1. Visual Inspection 2. Power Systems 3. Joints and Actuators 4. Sensors and Input Systems 5. Mobility and Locomotion 6. Communication Systems 7. Software and AI Systems 8. Safety Systems 9. Cleaning and Sanitization 10. Documentation Optional: End-of-Day Checks By following this checklist daily, you can ensure optimal performance, longevity, and safety of the humanoid

1. Comprehensive Visual Inspection 2. Power Systems 3. Joints and Actuators 4. Sensors and Input Systems 5. Mobility and Locomotion 6. Communication Systems 7. Software and AI Systems 8. Safety Systems 9. Cleaning and Sanitization 10. Component Testing and Replacement 11. Documentation and Reporting 12. Functional Testing 13. Optional Enhancements By adhering to this comprehensive

Physical Inspection Battery and Power System Mobility System Sensor Calibration Software and Firmware Communication Systems Hydraulic and Pneumatic Systems (if applicable) Emergency Systems Data Backup Performance Check Cleaning and Lubrication Documentation This checklist ensures the humanoid robot remains functional and efficient throughout its operational lifecycle.

Physical Inspection Power System Mobility System Sensor and Perception Systems Communication Systems Software and Firmware Safety Systems Hydraulic and Pneumatic Systems (if applicable) Performance Readiness Environmental Setup Data and Logs Final Check This checklist ensures the humanoid robot is prepared for safe and efficient operation while minimizing the risk of errors or malfunctions.

Real-Time Monitoring Sensor Feedback Communication Systems Safety Protocols Mobility and Balance Task-Specific Performance Environmental Interaction Error and Alert Handling Thermal and Power Management Log and Data Collection Operator Communication End-of-Shift Readiness This checklist ensures the humanoid robot performs optimally and safely while maintaining its operational efficiency and reliability.

Power Management Sensor and System Diagnostics Mobility Components Structural Integrity System Updates Cooling and Thermal Systems Data and Logs Communication Systems Cleaning and Maintenance Safety Checks Recalibration Performance Review Storage and Readiness This after-operations maintenance checklist ensures the humanoid robot is properly inspected, repaired, and prepared for future use, maintaining its reliability and longevity.

Robot Model: [Enter Model Name]Robot ID: [Enter Unique Identifier]Date: [Enter Date]Time of Maintenance: [Start Time – End Time]Technician Name: [Enter Full Name] 1. General Information 2. Inspection Overview Component/System Inspection Status Observations Action Required Follow-Up Date (if any) Technician Initials Power System ☐ Pass ☐ Fail [E.g., Battery 85% capacity, overheating] [Replace/Recharge/None] [E.g., 2 days

General Information Checklist 1. Power System 2. Motors and Actuators 3. Joints and Limbs 4. Sensors 5. Software and Control Systems 6. Communication Systems 7. Structural Integrity 8. Mobility Systems 9. Manipulation Systems 10. Safety Systems 11. Environmental Adaptability 12. Maintenance Tools Technician’s Notes Sign-Off Technician Name: [Enter Name]Signature: ____________________________Date: [Enter Date] Supervisor Name: [Enter

General Information I. Diagnostic Overview II. Test Categories 1. Power System Diagnostics 2. Motor and Actuator Performance 3. Joint and Limb Functionality 4. Sensor Diagnostics 5. Software and Control Systems 6. Communication Systems 7. Mobility and Locomotion 8. Manipulation Systems 9. Safety Systems III. Test Results IV. Technician’s Notes Sign-Off Technician Name: [Enter Name]Signature: ____________________________Date:

General Information I. Summary of Issues Issue ID Component/System Identified Problem Priority Level (High/Medium/Low) Date/Time Identified Status (Open/Closed) [ID#] [Component Name] [Problem Description] [Priority Level] [Date/Time] [Status] II. Details of Identified Issues 1. Issue ID: [Enter ID] 2. Issue ID: [Enter ID] III. Repair and Maintenance Actions Repair ID Component/System Repair Action Taken Tools/Parts Used

General Information I. Summary of Follow-Up Actions Follow-Up ID Issue ID Component/System Action Required Priority Level (High/Medium/Low) Scheduled Date Assigned Technician Status (Open/Completed) [ID#] [ID#] [Component Name] [Action Description] [Priority Level] [Scheduled Date] [Technician Name] [Status] II. Follow-Up Details 1. Follow-Up ID: [Enter ID] 2. Follow-Up ID: [Enter ID] III. Scheduling Overview Task ID Component/System

General Information I. Spare Parts Summary Part ID Part Name Component/System Quantity Used Quantity Remaining Date of Use Purpose of Use Technician [ID#] [Part Name] [System Name] [Qty Used] [Qty Remaining] [Date] [Repair/Replacement/Upgrade] [Technician Name] [ID#] [Part Name] [System Name] [Qty Used] [Qty Remaining] [Date] [Repair/Replacement/Upgrade] [Technician Name] II. Detailed Spare Part Usage 1. Part

General Information I. Calibration Summary Component/System Calibration Method Used Initial Reading Post-Calibration Reading Calibration Status Last Calibration Date Next Calibration Date Technician [Component Name] [Method Used] [Value] [Value] [Pass/Fail] [Last Date] [Next Date] [Technician Name] [Component Name] [Method Used] [Value] [Value] [Pass/Fail] [Last Date] [Next Date] [Technician Name] II. Detailed Calibration Records 1. Component Name:

Items typically covered under a warranty for a humanoid robot are categorized into hardware, software, and support services. Below is a detailed list of components and systems that may be covered: Here’s how mechanical systems in a humanoid robot would typically be covered under a warranty, along with specific terms and coverage details: Actuators and

A system similar to the Carfax Maintenance Report could be designed specifically for humanoid robots to provide comprehensive tracking, logging, and reporting of maintenance activities. Such a system would enhance operational efficiency, ensure reliability, and improve long-term robot performance. Below are key features and implementation strategies: 1. Features of a Maintenance Tracking System for Humanoid

Supply Chain Management (SCM) for humanoid robotics involves coordinating and optimizing the flow of materials, components, and services required to design, manufacture, and deliver humanoid robots. Given the complexity of humanoid robots—requiring precision engineering, advanced electronics, and cutting-edge software—effective SCM is critical to ensure timely production, cost-efficiency, and product quality. 1. Importance of SCM in