The document discusses the professional responsibilities of software engineers. It begins by defining PRoSE, which stands for Professional Responsibilities of Software Engineers. It then outlines the main responsibilities as personal, social, and professional. Under professional responsibilities, it emphasizes the importance of things like producing reviewable designs, prioritizing safety and well-being of the public, and ensuring maintainability of software. It provides examples of conflicts that can arise between responsibilities and how engineers should prioritize public safety above all else. It also discusses the need for software engineering to be recognized as a licensed profession with accredited educational programs and codes of ethics like other engineering fields.
This document contains complete course outline of Professional Practices. Most of the topics are for computer science students. This document covers course of 32 lectures 1.5 hours each for professional practice course also known as Professional Ethics.
This document contains complete course outline of Professional Practices. Most of the topics are for computer science students. This document covers course of 32 lectures 1.5 hours each for professional practice course also known as Professional Ethics.
Presentation for Introduction to Google Cloud Platform. This PPT provides basic understanding for services provided by Google Cloud Platform like Compute, Storage, VPC, IAM.
Requirements analysis, also called requirements engineering, is the process of determining user expectations for a new or modified product. These features, called requirements, must be quantifiable, relevant and detailed. In software engineering, such requirements are often called functional specifications. Requirements analysis is an important aspect of project management.
Software engineering task bridging the gap between system requirements engineering and software design.
Provides software designer with a model of:
system information
function
behavior
Model can be translated to data, architectural, and component-level designs.
Expect to do a little bit of design during analysis and a little bit of analysis during design.
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SYSTEM ANALYSIS AND DESIGN Assignment help services at Globalwebtutors are available 24/ by online SYSTEM ANALYSIS AND DESIGN experts , SYSTEM ANALYSIS AND DESIGN tutors are available for instant SYSTEM ANALYSIS AND DESIGN questions help , SYSTEM ANALYSIS AND DESIGN writers can help you with complex SYSTEM ANALYSIS AND DESIGN dissertation requirements.
Presentation for Introduction to Google Cloud Platform. This PPT provides basic understanding for services provided by Google Cloud Platform like Compute, Storage, VPC, IAM.
Requirements analysis, also called requirements engineering, is the process of determining user expectations for a new or modified product. These features, called requirements, must be quantifiable, relevant and detailed. In software engineering, such requirements are often called functional specifications. Requirements analysis is an important aspect of project management.
Software engineering task bridging the gap between system requirements engineering and software design.
Provides software designer with a model of:
system information
function
behavior
Model can be translated to data, architectural, and component-level designs.
Expect to do a little bit of design during analysis and a little bit of analysis during design.
SYSTEM ANALYSIS AND DESIGN Assignment helpjohn mayer
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1. Emergence of Software EngineeringIn the software industry, we.docxjackiewalcutt
1. Emergence of Software Engineering
In the software industry, we have seen the complexity of computer-based systems increase dramatically over the past decades along with advances in technology. This new technology has increased the demand for computer-based systems to control many infrastructures with software. As a result, designing and building cost-effective, reliable, and high-quality software has become the focus of software engineering in the computer industry.
In the past the processes used for designing and developing software were very informal, which contributed to the rise in development and maintenance costs. The results of ad hoc development processes contributed to a higher percentage of unreliable and lesser quality products entering the marketplace. Many accidents resulted from failures in computer-based systems with hardware devices that were controlled with software. At the time, the industry was considered to be in a crisis state, which then led to the emergence of new practices and methods in software engineering.
Technological advances have had a big impact on the complexity level required in software systems. The emergence of new communication protocols, hardware devices, and graphical user interface components have placed a greater demand on software engineers to design quality, reliable, and safe software.
A Brief History of Software Engineering
In the 1950s and the early 1960s, the various engineering disciplines were beginning to analyze how aspects of the engineering field could be applied to methods used in developing software products. As computing power evolved over the decades, the demand increased along with the complexity of the problems that needed to be addressed in the design of software. The term software engineering was introduced in 1968 at the first international software engineering conference, held by the North Atlantic Treaty Organization (NATO) Science Committee (Mahoney 2004). Many practitioners believe this is the milestone that marked the emergence of the software engineering discipline.
Software was developed to control critical hardware devices in the mid- to late-1960s and early 1970s. During this time, cases emerged that involved operational errors and accidents resulting in the loss of human lives and damage to property. Defects in software were uncovered, which heightened public awareness to the need for better quality and reliability of software. The escalating cost of building quality and reliable software was on the rise in the computer industry and the demand for skilled programmers could not be met. The state of software development was viewed by practitioners as being in a "crisis" state and was commonly referred to as the software crisis.
In response to the software crisis, researchers and practitioners have been trying to develop a set of methodologies, processes, and tools as the "silver bullet" for building software. The combination of these methodologies, processes, and tools i ...
Chp 04 ethics and proffesions (shared) ----YUSRA FERNANDO
Computer Ethics
Special Responsibilities Facing Computer Professionals and Users
Maintaining relationships with and responsibilities toward customers, clients, coworkers, employees, and employers.
Making critical decisions that have significant consequences for many people.
Determining how to manage, select, or use computers in a professional setting.
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Hierarchical Digital Twin of a Naval Power SystemKerry Sado
A hierarchical digital twin of a Naval DC power system has been developed and experimentally verified. Similar to other state-of-the-art digital twins, this technology creates a digital replica of the physical system executed in real-time or faster, which can modify hardware controls. However, its advantage stems from distributing computational efforts by utilizing a hierarchical structure composed of lower-level digital twin blocks and a higher-level system digital twin. Each digital twin block is associated with a physical subsystem of the hardware and communicates with a singular system digital twin, which creates a system-level response. By extracting information from each level of the hierarchy, power system controls of the hardware were reconfigured autonomously. This hierarchical digital twin development offers several advantages over other digital twins, particularly in the field of naval power systems. The hierarchical structure allows for greater computational efficiency and scalability while the ability to autonomously reconfigure hardware controls offers increased flexibility and responsiveness. The hierarchical decomposition and models utilized were well aligned with the physical twin, as indicated by the maximum deviations between the developed digital twin hierarchy and the hardware.
Welcome to WIPAC Monthly the magazine brought to you by the LinkedIn Group Water Industry Process Automation & Control.
In this month's edition, along with this month's industry news to celebrate the 13 years since the group was created we have articles including
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Water scarcity is the lack of fresh water resources to meet the standard water demand. There are two type of water scarcity. One is physical. The other is economic water scarcity.
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Professional responsibilities of software engineering
1. Uzair Ishtiaq
Course – Professional Practices (IT)Course – Professional Practices (IT)
Class : BSCS (Semester 07)
BSSE (Semester 04)
Class : BSCS (Semester 07)
BSSE (Semester 04)
The Professional
Responsibilities
of Software Engineers
2. PRoSE
P - Professional
R - Responsibilities
o - of
S - Software
E - Engineers
A correctly designed system is an
electronic poetry in motion
4. Main Responsibilities
1. Personal
Personal Responsibilities are general obligations
towards other individuals; most are shared by all
persons (e.g. honesty, concern for others).
1. Social
2. Professional
5. Main Responsibilities
1. Personal
2. Social Social
Responsibilities are responsibilities towards
society as a whole. We have a debt to repay
because society has supported us when we
needed it. (e.g. environmental activism, peace
activism, national defence)
3. Professional
6. Main Responsibilities
1. Personal
2. Social
3. Professional
Professional Responsibilities are additional
responsibilities shared by members of a particular
profession (e.g medicine, journalism, or engineering)
Usually a code of responsibilities exists.
7. Conflict of Responsibilities
• Is there a difference?
• Can they conflict?
Professional responsibilities include, but are not limited to,
contractual obligations to an employer. These obligations may
appear at times to conflict with Personal and Social responsibility.
The primary responsibility of an engineer is always to the
safety and well-being of the public.
8. Conflict of Responsibilities
An Illustration - SDI (Star Wars):
Service on the “Committee on Computing in Support of
Battle Management”.
Some questions that arose:
a) Was it honest? (personal responsibility)
b) Had I made a professional commitment? Was our activity designing a
system that would meet the needs of the customer as required by
professional codes? What should a professional do if the answers were
“yes” and “no”?
c) Was this project good for society? Should I explain my views to the
public?
Some regarded a “Yes” to (c) as unprofessional. The conflict in (b) was
resolved by a detailed explanation.
9. The Social Responsibility of Scientists And Engineers
“In the land of the blind,
the one eyed man is king”.
In a world increasingly dependent on science and
technology, Scientists and Engineers are the one-
eyed people.
The majority of our decision-makers are blind.
10. The Social Responsibility of Scientists And Engineers
Consider the following public issues:
• Can we reduce our energy expenditures without great disruption in
people's lives?
• How urgent is the need to reduce the level of greenhouse gasses?
• Should we build more nuclear power generating stations?
• Is it safe to allow nuclear power generating stations to be controlled by
computers?
• Can technology help us to reduce the amount of the paper that we use?
Should we do that?
• Is it safe to allow computers to control cars and trucks?
Decisions will be taken by non-specialists, but the input will come from
people like us. We must give them complete and accurate information.
11. The Social Responsibility of Scientists And Engineers
Science and technology are the “black magic” of our age. We use arcane rituals and
obscure terminology.
The public thinks that science can solve any problem if given enough funds. Public
officials
share this attitude. They fall for scientific fads.
Buzzwords and big promises, favored over solid scientific work.
The rewards often go to the illusionists. The successful do not speak out. The others are
ignored (“sour grapes”).
Most of us “go along” to get funds.
Don’t we have a responsibility to see that society’s funds are well used?
In your career you will often have to decide whether or not to participate in a project
and, if you decide not to participate, whether you should make your decision public.
12. The Professional Responsibilities of Engineers
Unfortunately, Software Engineers are not always Engineers.
“Software Engineering” is a shallow course on programming, taught in a
science department, not a professional program in Engineering. Many
“software engineers” have no technical education.
Many could not be Professional Engineers.
Many confuse software engineering with configuration management.
An Engineer is someone who uses advanced knowledge of science,
mathematics, and technology to build objects for use by others.
Most programmers or software engineers, are Engineers, under qualified,
unlicensed, and often unprofessional. They are unaware of their professional
responsibilities.
Programmers need to learn about the professional responsibility of engineers.
13. Why do we have licensed Professional Engineers?
An old system introduced because:
• Some products potentially dangerous. Incompetent designs a danger to
public.
• Purchasers and some employers are often unable to judge the
competence of designers.
• Competent, conscientious, disciplined professionals want public to
distinguish between themselves and others. Bad work by a few damages
the reputations and business prospects of all.
• Financial pressures may tempt employers to “cut corners”. We are
protected better when professional obligations go beyond loyalty or
obedience to an employer. Professionals do say “No”.
Don’t all of these reasons apply to software construction?
14. What is the Professional Engineering Societies ?
1. Professional Engineering Societies were established by
legislation to assure competence and awareness of
professional responsibilities.
2. Regulations require that certain products be produced or
approved by a recognized Professional Engineer.
3. There is a separate committee to accredit programs.
Accreditation is a very serious process. Graduates of
accredited programs have an easier path to recognition as a
Professional Engineer. [5]
An exam on responsibilities is required in any case. [6]
15. Why are “Software Engineers” different?
• The result of a “software crisis” (optimism).
• Originally dealt with as a scientific problem. The basis of software engineering
was not well understood.
• First meetings attended by many mathematicians and scientists, few
engineers.
• Many engineers were still blissfully unaware of the importance of computers
in their profession.
• The word is “Engineering” used to indicate practical concerns, not a
profession.
• Professional societies did not take it seriously. Software Engineering has
developed outside of the Engineering Community.
• It has been left to Computer Science departments, taught by people who are
not Engineers.
• Because badly designed computer programs are hard to manage, emphasis
has been on project management, project scheduling, version control, etc.
Today, the engineering societies are beginning to do what they were always
required to do.
16. What are the obligations of the engineer?
1. Accept individual responsibility.
2. Solve the real problem
3. Be honest about capabilities
4. Produce reviewable designs
5. Maintainability
17. What Are The Obligations Of The Engineer?
1. Accept individual responsibility.
– Following orders does not justify approving bad designs.
– One cannot always be a “team player”.
– Professional standards have priority over other
pressures
1. Solve the real problem
– Look beyond the customer’s opinions
– Have a precise description of a problem.
– Get that description reviewed before building.
18. What Are The Obligations Of The Engineer?
3. Be honest about capabilities
– Don’t offer technical solutions where there are none.
– Don’t do studies when you already know the answer.
4. Produce reviewable designs
– No individual is infallible.
– Document to make reviewing easy.
5. Maintainability
– Produce a product that can be maintained without you. - It’s not your
personal product.
19. Professional Practice in Software Development
Some responses to a critical consultant:
• “Of course it’s wrong, but that is what my boss told me to do.”
• “We already know the answer, but they will pay us $1,000,000 for the study.
• “It’s not the right way, but it’s the customer’s suggestion.”
• “At XYZ corporation, we don’t tell our customers that they are wrong, we take their contracts.”
• “That’s not the real problem, but they asked us to do it.”
• “We can’t give them what they need, but we’ll do the best we can.”
• “We’ve got a deadline; we’ll worry about maintainability when we get the maintenance contract.
• “We don’t like people criticizing our designs!”
My personal favorites came from the IT manager of J&J and MedAmerica:
• “It is what it is. Take initiative, make it happened”
• “We pay you big box because you are good, so We don’t need to allocate resources for QA”
These remarks showed that the speakers were unaware of the professional
responsibilities of engineers.
Some had not heard of those responsibilities.
Some had no such excuse!
20. A Simple Example: Pacemakers
Their importance to the user is obvious!
They are also important to those nearby.
They are controlled by software.
– Many modes of operation
– Computer controlled telemetry system
– Data collection
– “Programmable” by remove control
– “When needed” intervention.
– Rate responds to body activity.
– Packaged in a small sealed unit
– Must survive in a “hostile environment”
Clearly the type of device that should be built by engineers.
The program is critical and should be well documented and
reviewable.
21. What Should be Done for Pacemaker Software?
1. Programmer should have a precise description of the environment and
requirements [7]
2. Black box description should have been produced for review.
3. Document should have been reviewable and reviewed by Cardiologists.
4. The code should have been documented in a way that permitted
systematic review and revision.[8]
5. Code should have been subject to systematic inspection.
6. Doctor should have been provide with well-organized precise
documentation that explained the behavior of the device to him.
All of these things would be expected of a professional engineer.
22. Pacemaker Software Anecdote
Pacemaker “refused” the surgeon’s command; neither surgeon nor technician
understood why.
The explanation was found in a footnote after several hours of reading. It took 30
minutes to find it the second time. Engineer responsible could explain the
hardware aspects in great detail. He referred to a programmer, who could not
be found, to explain the code.
Programming had been viewed as a trivial task; Responsible engineer did not
review it.
As a result of inadequate review, there are fundamental weaknesses
• Motion sensor does not measure physical activity
• Expected rate adjustment is inflexible.
The problem solved was not the real problem.
This was a typical software product.
The software was written as it would have been written 25 years ago.
23. More examples
• Med America PDA
• Firewalls (Software vs. hardware)
• Heart Surgeries and what doctors don’t want to tell
Software engineers
24. Software used by Professional Engineers and other concerns
Professional Engineers take responsibility for their products,
but, ...
• To design those products they use software that comes with
a disclaimer instead of a warranty,
• Professional Engineers belong to a society that enforces
codes of professional behavior, but
• they must use tools produced by people who do not belong
to such a society.
This cannot be a stable situation!
OS’s as bridges (Tacoma Narrows Bridge November 7, 1940 )
TacomaNarrowsBridge.mpeg
25. The “Know How” isn’t There!
If we look at other areas of engineering, we know what software
engineers should do. If we look at current practice, those things are not
done.
It’s not just a matter of lack of will. It’s not just a matter of lack of
awareness. Most programmers do not know how to do the things that
they should do.
They do not know how to:
• document requirements in a way that can be reviewed by subject matter
experts,
• document code precisely and completely,
• inspect code systematically.
SDF - Trying to give that “know how”.
26. The “Know How” isn’t There!
Is there a Solution to this
problem?
27. Improving Professionalism in Software Development
Three steps:
1. Work with Professional Engineering societies.
2. Develop better educational programs.
3. Develop accreditation procedures for Software
Engineering programs.
28. Work with Professional Engineering Societies
• We should stop fighting and work with the Engineering
groups on the establishing standards for a new “flavor” of
Engineer, either “Software Engineer” or “Computer
Engineer”
• We should take the advantage of the experience that this
groups have in setting professional standards
• We should use existing legislations to enforce those
standards.
29. Develop Accreditation Procedures for Software Engineering Programs
It is time to develop standards for the educational programs
that will be uniquely designed and target needs of Software
Engineering as a discipline not as a subprogram of Electrical
Engineering or Computer Science.
The aim [of education] must be the training of independently
acting and thinking individuals who, however, see in the
service to the community their highest life achievement.
– Albert Einstein
30. Develop better educational programs
We are not ready to work with the accreditation
committees even if they are:
• Little agreement on the essential knowledge
required of those practicing Software Engineering
• We need to remember that Engineering is not
Management our current programs and literature
confuse them.
31. Recap the PRoSE
PRoSE - is a poetry in motion.
It’s time to quit “firefighting” ways of the software
development and start utilizing engineering principals.
Responsibility of Software Engineers:
1. Personal
2. Social
3. Professional
32. Agenda
• About the speaker
• How is software designed today
• Hall of Shame
• The PRoSE by D. L. Parnas
• ACM on PRoSE
• Practical Examples from Experience
• QA or Q&A
33. Software Engineering Code of Ethics and
Professional Practice
Recommended and jointly approved by the ACM and
the IEEE-CS as the standard for teaching and
practicing software engineering.
34. Software Engineering Code of Ethics and
Professional Practice
The Code contains eight Principles related to the behavior of and decisions
made by professional software engineers, including practitioners,
educators, managers, supervisors and policy makers, as well as trainees
and students of the profession.
These obligations are founded in the software engineer's humanity, in
special care owed to people affected by the work of software engineers,
and in the unique elements of the practice of software engineering.
The Code prescribes these as obligations of anyone claiming to be or
aspiring to be a software engineer.
35. Principles of Software Engineering Code of Ethics
1. PUBLIC
2. CLIENT AND EMPLOYER
3. PRODUCT
4. JUDGMENT
5. MANAGEMENT
6. PROFESSION
7. COLLEAGUES
8. SELF
36. Principle 1 PUBLIC
Software engineers shall act consistently with the public interest. In particular, software
engineers shall, as appropriate:
1.01. Accept full responsibility for their own work.
1.02. Moderate the interests of the software engineer, the employer, the client and the users with the public good.
1.03. Approve software only if they have a well-founded belief that it is safe, meets specifications, passes
appropriate tests, and does not diminish quality of life, diminish privacy or harm the environment. The ultimate
effect of the work should be to the public good.
1.04. Disclose to appropriate persons or authorities any actual or potential danger to the user, the public, or the
environment, that they reasonably believe to be associated with software or related documents.
1.05. Cooperate in efforts to address matters of grave public concern caused by software, its installation,
maintenance, support or documentation.
1.06. Be fair and avoid deception in all statements, particularly public ones, concerning software or related
documents, methods and tools.
1.07. Consider issues of physical disabilities, allocation of resources, economic disadvantage and other factors that
can diminish access to the benefits of software.
1.08. Be encouraged to volunteer professional skills to good causes and contribute to public education concerning
the discipline.
37. Principle 2 CLIENT AND EMPLOYER
Software engineers shall act in a manner that is in the best interests of their client and
employer, consistent with the public interest. In particular, software engineers shall,
as appropriate:
2.01. Provide service in their areas of competence, being honest and forthright about any limitations of their
experience and education.
2.02. Not knowingly use software that is obtained or retained either illegally or unethically.
2.03. Use the property of a client or employer only in ways properly authorized, and with the client's or employer's
knowledge and consent.
2.04. Ensure that any document upon which they rely has been approved, when required, by someone authorized
to approve it.
2.05. Keep private any confidential information gained in their professional work, where such confidentiality is
consistent with the public interest and consistent with the law.
2.06. Identify, document, collect evidence and report to the client or the employer promptly if, in their opinion, a
project is likely to fail, to prove too expensive, to violate intellectual property law, or otherwise to be
problematic.
2.07. Identify, document, and report significant issues of social concern, of which they are aware, in software or
related documents, to the employer or the client.
2.08. Accept no outside work detrimental to the work they perform for their primary employer.
2.09. Promote no interest adverse to their employer or client, unless a higher ethical concern is being
compromised; in that case, inform the employer or another appropriate authority of the ethical concern.
38. Principle 3 PRODUCT
Software engineers shall ensure that their products and related modifications
meet the highest professional standards possible. In particular, software
engineers shall, as appropriate:
3.01. Strive for high quality, acceptable cost and a reasonable schedule, ensuring significant tradeoffs are clear to and
accepted by the employer and the client, and are available for consideration by the user and the public.
3.02. Ensure proper and achievable goals and objectives for any project on which they work or propose.
3.03. Identify, define and address ethical, economic, cultural, legal and environmental issues related to work projects.
3.04. Ensure that they are qualified for any project on which they work or propose to work by an appropriate combination of
education and training, and experience.
3.05. Ensure an appropriate method is used for any project on which they work or propose to work.
3.06. Work to follow professional standards, when available, that are most appropriate for the task at hand, departing from
these only when ethically or technically justified.
3.07. Strive to fully understand the specifications for software on which they work.
3.08. Ensure that specifications for software on which they work have been well documented, satisfy the users’ requirements
and have the appropriate approvals.
3.09. Ensure realistic quantitative estimates of cost, scheduling, personnel, quality and outcomes on any project on which they
work or propose to work and provide an uncertainty assessment of these estimates.
3.10. Ensure adequate testing, debugging, and review of software and related documents on which they work.
3.11. Ensure adequate documentation, including significant problems discovered and solutions adopted, for any project on
which they work.
3.12. Work to develop software and related documents that respect the privacy of those who will be affected by that
software.
3.13. Be careful to use only accurate data derived by ethical and lawful means, and use it only in ways properly authorized.
3.14. Maintain the integrity of data, being sensitive to outdated or flawed occurrences.
3.15 Treat all forms of software maintenance with the same professionalism as new development.
39. Principle 4 JUDGMENT
Software engineers shall maintain integrity and independence in their professional
judgment. In particular, software engineers shall, as appropriate:
4.01. Temper all technical judgments by the need to support and maintain human values.
4.02 Only endorse documents either prepared under their supervision or within their areas of competence and
with which they are in agreement.
4.03. Maintain professional objectivity with respect to any software or related documents they are asked to
evaluate.
4.04. Not engage in deceptive financial practices such as bribery, double billing, or other improper financial
practices.
4.05. Disclose to all concerned parties those conflicts of interest that cannot reasonably be avoided or escaped.
4.06. Refuse to participate, as members or advisors, in a private, governmental or professional body concerned
with software related issues, in which they, their employers or their clients have undisclosed potential
conflicts of interest.
40. Principle 5 MANAGEMENT
Software engineering managers and leaders shall subscribe to and promote an ethical
approach to the management of software development and maintenance . In
particular, those managing or leading software engineers shall, as appropriate:
5.01 Ensure good management for any project on which they work, including effective procedures for promotion of quality and
reduction of risk.
5.02. Ensure that software engineers are informed of standards before being held to them.
5.03. Ensure that software engineers know the employer's policies and procedures for protecting passwords, files and information that
is confidential to the employer or confidential to others.
5.04. Assign work only after taking into account appropriate contributions of education and experience tempered with a desire to
further that education and experience.
5.05. Ensure realistic quantitative estimates of cost, scheduling, personnel, quality and outcomes on any project on which they work or
propose to work, and provide an uncertainty assessment of these estimates.
5.06. Attract potential software engineers only by full and accurate description of the conditions of employment.
5.07. Offer fair and just remuneration.
5.08. Not unjustly prevent someone from taking a position for which that person is suitably qualified.
5.09. Ensure that there is a fair agreement concerning ownership of any software, processes, research, writing, or other intellectual
property to which a software engineer has contributed.
5.10. Provide for due process in hearing charges of violation of an employer's policy or of this Code.
5.11. Not ask a software engineer to do anything inconsistent with this Code.
5.12. Not punish anyone for expressing ethical concerns about a project.
41. Principle 6 PROFESSION
Software engineers shall advance the integrity and reputation of the profession
consistent with the public interest. In particular, software engineers shall, as
appropriate:
6.01. Help develop an organizational environment favorable to acting ethically.
6.02. Promote public knowledge of software engineering.
6.03. Extend software engineering knowledge by appropriate participation in professional organizations, meetings and publications.
6.04. Support, as members of a profession, other software engineers striving to follow this Code.
6.05. Not promote their own interest at the expense of the profession, client or employer.
6.06. Obey all laws governing their work, unless, in exceptional circumstances, such compliance is inconsistent with the public interest.
6.07. Be accurate in stating the characteristics of software on which they work, avoiding not only false claims but also claims that might
reasonably be supposed to be speculative, vacuous, deceptive, misleading, or doubtful.
6.08. Take responsibility for detecting, correcting, and reporting errors in software and associated documents on which they work.
6.09. Ensure that clients, employers, and supervisors know of the software engineer's commitment to this Code of ethics, and the
subsequent ramifications of such commitment.
6.10. Avoid associations with businesses and organizations which are in conflict with this code.
6.11. Recognize that violations of this Code are inconsistent with being a professional software engineer.
6.12. Express concerns to the people involved when significant violations of this Code are detected unless this is impossible, counter-
productive, or dangerous.
6.13. Report significant violations of this Code to appropriate authorities when it is clear that consultation with people involved in these
significant violations is impossible, counter-productive or dangerous.
42. Principle 7 COLLEAGUES
Software engineers shall be fair to and supportive of their colleagues. In
particular, software engineers shall, as appropriate:
7.01. Encourage colleagues to adhere to this Code.
7.02. Assist colleagues in professional development.
7.03. Credit fully the work of others and refrain from taking undue credit.
7.04. Review the work of others in an objective, candid, and properly-documented way.
7.05. Give a fair hearing to the opinions, concerns, or complaints of a colleague.
7.06. Assist colleagues in being fully aware of current standard work practices including policies and
procedures for protecting passwords, files and other confidential information, and security
measures in general.
7.07. Not unfairly intervene in the career of any colleague; however, concern for the employer, the client
or public interest may compel software engineers, in good faith, to question the competence of a
colleague.
7.08. In situations outside of their own areas of competence, call upon the opinions of other
professionals who have competence in that area.
43. Principle 8 SELF
Software engineers shall participate in lifelong learning regarding the practice of their profession and
shall promote an ethical approach to the practice of the profession. In particular, software
engineers shall continually endeavor to:7.01. Encourage colleagues to adhere to this Code.
8.01. Further their knowledge of developments in the analysis, specification, design, development,
maintenance and testing of software and related documents, together with the management of
the development process.
8.02. Improve their ability to create safe, reliable, and useful quality software at reasonable cost and
within a reasonable time.
8.03. Improve their ability to produce accurate, informative, and well-written documentation.
8.04. Improve their understanding of the software and related documents on which they work and of
the environment in which they will be used.
8.05. Improve their knowledge of relevant standards and the law governing the software and related
documents on which they work.
8.06 Improve their knowledge of this Code, its interpretation, and its application to their work.
8.07 Not give unfair treatment to anyone because of any irrelevant prejudices.
8.08. Not influence others to undertake any action that involves a breach of this Code.
8.09. Recognize that personal violations of this Code are inconsistent with being a professional
software engineer.
44. Principles of Software Engineering Code of Ethics
1. PUBLIC
2. CLIENT AND EMPLOYER
3. PRODUCT
4. JUDGMENT
5. MANAGEMENT
6. PROFESSION
7. COLLEAGUES
8. SELF