Files
MultiPhysicsVault/wiki/concepts/Midas Civil Pushover and Performance Evaluation.md
T
김경종 553842ac3b
Tests / Hermetic test suite (push) Has been cancelled
Tests / Skill frontmatter validation (push) Has been cancelled
modify wiki
2026-06-02 16:57:41 +09:00

2.6 KiB

type, title, created, updated, address, aliases, tags, status, related, sources, source_refs
type title created updated address aliases tags status related sources source_refs
concept Midas Civil Pushover and Performance Evaluation 2026-06-02 2026-06-02 c-000165
MIDAS Civil pushover
midas Civil seismic performance evaluation
concept
finite-element-method
midas-civil
nonlinear-analysis
seismic-analysis
current
Midas-Civil-Analysis-Reference
midas Civil
Midas Civil Boundary and Material Nonlinear Analysis
Finite Element Modeling and Convergence Checks
Plasticity Benchmark and Input Data Cases
Midas-Civil-Analysis-Reference
source raw_path raw_files md_indices match confidence
Midas-Civil-Analysis-Reference .raw/MidasCivilAnalysisReference/
MidasCivilAnalysisReference_036.md
MidasCivilAnalysisReference_030.md
MidasCivilAnalysisReference_031.md
36
30
31
heuristic-heading-keyword high

Midas Civil Pushover and Performance Evaluation

Definition

Midas Civil pushover and performance evaluation is the static incremental seismic workflow that applies lateral loading, traces nonlinear capacity, and evaluates structural performance against target or performance-point criteria.

How It Works

The manual treats pushover as an incremental nonlinear static analysis. It includes load-control and displacement-control options, applied lateral load patterns, nonlinear element or hinge properties, performance point estimation, and a seismic performance evaluation workflow.

Pushover is not just a solver setting. It packages model idealization, hinge definitions, load pattern selection, control DOF selection, capacity-curve extraction, and acceptance criteria.

Solver Development Notes

  • A custom solver needs a repeatable way to define control nodes, displacement targets, load patterns, and stopping criteria.
  • Plastic hinge output should expose yield state, demand/capacity ratios, and member-level response in addition to global displacements.
  • Verification should compare capacity curves, hinge sequence, base shear, and target displacement against a reference solver.
  • Test harnesses should include both load-controlled and displacement-controlled paths.

Connections