Give me an use case diagram and also Class Diagram about this SRS document. 
Software Requirement Specification (SRS) document for the Humanoid Robot Project used in hospitals. Table of Contents 1. Revision History. 2. Introduction a. Purpose b. Document Conventions c. Intended Audience and Reading Suggestions d. Product Scope e. References 3. Overall Description a. Product Perspective b. Product Functions c. User Classes and Characteristics d. Operating Environment e. Design and Implementation Constraints f. User Documentation g. Assumptions and Dependencies 4. External Interface Requirements a. User Interfaces b. Hardware Interfaces c. Software Interfaces d. Communications Interfaces 1. Revision History The Revision History section \begin{tabular}{lcll} Version Date & Description & \begin{tabular}{c} Author \\ [ Date of \end{tabular} & Initial draft \\ Name] \end{tabular} Explanation: The Revision History section provides a log of changes made to the document over time. It includes the version number, date of revision, a brief description of the change, and the author's name. This section is crucial for tracking document evolution and ensuring that all stakeholders are working with the latest version. 2. Introduction 2.1 Purpose The purpose of this document is to provide a detailed 2. Introduction 2.1 Purpose The purpose of this document is to provide a detailed specification for the Humanoid Robot Project in hospitals. The document focuses on the robot's capabilities to offer diagnostics to patients and administer drug treatments based on the diagnosis, aligning with patient requirements. 2.2 Document Conventions This document adheres to standard conventions for formatting, structure, and terminology to ensure clarity and consistency. Acronyms used are defined in the Glossary section. 2.3 Intended Audience and Reading Suggestions This document is intended for developers, project managers, and stakeholders involved in the Humanoid Robot Project. It is recommended to read the document sequentially to gain a comprehensive understanding of the system's requirements and functionality. 2.4 Product Scope The Humanoid Robot Project is designed for hospital environments. Its primary objectives include providing accurate diagnostics, administering drug treatments based on the diagnosis, and meeting the specific requirements of patients. The scope encompasses the entire lifecycle of patient interaction, from data collection to treatment administration. 2.5 References 1. ISO 13485:2016 - Medical devices - Quality management systems - Requirements for regulatory purposes. 2. HL7 FHIR (Fast Healthcare Interoperability Resources) standard - [Website](https://www.hl7.org/fhir/) 3. HIPAA (Health Insurance Portability and Accountability Act) - [Website](https://www.hhs.gov/hipaa/index.html) 4. IEEE Std 830-1998 - IEEE Recommended Practice for Software Requirements Specifications. Explanation: This section lists any external documents or resources referenced in the SRS. It could include standards, guidelines, or other relevant documents. For example, it might reference medical standards and protocols applicable to the project. applicable to the project. 3. Overall Description 3.1 Product Perspective The Humanoid Robot operates as an autonomous system within the hospital environment. It interfaces with existing medical equipment, and databases, and interacts with patients and healthcare professionals to facilitate efficient healthcare services. 3.2 Product Functions 1. Medical Diagnosis: The robot utilizes advanced algorithms to analyze patient data, facilitating accurate medical diagnoses. 2. Drug Treatment: Based on the diagnosis, the robot administers prescribed drug treatments, ensuring precise and timely interventions. 3. Patient Interaction: The robot engages with patients to gather relevant medical history, explain the diagnosis, and provide information about the recommended treatment. 3.3 User Classes and Characteristics 1. Patients: Individuals seeking medical diagnosis and treatment. They interact with the robot to receive information about their health status. 2. Healthcare Professionals: Authorized users with the responsibility to input and access medical data. They interact with the system to review and validate diagnoses. 3.4 Operating Environment The robot operates within the hospital environment, including patient rooms, diagnostic labs, and treatment areas. It is designed to seamlessly integrate with existing hospital infrastructure and workflows. 3.5 Design and Implementation Constraints 1. Regulatory Compliance: The system must adhere to healthcare regulations and standards, ensuring patient safety and data privacy. 2. Hardware Limitations: The robot's design is constrained by the available hardware, including sensors and processing capabilities. 3.6 User Documentation Comprehensive user documentation will be provided, including user manuals for healthcare professionals and patients. This documentation will guide users in interacting with the robot, understanding diagnoses, and following prescribed treatments. 3.7 Assumptions and Dependencies 1. Data Accuracy: The accuracy of diagnoses depends on the quality of input data provided by healthcare professionals and collected from patients. 2. Network Connectivity: The system assumes a stable network connection for seamless data exchange between the robot and hospital information systems. Explanation: Assumptions and Dependencies highlight factors that are assumed to be true during the development and operation of the system. For example, the accuracy of diagnoses depends on the quality of input data, and the system assumes a stable network connection. 4. External Interface Requirements 4.1 User Interfaces The robot will feature user-friendly touchscreen interfaces for patients to interact with and a secure interface for healthcare professionals to input and access medical data. 4.2 Hardware Interfaces The robot interfaces with various medical devices, such as diagnostic equipment and monitoring devices, to collect and process patient data. 4.3 Software Interfaces The system integrates with existing hospital information systems and databases to access patient records, update medical data, and ensure a unified healthcare information environment. 4.4 Communications Interfaces To maintain the confidentiality and integrity of patient data, the robot communicates over secure channels with hospital networks, employing encryption and secure protocols for data transmission. In summary, the SRS document provides a comprehensive overview of the Humanoid Robot Project in hospitals, addressing various aspects such as functionality, user interfaces, constraints, and dependencies. Each section serves a specific purpose in communicating the project's requirements and constraints to stakeholders
