This document is a software requirements specification (SRS) for an unnamed project. It includes sections describing the purpose and scope of the project, the system's features and user interfaces, performance requirements, and other nonfunctional requirements. Appendices provide a glossary, references to analysis models, and a list of items yet to be determined. The SRS follows standard template headings to specify requirements for an unidentified software system in a comprehensive yet concise manner.
This document describes the blackboard architecture style. It discusses the basic idea of blackboard architecture, which involves decomposing a system into a blackboard to store data and hypotheses, and knowledge sources that contain domain-specific knowledge. Knowledge sources interact only with the blackboard to collaboratively solve problems. The document also provides examples of applying blackboard architecture to a movie website application and outlines benefits like scalability and concurrency, as well as drawbacks like tight dependencies and difficulty debugging.
Deadlocks occur when processes are waiting for resources held by other processes, resulting in a circular wait. Four conditions must be met: mutual exclusion, hold and wait, no preemption, and circular wait. Deadlocks can be handled through avoidance, prevention, or detection and recovery. Avoidance algorithms allocate resources only if it ensures the system remains in a safe state where deadlocks cannot occur. Prevention methods make deadlocks impossible by ensuring at least one condition is never satisfied, such as through collective or ordered resource requests. Detection finds existing deadlocks by analyzing resource allocation graphs or wait-for graphs to detect cycles.
This document summarizes and compares paging and segmentation, two common memory management techniques. Paging divides physical memory into fixed-size frames and logical memory into same-sized pages. It maps pages to frames using a page table. Segmentation divides logical memory into variable-sized segments and uses a segment table to map segment numbers to physical addresses. Paging avoids external fragmentation but can cause internal fragmentation, while segmentation avoids internal fragmentation but can cause external fragmentation. Both approaches separate logical and physical address spaces but represent different models of how a process views memory.
This lecture provide a review of requirement engineering process. The slides have been prepared after reading Ian Summerville and Roger Pressman work. This lecture is helpful to understand user, and user requirements.
This document is the final year project report for a student who developed an attendance and access system. It includes sections on acknowledging contributors, describing the project objectives and scope, discussing the software and hardware used including LABView, a fingerprint reader, camera and card scanner. It also covers setting up a database in Microsoft Access to store student and attendance data. The system reads student cards and captures their photo and fingerprint, updates the database with time in/out and can generate web reports.
This document describes the blackboard architecture style. It discusses the basic idea of blackboard architecture, which involves decomposing a system into a blackboard to store data and hypotheses, and knowledge sources that contain domain-specific knowledge. Knowledge sources interact only with the blackboard to collaboratively solve problems. The document also provides examples of applying blackboard architecture to a movie website application and outlines benefits like scalability and concurrency, as well as drawbacks like tight dependencies and difficulty debugging.
Deadlocks occur when processes are waiting for resources held by other processes, resulting in a circular wait. Four conditions must be met: mutual exclusion, hold and wait, no preemption, and circular wait. Deadlocks can be handled through avoidance, prevention, or detection and recovery. Avoidance algorithms allocate resources only if it ensures the system remains in a safe state where deadlocks cannot occur. Prevention methods make deadlocks impossible by ensuring at least one condition is never satisfied, such as through collective or ordered resource requests. Detection finds existing deadlocks by analyzing resource allocation graphs or wait-for graphs to detect cycles.
This document summarizes and compares paging and segmentation, two common memory management techniques. Paging divides physical memory into fixed-size frames and logical memory into same-sized pages. It maps pages to frames using a page table. Segmentation divides logical memory into variable-sized segments and uses a segment table to map segment numbers to physical addresses. Paging avoids external fragmentation but can cause internal fragmentation, while segmentation avoids internal fragmentation but can cause external fragmentation. Both approaches separate logical and physical address spaces but represent different models of how a process views memory.
This lecture provide a review of requirement engineering process. The slides have been prepared after reading Ian Summerville and Roger Pressman work. This lecture is helpful to understand user, and user requirements.
This document is the final year project report for a student who developed an attendance and access system. It includes sections on acknowledging contributors, describing the project objectives and scope, discussing the software and hardware used including LABView, a fingerprint reader, camera and card scanner. It also covers setting up a database in Microsoft Access to store student and attendance data. The system reads student cards and captures their photo and fingerprint, updates the database with time in/out and can generate web reports.
UML (Unified Modeling Language) is a standardized modeling language used in software engineering to visualize the design of a system. There are two main types of UML diagrams: structural diagrams that depict the static elements of a system, and behavioral diagrams that show the dynamic interactions between structural elements over time. Behavioral diagrams include sequence diagrams, activity diagrams, and state machine diagrams. Sequence diagrams specifically depict the sequential order of interactions between objects in a system through message passing and lifelines.
No silver bullet essence and accidents of software engineeringArun Banotra
The document outlines Frederick Brooks' argument that there is no "silver bullet" that can solve all of software engineering's problems. It discusses the differences between essential difficulties, which are inherent to software due to its complexity, need for conformity, changeability, and invisibility, and accidental difficulties caused by current production methods. While breakthroughs have solved some accidental difficulties, like high-level programming languages, Brooks argues one breakthrough alone cannot provide an order-of-magnitude improvement due to software's essential properties.
The document discusses use case diagrams and use case descriptions for modeling system requirements. It covers drawing use case diagrams to show functional requirements and actors, common mistakes, and writing use case descriptions including basic, alternate, and exception flows of events. The document provides examples and exercises to help understand use cases for requirements modeling.
SOLUTION MANUAL OF OPERATING SYSTEM CONCEPTS BY ABRAHAM SILBERSCHATZ, PETER B...vtunotesbysree
Here are three major complications that concurrent processing adds to an operating system:
1. Resource allocation and scheduling becomes more complex. The OS must allocate CPU time, memory, file descriptors, etc. among multiple concurrent processes and ensure all processes receive adequate resources. It must also schedule which process runs at what time on what CPU core.
2. Synchronization and communication between processes is more difficult. The OS must provide mechanisms for processes to synchronize their actions when accessing shared resources and to allow inter-process communication. This introduces challenges around things like race conditions and deadlocks.
3. Reliability and fault tolerance is harder. If one process crashes or hangs, it should not affect other processes. The OS must be able to
To view recording of this webinar please use below URL:
http://wso2.com/library/webinars/2015/09/resource-oriented-architecture/
Any given business, organization or entity is built with resources. It can be human capital, digital assets, services or products among other things. These activities often interact with each other creating a value network. A good example of this is when human resources interact with digital assets to perform a service. We as computer scientists, have been trying to simplify this interaction flow for quite some time.
The field of distributed systems and semantic web are dedicated to solving problems in this domain. RESTful services and the ecosystem around it have now simplified this interaction to a great level. Being able to interact with a resource with basic actions in a secure manner is a great achievement.
This webinar will discuss
The of history of ROA
Its current landscape
ROA and microservices
New development around the architecture pattern
In software engineering and software architecture design, design decisions address architecturally significant requirements; they are perceived as hard to make and/or costly to change. It is called also architecture strategies and tactics.
Recently The Java Remote Method Invocation (RMI) system allows an object running in one Java virtual machine to invoke methods on an object running in another Java virtual machine. RMI provides for remote communication between programs written in the Java programming language.
This document discusses the General Responsibility Assignment Software Patterns (GRASP) principles for object-oriented design. It begins with an introduction to GRASP and its goals of being a mental toolset for designing software. It then explains nine key GRASP design patterns - Informational Expert, Creator, Controller, Low Coupling, High Cohesion, Polymorphism, Pure Fabrication, Indirection, and Protected Variations. For each pattern, it provides a definition and example of how and when to apply the pattern when assigning responsibilities to classes. It concludes with references for further reading on GRASP patterns.
The document discusses key concepts in software engineering. It defines software engineering as applying systematic and technical approaches to develop reliable and efficient computer software. It describes various software development models including waterfall, prototyping, RAD, spiral and evolutionary models. It also discusses software engineering layers, characteristics, applications, and process models. Finally, it covers concepts like fourth generation techniques, software project management, estimation techniques, and risk management.
This document discusses various software engineering concepts related to software design. It begins by outlining basic design principles and the software design process, which involves three levels: interface design, architectural design, and detailed design. It then covers topics like modularization, coupling and cohesion, function-oriented design using tools like data flow diagrams and structure charts, software measurement and metrics including function point analysis and cyclomatic complexity, and concludes with Halstead's software science for measuring program length and volume.
An Android application is composed of activities, services, and content providers. Activities display user interfaces and are launched by intents. The context provides access to application-wide resources and functionality. Activities have a lifecycle of states like resumed, paused, and stopped that are called back through methods to manage resources. Intents are used to transition between activities within an app or launch other apps' components.
The document discusses various software process models including prescriptive models like waterfall model and incremental process model. It also covers evolutionary models like prototyping and spiral process model. Specialized models covered are component based development, formal methods model, aspect oriented development and unified process model. The key highlights are that different models are suited for different situations based on project needs and each model has advantages and disadvantages to consider.
Evolving role of Software,Legacy software,CASE tools,Process Models,CMMInimmik4u
The Evolving role of Software – Software – The changing Nature of Software – Legacy software, Introduction to CASE tools, A generic view of process– A layered Technology – A Process Framework – The Capability Maturity Model Integration (CMMI) – Process Assessment – Personal and Team Process Models. Product and Process. Process Models – The Waterfall Model – Incremental Process Models – Incremental Model – The RAD Model – Evolutionary Process Models – Prototyping – The Spiral Model – The Concurrent Development Model – Specialized Process Models – the Unified Process.
The document provides information about software engineering for the second semester of the second year B.Tech IT course, including the syllabus, textbooks, and an index of process model lecture topics and slides. Process models covered include waterfall, incremental, RAD, evolutionary prototypes, spiral, and unified process. Software requirements topics such as functional and non-functional requirements are also outlined.
Cloud security - Auditing and ComplianceJosh Tullo
Cloud security refers to policies, technologies, and controls used to protect cloud computing data, applications, and infrastructure. Cloud service providers must comply with security and data security regulations within their country. Auditing companies audit cloud services to ensure they meet compliance regulations, such as FISMA, HIPAA, and SOX in the US. Users may have to adopt more expensive hybrid cloud models for compliance. Storage auditing services verify that cloud data meets compliance standards. Compliance reduces fees from regulation violations and benefits large cloud companies.
The document discusses naming in distributed systems. It covers desirable features of naming systems like location transparency and location independence. It differentiates between human-oriented and system-oriented names. It also discusses name spaces, name servers, name resolution including recursive and iterative approaches, and name caching.
This document is a software requirements specification (SRS) for a project. It includes sections describing the purpose and scope of the project, the overall product functions and users, the operating environment, design constraints, and documentation. The document outlines the intended contents in each section at a high level without providing specific details about the project.
This document is a software requirements specification (SRS) for an unnamed project. It includes sections describing the purpose and scope of the project, the overall description including user classes and operating environment, external interface requirements, key system features and functional requirements, and other nonfunctional requirements. Appendices provide a glossary, any relevant analysis models, and a list of items yet to be determined. The SRS follows standard template headings and outlines the necessary high-level information about project requirements while many lower-level details remain unspecified.
UML (Unified Modeling Language) is a standardized modeling language used in software engineering to visualize the design of a system. There are two main types of UML diagrams: structural diagrams that depict the static elements of a system, and behavioral diagrams that show the dynamic interactions between structural elements over time. Behavioral diagrams include sequence diagrams, activity diagrams, and state machine diagrams. Sequence diagrams specifically depict the sequential order of interactions between objects in a system through message passing and lifelines.
No silver bullet essence and accidents of software engineeringArun Banotra
The document outlines Frederick Brooks' argument that there is no "silver bullet" that can solve all of software engineering's problems. It discusses the differences between essential difficulties, which are inherent to software due to its complexity, need for conformity, changeability, and invisibility, and accidental difficulties caused by current production methods. While breakthroughs have solved some accidental difficulties, like high-level programming languages, Brooks argues one breakthrough alone cannot provide an order-of-magnitude improvement due to software's essential properties.
The document discusses use case diagrams and use case descriptions for modeling system requirements. It covers drawing use case diagrams to show functional requirements and actors, common mistakes, and writing use case descriptions including basic, alternate, and exception flows of events. The document provides examples and exercises to help understand use cases for requirements modeling.
SOLUTION MANUAL OF OPERATING SYSTEM CONCEPTS BY ABRAHAM SILBERSCHATZ, PETER B...vtunotesbysree
Here are three major complications that concurrent processing adds to an operating system:
1. Resource allocation and scheduling becomes more complex. The OS must allocate CPU time, memory, file descriptors, etc. among multiple concurrent processes and ensure all processes receive adequate resources. It must also schedule which process runs at what time on what CPU core.
2. Synchronization and communication between processes is more difficult. The OS must provide mechanisms for processes to synchronize their actions when accessing shared resources and to allow inter-process communication. This introduces challenges around things like race conditions and deadlocks.
3. Reliability and fault tolerance is harder. If one process crashes or hangs, it should not affect other processes. The OS must be able to
To view recording of this webinar please use below URL:
http://wso2.com/library/webinars/2015/09/resource-oriented-architecture/
Any given business, organization or entity is built with resources. It can be human capital, digital assets, services or products among other things. These activities often interact with each other creating a value network. A good example of this is when human resources interact with digital assets to perform a service. We as computer scientists, have been trying to simplify this interaction flow for quite some time.
The field of distributed systems and semantic web are dedicated to solving problems in this domain. RESTful services and the ecosystem around it have now simplified this interaction to a great level. Being able to interact with a resource with basic actions in a secure manner is a great achievement.
This webinar will discuss
The of history of ROA
Its current landscape
ROA and microservices
New development around the architecture pattern
In software engineering and software architecture design, design decisions address architecturally significant requirements; they are perceived as hard to make and/or costly to change. It is called also architecture strategies and tactics.
Recently The Java Remote Method Invocation (RMI) system allows an object running in one Java virtual machine to invoke methods on an object running in another Java virtual machine. RMI provides for remote communication between programs written in the Java programming language.
This document discusses the General Responsibility Assignment Software Patterns (GRASP) principles for object-oriented design. It begins with an introduction to GRASP and its goals of being a mental toolset for designing software. It then explains nine key GRASP design patterns - Informational Expert, Creator, Controller, Low Coupling, High Cohesion, Polymorphism, Pure Fabrication, Indirection, and Protected Variations. For each pattern, it provides a definition and example of how and when to apply the pattern when assigning responsibilities to classes. It concludes with references for further reading on GRASP patterns.
The document discusses key concepts in software engineering. It defines software engineering as applying systematic and technical approaches to develop reliable and efficient computer software. It describes various software development models including waterfall, prototyping, RAD, spiral and evolutionary models. It also discusses software engineering layers, characteristics, applications, and process models. Finally, it covers concepts like fourth generation techniques, software project management, estimation techniques, and risk management.
This document discusses various software engineering concepts related to software design. It begins by outlining basic design principles and the software design process, which involves three levels: interface design, architectural design, and detailed design. It then covers topics like modularization, coupling and cohesion, function-oriented design using tools like data flow diagrams and structure charts, software measurement and metrics including function point analysis and cyclomatic complexity, and concludes with Halstead's software science for measuring program length and volume.
An Android application is composed of activities, services, and content providers. Activities display user interfaces and are launched by intents. The context provides access to application-wide resources and functionality. Activities have a lifecycle of states like resumed, paused, and stopped that are called back through methods to manage resources. Intents are used to transition between activities within an app or launch other apps' components.
The document discusses various software process models including prescriptive models like waterfall model and incremental process model. It also covers evolutionary models like prototyping and spiral process model. Specialized models covered are component based development, formal methods model, aspect oriented development and unified process model. The key highlights are that different models are suited for different situations based on project needs and each model has advantages and disadvantages to consider.
Evolving role of Software,Legacy software,CASE tools,Process Models,CMMInimmik4u
The Evolving role of Software – Software – The changing Nature of Software – Legacy software, Introduction to CASE tools, A generic view of process– A layered Technology – A Process Framework – The Capability Maturity Model Integration (CMMI) – Process Assessment – Personal and Team Process Models. Product and Process. Process Models – The Waterfall Model – Incremental Process Models – Incremental Model – The RAD Model – Evolutionary Process Models – Prototyping – The Spiral Model – The Concurrent Development Model – Specialized Process Models – the Unified Process.
The document provides information about software engineering for the second semester of the second year B.Tech IT course, including the syllabus, textbooks, and an index of process model lecture topics and slides. Process models covered include waterfall, incremental, RAD, evolutionary prototypes, spiral, and unified process. Software requirements topics such as functional and non-functional requirements are also outlined.
Cloud security - Auditing and ComplianceJosh Tullo
Cloud security refers to policies, technologies, and controls used to protect cloud computing data, applications, and infrastructure. Cloud service providers must comply with security and data security regulations within their country. Auditing companies audit cloud services to ensure they meet compliance regulations, such as FISMA, HIPAA, and SOX in the US. Users may have to adopt more expensive hybrid cloud models for compliance. Storage auditing services verify that cloud data meets compliance standards. Compliance reduces fees from regulation violations and benefits large cloud companies.
The document discusses naming in distributed systems. It covers desirable features of naming systems like location transparency and location independence. It differentiates between human-oriented and system-oriented names. It also discusses name spaces, name servers, name resolution including recursive and iterative approaches, and name caching.
This document is a software requirements specification (SRS) for a project. It includes sections describing the purpose and scope of the project, the overall product functions and users, the operating environment, design constraints, and documentation. The document outlines the intended contents in each section at a high level without providing specific details about the project.
This document is a software requirements specification (SRS) for an unnamed project. It includes sections describing the purpose and scope of the project, the overall description including user classes and operating environment, external interface requirements, key system features and functional requirements, and other nonfunctional requirements. Appendices provide a glossary, any relevant analysis models, and a list of items yet to be determined. The SRS follows standard template headings and outlines the necessary high-level information about project requirements while many lower-level details remain unspecified.
This document is a software requirements specification (SRS) for an unnamed project. It includes sections describing the purpose and scope of the project, the overall description including user classes and operating environment, external interface requirements, key system features and functional requirements, and other nonfunctional requirements. Appendices provide a glossary, any relevant analysis models, and a list of items yet to be determined. The SRS follows standard template headings and outlines the necessary high-level information about project requirements while many lower-level details remain unspecified pending further determination.
This document is a software requirements specification (SRS) for a project called <Project>. It includes sections describing the purpose and scope of the project, the intended users, the product functions and interfaces, use case descriptions, and other nonfunctional requirements. The document follows typical SRS conventions and structure.
This document is a software requirements specification (SRS) for a student marks and attendance tracking system. It outlines requirements for key functionality like user registration for students and teachers, generating reports and graphs of student marks on the y-axis versus subjects on the x-axis. Non-functional requirements address reliability, response times, and ensuring the system will work across platforms. The SRS also defines user classes, describes the operating environment and interfaces, and lists assumptions around use of commercial components.
This document is a software requirements specification (SRS) for an unnamed project. It provides an overview of the purpose and scope of the project. It describes the intended users, operating environment, and design constraints. It outlines the major system functions and user classes. It specifies the external interface requirements including the user interface, hardware interfaces, software interfaces, and communication interfaces. It describes the key system features and lists other nonfunctional requirements around performance, safety, security, and quality. It provides appendices for a glossary, optional analysis models, and a list of items yet to be determined. The SRS follows a standard template to comprehensively define the requirements for the software project.
This document is a software requirements specification (SRS) for an unnamed project. It provides an overview of the purpose and scope of the project. It describes the intended users, operating environment, and design constraints. It outlines the major system functions and user classes. It specifies the external interface requirements including the user interface, hardware interfaces, software interfaces, and communication interfaces. It describes the key system features and lists other nonfunctional requirements around performance, safety, security, and quality. It provides appendices for terms, models, and a list of items still to be determined. The overall purpose is to specify the requirements for the software being developed.
This document is a software requirements specification (SRS) for an unnamed project. It provides an overview of the purpose and scope of the software, describes external interface requirements, system features, and other nonfunctional requirements. The document includes sections for introduction, overall description, external interface requirements, system features, other nonfunctional requirements, and appendices. Requirements are organized by system features and specified individually with unique identifiers.
This document is a software requirements specification (SRS) for a mobile app. It includes sections on the purpose and scope of the app, user requirements, operating environment constraints, external interfaces, key system features and functional requirements. It also covers non-functional requirements around performance, safety, security and quality. The SRS follows IEEE standards and will be used to guide the development and testing of the mobile app.
Software Requirements Specification
for
<Project>
Version 1.0 approved
Prepared by <author>
<organization>
<date created>
Table of Contents
TOC \o "1-2" \t "TOCentry,1" Table of Contents
PAGEREF _Toc441230970 \h ii
Revision History
PAGEREF _Toc441230971 \h ii
1.
Introduction
PAGEREF _Toc441230972 \h 1
1.1
Purpose
PAGEREF _Toc441230973 \h 1
1.2
Document Conventions
PAGEREF _Toc441230974 \h 1
1.3
Intended Audience and Reading Suggestions
PAGEREF _Toc441230975 \h 1
1.4
Product Scope
PAGEREF _Toc441230976 \h 1
1.5
References
PAGEREF _Toc441230977 \h 1
2.
Overall Description
PAGEREF _Toc441230978 \h 2
2.1
Product Perspective
PAGEREF _Toc441230979 \h 2
2.2
Product Functions
PAGEREF _Toc441230980 \h 2
2.3
User Classes and Characteristics
PAGEREF _Toc441230981 \h 2
2.4
Operating Environment
PAGEREF _Toc441230982 \h 2
2.5
Design and Implementation Constraints
PAGEREF _Toc441230983 \h 2
2.6
User Documentation
PAGEREF _Toc441230984 \h 2
2.7
Assumptions and Dependencies
PAGEREF _Toc441230985 \h 3
3.
External Interface Requirements
PAGEREF _Toc441230986 \h 3
3.1
User Interfaces
PAGEREF _Toc441230987 \h 3
3.2
Hardware Interfaces
PAGEREF _Toc441230988 \h 3
3.3
Software Interfaces
PAGEREF _Toc441230989 \h 3
3.4
Communications Interfaces
PAGEREF _Toc441230990 \h 3
4.
System Features
PAGEREF _Toc441230991 \h 4
4.1
System Feature 1
PAGEREF _Toc441230992 \h 4
4.2
System Feature 2 (and so on)
PAGEREF _Toc441230993 \h 4
5.
Other Nonfunctional Requirements
PAGEREF _Toc441230994 \h 4
5.1
Performance Requirements
PAGEREF _Toc441230995 \h 4
5.2
Safety Requirements
PAGEREF _Toc441230996 \h 5
5.3
Security Requirements
PAGEREF _Toc441230997 \h 5
5.4
Software Quality Attributes
PAGEREF _Toc441230998 \h 5
5.5
Business Rules
PAGEREF _Toc441230999 \h 5
6.
Other Requirements
PAGEREF _Toc441231000 \h 5
Appendix A: Glossary
PAGEREF _Toc441231001 \h 5
Appendix B: Analysis Models
PAGEREF _Toc441231002 \h 5
Appendix C: To Be Determined List
PAGEREF _Toc441231003 \h 6
Revision History
Name
Date
Reason For Changes
Version
Introduction
Purpose
<Identify the product whose software requirements are specified in this document, including the revision or release number. Describe the scope of the product that is covered by this SRS, particularly if this SRS describes only part of the system or a single subsystem.>
Document Conventions
<Describe any standards or typographical conventions that were followed when writing this SRS, such as fonts or highlighting that have special significance. For example, state whether priorities for higher-level requirements are assumed to be inherited by detailed requirements, or whether every requirement statement is to have its own priority.>
Intended Audience and Reading Suggestions
<Describe the different types of reader that the document is intended for, such as developers, project managers, marketing staff, users, testers, and documentation writers. Describ.
Software Requirements Specification
for
<Project>
Version 1.0 approved
Prepared by <author>
<organization>
<date created>
Table of Contents
iiTable of Contents
Revision History
ii
1.
Introduction
1
1.1
Purpose
1
1.2
Document Conventions
1
1.3
Intended Audience and Reading Suggestions
1
1.4
Project Scope
1
1.5
References
1
2.
Overall Description
2
2.1
Product Perspective
2
2.2
Product Features
2
2.3
User Classes and Characteristics
2
2.4
Operating Environment
2
2.5
Design and Implementation Constraints
2
2.6
User Documentation
2
2.7
Assumptions and Dependencies
3
3.
System Features
3
3.1
System Feature 1
3
3.2
System Feature 2 (and so on)
4
4.
External Interface Requirements
4
4.1
User Interfaces
4
4.2
Hardware Interfaces
4
4.3
Software Interfaces
4
4.4
Communications Interfaces
4
5.
Other Nonfunctional Requirements
5
5.1
Performance Requirements
5
5.2
Safety Requirements
5
5.3
Security Requirements
5
5.4
Software Quality Attributes
5
6.
Other Requirements
5
Appendix A: Glossary
5
Appendix B: Analysis Models
6
Appendix C: Issues List
6
Revision History
Name
Date
Reason For Changes
Version
1. Introduction
1.1 Purpose
<Identify the product whose software requirements are specified in this document, including the revision or release number. Describe the scope of the product that is covered by this SRS, particularly if this SRS describes only part of the system or a single subsystem.>
1.2 Document Conventions
<Describe any standards or typographical conventions that were followed when writing this SRS, such as fonts or highlighting that have special significance. For example, state whether priorities for higher-level requirements are assumed to be inherited by detailed requirements, or whether every requirement statement is to have its own priority.>
1.3 Intended Audience and Reading Suggestions
<Describe the different types of reader that the document is intended for, such as developers, project managers, marketing staff, users, testers, and documentation writers. Describe what the rest of this SRS contains and how it is organized. Suggest a sequence for reading the document, beginning with the overview sections and proceeding through the sections that are most pertinent to each reader type.>
1.4 Project Scope
<Provide a short description of the software being specified and its purpose, including relevant benefits, objectives, and goals. Relate the software to corporate goals or business strategies. If a separate vision and scope document is available, refer to it rather than duplicating its contents here. An SRS that specifies the next release of an evolving product should contain its own scope statement as a subset of the long-term strategic product vision.>
1.5 References
<List any other documents or Web addresses to which this SRS refers. These may include user interface style guides, contracts, standards, system requirements specifications, use case documents, or a vision and scope document. Provide enough information .
This document provides a template and sample content for a Software Requirements Specification (SRS) document. The template includes sections for an introduction, overall description of the product and its features, detailed system requirements, external interface requirements, and other non-functional requirements. Appendices provide a glossary, optional analysis models, and an issues list. The sample content fills in some sections with placeholder or example text to illustrate how an SRS would be structured.
This document provides an overview of the requirements for a software system. It outlines the purpose and scope of the product, describes the intended users and operating environment. It also summarizes the major functions and interfaces of the system, both for users and other systems/hardware. Non-functional requirements including performance, security and quality are also addressed at a high level. Appendices include a glossary, models from analysis and a list of items still to be determined.
This document provides a software requirements specification (SRS) for a project. It includes sections on introduction, overall description of the product, external interface requirements, system features, non-functional requirements, and revision history. The introduction defines the purpose and scope of the product, conventions used in the document, intended audience, and references. The overall description provides the product perspective, major functions, intended user classes and their characteristics, operating environment, and design constraints.
This document is a software requirements specification for an unnamed project. It provides an introduction, describes the overall product perspective and features, identifies user classes and characteristics, and outlines the operating environment. The document also covers system features, external interface requirements, non-functional requirements, and includes appendices for a glossary, analysis models, and issues list.
This document is a software requirements specification (SRS) for an unnamed project. It provides an overview of the project, describes key user classes and system features, outlines functional and non-functional requirements, and defines interfaces and other aspects of scope. The SRS establishes a common understanding of system requirements between stakeholders to guide project development and acceptance.
Assessment Rubric
Exemplary
Accomplished
Developing
Beginning
Points Available
Comments
1. Title, Sections 1-4 of the SRS template are completed and provide meaningful technical specifications for your chosen system.
Student effectively completed the assignment.
Student partially completed the assignment.
The student provided limited and meaningless substance completing the assignment.
Student failed to complete the assignment.
50
2. For Appendix B: SA Level 0 DFD or for OO Use Case Diagram are included and correctly model your system.
Student effectively completed the assignment.
Student partially completed the assignment.
The student provided limited and meaningless substance completing the assignment.
Student failed to complete the assignment.
20
3. For Appendix B: Level 1 DFD or for OO Detailed use case descriptions are included and correctly model your system.
Student effectively completed the assignment.
Student partially completed the assignment.
The student provided limited and meaningless substance completing the assignment.
Student failed to complete the assignment.
20
4. Writing Format
Write the paper in APA format. Grammatical, spelling or punctuation—the writing is grammatically correct, clear and concise. The response is well formulated and easy to read and understand. Correct terminology was used when needed. See references below:
What is Plagiarism and How to Avoid It: http://www.youtube.com/watch?v=eIsLV9zOOe0
Writing Help: http://apus.libguides.com/c.php?g=241212&p=1603794
Purdue Online Writing Lab: https://owl.english.purdue.edu/owl/resource/560/01/
APA and MLA Citation Game Home Page: http://depts.washington.edu/trio/quest/citation/apa_mla_citation_game/
Student effectively wrote the paper using provided format.
Student partially wrote the paper using provided format.
Student wrote the paper with limited and meaningless use of provided format
Student failed to use provided format.
10
Total
100
Software Requirements Specification
for
<Project>
Version 1.0 approved
Prepared by <author>
<organization>
<date created>
Table of Contents
iiTable of Contents
Revision History
ii
1.
Introduction
1
1.1
Purpose
1
1.2
Document Conventions
1
1.3
Intended Audience and Reading Suggestions
1
1.4
Product Scope
1
1.5
References
1
2.
Overall Description
2
2.1
Product Perspective
2
2.2
Product Functions
2
2.3
User Classes and Characteristics
2
2.4
Operating Environment
2
2.5
Design and Implementation Constraints
2
2.6
User Documentation
2
2.7
Assumptions and Dependencies
3
3.
External Interface Requirements
3
3.1
User Interfaces
3
3.2
Hardware Interfaces
3
3.3
Software Interfaces
3
3.4
Communications Interfaces
3
4.
System Features
4
4.1
System Feature 1
4
4.2
System Feature 2 (and so on)
4
5.
Other Nonfunctional Requirements
4
5.1
Performance Requirements
4
5.2
Safety Requirements
5
5.3
Security Requirements
5
5.4
Software Quality Attributes
5
5.5
Business Rules
5
6.
Other Requirements
5
Appendix A: Glossary
.
Here are the steps to develop a UML use case diagram for the given problem:
1. Identify the system and actors
The system is the "Supermarket Loyalty Program". The actors are "Customer" and "Supermarket Staff".
2. Identify the use cases
The key use cases are:
- Register for Loyalty Program
- Make Purchase
- View Purchase History
- Generate Prize Winners List
- Reset Purchase Entries
3. Draw and label the use case diagram
Draw oval shapes for the use cases and stick figures for the actors. Connect the actors to related use cases with lines. Label all elements.
4. Add descriptions to use cases
Software Requirement Specification is a most important topic asked in exams and for presentations in B.Tech comp. engg. This presentation contains all the important topic and deep knowledge of SRS.It includes definition, scope, role, how to write srs, template and template description. It tells how to build SRS and also includes examples for ease.
This lab experiment aims to develop a data flow diagram (DFD) model for a given project. A DFD model graphically depicts the flow of data through various processes in a system. It includes level-0, level-1 DFDs and a data dictionary. A level-0 DFD shows the system's context and major processes, while level-1 diagrams provide more detail by decomposing high-level processes. The data dictionary defines all data elements in the DFDs. Developing a balanced DFD model involves matching input/output data between diagram levels. This experiment guides students through drawing DFDs and defining a data dictionary to model the data flow in a system.
How to Setup Warehouse & Location in Odoo 17 InventoryCeline George
In this slide, we'll explore how to set up warehouses and locations in Odoo 17 Inventory. This will help us manage our stock effectively, track inventory levels, and streamline warehouse operations.
Walmart Business+ and Spark Good for Nonprofits.pdfTechSoup
"Learn about all the ways Walmart supports nonprofit organizations.
You will hear from Liz Willett, the Head of Nonprofits, and hear about what Walmart is doing to help nonprofits, including Walmart Business and Spark Good. Walmart Business+ is a new offer for nonprofits that offers discounts and also streamlines nonprofits order and expense tracking, saving time and money.
The webinar may also give some examples on how nonprofits can best leverage Walmart Business+.
The event will cover the following::
Walmart Business + (https://business.walmart.com/plus) is a new shopping experience for nonprofits, schools, and local business customers that connects an exclusive online shopping experience to stores. Benefits include free delivery and shipping, a 'Spend Analytics” feature, special discounts, deals and tax-exempt shopping.
Special TechSoup offer for a free 180 days membership, and up to $150 in discounts on eligible orders.
Spark Good (walmart.com/sparkgood) is a charitable platform that enables nonprofits to receive donations directly from customers and associates.
Answers about how you can do more with Walmart!"
LAND USE LAND COVER AND NDVI OF MIRZAPUR DISTRICT, UPRAHUL
This Dissertation explores the particular circumstances of Mirzapur, a region located in the
core of India. Mirzapur, with its varied terrains and abundant biodiversity, offers an optimal
environment for investigating the changes in vegetation cover dynamics. Our study utilizes
advanced technologies such as GIS (Geographic Information Systems) and Remote sensing to
analyze the transformations that have taken place over the course of a decade.
The complex relationship between human activities and the environment has been the focus
of extensive research and worry. As the global community grapples with swift urbanization,
population expansion, and economic progress, the effects on natural ecosystems are becoming
more evident. A crucial element of this impact is the alteration of vegetation cover, which plays a
significant role in maintaining the ecological equilibrium of our planet.Land serves as the foundation for all human activities and provides the necessary materials for
these activities. As the most crucial natural resource, its utilization by humans results in different
'Land uses,' which are determined by both human activities and the physical characteristics of the
land.
The utilization of land is impacted by human needs and environmental factors. In countries
like India, rapid population growth and the emphasis on extensive resource exploitation can lead
to significant land degradation, adversely affecting the region's land cover.
Therefore, human intervention has significantly influenced land use patterns over many
centuries, evolving its structure over time and space. In the present era, these changes have
accelerated due to factors such as agriculture and urbanization. Information regarding land use and
cover is essential for various planning and management tasks related to the Earth's surface,
providing crucial environmental data for scientific, resource management, policy purposes, and
diverse human activities.
Accurate understanding of land use and cover is imperative for the development planning
of any area. Consequently, a wide range of professionals, including earth system scientists, land
and water managers, and urban planners, are interested in obtaining data on land use and cover
changes, conversion trends, and other related patterns. The spatial dimensions of land use and
cover support policymakers and scientists in making well-informed decisions, as alterations in
these patterns indicate shifts in economic and social conditions. Monitoring such changes with the
help of Advanced technologies like Remote Sensing and Geographic Information Systems is
crucial for coordinated efforts across different administrative levels. Advanced technologies like
Remote Sensing and Geographic Information Systems
9
Changes in vegetation cover refer to variations in the distribution, composition, and overall
structure of plant communities across different temporal and spatial scales. These changes can
occur natural.
A Visual Guide to 1 Samuel | A Tale of Two HeartsSteve Thomason
These slides walk through the story of 1 Samuel. Samuel is the last judge of Israel. The people reject God and want a king. Saul is anointed as the first king, but he is not a good king. David, the shepherd boy is anointed and Saul is envious of him. David shows honor while Saul continues to self destruct.
Gender and Mental Health - Counselling and Family Therapy Applications and In...PsychoTech Services
A proprietary approach developed by bringing together the best of learning theories from Psychology, design principles from the world of visualization, and pedagogical methods from over a decade of training experience, that enables you to: Learn better, faster!
Beyond Degrees - Empowering the Workforce in the Context of Skills-First.pptxEduSkills OECD
Iván Bornacelly, Policy Analyst at the OECD Centre for Skills, OECD, presents at the webinar 'Tackling job market gaps with a skills-first approach' on 12 June 2024
This document provides an overview of wound healing, its functions, stages, mechanisms, factors affecting it, and complications.
A wound is a break in the integrity of the skin or tissues, which may be associated with disruption of the structure and function.
Healing is the body’s response to injury in an attempt to restore normal structure and functions.
Healing can occur in two ways: Regeneration and Repair
There are 4 phases of wound healing: hemostasis, inflammation, proliferation, and remodeling. This document also describes the mechanism of wound healing. Factors that affect healing include infection, uncontrolled diabetes, poor nutrition, age, anemia, the presence of foreign bodies, etc.
Complications of wound healing like infection, hyperpigmentation of scar, contractures, and keloid formation.
Temple of Asclepius in Thrace. Excavation resultsKrassimira Luka
The temple and the sanctuary around were dedicated to Asklepios Zmidrenus. This name has been known since 1875 when an inscription dedicated to him was discovered in Rome. The inscription is dated in 227 AD and was left by soldiers originating from the city of Philippopolis (modern Plovdiv).
ISO/IEC 27001, ISO/IEC 42001, and GDPR: Best Practices for Implementation and...PECB
Denis is a dynamic and results-driven Chief Information Officer (CIO) with a distinguished career spanning information systems analysis and technical project management. With a proven track record of spearheading the design and delivery of cutting-edge Information Management solutions, he has consistently elevated business operations, streamlined reporting functions, and maximized process efficiency.
Certified as an ISO/IEC 27001: Information Security Management Systems (ISMS) Lead Implementer, Data Protection Officer, and Cyber Risks Analyst, Denis brings a heightened focus on data security, privacy, and cyber resilience to every endeavor.
His expertise extends across a diverse spectrum of reporting, database, and web development applications, underpinned by an exceptional grasp of data storage and virtualization technologies. His proficiency in application testing, database administration, and data cleansing ensures seamless execution of complex projects.
What sets Denis apart is his comprehensive understanding of Business and Systems Analysis technologies, honed through involvement in all phases of the Software Development Lifecycle (SDLC). From meticulous requirements gathering to precise analysis, innovative design, rigorous development, thorough testing, and successful implementation, he has consistently delivered exceptional results.
Throughout his career, he has taken on multifaceted roles, from leading technical project management teams to owning solutions that drive operational excellence. His conscientious and proactive approach is unwavering, whether he is working independently or collaboratively within a team. His ability to connect with colleagues on a personal level underscores his commitment to fostering a harmonious and productive workplace environment.
Date: May 29, 2024
Tags: Information Security, ISO/IEC 27001, ISO/IEC 42001, Artificial Intelligence, GDPR
-------------------------------------------------------------------------------
Find out more about ISO training and certification services
Training: ISO/IEC 27001 Information Security Management System - EN | PECB
ISO/IEC 42001 Artificial Intelligence Management System - EN | PECB
General Data Protection Regulation (GDPR) - Training Courses - EN | PECB
Webinars: https://pecb.com/webinars
Article: https://pecb.com/article
-------------------------------------------------------------------------------
For more information about PECB:
Website: https://pecb.com/
LinkedIn: https://www.linkedin.com/company/pecb/
Facebook: https://www.facebook.com/PECBInternational/
Slideshare: http://www.slideshare.net/PECBCERTIFICATION
2. Software Requirements Specification for <Project> Page ii
Table of Contents
Table of Contents............................................................................................................................ii
Revision History .............................................................................................................................ii
1. Introduction...............................................................................................................................1
1.1 Purpose..................................................................................................................................1
1.2 Document Conventions ...........................................................................................................1
1.3 Intended Audience and Reading Suggestions ............................................................................1
1.4 Product Scope ........................................................................................................................1
1.5 References.............................................................................................................................1
2. Overall Description...................................................................................................................2
2.1 Product Perspective................................................................................................................2
2.2 Product Functions ...................................................................................................................2
2.3 User Classes and Characteristics.............................................................................................2
2.4 Operating Environment............................................................................................................2
2.5 Design and Implementation Constraints ....................................................................................2
2.6 User Documentation...............................................................................................................2
2.7 Assumptions and Dependencies...............................................................................................3
3. External Interface Requirements.............................................................................................3
3.1 User Interfaces ......................................................................................................................3
3.2 Hardware Interfaces...............................................................................................................3
3.3 Software Interfaces................................................................................................................3
3.4 Communications Interfaces .....................................................................................................3
4. System Features........................................................................................................................4
4.1 System Feature 1....................................................................................................................4
4.2 System Feature 2 (and so on) ..................................................................................................4
5. Other Nonfunctional Requirements .........................................................................................4
5.1 Performance Requirements .....................................................................................................4
5.2 Safety Requirements...............................................................................................................5
5.3 Security Requirements ............................................................................................................5
5.4 Software Quality Attributes .....................................................................................................5
5.5 Business Rules .......................................................................................................................5
6. Other Requirements .................................................................................................................5
Appendix A: Glossary.....................................................................................................................5
Appendix B: Analysis Models........................................................................................................5
Appendix C: To Be Determined List .............................................................................................6
Revision History
Name Date Reason For Changes Version
3. Software Requirements Specification for <Project> Page 1
1. Introduction
1.1 Purpose
<Identify the product whose software requirements are specified in this document, including the
revision or release number. Describe the scope of the product that is covered by this SRS,
particularly if this SRS describes only part of the system or a single subsystem.>
1.2 Document Conventions
<Describe any standards or typographical conventions that were followed when writing this SRS,
such as fonts or highlighting that have special significance. For example, state whether priorities
for higher-level requirements are assumed to be inherited by detailed requirements, or whether
every requirement statement is to have its own priority.>
1.3 Intended Audience and Reading Suggestions
<Describe the different types of reader that the document is intended for, such as developers,
project managers, marketing staff, users, testers, and documentation writers. Describe what the
rest of this SRS contains and howit is organized. Suggest a sequence for reading the document,
beginning with the overviewsections and proceeding through the sections that are most pertinent to
each reader type.>
1.4 Product Scope
<Provide a short description of the software being specified and its purpose, including relevant
benefits, objectives, and goals. Relate the software to corporate goals or business strategies. If a
separate vision and scope document is available, refer to it rather than duplicating its contents
here.>
1.5 References
<List any other documents or Web addresses to which this SRS refers. These may include user
interface style guides, contracts, standards, system requirements specifications, use case
documents, or a vision and scope document. Provide enough information so that the reader could
access a copy of each reference, including title, author, version number, date, and source or
location.>
4. Software Requirements Specification for <Project> Page 2
2. Overall Description
2.1 Product Perspective
<Describe the context and origin of the product being specified in this SRS. For example, state
whether this product is a follow-on member of a product family, a replacement for certain existing
systems, or a new, self-contained product. If the SRS defines a component of a larger system,
relate the requirements of the larger system to the functionality of this software and identify
interfaces between the two. A simple diagram that shows the major components of the overall
system, subsystem interconnections, and external interfaces can be helpful.>
2.2 Product Functions
<Summarize the major functions the product must perform or must let the user perform. Details will
be provided in Section 3, so only a high level summary (such as a bullet list) is needed here.
Organize the functions to make them understandable to any reader of the SRS. A picture of the
major groups of related requirements and howthey relate, such as a top level data flowdiagram or
object class diagram, is often effective.>
2.3 User Classes and Characteristics
<Identify the various user classes that you anticipate will use this product. User classes may be
differentiated based on frequency of use, subset of product functions used, technical expertise,
security or privilege levels, educational level, or experience. Describe the pertinent characteristics
of each user class. Certain requirements may pertain only to certain user classes. Distinguish the
most important user classes for this product from those who are less important to satisfy.>
2.4 Operating Environment
<Describe the environment in which the software will operate, including the hardware platform,
operating system and versions, and any other software components or applications with which it
must peacefully coexist.>
2.5 Design and Implementation Constraints
<Describe any items or issues that will limit the options available to the developers. These might
include: corporate or regulatory policies; hardware limitations (timing requirements, memory
requirements); interfaces to other applications; specific technologies, tools, and databases to be
used; parallel operations; language requirements; communications protocols; security
considerations; design conventions or programming standards (for example, if the customer’s
organization will be responsible for maintaining the delivered software).>
2.6 User Documentation
<List the user documentation components (such as user manuals, on-line help, and tutorials) that
will be delivered along with the software. Identify any known user documentation delivery formats or
standards.>
5. Software Requirements Specification for <Project> Page 3
2.7 Assumptions and Dependencies
<List any assumed factors (as opposed to known facts) that could affect the requirements stated in
the SRS. These could include third-party or commercial components that you plan to use, issues
around the development or operating environment, or constraints. The project could be affected if
these assumptions are incorrect, are not shared, or change. Also identify any dependencies the
project has on external factors, such as software components that you intend to reuse from another
project, unless they are already documented elsewhere (for example, in the vision and scope
document or the project plan).>
3. External Interface Requirements
3.1 User Interfaces
<Describe the logical characteristics of each interface between the software product and the users.
This may include sample screen images, any GUI standards or product family style guides that
are to be followed, screen layout constraints, standard buttons and functions (e.g., help) that will
appear on every screen, keyboard shortcuts, error message display standards, and so on. Define
the software components for which a user interface is needed. Details of the user interface design
should be documented in a separate user interface specification.>
3.2 Hardware Interfaces
<Describe the logical and physical characteristics of each interface between the software product
and the hardware components of the system. This may include the supported device types, the
nature of the data and control interactions between the software and the hardware, and
communication protocols to be used.>
3.3 Software Interfaces
<Describe the connections between this product and other specific software components (name
and version), including databases, operating systems, tools, libraries, and integrated commercial
components. Identify the data items or messages coming into the system and going out and
describe the purpose of each. Describe the services needed and the nature of communications.
Refer to documents that describe detailed application programming interface protocols. Identify
data that will be shared across software components. If the data sharing mechanism must be
implemented in a specific way (for example, use of a global data area in a multitasking operating
system), specify this as an implementation constraint.>
3.4 Communications Interfaces
<Describe the requirements associated with any communications functions required by this
product, including e-mail, web browser, network server communications protocols, electronic forms,
and so on. Define any pertinent message formatting. Identify any communication standards that will
be used, such as FTP or HTTP. Specify any communication security or encryption issues, data
transfer rates, and synchronization mechanisms.>
6. Software Requirements Specification for <Project> Page 4
4. System Features
<This template illustrates organizing the functional requirements for the product by system
features, the major services provided by the product. You may prefer to organize this section by
use case, mode of operation, user class, object class, functional hierarchy, or combinations of
these, whatever makes the most logical sense for your product.>
4.1 System Feature 1
<Don’t really say “System Feature 1.” State the feature name in just a fewwords.>
4.1.1 Description and Priority
<Provide a short description of the feature and indicate whether it is of High, Medium,
or Lowpriority. You could also include specific priority component ratings, such as
benefit, penalty, cost, and risk (each rated on a relative scale from a lowof 1 to a high
of 9).>
4.1.2 Stimulus/Response Sequences
<List the sequences of user actions and system responses that stimulate the
behavior defined for this feature. These will correspond to the dialog elements
associated with use cases.>
4.1.3 Functional Requirements
<Itemize the detailed functional requirements associated with this feature. These are
the software capabilities that must be present in order for the user to carry out the
services provided by the feature, or to execute the use case. Include howthe product
should respond to anticipated error conditions or invalid inputs. Requirements should
be concise, complete, unambiguous, verifiable, and necessary. Use “TBD” as a
placeholder to indicate when necessary information is not yet available.>
<Each requirement should be uniquely identified with a sequence number or a
meaningful tag of some kind.>
REQ-1:
REQ-2:
4.2 System Feature 2 (and so on)
5. Other Nonfunctional Requirements
5.1 Performance Requirements
<If there are performance requirements for the product under various circumstances, state them
here and explain their rationale, to help the developers understand the intent and make suitable
design choices. Specify the timing relationships for real time systems. Make such requirements as
specific as possible. You may need to state performance requirements for individual functional
requirements or features.>
7. Software Requirements Specification for <Project> Page 5
5.2 Safety Requirements
<Specify those requirements that are concerned with possible loss, damage, or harm that could
result from the use of the product. Define any safeguards or actions that must be taken, as well as
actions that must be prevented. Refer to any external policies or regulations that state safety
issues that affect the product’s design or use. Define any safety certifications that must be
satisfied.>
5.3 Security Requirements
<Specify any requirements regarding security or privacy issues surrounding use of the product or
protection of the data used or created by the product. Define any user identity authentication
requirements. Refer to any external policies or regulations containing security issues that affect the
product. Define any security or privacy certifications that must be satisfied.>
5.4 Software Quality Attributes
<Specify any additional quality characteristics for the product that will be important to either the
customers or the developers. Some to consider are: adaptability, availability, correctness,
flexibility, interoperability, maintainability, portability, reliability, reusability, robustness, testability,
and usability. Write these to be specific, quantitative, and verifiable when possible. At the least,
clarify the relative preferences for various attributes, such as ease of use over ease of learning.>
5.5 Business Rules
<List any operating principles about the product, such as which individuals or roles can perform
which functions under specific circumstances. These are not functional requirements in
themselves, but they may imply certain functional requirements to enforce the rules.>
6. Other Requirements
<Define any other requirements not covered elsewhere in the SRS. This might include database
requirements, internationalization requirements, legal requirements, reuse objectives for the project,
and so on. Add any newsections that are pertinent to the project.>
Appendix A: Glossary
<Define all the terms necessary to properly interpret the SRS, including acronyms and
abbreviations. You may wish to build a separate glossary that spans multiple projects or the entire
organization, and just include terms specific to a single project in each SRS.>
Appendix B: Analysis Models
<Optionally, include any pertinent analysis models, such as data flowdiagrams, class diagrams,
state-transition diagrams, or entity-relationship diagrams.>
8. Software Requirements Specification for <Project> Page 6
Appendix C: To Be Determined List
<Collect a numbered list of the TBD (to be determined) references that remain in the SRS so they
can be tracked to closure.>