The document outlines the product requirements for the Atlas solar robot, designed to enhance the efficiency, safety, and scalability of solar panel installation. Key features include automated installation, heavy lifting capabilities, precision alignment, and remote operation, while addressing user needs, technical specifications, and safety protocols. The deployment timeline spans 27 months, with objectives aimed at significantly improving installation speed and reducing workplace accidents.

1. Product Requirements Document:
Atlas Solar Robot
1. Overview:
AES is pioneering the transformation of solar installation to make it more accessible, efficient,
and scalable, thereby accelerating global decarbonization efforts. To achieve this vision, AES
has developed Atlas, a groundbreaking solar robot designed to enhance the speed, efficiency,
and safety of solar panel installation. Atlas will revolutionize the solar industry by automating
labor-intensive tasks, reducing costs, and improving project scalability.
2. Objectives:
● Develop a solar robot capable of safely and efficiently installing solar panels.
● Enhance the speed and precision of solar panel installation to meet increasing demand.
● Improve safety for workers by automating heavy lifting and hazardous tasks.
● Enable partners to deploy solar resources faster and with greater reliability.
● Achieve flexibility and scalability to adapt to various project requirements and
environments.
3. Features:
● Automated Installation: Atlas will autonomously perform the placement and attachment
of solar modules, reducing the need for manual labor.
● Heavy Lifting Capability: Equipped with advanced lifting mechanisms, Atlas can handle
the heavy lifting required for solar panel installation.
● Precision and Accuracy: Utilizing advanced sensors and positioning systems, Atlas
ensures precise alignment and placement of solar panels.
● Modular Design: Atlas features a modular design, allowing for easy customization and
scalability to accommodate different project sizes and configurations.
● Safety Protocols: Built-in safety protocols ensure the protection of workers and
equipment during operation.
● Remote Operation: Atlas can be operated remotely, enabling installation in remote or
harsh environments.
● Compatibility: Compatible with various ground and soil types, including landfills, and
resistant to wind and harsh weather conditions.
● Integration: Atlas integrates seamlessly with other energy systems, such as battery
storage, to provide hybrid energy solutions.

2. 4. User Stories:
● As a solar installation company, I want Atlas to automate the labor-intensive tasks
involved in solar panel installation, allowing my workforce to focus on higher-value
activities.
● As a construction worker, I want Atlas to enhance safety by performing heavy lifting and
hazardous tasks, reducing the risk of injuries on-site.
● As a project manager, I want Atlas to improve the speed and efficiency of solar panel
installation, enabling us to meet project deadlines and scale our operations effectively.
5. Technical Requirements:
● Robotic Arm: Atlas will be equipped with a robotic arm capable of lifting and positioning
solar panels with precision.
● Sensors and Cameras: Advanced sensors and cameras will provide real-time feedback
to ensure accurate placement and alignment of solar panels.
● Battery Power: Atlas will be powered by rechargeable batteries, providing sufficient
energy for extended operation periods.
● Wireless Connectivity: Wireless connectivity will enable remote operation and monitoring
of Atlas from a central control station.
6. Design Requirements:
● Compact and Robust: Atlas will have a compact design to maneuver easily on
construction sites while being robust enough to withstand harsh environmental
conditions.
● User-Friendly Interface: An intuitive user interface will allow operators to control Atlas
efficiently and monitor its performance.
● Safety Features: Emergency stop buttons, obstacle detection systems, and fail-safe
mechanisms will be implemented to ensure the safety of workers and equipment.
7. Assumptions and Constraints:
● Atlas will require initial setup and calibration by trained technicians.
● Environmental factors such as terrain and weather conditions may impact Atlas'
performance and operation.
● Regulatory compliance and safety standards must be adhered to during the
development and deployment of Atlas.
8. Acceptance Criteria:

3. ● Atlas successfully installs solar panels with high precision and accuracy.
● Atlas improves the speed and efficiency of solar panel installation compared to manual
methods.
● Atlas operates safely and reliably in various environmental conditions.
● Partners report cost savings and increased productivity as a result of using Atlas for
solar installations.
9. Timeline and Milestones:
● Prototype Development: 6 months
● Testing and Optimization: 3 months
● Pilot Deployment: 6 months
● Full-Scale Deployment: 12 months
10. Stakeholders:
● AES: Responsible for the development, testing, and deployment of Atlas.
● Solar Installation Companies: End-users of Atlas, responsible for integrating it into their
operations.
● Construction Workers: Operators and beneficiaries of Atlas, involved in its day-to-day
use.
● Regulatory Agencies: Ensure compliance with safety and environmental regulations.
11. Risks and Contingency Plans:
● Technical Failures: Regular maintenance and backup systems will mitigate the risk of
technical failures.
● Regulatory Challenges: Close collaboration with regulatory agencies and legal experts
will ensure compliance with relevant regulations.
● Market Acceptance: Continuous feedback collection and product iteration will address
any issues related to market acceptance.
By fulfilling these requirements, Atlas will revolutionize the solar industry, enabling faster, safer,
and more efficient solar panel installations, ultimately contributing to the acceleration of global
decarbonization efforts.

4. OKR example
1. Big Rocks (Strategic Initiatives/Objectives):
● Big Rock 1: Enhance Solar Installation Efficiency and Safety - This
objective focuses on improving the speed, efficiency, and safety of solar
panel installation using the Atlas solar robot.
● Big Rock 2: Enable Rapid Solar Deployment - This objective aims to
accelerate the deployment of solar energy resources worldwide by
streamlining the installation process with the Atlas robot.
2. OKRs (Objectives and Key Results):
● Objective 1: Enhance Solar Installation Efficiency and Safety
● Key Result 1: Increase the speed of solar panel installation by 50%
within the next six months.
● Key Result 2: Reduce the number of on-site accidents by 30%
within the next year.
● Objective 2: Enable Rapid Solar Deployment
● Key Result 1: Achieve a 3X increase in the rate of solar resource
deployment compared to traditional methods within the next two
years.
● Key Result 2: Expand the geographic reach of solar deployment to
include remote and rural areas within the next 18 months.
3. KPIs (Key Performance Indicators):
● KPI 1: Installation Speed (measuring efficiency)
● KPI 2: Accident Rate (measuring safety)
● KPI 3: Rate of Solar Resource Deployment (measuring scalability)
● KPI 4: Geographic Reach (measuring accessibility)