...
Extracting Displacement
...
Extracting Force
force(Case,Element,Station) → List of Number ([Fx,Fy,Fz,MxMy,Mz]) | ||
---|---|---|
forceFx(Case,Element,Station) = force(Case,Element,Station)[0] → Number (Fx) | ||
forceFy(Case,Element,Station) = force(Case,Element,Station)[1] → Number (Fy) | ||
forceFz(Case,Element,Station) = force(Case,Element,Station)[2] → Number (Fz) | ||
forceMx(Case,Element,Station) = force(Case,Element,Station)[3] → Number (Mx) | ||
forceMy(Case,Element,Station) = force(Case,Element,Station)[4] → Number (My) | ||
forceMy(Case,Element,Station) = force(Case,Element,Station)[5] → Number (Mz) | ||
Case : Object | Element : Object | Station : Number |
T=”AnalysisCase“ T=”Combination” | T=”Node” T=”FELine” T=”FESurface” T=”FEComposite” | Node → Leave empty FELine → 0 for start edge, 1 for end edge FESurface → 0,1,2,4 for edge nodes FEComposite → The distance from the start point of FEComposite path |
force(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz,MxMy,Mz]) | ||
forceFx(Case,Node Coordinate) = force(Case,Node Coordinate)[0] → Number (Fx) | ||
forceFy(Case,Node Coordinate) = force(Case,Node Coordinate)[1] → Number (Fy) | ||
forceFz(Case,Node Coordinate) = force(Case,Node Coordinate)[2] → Number (Fz) | ||
forceMx(Case,Node Coordinate) = force(Case,Node Coordinate)[3] → Number (Mx) | ||
forceMy(Case,Node Coordinate) = force(Case,Node Coordinate)[4] → Number (My) | ||
forceMy(Case,Node Coordinate) = force(Case,Node Coordinate)[5] → Number (Mz) | ||
Case : Object | Node Coordinate : List of Number | |
T=”AnalysisCase“ T=”Combination” | [X coordinate, Y coordinate, Z coordinate] → If you don't have direct access to the node object, you can pass in a coordinate as a list of 3 numbers (this only applies to nodes, will not work for finite element). OpenBrIM will find the node that is closest to the specified coordinate and return the results. |
...
forceNeg(Case,Element,Station) → List of Number ([Fx,Fy,Fz,MxMy,Mz]) | ||
---|---|---|
forceFxNeg(Case,Element,Station) = forceNeg(Case,Element,Station)[0] → Number (Fx) | ||
forceFyNeg(Case,Element,Station) = forceNeg(Case,Element,Station)[1] → Number (Fy) | ||
forceFzNeg(Case,Element,Station) = forceNeg(Case,Element,Station)[2] → Number (Fz) | ||
forceMxNeg(Case,Element,Station) = forceNeg(Case,Element,Station)[3] → Number (Mx) | ||
forceMyNeg(Case,Element,Station) = forceNeg(Case,Element,Station)[4] → Number (My) | ||
forceMyNeg(Case,Element,Station) = forceNeg(Case,Element,Station)[5] → Number (Mz) | ||
Case : Object | Element : Object | Station : Number |
T=”AnalysisCase“ T=”Combination” | T=”Node” T=”FELine” T=”FESurface” T=”FEComposite” | Node → Leave empty FELine → 0 for start edge, 1 for end edge FESurface → 0,1,2,4 for edge nodes FEComposite → The distance from the start point of FEComposite path |
forceNeg(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz,MxMy,Mz]) | ||
forceFxNeg(Case,Node Coordinate) = forceNeg(Case,Node Coordinate)[0] → Number (Fx) | ||
forceFyNeg(Case,Node Coordinate) = forceNeg(Case,Node Coordinate)[1] → Number (Fy) | ||
forceFzNeg(Case,Node Coordinate) = forceNeg(Case,Node Coordinate)[2] → Number (Fz) | ||
forceMxNeg(Case,Node Coordinate) = forceNeg(Case,Node Coordinate)[3] → Number (Mx) | ||
forceMyNeg(Case,Node Coordinate) = forceNeg(Case,Node Coordinate)[4] → Number (My) | ||
forceMyNeg(Case,Node Coordinate) = forceNeg(Case,Node Coordinate)[5] → Number (Mz) | ||
Case : Object | Node Coordinate : List of Number | |
T=”AnalysisCase“ T=”Combination” | [X coordinate, Y coordinate, Z coordinate] → If you don't have direct access to the node object, you can pass in a coordinate as a list of 3 numbers (this only applies to nodes, will not work for finite element). OpenBrIM will find the node that is closest to the specified coordinate and return the results. |
Extracting Concurrent Force
Positive Results
forceFxPosConc(Case,Element,Station) → List of Number ([Fx*,Fy,Fz,Mx,My,Mz]) critical Fx result and its concurrent results | ||
forceFyPosConc(Case,Element,Station) → List of Number ([Fx,Fy*,Fz,Mx,My,Mz]) critical Fy result and its concurrent results | ||
forceFzPosConc(Case,Element,Station) → List of Number ([Fx,Fy,Fz*,Mx,My,Mz]) critical Fz result and its concurrent results | ||
forceMxPosConc(Case,Element,Station) → List of Number ([Fx,Fy,Fz,Mx*,My,Mz]) critical Mx result and its concurrent results | ||
forceMyPosConc(Case,Element,Station) → List of Number ([Fx,Fy,Fz,Mx,My*,Mz]) critical My result and its concurrent results | ||
forceMzPosConc(Case,Element,Station) → List of Number ([Fx,Fy,Fz,Mx,My,Mz*]) critical Mz result and its concurrent results | ||
Case : Object | Element : Object | Station : Number |
T=”AnalysisCase“ T=”Combination” | T=”Node” T=”FELine” T=”FESurface” T=”FEComposite” | Node → Leave empty FELine → 0 for start edge, 1 for end edge FESurface → 0,1,2,4 for edge nodes FEComposite → The distance from the start point of FEComposite path |
forceFxPosConc(Case,Node Coordinate) → List of Number ([Fx*,Fy,Fz,Mx,My,Mz]) critical Fx result and its concurrent results | ||
forceFyPosConc(Case,Node Coordinate) → List of Number ([Fx,Fy*,Fz,Mx,My,Mz]) critical Fy result and its concurrent results | ||
forceFzPosConc(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz*,Mx,My,Mz]) critical Fz result and its concurrent results | ||
forceMxPosConc(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz,Mx*,My,Mz]) critical Mx result and its concurrent results | ||
forceMyPosConc(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz,Mx,My*,Mz]) critical My result and its concurrent results | ||
forceMzPosConc(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz,Mx,My,Mz*]) critical Mz result and its concurrent results | ||
Case : Object | Node Coordinate : List of Number | |
T=”AnalysisCase“ T=”Combination” | [X coordinate, Y coordinate, Z coordinate] → If you don't have direct access to the node object, you can pass in a coordinate as a list of 3 numbers (this only applies to nodes, will not work for finite element). OpenBrIM will find the node that is closest to the specified coordinate and return the results. |
Negative Results
forceFxNegConc(Case,Element,Station) → List of Number ([Fx*,Fy,Fz,Mx,My,Mz]) critical Fx result and its concurrent results | ||
forceFyNegConc(Case,Element,Station) → List of Number ([Fx,Fy*,Fz,Mx,My,Mz]) critical Fy result and its concurrent results | ||
forceFzNegConc(Case,Element,Station) → List of Number ([Fx,Fy,Fz*,Mx,My,Mz]) critical Fz result and its concurrent results | ||
forceMxNegConc(Case,Element,Station) → List of Number ([Fx,Fy,Fz,Mx*,My,Mz]) critical Mx result and its concurrent results | ||
forceMyNegConc(Case,Element,Station) → List of Number ([Fx,Fy,Fz,Mx,My*,Mz]) critical My result and its concurrent results | ||
forceMzNegConc(Case,Element,Station) → List of Number ([Fx,Fy,Fz,Mx,My,Mz*]) critical Mz result and its concurrent results | ||
Case : Object | Element : Object | Station : Number |
T=”AnalysisCase“ T=”Combination” | T=”Node” T=”FELine” T=”FESurface” T=”FEComposite” | Node → Leave empty FELine → 0 for start edge, 1 for end edge FESurface → 0,1,2,4 for edge nodes FEComposite → The distance from the start point of FEComposite path |
forceFxNegConc(Case,Node Coordinate) → List of Number ([Fx*,Fy,Fz,Mx,My,Mz]) critical Fx result and its concurrent results | ||
forceFyNegConc(Case,Node Coordinate) → List of Number ([Fx,Fy*,Fz,Mx,My,Mz]) critical Fy result and its concurrent results | ||
forceFzNegConc(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz*,Mx,My,Mz]) critical Fz result and its concurrent results | ||
forceMxNegConc(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz,Mx*,My,Mz]) critical Mx result and its concurrent results | ||
forceMyNegConc(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz,Mx,My*,Mz]) critical My result and its concurrent results | ||
forceMzNegConc(Case,Node Coordinate) → List of Number ([Fx,Fy,Fz,Mx,My,Mz*]) critical Mz result and its concurrent results | ||
Case : Object | Node Coordinate : List of Number | |
T=”AnalysisCase“ T=”Combination” | [X coordinate, Y coordinate, Z coordinate] → If you don't have direct access to the node object, you can pass in a coordinate as a list of 3 numbers (this only applies to nodes, will not work for finite element). OpenBrIM will find the node that is closest to the specified coordinate and return the results. |
...
Extracting Stress
...