering Settings.... In the Numbering Setup dialog box, select the Reinforcing bars checkbox. Click OK.

Cast unit numbering does not affect reinforcement numbering. For more information on cast units, see Cast units.

3.4 Single bars, bar groups, and meshes Tekla Structures includes the following tools to create single reinforcing bars, bar groups, and reinforcement meshes.

Command

148


Icon

Description

Reinforcing bar (p. 149)

Creates a single reinforcing bar.

Reinforcing bar group (p. 150)

Creates a reinforcing bar group.

Curved reinforcing bar group (p. 152)

Creates a curved reinforcing bar group.

Circular reinforcing bar group (p. 153)

Creates a circular reinforcing bar group.

Reinforcement mesh (p. 154)

Creates a reinforcement mesh.

Reinforcement strand pattern (p. 156)

Creates prestressed strands.

Reinforcement splice (p. 159)

s reinforcing bars or reinforcing bar groups together with reinforcement splices.

Reinforcement mesh array in area (89)

Creates an array of overlapped reinforcement meshes.

Lifting anchor (80)

Creates two lifting anchors or anchor groups for a concrete part.

Reinforcing bar Synopsis

This command creates a reinforcing bar.

Preconditions

Create the part to reinforce. Calculate the required area of reinforcement.

Description

Usage

Tekla Structures creates the reinforcing bar using the properties in the Reinforcing bar properties dialog box. The filename extension of a saved bar properties file is rbr.

Field

Description

More information

Series and Start no

The mark series of the bar.

Numbering reinforcement (p. 147)

Name

The -definable name of the bar.

Basic reinforcement properties (p. 128)

Size

The diameter of the bar or a mark defining it.

Grade

The steel grade of the bar.

Bending radius

The internal radius of the bends in the bar.

Class

Used to group reinforcement.

Shape

The shape of the hook.

Angle

The angle of the custom hook.

Radius

The internal bending radius of the standard or custom hook.

Length

The length of the straight part of the standard or custom hook.

Cover thickness on plane

The distances from the part surfaces to the bar on the same plane as the bar.

Cover thickness from plane

The distance from the part surface to the bar, or bar end, perpendicular to the bar plane.

Start

The concrete cover thickness or leg length at the first end of the bar.

End

The concrete cover thickness or leg length at the second end of the bar.

-defined attributes...

-defined reinforcement properties.

1. 2. 3. 4. 5. 6.

Hooks (p. 129)

Concrete cover (p. 131)

-defined attributes of reinforcement (p. 133)

Double-click the Create reinforcing bar icon. Enter or modify the bar properties. Click Apply or OK to save the properties. Select the part to reinforce. Tekla Structures attaches the bar to the part. Pick the starting point of the bar. Pick the other bar reference points.


149

7. See also

Click the middle mouse button to finish picking.

Reinforcing bar group (p. 150) Working with reinforcement (p. 134)

Reinforcing bar group Synopsis

This command creates a reinforcing bar group.

Preconditions


Description

A reinforcing bar group includes several identical, or very similar, reinforcing bars. You first define the shape of a single bar, then the direction in which Tekla Structures distributes the bars. Tekla Structures creates the reinforcing bar group using the properties in the Reinforcing bar properties dialog box. The filename extension of a saved bar group properties file is rbg.

150


Field

Description

More information

Series and Start no



Name



Size


Grade


Bending radius

The internal radius of the bar bends.

Class


Shape

The shape of the hook.

Angle

The angle of the custom hook.

Radius

The internal bending radius of the standard or custom hook.

Length

The length of the straight part of the standard or custom hook.


The distances from the part surfaces to the bar on the same plane as the bar.



Start

The concrete cover thickness or leg length at the first end of the bar.

End

The concrete cover thickness or leg length at the second end of the bar.

Hooks (p. 129)


Field

Description

More information




Creation method etc.

How to create the bar group.

Spacing reinforcing bars (p. 132) Omitting reinforcing bars (p. 132)

Additional actions

Tapered bar group (p. 151) Usage

1. 2. 3. 4. 5. 6. 7. 8. 9.

Tapered bar group

To create a tapered bar group: 1. 2. 3.

Double-click the Create reinforcing bar group icon. Enter or modify the bar group properties. Click Apply or OK to save the properties. Select the part to reinforce. Tekla Structures attaches the bar group to the part. Pick the bar starting point. Pick the other bar reference points. Click the middle mouse button to finish picking. Pick the starting point of the bar group. Pick the end point of the bar group.

Double-click the Create reinforcing bar group icon. Enter or modify the bar group properties. On the Group tab, select an option from the Bar group type list box:

Option

1. 2. 3. 4.

Description Normal

Not tapered.

Tapered

One bar dimension changes linearly in the group.

Tapered ridge

One bar dimension changes linearly. The dimension is longest in the middle of the group.

Tapered curved

One bar dimension changes along a curve. The dimension is longest in the middle of the group.

Tapered N

One bar dimension changes linearly between N ridges. Enter the number of ridges in the Number of cross sections field.

Spiral

The reinforcing bars rise in a polygonal or circular shape along the longitudinal axis of the part.

Click Apply or OK. Select the part to reinforce. Tekla Structures attaches the bar group to the part. Pick points to define the shape of the bar at the first cross section. Click the middle mouse button to finish picking. For the second and subsequent cross sections, pick points to define the shape of the bar. Click the middle mouse button to finish picking.


151

If you select the Normal option, you only need to define bar shape and bar distribution length.

If you change the type of a tapered bar group, Tekla Structures adjusts the number of handles. You can then drag handles to modify the group.

Spiral bar group

To create a spiral bar group: 1. 2. 3. 4. 5. 6. 7.

See also

Double-click the Create reinforcing bar group icon. Enter or modify the bar group properties. On the Group tab, select Spiral from the Bar group type list box: Click Apply or OK. Select the part to reinforce. Tekla Structures attaches the bar group to the part. Pick points to define the shape of the bar at the first cross section. Click the middle mouse button to finish picking. For the second and subsequent cross sections, pick points to define the shape of the bar. Click the middle mouse button to finish picking.

Reinforcement mesh (p. 154) Working with reinforcement (p. 134) Curved reinforcing bar group (p. 152) Circular reinforcing bar group (p. 153)

Curved reinforcing bar group Synopsis

Creates a group of curved reinforcing bars.

Preconditions


Description

Tekla Structures creates the curved reinforcing bar group using the properties in the Reinforcing bar properties dialog box. See Reinforcing bar group (p. 150) for more information on the common properties in this dialog box.

Usage

To create a curved bar group: 1. 2. 3.

152


Double-click the Create curved reinforcing bar group icon. Enter or modify the reinforcing bar group properties. Click Apply or OK.

See also

4. 5.

Select the part to reinforce. Tekla Structures attaches the bar group to the part. Pick three points on an arc to define the curve:

6.

Pick two points to indicate the distribution direction of the bars:

Working with reinforcement (p. 134) Reinforcing bar group (p. 150) Circular reinforcing bar group (p. 153)

Circular reinforcing bar group Synopsis

Creates a group of circular reinforcing bars.

Preconditions


Description

Tekla Structures creates the circular reinforcing bar group using the properties in the Reinforcing bar properties dialog box. See Reinforcing bar group (p. 150) for more information on the common properties in this dialog box.


153

Usage

To create a circular bar group:

See also

1. 2. 3. 4. 5.

Double-click the Create circular reinforcing bar group icon. Enter or modify the reinforcing bar group properties. Click Apply or OK. Select the part to reinforce. Tekla Structures attaches the bar group to the part. Pick three points to define the circlular bars

6.

Pick two points to indicate the distribution direction of the bars.

Working with reinforcement (p. 134) Reinforcing bar group (p. 150) Curved reinforcing bar group (p. 152)

Reinforcement mesh Synopsis

This command creates a reinforcement mesh.

Preconditions


Description

You can create the following types of reinforcement meshes:

• • •

Rectangular Polygonal Bent

Tekla Structures creates the reinforcement mesh using the properties in the Reinforcement Mesh Properties dialog box. The filename extension of a saved mesh properties file is rbm.

154


Field

Description

More information

Prefix and Start no

The mark series of the mesh.


Name

The -definable name of the mesh.


Mesh

Select a mesh from the mesh catalog.

Meshes (p. 133)

You can also use a customized mesh.

Customizing reinforcement meshes (p. 145)

Grade

The steel grade of the bars in the mesh.


Class


Mesh type

The shape of the mesh. Select Polygon, Rectangle, or Bent.

Width

Meshes (p. 133)

For rectangular meshes, enter the width and length of the mesh.

Length Bending radius

For bent meshes, enter the bending radius.

Cross bar location

Defines whether the crossing bars are located above or below the longitudinal bars.

Cut by father part cuts

Defines whether the polygon or part cuts in the part cut also the mesh.

Meshes (p. 133)


The distance from the part surface to the main bars on the same plane as the bars.




Cover thickness start

Thickness of concrete cover or leg length from the mesh starting point.

Cover thickness end

Thickness of concrete cover or leg length at the end point of the bar. Used for bent meshes.




Hooks tab

The shape, angle, radius, and length of hooks at the start and end of the crossing mesh bars.

Hooks (p. 129)

The properties of standard meshes are defined in the mesh_database.inp file, located in the ..\Tekla Structures\ \environments\<environment>\ profil folder.


155

Usage

Rectangular To create a rectangular mesh: 1. 2. 3. 4. 5. 6. 7. 8.

Set the work plane parallel to the plane where you want to create the mesh. Double-click the Create reinforcement mesh icon. In the Mesh type list box, select Rectangle. Enter or modify the mesh dimensions and the other properties. Click Apply or OK to save the properties. Select the part to reinforce. Tekla Structures attaches the mesh to the part. Pick the starting point of the mesh. Pick a point to indicate the direction of the longitudinal bars. Tekla Structures creates the mesh parallel to the work plane, to the left of the points you picked.

Polygonal To create a polygonal mesh: 1. 2. 3. 4. 5. 6. 7. 8. 9.

Double-click the Create reinforcement mesh icon. In the Mesh type list box, select Polygon. Enter or modify the mesh properties. Click Apply or OK to save the properties. Select the part to reinforce. Tekla Structures attaches the mesh to the part. Pick the starting point of the mesh. Pick the corner points of the mesh. Click the middle mouse button to finish picking. Pick two points to indicate the direction of the longitudinal bars.

Bent To create a bent mesh:

1. 2. 3. 4. 5. 6. 7. 8. 9. 10. See also

Double-click the Create reinforcement mesh icon to open the Reinforcement Mesh Properties dialog box. In the Mesh type list box, select Bent. Enter the bending radius. Enter or modify the other mesh properties. Click Apply or OK to save the properties. Click the Create reinforcement mesh icon. Select the part to reinforce. Tekla Structures attaches the mesh to the part. Pick points to indicate the bending shape of the crossing bars. Click the middle mouse button to finish picking points. Pick two points to indicate the length and direction of the longitudinal bars.

Working with reinforcement (p. 134)

Reinforcement strand pattern Synopsis

156

This command creates prestressed strands for concrete parts.



Tekla Structures creates straight or deflected strands based on the strand profile you indicate using the properties in the Reinforcing bar properties dialog box.

Field

Description

More information

Series and Start no



Name



Size


Grade


Bending radius

The internal radius of the bar bends.

Class


Pull per strand

The pull per strand (kN).

Number of cross sections

Defines the number of cross sections of the strand pattern.




Debonded strands

Enter the strand number in this field. The strand number is the picking order number of the strand.

Debonding strands (p. 158)

From start

Enter the length of the debonding. If you select the Symmetry checkbox, values in fields From start and From Middle to start are copied to From end and Middle to end fields.

Middle to start Middle to end From end

Symmetry

Usage

Defines if the end and start lengths are symmetrical.

To create prestressed strands for a concrete part: 1. 2. 3.

Double-click the Create reinforcement strand pattern icon. Enter or modify the strand properties. In the Number of cross sections field, enter a number based on the strand profile. For example:


157

Strand profile

Number of patterns 1

2

3

4

4. 5. 6. 7. 8.

Define the lenghts of the debonding zones. Click Apply or OK. Click the Create reinforcement strand pattern icon. Pick the part you are creating strands for. Pick points to position the strands (for example, at the end of a part): The points you pick define the first cross section. Click the middle mouse button to finish picking.

9.

If you chose to create a single cross section, pick two points to define the length of the strands. Click the middle mouse button to finish picking.

10. If you chose to create two or more cross sections, for each cross section, pick points to indicate the strand positions. Pick the strand positions in the same order as for the first cross section. After each cross section, click the middle mouse button to finish picking. Debonding strands

158

To debond strands: 1. 2. 3.


Double-click the Create reinforcement strand pattern icon. On the Debonding tab, enter the debonding properties. Click Add button to create a new row in the table.

4.

Enter the strand numbers in the Debonded strands field. The strand number is the picking order number of the strand: • To set the same values for all the strands, enter all the strand numbers, separated by a space (e.g. 1 2 3 4). • To set separate values for each strand, click Add to add a new row, then enter the strand number in the Debonded strands field.

5.

Define the debonded lengths: • To set symmetrical lengths, select the End lengths = start lengths checkbox and only enter values in the From start or Middle to start fields. Debonding lengths:

6.

Click Modify and Apply. Tekla Structures displays the debonded section of the strand in red in rendered views, or as a broken line in wire frame views.

Debonded strands appear as broken lines in drawings. See also

Working with reinforcement (p. 134) Reinforcing bar group (p. 150)

Reinforcement splice This command s reinforcing bars or reinforcing bar groups together with reinforcement splices. Preconditions

Create the reinforcing bars or bar groups to . There can be a gap between them.

Description

Tekla Structures creates the reinforcement splice using the current properties in the Reinforcement Splice Properties dialog box. The filename extension of a saved splice properties file is rsp.

Field

Description

More information

t type

The type of the splice. The options are:

Lap left creates the lap to

• • • • • Lap length

Lap right Lap left Lap both Muff t Welded t

the direction of the first reinforcing bar or bar group selected, Lap right to the direction of the second. Lap both centers the lap between the bars or bar groups.

The length of the lap t.


159

Usage

Field

Description

Offset

The offset of the splice center point from the point where the bars originally met.

Bar positions

Defines whether the lapping bars are on top of each other or parallel to each other.

1. 2. 3. 4. 5. 6.

More information

Click Detailing > Properties > Reinforcement > Reinforcement Splice.... Enter or modify the splice properties. Click Apply or OK to save the properties. Click Detailing > Create Reinforcement > Reinforcement Splice. Select the first reinforcing bar or bar group. Select the second reinforcing bar or bar group.

Tekla Structures indicates reinforcement splices in the model using blue splice symbols:

If needed, you can move the splice along reinforcing bars. To move the splice: 1. 2. 3.

160


Select the splice symbol. Right-click and select Move. Pick an origin and a destination point for the splice.

4

Reinforcing bar bending types

Tekla Structures recognizes different reinforcing bar bending shapes and assigns bending type identifiers to them. The table below lists these reinforcing bar bending types. If Tekla Structures does not recognize the shape of a reinforcing bar, it assigns the UNKNOWN bending type to it. The bending type identifiers in the table below are internal, hard-coded types of Tekla Structures. The leg dimensions (D1, D2, etc.) and bending angles (A1, A2, etc.) of reinforcing bars are internal dimensions and angles. You can map internal types, for example, to countryor project-specific types, and internal dimensions and angles to specific template attributes. You do this in the rebar_schedule_config.inp file. See Reinforcement in templates (p. 182). Reinforcing bar bending dimensions are calculated so that the leg dimensions (D1, D2, etc.) follow the outer edge, or the edge extension, of the reinforcing bar. The total length is calculated according to the center line of the reinforcing bar. The magenta points in the images represent the points you pick in the model when you create reinforcing bars.

Type

Image

1 2_1

Requires standard bending radius. 2_2

Non-standard bending radius.

TEKLA STRUCTURES 16 Reinforcing bar bending types

161

Type 3_1

3_2

4

4_2

4_3

4_4

5_1

5_2

162


Image

Type

Image

5_3

6_1

6_2

7

8

9

Requires 180 degree hook. 10


163

Type

Image

11

D1 = Radius from center of circle to the center line of reinforcing bar. 12

13

Can also be modeled using hooks at both ends (i.e. model D1 and D5 using 90 degree hooks). 14

Requires 90 degree hooks at both ends. 14_2

164


Type

Image

14_3

14_4


Recognized when the start point and end point are in the same location and no hooks are used. If XS_REBAR_RECOGNITION_HOOKS_CONSIDERATION is set to FALSE, reinforcing bars with hooks (types 14 and 48) are recognized as 14_5. 15

Requires hooks at both ends.


165

Type 16_1

16_2

17

18

19

20_1

166


Image

Type

Image

20_2

21

22

23

24

25

26

Requires 180 degree hooks at both ends.


167

Type

Image

27

Requires 90 degree hooks at both ends. 28



29_3

29_4

168


Type

Image

29_5

30




33



169

Type

Image

34

35


Requires 180 degree hook. 36_2

Can also be modeled using hooks at both ends. 36_3

Can also be modeled using hooks at both ends.

170


Type

Image

37


Requires 180 degree hook at one end and 90 degree hook at the other end. 38_2

39

40





171

Type

Image

43

43_2

44

Requires hooks at both ends. 44_2



172


Type

Image

45_2

Requires 180 hooks at both ends. 46

Requires hooks at both ends. 47





173

Type

Image

48_3

49

D1 = Reinforcing bar center line diameter. 49_2

50



174


Type

Image

52




56

57

58


175

Type

Image

59

60

61


61_3


Requires hook.

176


Type

Image

63

Requires hook. 64


65



177

Type 65_2

66

67

67_2

68

178


Image

Type

Image

69_1

69_2

70_1

70_2

71

72


179

Type 73_1

73_2

73_3

74

75_1

180


Image

Type

Image

75_2

76

77

78

79_1


181

Type

Image

79_2

80

UNKNOWN

For example:

4.1 Reinforcement in templates Audience

This topic is aimed at Tekla Structures s who need to localize reinforcing bar bending types or to create templates for reinforcing bar bending schedules.

Reinforcement templates

You can show dimensions, bending angles, and bending types of reinforcing bars in drawings and reports by including reinforcement-specific attributes, such as DIM_A, ANG_S, SHAPE, and SHAPE_INTERNAL, in template fields. For more information on creating templates, see the Template Editor (TplEd) online help.

Mapping dimensions

Use the rebar_schedule_config.inp file in the ..\Tekla Structures\ \environments\<environment>\system folder to map:

• •

Tekla Structures internal reinforcing bar dimensions and angles with specific template attributes Tekla Structures internal reinforcing bar bending types with specific bending types

These mappings are environment-specific by default. You can modify them to suit your company or project needs. You can use equations, functions, and if statements to calculate the dimensions and angles you need to show.

182


Use any standard text editor (for example, Notepad) to edit the rebar_schedule_config.inp file. Examples

The following example of the rebar_schedule_config.inp file maps the internal bending type 5_1 to the bending type identifier E, and the leg dimensions and bending angles to specific template attributes:

rebar_schedule_config.inp (Example 1) BEND_TYPE_5_1[1]="E" BEND_TYPE_5_1[2]="DIM_A=D1" BEND_TYPE_5_1[3]="DIM_B=D5" BEND_TYPE_5_1[4]="DIM_C=D2" BEND_TYPE_5_1[5]="DIM_TD=TD" BEND_TYPE_5_1[6]="ANG_U=A1" BEND_TYPE_5_1[7]="ANG_V=A2"

With this mapping, the internal bending type 6_2 becomes XY, and the template attributes DIM_B and DIM_C will show the horizontal and vertical dimensions of the second leg D2, and DIM_E and DIM_F the horizontal and vertical dimensions of the fourth leg D4:

rebar_schedule_config.inp (Example 2) BEND_TYPE_6_2[1]="XY" BEND_TYPE_6_2[2]="DIM_A=D1" BEND_TYPE_6_2[3]="DIM_B=D2*COS(A2*PI/ 180)" BEND_TYPE_6_2[4]="DIM_C=D2*SIN(A2*PI/ 180)" BEND_TYPE_6_2[5]="DIM_D=D3" BEND_TYPE_6_2[6]="DIM_E=D4*COS(A1*PI/ 180)" BEND_TYPE_6_2[7]="DIM_F=D4*SIN(A1*PI/ 180)" BEND_TYPE_6_2[8]="DIM_G=D5" BEND_TYPE_6_2[9]="DIM_TD=TD"

The following example maps the internal bending type 4 to the bending type identifier A if the dimensions D1 and D3 are the same. Otherwise it maps 4 to B:

rebar_schedule_config.inp (Example 3) BEND_TYPE_4[1]=if (D1==D3) then ("A") else ("B") endif BEND_TYPE_4[2]="DIM_A=D1" BEND_TYPE_4[3]="DIM_B=D2" BEND_TYPE_4[4]="DIM_C=D3" BEND_TYPE_4[5]="DIM_TD=TD"

If Tekla Structures does not recognize a reinforcing bar bending shape, it uses the internal bending type UNKNOWN for it. In the rebar_schedule_config.inp file you can also define how unknown bending types appear in drawings and reports. For example, you may just want to use the bending type identifier ???, and list all leg dimensions and bending angles:


183

rebar_schedule_config.inp (Example 4) BEND_TYPE_UNKNOWN[1]="???" BEND_TYPE_UNKNOWN[2]="DIM_A=D1" BEND_TYPE_UNKNOWN[3]="DIM_B=D2" BEND_TYPE_UNKNOWN[4]="DIM_C=D3" BEND_TYPE_UNKNOWN[5]="DIM_D=D4" BEND_TYPE_UNKNOWN[6]="DIM_E=D5" BEND_TYPE_UNKNOWN[7]="DIM_F=D6" BEND_TYPE_UNKNOWN[8]="ANG_S=A1" BEND_TYPE_UNKNOWN[9]="ANG_T=A2" BEND_TYPE_UNKNOWN[10]="ANG_U=A3" BEND_TYPE_UNKNOWN[11]="ANG_V=A4" BEND_TYPE_UNKNOWN[12]="DIM_TD=TD"

See also

DIM_A ... DIM_G, DIM_H1, DIM_H2, DIM_I, DIM_J, DIM_K1, DIM_K2, DIM_O, DIM_R, DIM_TD, DIM_X, DIM_Y ANG_S, ANG_T, ANG_U, ANG_V SHAPE SHAPE_INTERNAL Reinforcing bar bending types (p. 161)

184


Index a acos.............................................................................. 88 adaptivity reinforcement ...................................................... 137 add anchor rod ............................................................. 25 base plate.............................................................. 25 beam to column connection .................................. 26 adding points bent mesh ........................................................... 142 reinforcement ...................................................... 142 reinforcing bar ..................................................... 142 reinforcing bar group ........................................... 142 anchor rods add ........................................................................ 25 anchoring hooks ......................................................... 129 asin............................................................................... 88 assemblies defining.................................................................. 33 atan .............................................................................. 88 atan2 ............................................................................ 88 attaching reinforcement to parts ......................................... 135 AutoConnection using...................................................................... 42 automatic distances.................................................... 125 automatic properties..................................................... 14 ave................................................................................ 85

b base plate add ........................................................................ 25 beam profiles selecting ................................................................ 30 beams connect to column ................................................. 26

bending radius ............................................................128 bent mesh adding points .......................................................142 removing points ...................................................143 bind to plane .................................................................75 binding using magnetic planes .....................................79 bolt assemblies defining in connections..........................................41 bolts bolt group orientation.............................................36 bolt group pattern ..................................................37 bolt position ...........................................................37 bolt spacing ...........................................................36 defining........................................................... 33, 35 deleting..................................................................40 edge distance ........................................................37 increasing bolt length ............................................35 number of ..............................................................36 overview of properties on the bolts tab..................33 Boundary plane ..........................................................120 box plane ....................................................................114 browser.......................................................................119

c cast-in-place ............................. 139, 141, 142, 143, 144 cast-in-situ ................................ 139, 141, 142, 143, 144 ceil ................................................................................85 CIP............................................ 139, 141, 142, 143, 144 collision plane .............................................................114 columns connect to beam....................................................26 combining reinforcing bar .....................................................144 reinforcing bar group ...........................................144 component catalog .......................................................17 component design checking ................................................................16

TEKLA STRUCTURES 16

185

components concepts ................................................................10 conceptual .............................................................27 copying ..................................................................22 creating view..........................................................27 detailed ..................................................................27 dialog box ..............................................................11 publish in catalog...................................................22 symbols .................................................................19 thumbnails .............................................................21 types ......................................................................10 using excel.............................................................57 viewing...................................................................27 conceptual components......................................... 27, 28 conceptual reinforcement ...........................................145 concrete cover ............................................................131 connect beam to column .....................................................26 connection library, see component catalog ..................17 Connection plane........................................................120 connections beam to column .....................................................26 defining bolt assemblies ........................................41 construction planes.......................................................79 copying components ...........................................................22 cos ................................................................................88 cosh ..............................................................................88 creating distance ...............................................................123 custom component settings ................................................................122 custom component browser........................................119 custom component settings ........................................122 custom component wizard ............................................62 custom components browser..................................................................71 defining ......................................................... 62, 112 editor......................................................................69 exporting and importing .......................................107 interface...............................................................100 .............................................................108 properties...............................................................68 protecting.............................................................108 tips on working with .............................................110 types ......................................................................66 using ....................................................................106 custom connections ......................................................62 custom details...............................................................62 custom reinforcement meshes....................................145 customizing reinforcement.............................................. 145, 147

186

TEKLA STRUCTURES 16

d default properties ..........................................................14 default values setting with the ts.def file..................................46 Design tab.....................................................................16 Design type tab .............................................................16 detailed components.............................................. 27, 28 detailed reinforcement ................................................145 distance.........................................................................75 reference distance .................................................77 distance variable .........................................................123 double ...........................................................................86

e edge distance bolts .......................................................................37 end end plane .............................................................114 Excel .............................................................................58 excel example .................................................................58 using for components ............................................57 using with custom components............................109 Excel.vb ........................................................................58 exp ................................................................................84 exploding reinforcement.......................................................144 exploding components ..................................................62

f fabs ...............................................................................84 fAD()..............................................................................88 find ................................................................................86 floor ...............................................................................85 formulae ........................................................................81 fP() ................................................................................83 functions for equations..................................................82

g general tab ....................................................................15 geometry reinforcement.......................................................145 getat ..............................................................................86

grouping mesh ................................................................... 141 reinforcement ...................................................... 141 reinforcing bar group ........................................... 141 gusset plane ............................................................... 114

h handles of reinforcement .................................................. 136 holes creating ................................................................. 35 hypot............................................................................. 84

i

match............................................................................86 materials defining..................................................................32 max...............................................................................85 mesh...........................................................................154 bent .....................................................................154 grouping ..............................................................141 polygonal .............................................................154 ungrouping ..........................................................139 min................................................................................85 mod...............................................................................84 model browser ............................................................119 modeling tips working with custom components........................110 modifying reinforcement ......................................................135 moving reinforcement splice ............................................159

In .................................................................................. 84 indicating component status with Excel design ............ 60 int.................................................................................. 86

n

j

n!...................................................................................84 numbering reinforcement ......................................................147 reinforcement, what affects .................................147

ts.def about ..................................................................... 47 bolt and part properties ......................................... 50 bolt properties in clip angle connections ............... 49 bolt properties in diagonal connections................. 50 bolt properties in end plate connections................ 49 bolt properties in gusset connections.................... 50 bolt properties in shear plate connections............. 49 connections that use ts.def.............................. 56 defining bolt diameter and number of rows ........... 49 defining global defaults ......................................... 48 entering values...................................................... 48 example of how Tekla Structures uses ................. 56 how it works .......................................................... 47 interpreting ............................................................ 47

l length............................................................................ 86 log................................................................................. 84

m magnetic planes ........................................................... 79

o omitting reinforcing bars .............................................132 Outline plane ..............................................................120

p parameters ...................................................................80 part position number.....................................................31 parts defining..................................................................29 dialog box tabs ......................................................29 dimensioning .........................................................30 part position number..............................................31 setting default prefix and start number ..................31 s custom component ..............................................108 plane types .................................................................120 plates defining..................................................................29 dimensioning .........................................................30 pow ...............................................................................84

TEKLA STRUCTURES 16

187

prestressed strands debonding............................................................156 properties automatic ...............................................................14 default....................................................................14 system default .......................................................14 publish in catalog ..........................................................22

r rebar ...........................................................................149 bending types ......................................................161 rebar group .................................................................150 rebar mesh..................................................................154 reference distances ....................................................124 reference function .........................................................83 reinforcement adaptivity .............................................................137 adding points .......................................................142 basic properties ...................................................128 bending radius .....................................................128 bending types ......................................................128 conceptual ...........................................................145 customizing..........................................................147 defining as custom components ..........................147 detailed ................................................................145 exploding .............................................................144 geometry..............................................................145 grouping...............................................................141 hooks ...................................................................129 in templates .........................................................182 invalid geometry ..................................................145 modifying .............................................................135 numbering............................................................147 omitting bars ........................................................132 prestressed strands .............................................156 removing points ...................................................143 spacing ................................................................132 splice ...................................................................159 strands.................................................................156 ungrouping...........................................................139 -defined attributes.........................................133 reinforcement mesh ....................................................154 customizing..........................................................145 reinforcement splice moving .................................................................159 reinforcing bar.............................................................149 adding points .......................................................142 bending types ......................................................161 combining ............................................................144 removing points ...................................................143

188

TEKLA STRUCTURES 16

reinforcing bar group...................................................150 adding points .......................................................142 circular .................................................................153 combining ............................................................144 curved ..................................................................152 grouping...............................................................141 removing points ...................................................143 ungrouping...........................................................139 reinforcing bar groups splitting.................................................................144 removing points bent mesh ............................................................143 reinforcement.......................................................143 reinforcing bar......................................................143 reinforcing bar group............................................143 reports on reinforcement..................................................182 round.............................................................................84

s seam .............................................................................66 setat ..............................................................................86 setting up Excel files .....................................................58 sin .................................................................................88 sinh ...............................................................................88 sketch browser............................................................119 slotted holes defining ..................................................................39 spacing reinforcing bars..............................................132 spiral reinforcing bar groups .......................................150 splice...........................................................................159 splitting reinforcing bar groups..........................................144 reinforcing bars in a group ...................................144 sqave ............................................................................85 sqrt ................................................................................84 sqsum ...........................................................................85 strand pattern reinforcement.......................................................156 string .............................................................................86 sum ...............................................................................85 surface treatment in custom components.........................................100 system default properties..............................................14

t tan .................................................................................88 tanh ...............................................................................88

tapered reinforcing bar groups ................................... 150 thumbnail images ......................................................... 21

u ungrouping mesh ................................................................... 139 reinforcement ...................................................... 139 reinforcing bar group ........................................... 139 up direction................................................................... 13 -defined reinforcement attributes......................... 133 using ASCII files with custom component .................. 109 using Excel with custom components ........................ 109

v variables .............................................................. 73, 115 viewing components...........................................................27

w welds defining........................................................... 33, 41

TEKLA STRUCTURES 16

189

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