arithym
Server Details
Precision math engine for AI agents. 203 exact methods. Zero hallucination.
- Status
- Healthy
- Last Tested
- Transport
- Streamable HTTP
- URL
- Repository
- Arithym-io/arithym
- GitHub Stars
- 0
- Server Listing
- Arithym
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Tool Definition Quality
Score is being calculated. Check back soon.
Available Tools
1 toolArithymAInspect
Exact precision math engine — 209 methods across 22 domains, all arithmetic as exact fractions with zero floating-point error. Transcendental functions (sin, cos, tan, log, exp) in computational models use IEEE 754 double precision (15 significant digits) with results flagged; special-angle trig remains fully exact via radical lookup. Use the 'tool' parameter to select a subsystem:
compute — Exact arithmetic, factorization, sqrt, trig, unit conversion. Examples: tool="compute" action="factorize" n="360" | action="sqrt" n="7920"
calculate — Multi-step chains with $prev/$label references. Example: tool="calculate" operations=[{values:["a","b"], read:"multiply", label:"result"}]
reference — Knowledge gateway backed by Epithreads (981 curated entries, 2,454 searchable names). 118 chemistry (elements + compounds), 82 unit definitions & conversions, 79 physics constants, 10 math constants. Sources: CODATA 2022, IUPAC 2021, SI definitions. Browse: action='query_entries' domain='unit.conversion' | 'chemistry.elements' | 'physics.constants' | 'math.constants'. Lookup by name/symbol: action='lookup' query='Fe' or query='speed of light'. Also: 209 computation methods via action='guide', discover by keyword via action='discover'. call 209 computation methods (matrix, statistics, chemistry, physics, geometry...), discover by keyword. Examples: tool="reference" action="lookup" query="Fe" | action="guide" module="matrix" method="eigenvalues" args="[[4,1],[2,3]]"
model — Computational graph engine (up to 2,000 nodes, 5-second computation limit). Define models, forward-pass, what-if scenarios, solve for target outputs. Graph ops: add, subtract, multiply, divide, power, gcd, lcm, product, sin, cos, tan, log, exp, abs. Algebraic ops are exact; transcendental ops use IEEE 754 double precision (15 sig figs, flagged in results). For large models (50+ nodes), build incrementally with workspace add/derive across multiple calls. Example: tool="model" action="define" spec={...}
workspace — Persistent named values with dependency tracking and cascade updates. State accumulates across calls — build large models incrementally (up to 2,000 nodes). The resulting graph supports the full model toolchain. Example: tool="workspace" action="add" name="mass" value="120"
analyze — Structural comparison (GCD, LCM, prime similarity), cross-domain verification, prime-space projection. Example: tool="analyze" action="compare" a="360" b="540"
optimize — Exact calculus via reverse-mode autodiff. Derivatives, gradients, Jacobians, integrals, critical points, curve analysis. Requires a model. Example: tool="optimize" action="gradient" output_name="total_cost"
| Name | Required | Description | Default |
|---|---|---|---|
| a | No | First operand (compute binary ops, analyze compare) | |
| b | No | Second operand (compute binary ops, analyze compare) | |
| n | No | Number (compute factorize/sqrt, analyze verify) | |
| x | No | ||
| y | No | ||
| z | No | ||
| op | No | Fraction sub-operation: add/subtract/multiply/divide | |
| args | No | JSON arguments for guide method | |
| data | No | JSON workspace data (import) | |
| meta | No | Human-readable description (add, update) | |
| name | No | Value name (workspace add/update/read/link, reference read_domain) | |
| note | No | Note text | |
| spec | No | Model spec: {name, inputs:{name:{value,const?}}, graph:[{name,op,from}], outputs:[names]} | |
| step | No | ||
| tags | No | Comma-separated tags (add) | |
| tier | No | Access tier: core/verified/community | |
| tool | Yes | Subsystem: compute (arithmetic/trig/units), calculate (multi-step chains), reference (constants/guides/discovery), model (graph engine), workspace (persistent values), analyze (compare/verify), optimize (calculus). | |
| unit | No | Angle unit: degrees or radians | |
| const | No | Mark as constant: true/false | |
| delta | No | Perturbation size (sensitivity: 1/1000, hessian: 1/100000) | |
| limit | No | Max results (list_entries, query_entries) | |
| lower | No | Lower integration bound | |
| name1 | No | First value (workspace read comparison) | |
| name2 | No | Second value (workspace read comparison) | |
| names | No | JSON array of workspace names (derive) | |
| order | No | Taylor expansion order (default: 5) | |
| query | No | Search term (lookup: name/symbol, discover: keyword, query_entries: substring) | |
| steps | No | Search steps for critical_points (default: 200) | |
| top_n | No | Max query results (default: 10) | |
| units | No | JSON array of unit strings (unit_check) | |
| upper | No | Upper integration bound | |
| value | No | Value as string — integers, fractions (3/4), decimals (9.81) | |
| action | No | Operation within the selected tool. compute: add/subtract/multiply/divide/power/gcd/lcm/factorize/sqrt/trig/fraction/slide/unit_convert/unit_factor/unit_check/domain_check/list_units. reference: help/discover/guide/lookup/list_methods/list_domains/read_domain/recommend/list_entries/query_entries/db_stats/landmarks. model: define/extend/forward/observe/what_if/solve/learn/sensitivity. workspace: create/add/read/derive/update/link/gcd/lcm/lattice/ratios/query/cluster/snapshot/export/import/diff/note/notes/clear_notes. analyze: compare/verify/project/route/sensitivity. optimize: derivative/gradient/jacobian/hessian/taylor/integral/critical_points/tangent/curve_analysis/optimize/learn. | |
| domain | No | Domain prefix filter (list_entries, query_entries, landmarks) | |
| inputs | No | JSON array of inputs (domain_check) | |
| method | No | Method within module (guide — e.g. 'determinant', 'molar_mass') | |
| module | No | Domain module (guide, list_methods — e.g. 'matrix', 'chemistry') | |
| search | No | Name substring (query_entries) | |
| source | No | Data provenance (add) | |
| target | No | Note target: value name or 'field' | |
| values | No | JSON array of values (compute slide, workspace gcd/lcm/lattice/ratios) | |
| degrees | No | Angle in degrees (trig) | |
| targets | No | JSON targets: {output_name: target_value} (learn, optimize) | |
| to_unit | No | Target unit (unit_convert/unit_factor) | |
| updates | No | Input updates for forward: {input_name: 'new_value'} | |
| function | No | Trig function: sin/cos/tan/all/asin/acos/atan | |
| new_name | No | Name for derived result | |
| sig_figs | No | Significant figures (empty=exact) | |
| store_as | No | Store result in workspace with this name | |
| to_value | No | Target value (route) | |
| wrt_name | No | Differentiate with respect to | |
| dimension | No | Dimension name (list_units) | |
| from_unit | No | Source unit (unit_convert/unit_factor) | |
| intervals | No | Simpson's rule intervals (default: 1000) | |
| max_bound | No | Search bound for solve (default: 1000000) | |
| max_steps | No | Max gradient descent iterations (default: 20) | |
| operation | No | Operation to check (unit_check, domain_check) | |
| read_mode | No | Derive combination: multiply/divide/add/subtract/power/gcd/lcm/sin/cos/tan/log/exp/abs | |
| scenarios | No | What-if scenarios: [{name:str, updates:{input:value}}] | |
| tolerance | No | Convergence tolerance as fraction (e.g. '1/10000') | |
| tool_name | No | Tool name for help manual | |
| from_value | No | Starting value (route) | |
| identifier | No | Alternate query parameter (lookup) | |
| input_name | No | Input variable (solve, sensitivity) | |
| operations | No | Calculation steps: [{values:[str,str], read:'op', label:'name'}]. Reference previous: $prev, $label_name. | |
| search_max | No | Critical points search max (default: 100) | |
| search_min | No | Critical points search min (default: -100) | |
| snapshot_a | No | First snapshot (diff) | |
| snapshot_b | No | Second snapshot (diff) | |
| description | No | Natural language description (recommend) | |
| filter_type | No | Query filter: tag/domain/dimension/similar/precision | |
| output_name | No | Output variable (solve, derivative, gradient) | |
| filter_value | No | Query filter value | |
| output_names | No | JSON array of output names (sensitivity) | |
| target_value | No | Desired output value (solve) | |
| learning_rate | No | Gradient descent step size (default: 1/10) | |
| max_iterations | No | Max iterations for solve (default: 50) | |
| min_similarity | No | Clustering threshold (default: 0.5) | |
| snapshot_action | No | Snapshot op: save/restore/list/delete |
Tool Definition Quality
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
Annotations provide minimal safety hints (all false), so the description carries significant behavioral burden. It successfully discloses critical traits: exact vs. approximate precision models, IEEE 754 flagging for transcendental functions, 2,000 node limits for models, 5-second computation timeouts, and state accumulation across workspace calls. It does not disclose error handling behaviors or rate limits, preventing a perfect score.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is lengthy due to the tool's complexity (79 parameters, 7 subsystems), but it is well-structured with clear visual separation between subsystems and consistent example formatting. Every section serves a distinct purpose in explaining a subsystem. It could potentially be more concise, but the density of actionable information justifies the length for this complexity level.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
Given the high complexity (79 parameters, nested objects, no output schema) and lack of return value documentation, the description has a significant gap regarding output formats. While it mentions that transcendental results are 'flagged,' it does not describe the structure of returned exact fractions, JSON models, or workspace states, which is critical information for an agent consuming the results.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
With 95% schema coverage, the baseline is high, but the description adds substantial value through concrete examples showing parameter interactions (e.g., tool='compute' action='factorize' n='360'). It explains the 'tool' parameter's role as a subsystem selector and clarifies how 'action' values map to specific functionality, adding semantic meaning beyond the schema's mechanical descriptions.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description clearly identifies the tool as an 'Exact precision math engine' and specifically enumerates the seven subsystems (compute, calculate, reference, model, workspace, analyze, optimize) with distinct purposes. It explains the core value proposition—exact fractions with zero floating-point error versus IEEE 754 for transcendental functions—providing specific scope and capabilities.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description effectively delineates when to use each subsystem via the 'tool' parameter, contrasting 'compute' (single operations) with 'calculate' (multi-step chains) and 'reference' (knowledge lookup). While it provides rich examples for each mode, it lacks explicit 'when not to use' guidance or failure mode warnings that would help an agent avoid incorrect subsystem selection.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
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