{"$schema":"https://wellknown.network/schemas/agent-record-v1.json","schemaVersion":"1","id":"ag_baq9nvt8kvbt","handle":"magicon-rf-design-engines","url":"https://wellknown.network/agents/magicon-rf-design-engines","links":{"self":"https://wellknown.network/agents/magicon-rf-design-engines/record.json","html":"https://wellknown.network/agents/magicon-rf-design-engines","markdown":"https://wellknown.network/agents/magicon-rf-design-engines/record.md","api":"https://wellknown.network/api/v1/agents/magicon-rf-design-engines","status":"https://wellknown.network/api/v1/agents/magicon-rf-design-engines/status","claim":"https://wellknown.network/agents/magicon-rf-design-engines/claim","claimApi":"https://wellknown.network/api/v1/claims","claimDescriptor":"https://wellknown.network/agents/magicon-rf-design-engines/claim.json","badge":"https://wellknown.network/agents/magicon-rf-design-engines/badge.svg","openapi":"https://wellknown.network/openapi.json","history":"https://wellknown.network/api/v1/agents/magicon-rf-design-engines/history","tools":"https://wellknown.network/api/v1/agents/magicon-rf-design-engines/tools"},"ard":{"identifier":"urn:air:api.pcbgenerator.com:server:magicon-rf-design-engines","type":"application/mcp-server-card+json"},"kind":"mcp_server","declared":{"name":"MagicON RF Design Engines","summary":"TX/RX/T-R chains, OTA link, radar, PCB filters, patch antennas, stackup, thermal, PDN, compliance.","description":"TX/RX/T-R chains, OTA link, radar, PCB filters, patch antennas, stackup, thermal, PDN, compliance.","publisher":{"name":"magiccadai","url":null},"homepage":"https://pcbgenerator.com","repository":null,"version":"1.1.0","license":null,"protocols":["mcp"],"tags":[],"pricing":null,"endpoints":[{"url":"https://api.pcbgenerator.com/mcp","type":"mcp_streamable_http","auth":null,"probeable":true}],"skills":null,"tools":null,"extra":{"updatedAt":"2026-10-09T00:05:54.148929Z","publishedAt":"2026-10-09T00:05:54.148929Z","registryName":"io.github.magiccadai/magicon"},"attribution":{"kind":"mcp_registry","name":"mcp_registry","summary":"mcp_registry","version":"mcp_registry","description":"mcp_registry","homepageUrl":"mcp_registry","publisherName":"mcp_registry"}},"derived":{"capabilities":[{"slug":"media.3d","name":"3D & Design","confidence":1,"provenance":"derived"},{"slug":"automation.orchestration","name":"Agent Orchestration","confidence":0.583,"provenance":"derived"},{"slug":"commerce.ecommerce","name":"E-commerce Operations","confidence":0.51,"provenance":"derived"}],"categories":["automation","commerce","media"],"language":"fr"},"observed":{"status":"live","statusReason":"Responded 5h ago.","lastOkAt":"2026-10-12T21:25:20.774Z","lastProbedAt":"2026-10-12T21:25:20.774Z","statusComputedAt":"2026-10-12T21:27:24.388Z","reliability30d":{"probes":40,"successRate":1,"p50Ms":320,"basis":"service","measures":{"availability":"availability","latency":"response time","tools":"tool surface observed","summary":"Checks reached the service itself."},"checks":{"total":40,"ok":40,"authBoundaryOk":0,"serviceOk":40,"note":"Counted from the observation rows for the window, checks of the server only (HTTP, A2A card, MCP initialize). ok = authBoundaryOk + serviceOk. `probes` is the sum of daily rollups and includes registry checks, so it can differ from `total`."}},"latestObservations":[{"at":"2026-10-12T21:25:20.774Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":258,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"932ae9f6038d4953bc556e2b7524f3906600aad653d64801bb6a82a67e172c90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}},{"at":"2026-10-12T14:29:11.925Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":249,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"932ae9f6038d4953bc556e2b7524f3906600aad653d64801bb6a82a67e172c90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}},{"at":"2026-10-12T07:23:22.487Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":313,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"a76abca67e72f19ce10c8771c4a22f316ba90ee1514e52e506ebcc70af395e90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}},{"at":"2026-10-12T01:27:24.041Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":250,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"a76abca67e72f19ce10c8771c4a22f316ba90ee1514e52e506ebcc70af395e90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}},{"at":"2026-10-11T19:24:26.294Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":245,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"a76abca67e72f19ce10c8771c4a22f316ba90ee1514e52e506ebcc70af395e90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}},{"at":"2026-10-11T13:24:05.829Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":236,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"a76abca67e72f19ce10c8771c4a22f316ba90ee1514e52e506ebcc70af395e90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}},{"at":"2026-10-11T06:21:53.886Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":219,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"a76abca67e72f19ce10c8771c4a22f316ba90ee1514e52e506ebcc70af395e90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}},{"at":"2026-10-10T23:22:01.462Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":237,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"a76abca67e72f19ce10c8771c4a22f316ba90ee1514e52e506ebcc70af395e90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}},{"at":"2026-10-10T16:31:51.021Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":243,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"a76abca67e72f19ce10c8771c4a22f316ba90ee1514e52e506ebcc70af395e90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}},{"at":"2026-10-10T09:24:36.077Z","kind":"mcp_initialize","ok":true,"httpStatus":200,"latencyMs":231,"error":null,"detail":{"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"toolCount":14,"toolsHash":"a76abca67e72f19ce10c8771c4a22f316ba90ee1514e52e506ebcc70af395e90","serverName":"magicon","capabilities":["tools"],"serverVersion":"1.0.0","protocolVersion":"2025-06-18"}}],"tools":[{"name":"design_rf_chain","description":"Design a complete RF transmitter chain with the convergent orchestrator: selects the driver, PA, filter, and connector (the signal source is the user's input po"},{"name":"design_rf_receiver","description":"Design or analyse a superheterodyne RECEIVER. Selects catalog parts for each slot (limiter, LNA, image filter, mixer, LO, IF filter, IF amp, step attenuator) an"},{"name":"design_tr_module","description":"Design a T/R (transmit/receive) module that shares ONE antenna between a transmitter and a receiver. Designs both chains through the existing engines, selects t"},{"name":"run_link_budget","description":"Compute a cascaded RF link budget. For the chain just designed, call with NO arguments — the server derives stages and input power from the design. Pass stages "},{"name":"run_stackup_solver","description":"Run the impedance-aware stackup constraint solver to find optimal PCB configurations. Use when the user wants ranked material/thickness/copper solutions for a g"},{"name":"run_thermal_analysis","description":"Run a full PCB thermal analysis: via array Rth, junction-to-ambient stack, Kennedy spreading, Coffin-Manson barrel stress, Timoshenko warpage, and resin-flow es"},{"name":"run_pdn_analysis","description":"Run a PDN (power delivery network) impedance analysis: interplanar plane-pair capacitance, multi-cap decoupling impedance vs. target impedance, violations, and "},{"name":"run_compliance_analysis","description":"Audit the solved stackup against PCB standards (IPC-2221, IPC-6012, IPC-4101, MIL, UL-94, RoHS, REACH): per-rule pass/fail with severities and remediation. Reus"},{"name":"run_ota_link","description":"Compute a one-way over-the-air link budget — EIRP, free-space path loss (Friis), received power, link margin against receiver sensitivity, a closes/marginal/fai"},{"name":"run_radar_performance","description":"Compute radar performance — the monostatic range equation (received power, SNR vs range, maximum detection range, coherent/non-coherent integration gain) and pu"},{"name":"run_planar_filter","description":"Synthesize a passive planar (copper-on-PCB) filter from analytical formulas: stepped-impedance / open-stub low-pass, or parallel-coupled / hairpin band-pass, Ch"},{"name":"design_patch_antenna","description":"Design a rectangular microstrip patch antenna (and, when both nx and ny are given, a uniform planar array of it) using the Balanis cavity/transmission-line + ar"},{"name":"run_glass_weave_analysis","description":"Recommend PCB glass-weave (fiber-weave) styles for the current design: ranks catalogued styles by impedance variation and cost for the design frequency and mark"},{"name":"check_grounding","description":"Check a draft passage against the engine results computed in THIS session. It returns every figure no engine produced, and every claim it checks that the result"}],"package":null,"toolSurface":{"id":"ts_q569jh35awn4","endpointId":"ep_mrz2gwv67ycz","hash":"932ae9f6038d4953bc556e2b7524f3906600aad653d64801bb6a82a67e172c90","toolCount":14,"serverName":"magicon","serverVersion":"1.0.0","protocolVersion":"2025-06-18","firstSeenAt":"2026-10-12T14:29:11.944Z","lastSeenAt":"2026-10-12T21:25:20.772Z","observations":2,"toolNames":["design_rf_chain","design_rf_receiver","design_tr_module","run_link_budget","run_stackup_solver","run_thermal_analysis","run_pdn_analysis","run_compliance_analysis","run_ota_link","run_radar_performance","run_planar_filter","design_patch_antenna","run_glass_weave_analysis","check_grounding"],"distinctSurfaces":6},"endpointFacts":[{"id":"ep_mrz2gwv67ycz","url":"https://api.pcbgenerator.com/mcp","type":"mcp_streamable_http","factsCheckedAt":"2026-10-12T21:25:20.777Z","auth":{"observedAt":"2026-10-12T21:25:21.169Z","authRequired":false,"scheme":null,"resourceMetadata":null,"authorizationServer":null,"conformance":{"dpop":false,"rfc8414":false,"rfc9728":false,"pkceS256":false,"clientIdMetadataDocument":false,"dynamicClientRegistration":false}},"tls":{"observedAt":"2026-10-12T21:25:21.184Z","protocol":"TLSv1.3","chainValid":true,"chainError":null,"hostMatches":true,"subject":"api.pcbgenerator.com","issuer":{"commonName":"WE1","organization":"Google Trust Services"},"validFrom":"2026-09-08T19:48:17.000Z","validTo":"2026-12-07T20:48:13.000Z","daysToExpiry":55,"sanCount":1,"fingerprint256":"38:E4:73:BE:C7:99:7D:6F:E8:65:1A:4C:9C:F3:7A:FC:49:8A:24:95:87:C5:85:B5:F1:51:4C:CE:0D:15:F2:93"}}]},"verification":{"claimed":false,"claimedAt":null,"proofs":[]},"provenance":{"sources":[{"source":"mcp_registry","key":"io.github.magiccadai/magicon","url":"https://registry.modelcontextprotocol.io/v0/servers/io.github.magiccadai%2Fmagicon","firstSeenAt":"2026-10-01T23:19:00.950Z","fetchedAt":"2026-10-10T15:23:33.318Z","normalizedAt":"2026-10-10T15:23:33.318Z"}]},"firstSeenAt":"2026-10-01T23:19:00.950Z","updatedAt":"2026-10-12T21:28:00.155Z"}