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Meilleures invites d'IA pour l'ingénierie électrique

L'IA incite à l'ingénierie électrique
Incitations à l'utilisation de l'IA pour le génie électrique
Les outils pilotés par l'intelligence artificielle révolutionnent l'ingénierie électrique en améliorant l'efficacité de la conception, la précision de la simulation et la maintenance prédictive grâce à des techniques avancées d'analyse des données et de conception générative.

Les outils d'IA en ligne transforment rapidement l'ingénierie électrique en augmentant les capacités humaines dans la conception de circuits, l'analyse de systèmes, l'électronique, etc. fabricationet la maintenance des systèmes d'alimentation. Ces systèmes d'IA peuvent traiter de grandes quantités de données de simulation, de lectures de capteurs et de trafic réseau, identifier des anomalies complexes ou des goulets d'étranglement au niveau des performances, et générer de nouvelles topologies de circuits ou des algorithmes de contrôle beaucoup plus rapidement que les méthodes traditionnelles. Par exemple, l'IA peut vous aider à optimiser la disposition des circuits imprimés pour l'intégrité des signaux et la fabricabilité, à accélérer les simulations électromagnétiques ou de flux d'énergie complexes, à prédire les caractéristiques des dispositifs à semi-conducteurs et à automatiser un large éventail d'opérations de maintenance des systèmes d'alimentation. traitement des signaux et d'analyse des données.

Les invites fournies ci-dessous aideront, par exemple, à la conception générative d'antennes ou de filtres, à l'accélération des simulations (SPICE, simulations de champ électromagnétique, analyse de la stabilité du système électrique), à la maintenance prédictive où l'IA analyse les données des capteurs des transformateurs électriques ou des composants du réseau pour prévoir les défaillances potentielles, ce qui permet un entretien proactif et minimise les temps d'arrêt, à la sélection des matériaux semi-conducteurs ou à la sélection optimale des composants (par exemple, le choix du meilleur amplificateur optique pour des paramètres spécifiques), et bien d'autres choses encore.

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Invitation à l'IA à HV Battery Test Setup Hazard Analysis

Identifies potential electrical thermal chemical and mechanical hazards in a high-voltage battery test setup and suggests corresponding mitigation measures or safety protocols. This helps ensure a safe testing environment for electrical engineers working with EV or grid-scale batteries. The output is a markdown formatted hazard list.

Sortie : 

				
					Act as a Battery Safety Engineer and High-Voltage Test Facility Manager.
Your TASK is to identify potential hazards and suggest mitigation measures for a test setup involving a High-Voltage (HV) battery.
The battery is specified by `{battery_chemistry_and_voltage}` (e.g.
 'Lithium-ion NMC
 400V nominal
 50Ah'
 'LiFePO4
 800V system
 200kW peak').
The test involves `{test_type_and_max_current_or_power}` (e.g.
 'Charge/Discharge Cycling up to 1C/100A'
 'Short Circuit Test with fault current limiter'
 'Performance testing at 150kW peak power').
The test occurs in `{test_environment_description}` (e.g.
 'Dedicated battery test cell with fire suppression and ventilation'
 'University lab bench with basic safety equipment'
 'Outdoor test rig').

**HAZARD ANALYSIS AND MITIGATION MEASURES (Markdown format):**

**Test Setup Context:**
*   **Battery**: `{battery_chemistry_and_voltage}`
*   **Test Type**: `{test_type_and_max_current_or_power}`
*   **Environment**: `{test_environment_description}`

**I. Electrical Hazards:**
    *   **1. High Voltage Shock/Electrocution:**
        *   **Hazard**: Direct contact with HV terminals
 busbars
 or exposed conductors (`{battery_chemistry_and_voltage}` implies lethal voltages).
        *   **Mitigation**:
            *   `[ ]` Use appropriately rated and insulated tools
 probes
 and connectors.
            *   `[ ]` Ensure all HV connections are shrouded or located within an interlocked safety enclosure.
            *   `[ ]` Wear certified HV insulating gloves and face shield/safety glasses.
            *   `[ ]` Implement clear lockout/tagout (LOTO) procedures for connecting/disconnecting the battery.
            *   `[ ]` Use a "one-hand rule" when working near potentially live circuits if enclosure is open (expert procedure).
            *   `[ ]` Ensure availability and proper function of safety interlocks on test fixtures/enclosures.
    *   **2. Arc Flash / Arc Blast:**
        *   **Hazard**: High-energy discharge due to short circuits
 accidental tool contact
 or insulation failure
 causing severe burns
 pressure waves
 and shrapnel.
        *   **Mitigation**:
            *   `[ ]` Perform an arc flash hazard assessment if current/energy levels from `{test_type_and_max_current_or_power}` are high.
            *   `[ ]` Wear appropriate Arc Flash PPE (suit
 hood
 gloves) if assessment dictates.
            *   `[ ]` Use non-conductive barriers and maintain safe approach distances.
            *   `[ ]` Ensure test equipment (e.g.
 power supplies
 loads) has fast-acting overcurrent protection.
            *   `[ ]` Implement current-limiting resistors or fuses in test setup where appropriate
 especially for `{test_type_and_max_current_or_power}` like short circuit tests.
    *   **3. Stored Energy / Unexpected Energization:**
        *   **Hazard**: Battery remains energized even when disconnected. Capacitors in test equipment can store charge.
        *   **Mitigation**:
            *   `[ ]` Always treat batteries as live unless proven otherwise.
            *   `[ ]` Safely discharge any capacitors in the test setup and in the DUT (if applicable) before handling.
            *   `[ ]` Implement clear power-up/power-down sequences.

**II. Thermal Hazards:**
    *   **1. Overheating / Thermal Runaway (especially for Lithium-ion `{battery_chemistry_and_voltage}`):**
        *   **Hazard**: Excessive heat generation during high current `{test_type_and_max_current_or_power}`
 internal short circuits
 or cell failure
 leading to fire
 smoke
 and explosion.
        *   **Mitigation**:
            *   `[ ]` Closely monitor battery cell/module temperatures using thermocouples or IR cameras.
            *   `[ ]` Implement over-temperature protection in the test script/equipment to stop test and isolate battery.
            *   `[ ]` Ensure adequate cooling/ventilation for the battery as per its specification
 especially in the `{test_environment_description}`.
            *   `[ ]` For Li-ion
 have appropriate fire suppression system for Class D fires or as recommended for `{battery_chemistry_and_voltage}` (e.g.
 specialized extinguishers
 water deluge IF safe for setup
 containment vessel). Confirm based on `{test_environment_description}` capabilities.
            *   `[ ]` Maintain safe spacing from flammable materials.

**III. Chemical Hazards (Relevant to `{battery_chemistry_and_voltage}`):**
    *   **1. Electrolyte Leakage / Venting:**
        *   **Hazard**: Leakage of corrosive
 flammable
 or toxic electrolyte. Venting of flammable/toxic gases during overcharge/over-discharge/thermal event.
        *   **Mitigation**:
            *   `[ ]` Wear appropriate chemical-resistant gloves and eye protection if handling potentially leaky cells/modules.
            *   `[ ]` Ensure good ventilation in the `{test_environment_description}` to disperse any vented gases. Consider gas detection systems.
            *   `[ ]` Have spill control kits available appropriate for the electrolyte type.
            *   `[ ]` Understand the specific hazards of `{battery_chemistry_and_voltage}` electrolyte.

**IV. Mechanical Hazards:**
    *   **1. Battery Handling / Dropping:**
        *   **Hazard**: HV batteries can be heavy and awkward. Dropping can cause physical injury and internal damage leading to other hazards.
        *   **Mitigation**:
            *   `[ ]` Use appropriate lifting aids for heavy batteries.
            *   `[ ]` Ensure secure mounting and fixtures for the battery during test.
    *   **2. Projectiles (in case of cell rupture/explosion):**
        *   **Hazard**: High-energy failure can eject parts of the battery or test fixture.
        *   **Mitigation**:
            *   `[ ]` Use a robust safety enclosure or test cell designed to contain potential explosions/projectiles
 especially for abusive `{test_type_and_max_current_or_power}`.
            *   `[ ]` Maintain safe viewing distances or use remote monitoring.

**V. General Procedural & Environmental Safety:**
    *   `[ ]` **Emergency Plan**: Ensure an emergency shutdown procedure is established and all personnel are trained. Know location of emergency exits
 E-stops
 fire extinguishers.
    *   `[ ]` **Training**: Only personnel trained in HV safety and specific battery handling/test procedures should conduct tests.
    *   `[ ]` **Two-Person Rule**: Consider a two-person rule for HV operations
 especially during setup and initial runs.
    *   `[ ]` **Clear Signage**: Post clear warning signs indicating HV test area
 required PPE
 and emergency contacts.

**IMPORTANT**: This list is not exhaustive. A thorough risk assessment specific to the exact `{battery_chemistry_and_voltage}` characteristics
 detailed test plan for `{test_type_and_max_current_or_power}`
 and `{test_environment_description}` conditions MUST be performed. Always follow manufacturer guidelines and relevant safety standards (e.g.
 ISO
 IEC
 UL
 NFPA).
							

Invitation à l'IA à FMEA for Medical Electrical Equipment PSU

Generates a preliminary Failure Modes and Effects Analysis (FMEA) table for the power supply unit (PSU) of a specified medical electrical equipment focusing on patient and operator safety. This helps engineers proactively consider risks during PSU design or selection. The output is a CSV formatted FMEA table.

Sortie : 

				
					Act as a Medical Device Quality and Safety Engineer
 specializing in electrical safety and FMEA.
Your TASK is to generate a preliminary Failure Modes and Effects Analysis (FMEA) table for the Power Supply Unit (PSU) of a `{medical_equipment_type}` (e.g.
 'Portable Ultrasound Scanner'
 'Vital Signs Monitor'
 'Surgical Laser System').
The PSU is described by `{psu_type_and_key_functions_text}` (e.g.
 'Internal AC/DC SMPS
 provides isolated 12V
 5V
 and 24V outputs
 mains input filtering'
 'External medical grade AC adapter with DC output').
Consider requirements from `{relevant_safety_standard_e_g_iec60601}` (e.g.
 IEC 60601-1 3rd Edition
 focusing on Means of Protection - MOPP/MOOP).

**PRELIMINARY FMEA TABLE (Output as CSV String):**

**CSV Header**: `Item_Function
Potential_Failure_Mode
Potential_Effect_of_Failure_Local_PSU
Potential_Effect_of_Failure_System_Medical_Device
Potential_Effect_of_Failure_Patient_Operator
Potential_Cause_of_Failure
Current_Controls_Prevention_Detection
Severity_S_1_5
Occurrence_O_1_5
Detection_D_1_5
Risk_Priority_Number_RPN
Recommended_Actions_Further_Considerations`

**FMEA Logic to Populate Rows (AI to generate 3-5 example rows):**
For key functional blocks or components within a typical PSU as per `{psu_type_and_key_functions_text}` (e.g.
 Mains Input Filter
 Rectifier
 PFC Stage
 Isolation Transformer
 Output Rectifier/Filter
 Control Circuitry
 Enclosure/Connectors):
1.  **Item/Function**: The PSU sub-circuit or function.
2.  **Potential Failure Mode**: How it could fail (e.g.
 Short circuit
 Open circuit
 Component drift
 Loss of isolation
 Overvoltage output
 No output).
3.  **Potential Effect (Local
 System
 Patient/Operator)**: Consequences at different levels.
    *   Focus on safety implications related to `{relevant_safety_standard_e_g_iec60601}`: electric shock
 burns
 incorrect device operation affecting diagnosis/treatment.
4.  **Potential Cause**: Why the failure mode might occur (e.g.
 Component end-of-life
 Overstress
 Manufacturing defect
 Environmental factors
 Design flaw).
5.  **Current Controls**: Typical design features or tests that prevent/detect the failure (e.g.
 Fuses
 MOVs
 Proper insulation/creepage/clearance
 Production testing
 Component derating
 Shielding).
6.  **Severity (S)**: Impact on patient/operator safety (1=Low
 5=Catastrophic). Consider `{relevant_safety_standard_e_g_iec60601}` context.
7.  **Occurrence (O)**: Likelihood of the cause (1=Remote
 5=Frequent).
8.  **Detection (D)**: Likelihood of detecting failure mode/cause BEFORE harm occurs (1=High
 5=Very Low/Impossible).
9.  **RPN**: S * O * D.
10. **Recommended Actions**: Further design analysis
 testing
 or control improvements.

**Example CSV Rows (Conceptual - AI to generate specific content):**
`Mains_Input_Filter
Capacitor_Short_Y-cap_to_Earth
Loss_of_filtering
Increased_conducted_EMI
Potential_for_enclosure_to_become_live_if_PE_is_faulty
Electric_shock_to_operator_or_patient
Component_failure_due_to_overvoltage_or_defect
Safety_certified_Y-capacitors
Production_hipot_test
Proper_PE_connection
5
2
3
30
Verify_Y-cap_rating_and_PE_integrity
Consider_redundant_PE_path_if_risk_high`
`Isolation_Transformer
Primary-to-Secondary_Winding_Short
Loss_of_isolation
High_voltage_on_secondary_side
Entire_medical_device_secondary_circuitry_becomes_live
Severe_electric_shock_risk_to_patient_and_operator
Insulation_breakdown_due_to_age
overvoltage
or_manufacturing_defect
Reinforced_or_double_insulation_design_as_per_IEC60601-1
100%_hipot_testing_in_production
Use_of_certified_transformer
5
1
2
10
Ensure_transformer_meets_MOPP_MOOP_requirements_for_`{medical_equipment_type}`
Review_creepage_clearance_post-assembly`
`Output_Control_Circuit
Feedback_Loop_Failure_leading_to_Overvoltage
PSU_output_voltage_exceeds_specification
Damage_to_medical_device_electronics
Incorrect_device_operation_e.g._over-delivery_of_energy_or_incorrect_reading
Patient_injury_due_to_device_malfunction
Component_failure_in_feedback_path_e.g._optocoupler_resistor
Software_error_in_digital_control
Overvoltage_protection_circuit_OVP
Independent_voltage supervision
Software_validation
4
2
3
24
Verify_OVP_setpoint_and_response_time
Assess_single_fault_tolerance_of_feedback_loop`

**IMPORTANT**: This FMEA is PRELIMINARY. The AI should populate it with plausible scenarios relevant to a PSU for `{medical_equipment_type}` and general requirements of `{relevant_safety_standard_e_g_iec60601}`. The S
O
D ratings are INITIAL ESTIMATES for discussion
 actual ratings require detailed team review and data. The focus is on safety
 particularly patient and operator MOPs.
							

Invitation à l'IA à Arc Flash Hazard Analysis Data Checklist

Generates a checklist of essential data required to perform an arc flash hazard analysis study for an electrical installation according to common industry standards (e.g. IEEE 1584 NFPA 70E). This helps engineers gather necessary information efficiently. The output is a markdown formatted checklist.

Sortie : 

				
					Act as an Electrical Safety Engineer specializing in Arc Flash Hazard Analysis.
Your TASK is to generate a comprehensive checklist of data and information typically required to perform an Arc Flash Hazard Analysis study for a `{type_of_electrical_installation}` (e.g.
 'Industrial Manufacturing Plant Switchgear'
 'Commercial Building Main Distribution Panel'
 'Data Center Power Distribution Units (PDUs)'
 'Utility Substation AC/DC Systems') operating at `{voltage_level_kv_or_v}` (e.g.
 '480V'
 '4.16kV'
 '13.8kV'
 '125V DC').
The study is assumed to follow principles outlined in `{relevant_standard_for_arc_flash}` (e.g.
 'IEEE 1584-2018'
 'NFPA 70E'
 'CSA Z462').

**ARC FLASH HAZARD ANALYSIS DATA CHECKLIST (Markdown format):**

**Project Context:**
*   **Installation Type**: `{type_of_electrical_installation}`
*   **Voltage Level**: `{voltage_level_kv_or_v}`
*   **Applicable Standard**: `{relevant_standard_for_arc_flash}`

**I. System One-Line Diagrams:**
    *   `[ ]` Up-to-date
 accurate
 and complete electrical one-line diagram(s) for the entire system or area under study.
    *   `[ ]` Diagram must show all relevant equipment: Switchgear
 MCCs
 panelboards
 transformers
 generators
 large motors
 cables
 busways
 protective devices.
    *   `[ ]` Include equipment ratings
 names/IDs
 and interconnections.

**II. Source Data (Utility and On-Site Generation):**
    *   `[ ]` **Utility Source**: Available short-circuit current (three-phase and line-to-ground bolted fault) at the point of common coupling (PCC) or service entrance.
        *   `[ ]` Utility X/R ratio at PCC.
        *   `[ ]` Utility voltage and configuration (e.g.
 solidly grounded wye
 ungrounded delta).
    *   `[ ]` **On-Site Generation (if any
 e.g.
 generators
 solar PV inverters
 UPS contributing to fault current):**
        *   `[ ]` Generator ratings (kVA
 voltage
 subtransient reactance X"d
 X/R ratio).
        *   `[ ]` UPS ratings
 fault contribution capability
 and duration.
        *   `[ ]` PV inverter fault current contribution characteristics.

**III. Equipment Data (for each piece of equipment to be analyzed):**
    *   `[ ]` **Transformers:**
        *   `[ ]` kVA rating
 primary/secondary voltages
 impedance (%Z or actual ohms)
 X/R ratio
 winding connections (delta/wye
 grounding).
    *   `[ ]` **Cables/Conductors:**
        *   `[ ]` Type
 size (AWG/kcmil)
 length
 number of conductors per phase
 material (Cu/Al)
 insulation type.
        *   `[ ]` Raceway type (conduit
 tray) and configuration.
    *   `[ ]` **Busways/Bus Ducts:**
        *   `[ ]` Manufacturer
 model
 ampacity
 impedance data (if available
 or length/type for software library).
    *   `[ ]` **Switchgear
 Switchboards
 MCCs
 Panelboards:**
        *   `[ ]` Manufacturer
 model
 voltage rating
 continuous current rating
 short-circuit withstand/interrupting rating.
        *   `[ ]` Type of enclosure (e.g.
 NEMA 1
 NEMA 3R
 Arc Resistant type and rating if applicable).
        *   `[ ]` Working distances (typical distance from worker to potential arc source for different tasks).
        *   `[ ]` Electrode configuration (e.g.
 VCB
 HCB
 VOA
 HOA as per IEEE 1584).
        *   `[ ]` Dimensions of enclosure/compartment if using IEEE 1584 calculations.

**IV. Protective Device Data (for ALL devices in the fault current path):**
    *   `[ ]` **Fuses:**
        *   `[ ]` Manufacturer
 type (e.g.
 Class L
 RK1)
 continuous current rating
 voltage rating.
        *   `[ ]` Time-Current Curves (TCCs).
    *   `[ ]` **Circuit Breakers (LV
 MV
 HV):**
        *   `[ ]` Manufacturer
 type/model (e.g.
 MCCB
 ACB
 VCB)
 frame size
 sensor/trip unit rating.
        *   `[ ]` Trip unit type (thermal-magnetic
 solid-state/electronic) and settings (Long Time
 Short Time
 Instantaneous
 Ground Fault pickups and delays).
        *   `[ ]` Interrupting rating.
        *   `[ ]` Total clearing time characteristics (TCCs
 or manufacturer's data for opening time).
    *   `[ ]` **Protective Relays (if controlling breaker opening):**
        *   `[ ]` Manufacturer
 model
 type (e.g.
 overcurrent
 differential).
        *   `[ ]` All relevant settings (pickup
 time dial
 curve type
 instantaneous settings).
        *   `[ ]` CT/VT ratios associated with the relay.
        *   `[ ]` Breaker operating time (from relay trip signal to contact part).

**V. System Operating Scenarios:**
    *   `[ ]` Normal operating configuration.
    *   `[ ]` Alternative operating modes or tie-breaker positions that could affect fault current levels (e.g.
 emergency generator online
 parallel utility feeds).
    *   `[ ]` Plans for future expansion or modifications that might impact short circuit levels.

**VI. Facility Information (for Labeling & PPE):**
    *   `[ ]` Equipment labeling conventions/requirements.
    *   `[ ]` Existing electrical safety program and PPE policy.

**IMPORTANT**: This checklist provides a comprehensive list. The accuracy and completeness of this data are CRITICAL for a valid arc flash study. Software tools (e.g.
 ETAP
 SKM PowerTools
 EasyPower) are typically used for the calculations based on this data. Always refer to the latest version of `{relevant_standard_for_arc_flash}`.
							

Invitation à l'IA à Safety Interlock Design for Robotic Cell

Outlines key design considerations and components for a safety interlock system in an industrial robotic cell focusing on preventing human access to hazardous areas during operation. This helps automation and electrical engineers design robust safety systems compliant with relevant standards. The output is a markdown list of considerations.

Sortie : 

				
					Act as a Machine Safety Specialist and Control Systems Engineer.
Your TASK is to outline key design considerations for a safety interlock system for an industrial robotic cell used for `{robotic_cell_application_description}` (e.g.
 'Automated welding of automotive parts'
 'Robotic pick-and-place for packaging'
 'CNC machine tending by robot arm').
The system must protect personnel from hazards listed in `{types_of_hazards_present_csv}` (e.g.
 'Robot_arm_impact_crushing
Weld_arc_flash_UV
Moving_conveyor_entanglement
Part_ejection').
The design should consider principles from `{relevant_safety_standard_e_g_iso10218}` (e.g.
 ISO 10218-2 'Robots and robotic devices - Safety requirements for industrial robots - Part 2: Robot systems and integration'
 IEC 62061
 ISO 13849-1).

**SAFETY INTERLOCK SYSTEM DESIGN CONSIDERATIONS (Markdown format):**

**1. Risk Assessment & Performance Level (PL) / Safety Integrity Level (SIL) Determination:**
    *   `[ ]` **Perform a Thorough Risk Assessment**: Identify all tasks (operation
 maintenance
 setup
 cleaning)
 hazards from `{types_of_hazards_present_csv}`
 and potential human interactions.
    *   `[ ]` **Determine Required PL/SIL**: For each safety function provided by the interlock system (e.g.
 guard door interlock
 light curtain muting)
 determine the required Performance Level (PLr) according to ISO 13849-1 or Safety Integrity Level (SIL CL) according to IEC 62061 based on risk severity
 frequency of exposure
 and possibility of avoidance.

**2. Guarding and Access Control:**
    *   `[ ]` **Perimeter Guarding**: Fixed guards (fencing) to prevent unauthorized access to the robot's restricted space. Ensure height and construction meet standards (e.g.
 ISO 13857 for safety distances).
    *   `[ ]` **Access Doors/Gates**: 
        *   `[ ]` Equip all access doors/gates with interlocking devices.
        *   `[ ]` Interlocks should signal the robot control system to stop hazardous motion (e.g.
 Safety Stop 1 or Safety Stop 0 as per ISO 10218) when the guard is opened.
    *   `[ ]` **Types of Interlocking Devices**: Select based on PLr/SIL CL
 frequency of access
 and environmental conditions:
        *   `[ ]` Mechanical (tongue/key operated switches).
        *   `[ ]` Non-contact (magnetic
 RFID coded). Coded switches prevent simple defeat.
        *   `[ ]` Trapped-key systems for complex access sequences.
    *   `[ ]` **Guard Locking**: If stopping time of hazard is longer than access time
 implement guard locking. The guard remains locked until the hazard has ceased. Consider:
        *   `[ ]` Spring-to-lock
 power-to-unlock (safer for power failure).
        *   `[ ]` Monitoring of lock status.
        *   `[ ]` Emergency release from inside the guarded space (if whole-body access is possible).

**3. Presence Sensing Devices (Active Optoelectronic Protective Devices - AOPDs):**
    *   `[ ]` **Light Curtains**: For frequently accessed openings. Ensure correct resolution
 height
 and safety distance from hazard zone (calculated based on stopping time and approach speed - ISO 13855).
    *   `[ ]` **Laser Scanners (Area Scanners)**: For complex or irregular shaped zones. Define warning and safety zones.
    *   `[ ]` **Pressure-Sensitive Mats**: Detect presence within a defined area.
    *   `[ ]` **Muting/Blanking**: If AOPDs need to be temporarily suspended for material pass-through
 implement muting functions strictly according to standards (e.g.
 IEC 62046). Muting should be time-limited
 sequence-controlled
 and use diverse sensors.

**4. Emergency Stop System:**
    *   `[ ]` **E-Stop Buttons**: Clearly visible
 easily accessible
 and compliant (e.g.
 red mushroom head on yellow background).
    *   `[ ]` E-Stop circuit must be hardwired or achieve equivalent safety via safety network.
    *   `[ ]` E-Stop should initiate a Category 0 or Category 1 stop (as per IEC 60204-1) for all hazardous motions in the cell.
    *   `[ ]` E-Stop must override all other controls
 except for some specific rescue operations.
    *   `[ ]` Resetting an E-Stop must not automatically restart machinery.

**5. Robot Control System Safety Functions (as per `{relevant_safety_standard_e_g_iso10218}`):**
    *   `[ ]` **Safe Robot Stop**: Ensure reliable stop functions (SS1
 SS2
 STO - Safe Torque Off).
    *   `[ ]` **Safe Speed Monitoring**: If collaborative operation or reduced speed during teaching/maintenance is used.
    *   `[ ]` **Safe Zone Limiting**: Restricting robot's working space dynamically or statically.
    *   `[ ]` **Enabling Device (Hold-to-Run / Three-Position Switch)**: For teach mode or manual intervention inside the guarded space.

**6. Safety Logic Solver / Safety Controller:**
    *   `[ ]` Use safety-rated relays
 safety PLCs
 or integrated safety controllers that meet the required PLr/SIL CL.
    *   `[ ]` **Redundancy and Monitoring**: Implement principles like dual-channel inputs
 cross-monitoring
 fault detection
 and defined fault reaction (e.g.
 revert to safe state).
    *   `[ ]` **Logic Design**: Ensure safety logic is clear
 tested
 and validated. Avoid complexity that could introduce errors.
    *   `[ ]` **Prevention of Unexpected Start-up (ISO 14118)**: Ensure measures are in place to prevent machinery from starting unexpectedly after a stop or interlock activation.

**7. Reset Procedures:**
    *   `[ ]` A deliberate manual reset action
 performed from outside the hazard zone
 should be required after an interlock or E-Stop has been cleared before restarting the system.
    *   `[ ]` Ensure the cause of the stop has been rectified before reset is possible.

**8. Wiring and Installation:**
    *   `[ ]` Use safety-rated components and wiring practices.
    *   `[ ]` Protect wiring from mechanical damage
 EMI
 and environmental factors.
    *   `[ ]` Ensure proper grounding and shielding.

**9. Validation and Testing:**
    *   `[ ]` Develop a validation plan for all safety functions.
    *   `[ ]` Functionally test every interlock
 E-Stop
 AOPD
 and safety logic under all foreseeable operating and fault conditions before putting the cell into service.
    *   `[ ]` Document all validation results.

**IMPORTANT**: The design of safety systems is a critical task that must be performed by competent personnel and strictly adhere to all applicable local and international safety standards
 including `{relevant_safety_standard_e_g_iso10218}`. This checklist is a starting point for consideration.
							

Invitation à l'IA à Analyse éthique New Power Device

Évalue les considérations éthiques, les conséquences sociétales et l'impact environnemental d'un nouveau dispositif d'alimentation électrique. Cette invite aide les ingénieurs à identifier les dilemmes potentiels et les voies de l'innovation responsable en analysant son cycle de vie.

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					You are an AI assistant for Electrical Engineers specializing in ethical impact analysis.
**Objective:** Conduct a comprehensive ethical consideration and impact analysis for a new electrical power device.

**Device Information:**
- New Device Description: `{device_description}` (e.g. type of device functionality novelty performance metrics)
- Material List (CSV format): `{material_list_csv}` (Columns: MaterialName SourceToxicityRecyclability)
- Manufacturing Process Summary: `{manufacturing_process_summary}` (Key steps energy consumption waste products)

**Task:**
Generate a report in MARKDOWN format. The report MUST address the following areas:
1.  **Ethical Dilemmas:** Analyze potential ethical issues related to the device's development manufacturing use and disposal. (e.g. resource sourcing labor practices data privacy if applicable safety).
2.  **Societal Consequences:** Evaluate potential positive and negative societal impacts. (e.g. job creation skill displacement accessibility public safety quality of life).
3.  **Environmental Impact Assessment:** Detail potential environmental effects throughout the device lifecycle. (e.g. carbon footprint resource depletion pollution e-waste generation).
4.  **Recommendations for Responsible Innovation:** Propose actionable strategies to mitigate negative impacts and enhance positive contributions.

**IMPORTANT:**
- Your analysis MUST be grounded in established ethical frameworks and sustainability principles relevant to Electrical Engineering.
- Provide specific examples and justifications for your points.
- The output MUST be a well-structured MARKDOWN document.
							

Invitation à l'IA à Impact sociétal AI Smart Grid

Examine l'impact sociétal du déploiement d'un algorithme d'IA spécifique dans la gestion des réseaux intelligents dans un contexte géographique défini. L'objectif est de mettre en évidence les effets sur l'équité, la confidentialité et la fiabilité pour une prise de décision éclairée.

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					You are an AI assistant for Electrical Engineers focusing on the societal implications of technology.
**Objective:** Analyze the societal impact of deploying a specific Artificial Intelligence (AI) algorithm for smart grid management.

**Contextual Information:**
- AI Algorithm Description: `{ai_algorithm_description}` (e.g. machine learning technique purpose data inputs outputs)
- Deployment Scenario: `{deployment_scenario}` (e.g. predictive maintenance load balancing demand-response program)
- Geographical Region of Deployment: `{geographical_region}` (e.g. urban rural specific country or city noting unique demographic or infrastructure features)

**Task:**
Provide a textual analysis detailing the potential societal impacts. Your analysis MUST include:
1.  **Positive Impacts:** Identify benefits such as improved grid efficiency reliability cost savings for consumers and integration of renewables.
2.  **Negative Impacts & Risks:** Identify potential drawbacks such as job displacement for traditional roles data privacy concerns algorithmic bias leading to unfair energy distribution and cybersecurity vulnerabilities.
3.  **Equity Considerations:** Discuss how the AI deployment might affect different socio-economic groups. Will it exacerbate or alleviate energy poverty or digital divide?
4.  **Stakeholder Impact:** Briefly outline impacts on key stakeholders (consumers utility companies regulators employees).

**IMPORTANT:**
- Frame your analysis from an Electrical Engineering perspective but with a strong emphasis on societal outcomes.
- The response should be a balanced view highlighting both opportunities and challenges.
- Use clear and concise language avoiding overly technical jargon where possible.
							

Invitation à l'IA à Dilemmes éthiques Inspection autonome

Identifie et explore les dilemmes éthiques liés à l'utilisation de drones autonomes pour l'inspection des infrastructures électriques, en mettant l'accent sur la confidentialité des données, la surveillance et la sécurité. L'invite aide à créer des lignes directrices opérationnelles.

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					You are an AI assistant for Electrical Engineers with expertise in autonomous systems and ethics.
**Objective:** Identify and analyze potential ethical dilemmas associated with using autonomous drones for electrical infrastructure inspection.

**System Details:**
- Drone Capabilities Description: `{drone_capabilities_description}` (e.g. sensor types data captured flight autonomy level operational range)
- Data Collection & Usage Policy Summary: `{data_collection_policy_summary}` (How data is collected stored processed shared and secured)
- Operational Context: `{operational_context}` (e.g. urban vs rural inspections над private property critical infrastructure zones)

**Task:**
Generate a MARKDOWN document outlining:
1.  **Key Ethical Dilemmas:** Systematically list and describe potential ethical dilemmas. Examples include:
    *   Privacy violations (surveillance of private citizens or property).
    *   Data security and misuse of collected sensitive information.
    *   Safety risks (drone malfunction causing harm or damage).
    *   Accountability and liability in case of errors or accidents.
    *   Potential for misuse (e.g. unauthorized surveillance).
2.  **Analysis of Dilemmas:** For each dilemma discuss its implications for individuals society and the engineering profession.
3.  **Proposed Mitigation Strategies/Best Practices:** For each identified dilemma suggest concrete ethical guidelines operational procedures or technological safeguards to mitigate risks.

**IMPORTANT:**
- The focus MUST be on the unique ethical challenges posed by AUTONOMOUS inspection systems in Electrical Engineering.
- Ensure proposed strategies are practical and actionable for engineering teams.
- The output format MUST be a structured MARKDOWN list.
							

Invitation à l'IA à Implications politiques Déploiement de la recharge des VE

Analyse les implications politiques du déploiement à grande échelle d'une technologie spécifique de recharge des véhicules électriques (VE), afin de fournir des indications pour la planification des infrastructures et le développement de la réglementation. Cette invite s'appuie sur des ressources en ligne pour le contexte politique actuel.

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					You are an AI assistant for Electrical Engineers specializing in energy policy and electric mobility.
**Objective:** Analyze the policy implications of a widespread rollout of a specific Electric Vehicle (EV) charging technology.

**Scenario Details:**
- EV Charging Technology: `{ev_charging_technology_description}` (e.g. Level 2 AC ultra-fast DC V2G capabilities)
- Target Deployment Scale: `{target_deployment_scale}` (e.g. city-wide national coverage percentage of parking spots)
- Existing Energy Policy Summary URL: `{existing_energy_policy_summary_url}` (Link to a document or webpage summarizing current relevant energy policies for the target region)

**Task:**
Access the provided URL for context on existing energy policies. Then generate a textual report covering:
1.  **Impact on Grid Infrastructure:** Discuss necessary grid upgrades investments and management strategies to support the scaled deployment.
2.  **Required Regulatory Changes:** Identify new regulations or modifications to existing ones needed for issues like:
    *   Standardization and interoperability of charging equipment.
    *   Electricity tariff structures for EV charging.
    *   Permitting processes for charger installation.
    *   Data privacy and security for charging transactions.
3.  **Economic Policy Considerations:** Analyze incentives subsidies carbon pricing or other economic instruments to encourage adoption and manage costs.
4.  **Social Equity Policies:** Suggest policies to ensure equitable access to charging infrastructure across different income groups and geographical areas (urban/rural).

**IMPORTANT:**
- Your analysis MUST integrate information from the provided `{existing_energy_policy_summary_url}`.
- Focus on actionable policy recommendations relevant to Electrical Engineering and infrastructure planning.
- The output should be a structured textual report.
							

Invitation à l'IA à Projet de fiche d'impact de la subvention

Rédiger une section de déclaration d'impact convaincante pour une proposition de subvention sur un projet de recherche spécifique en génie électrique. Elle permet d'articuler l'importance plus large et les avantages potentiels de la recherche pour la société et la communauté scientifique.

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					You are an AI assistant specialized in scientific writing for Electrical Engineers.
**Objective:** Draft a compelling 'Broader Impacts' or 'Impact Statement' section for a grant proposal related to an electrical engineering research project.

**Proposal Information:**
- Research Project Summary: `{research_project_summary}` (Briefly describe the project's goals methodology and primary research question in electrical engineering).
- List of Expected Outcomes: `{expected_outcomes_list}` (e.g. new algorithm developed novel material characterized improved system efficiency demonstrated).
- Target Beneficiaries Description: `{target_beneficiaries_description}` (Who will benefit from this research e.g. specific industries scientific community public society at large).

**Task:**
Generate a draft text for the Impact Statement. The statement MUST:
1.  Clearly articulate the potential of the research to advance knowledge and understanding within its field and across different fields.
2.  Describe the potential broader benefits to society (e.g. economic environmental health or security benefits).
3.  Explain how the project will contribute to achieving specific societal goals if applicable (e.g. related to sustainability energy efficiency healthcare).
4.  Outline plans to disseminate results and engage the broader community (if applicable).
5.  Be written in a persuasive and clear tone suitable for grant reviewers.

**IMPORTANT:**
- The length should be appropriate for a standard grant proposal section (typically 1-2 paragraphs).
- Focus on the SIGNIFICANCE and POTENTIAL BENEFITS of the research.
- Ensure the language aligns with common grant proposal writing styles.
							

Invitation à l'IA à Simplifier la terminologie des fiches techniques RFIC

Simplifie et explique la terminologie et les spécifications complexes des fiches techniques des circuits intégrés de radiofréquence (par exemple, les paramètres S IIP3 NF P1dB) pour les ingénieurs électriciens qui ne sont pas des spécialistes des radiofréquences mais qui doivent intégrer de tels circuits. Cela permet d'améliorer la sélection des composants et la conception des systèmes. Le résultat est une explication en format markdown.

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					Act as a Senior RF Applications Engineer.
Your TASK is to simplify and explain the complex terminology and specifications found in the provided `{rfic_datasheet_snippet_text}` from an RFIC (Radio Frequency Integrated Circuit) datasheet.
The explanation should be tailored for a `{target_audience_role}` (e.g.
 'Embedded Systems Engineer integrating an RF module'
 'Power Electronics Engineer needing to understand EMI from an RF section'
 'Project Manager overseeing a wireless product development').
If `{specific_parameters_to_clarify_csv_optional}` (CSV string of parameter names
 e.g.
 'IIP3
Noise_Figure_NF
P1dB
S21') is provided
 focus particularly on those.

**EXPLANATION STRUCTURE (Markdown format):**

**Original Datasheet Snippet Context:** (Briefly state what kind of RFIC the snippet likely refers to
 e.g.
 LNA
 Mixer
 PA
 Transceiver
 based on the terms in the snippet).

**Simplified Explanation of Key Terms and Specifications:**

*(For each key term or parameter found in the snippet
 especially those in `{specific_parameters_to_clarify_csv_optional}`
 provide the following):*

**1. Parameter/Term:** `[e.g.
 IIP3 (Input Third-Order Intercept Point)]`
    *   **Plain Language Definition**: What does this parameter fundamentally measure or indicate
 in simple terms?
        *   _Example for IIP3_: "IIP3 tells you how well the RFIC handles strong incoming signals without creating its own unwanted interference (called intermodulation distortion). A higher IIP3 value is generally better
 meaning it's more 'linear' and less prone to creating this self-interference when multiple signals are present."
    *   **Why it Matters to `{target_audience_role}`**: How does this parameter impact the overall system performance or design considerations for someone in that role?
        *   _Example for IIP3 & Embedded Engineer_: "If you have many wireless devices nearby or strong signals in your environment
 an RFIC with a poor (low) IIP3 might get 'overloaded' and its receiver could stop working correctly or produce errors
 even if the desired signal is clean. You might need better filtering before this RFIC
 or choose one with a higher IIP3."
    *   **Typical Values & Units (if in snippet)**: Mention typical units (e.g.
 dBm for IIP3
 dB for NF). If the snippet gives a value
 mention if it's good/typical for that type of device.
    *   **Simplified Analogy (Optional
 if helpful)**: Use a simple analogy if it clarifies the concept.
        *   _Example for NF (Noise Figure)_: "Think of Noise Figure like the 'static' a radio adds to a weak station. A lower NF means the RFIC adds less of its own noise
 so it can pick up weaker desired signals more clearly."

**2. Parameter/Term:** `[e.g.
 Noise Figure (NF)]`
    *   **Plain Language Definition**: ...
    *   **Why it Matters to `{target_audience_role}`**: ...
    *   ...and so on.

**3. Parameter/Term:** `[e.g.
 P1dB (Output Power at 1dB Compression Point)]`
    *   ...

**4. Parameter/Term:** `[e.g.
 S21 (Forward Transmission Coefficient / Gain)]`
    *   ...

**General Implications from the Snippet for `{target_audience_role}`:**
    *   Based on the overall values in `{rfic_datasheet_snippet_text}`
 what are the key takeaways or design trade-offs this RFIC implies for the system? (e.g.
 'This LNA seems optimized for very low noise reception but may not handle very strong interfering signals well.'
 or 'This PA offers high output power
 but you'll need to manage heat dissipation and ensure the power supply is robust.').

**IMPORTANT**: The simplification MUST NOT sacrifice technical accuracy but should prioritize clarity for the specified non-RF-specialist audience. Focus on practical implications. If the snippet is too short for a full explanation of all terms
 focus on the most critical ones or those listed in `{specific_parameters_to_clarify_csv_optional}`.
							
Table des matières
    إضافة رأس لبدء إنشاء جدول المحتويات

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    Sujets abordés : invites de test, validation, saisie par l'utilisateur, collecte de données, mécanisme de retour d'information, tests interactifs, conception d'enquêtes, tests d'utilisabilité, évaluation de logiciels, conception expérimentale, évaluation des performances, questionnaire, ISO 9241, ISO 25010, ISO 20282, ISO 13407, et ISO 26362.

    1. Megan Clay

      l'efficacité de l'IA à générer des invites dépend-elle largement de la qualité des données d'entrée ?

    2. Lance

      des projets d'ingénierie également ? Discutons-en également.

      1. Fabrice

        L'IA n'est pas une solution miracle !

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