Kratos MCP Server
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TDQS
Scored across 110 tools
The tool set is large but well-organized into clearly separated namespaces (mdpa_*, session_*, job_*, project_*, materials_*, results_*, kratos_*, study_*), and descriptions carefully delineate boundaries (e.g. mdpa_add_entities vs mdpa_create_sub_model_part). A few overlaps remain—mdpa_create_structured_mesh vs mdpa_create_geometry_mesh vs mesh_generate_gmsh all generate meshes—but param formats and descriptions make the intended use distinguishable.
The vast majority of tools follow a consistent prefix_verb_noun pattern (mdpa_inspect, session_advance, project_set_setting, results_probe, job_status). A handful deviate slightly (mdpa_quality, mdpa_transform, mdpa_renumber, kratos_install, validate_case), but never in a way that obscures meaning or mixes camelCase with snake_case.
110 tools is far beyond the typical 3–15 well-scoped range and beyond even the 25+ threshold for 'too many'. While each tool is individually non-trivial and the domain (Kratos Multiphysics simulation lifecycle) is genuinely broad, the surface is heavy enough that discovery and selection overhead is substantial.
Coverage is exceptionally thorough across the full simulation lifecycle: project scaffolding, parameter/material editing, mesh import/generation/manipulation, solver discovery, job/study execution, interactive sessions, results inspection/rendering, and Flowgraph round-tripping. Obvious gaps are hard to identify—even checkpoints, MPI, CoSimulation, and FSI are addressed.