Definition of the word engineer

Engineer

MarCO CubeSat.jpg

Mechanical engineer Joel Steinkraus and systems engineer Farah Alibay (right) from NASA Jet Propulsion Laboratory hold a full-scale mockup of Mars Cube One

Occupation
Names Engineer

Occupation type

Profession

Activity sectors

Applied science
Description
Competencies Mathematics, science, design, analysis, critical thinking, engineering ethics, project management, engineering economics, creativity, problem solving, (See also: Glossary of engineering)

Education required

Engineering education

Fields of
employment

Research and development, industry, business

Related jobs

Scientist, architect, project manager, inventor, astronaut

Engineers, as practitioners of engineering, are professionals who invent, design, analyze, build and test machines, complex systems, structures, gadgets and materials to fulfill functional objectives and requirements while considering the limitations imposed by practicality, regulation, safety and cost.[1][2] The word engineer (Latin ingeniator[3]) is derived from the Latin words ingeniare («to contrive, devise») and ingenium («cleverness»).[4][5] The foundational qualifications of an engineer typically include a four-year bachelor’s degree in an engineering discipline, or in some jurisdictions, a master’s degree in an engineering discipline plus four to six years of peer-reviewed professional practice (culminating in a project report or thesis) and passage of engineering board examinations.

The work of engineers forms the link between scientific discoveries and their subsequent applications to human and business needs and quality of life.[1]

Definition[edit]

In 1961, the Conference of Engineering Societies of Western Europe and the United States of America defined «professional engineer» as follows:[6]

A professional engineer is competent by virtue of his/her fundamental education and training to apply the scientific method and outlook to the analysis and solution of engineering problems. He/she is able to assume personal responsibility for the development and application of engineering science and knowledge, notably in research, design, construction, manufacturing, superintending, managing and in the education of the engineer. His/her work is predominantly intellectual and varied and not of a routine mental or physical character. It requires the exercise of original thought and judgement and the ability to supervise the technical and administrative work of others. His/her education will have been such as to make him/her capable of closely and continuously following progress in his/her branch of engineering science by consulting newly published works on a worldwide basis, assimilating such information and applying it independently. He/she is thus placed in a position to make contributions to the development of engineering science or its applications. His/her education and training will have been such that he/she will have acquired a broad and general appreciation of the engineering sciences as well as thorough insight into the special features of his/her own branch. In due time he/she will be able to give authoritative technical advice and to assume responsibility for the direction of important tasks in his/her branch.

Roles and expertise[edit]

Design[edit]

An aerial screw (c. 1489), suggestive of a helicopter, from the Codex Atlanticus

Engineers develop new technological solutions. During the engineering design process, the responsibilities of the engineer may include defining problems, conducting and narrowing research, analyzing criteria, finding and analyzing solutions, and making decisions. Much of an engineer’s time is spent on researching, locating, applying, and transferring information.[7] Indeed, research suggests engineers spend 56% of their time engaged in various information behaviours, including 14% actively searching for information.[8]

Engineers must weigh different design choices on their merits and choose the solution that best matches the requirements and needs. Their crucial and unique task is to identify, understand, and interpret the constraints on a design in order to produce a successful result.

Analysis[edit]

Engineers conferring on prototype design, 1954

Engineers apply techniques of engineering analysis in testing, production, or maintenance. Analytical engineers may supervise production in factories and elsewhere, determine the causes of a process failure, and test output to maintain quality. They also estimate the time and cost required to complete projects. Supervisory engineers are responsible for major components or entire projects. Engineering analysis involves the application of scientific analytic principles and processes to reveal the properties and state of the system, device or mechanism under study. Engineering analysis proceeds by separating the engineering design into the mechanisms of operation or failure, analyzing or estimating each component of the operation or failure mechanism in isolation, and recombining the components. They may analyze risk.[9][10][11][12]

Many engineers use computers to produce and analyze designs, to simulate and test how a machine, structure, or system operates, to generate specifications for parts, to monitor the quality of products, and to control the efficiency of processes.

Specialization and management[edit]

NASA Launch Control Center Firing Room 2 as it appeared in the Apollo era

Most engineers specialize in one or more engineering disciplines.[1] Numerous specialties are recognized by professional societies, and each of the major branches of engineering has numerous subdivisions. Civil engineering, for example, includes structural engineering, along with transportation engineering, geotechnical engineering, and materials engineering, including ceramic, metallurgical, and polymer engineering. Mechanical engineering cuts across most disciplines since its core essence is applied physics. Engineers also may specialize in one industry, such as motor vehicles, or in one type of technology, such as turbines or semiconductor materials.[1]

Several recent studies have investigated how engineers spend their time; that is, the work tasks they perform and how their time is distributed among these. Research[8][13] suggests that there are several key themes present in engineers’ work: technical work (i.e., the application of science to product development), social work (i.e., interactive communication between people), computer-based work and information behaviors. Among other more detailed findings, a 2012 work sampling study[13] found that engineers spend 62.92% of their time engaged in technical work, 40.37% in social work, and 49.66% in computer-based work. Furthermore, there was considerable overlap between these different types of work, with engineers spending 24.96% of their time engaged in technical and social work, 37.97% in technical and non-social, 15.42% in non-technical and social, and 21.66% in non-technical and non-social.

Engineering is also an information-intensive field, with research finding that engineers spend 55.8% of their time engaged in various different information behaviors, including 14.2% actively information from other people (7.8%) and information repositories such as documents and databases (6.4%).[8]

The time engineers spend engaged in such activities is also reflected in the competencies required in engineering roles. In addition to engineers’ core technical competence, research has also demonstrated the critical nature of their personal attributes, project management skills, and cognitive abilities to success in the role.[14]

Types of engineers[edit]

There are many branches of engineering, each of which specializes in specific technologies and products. Typically, engineers will have deep knowledge in one area and basic knowledge in related areas. For example, mechanical engineering curricula typically include introductory courses in electrical engineering, computer science, materials science, metallurgy, mathematics, and software engineering.

An engineer may either be hired for a firm that requires engineers on a continuous basis, or may belong to an engineering firm that provides engineering consulting services to other firms.

When developing a product, engineers typically work in interdisciplinary teams. For example, when building robots an engineering team will typically have at least three types of engineers. A mechanical engineer would design the body and actuators. An electrical engineer would design the power systems, sensors, electronics, embedded software in electronics, and control circuitry. Finally, a software engineer would develop the software that makes the robot behave properly. Engineers that aspire to management engage in further study in business administration, project management and organizational or business psychology. Often engineers move up the management hierarchy from managing projects, functional departments, divisions and eventually CEOs of a multi-national corporation.

Branch Focus Related sciences Products
Automobile engineering Focuses on the development of automobiles and related technology Structural engineering, electronics, materials science, automotive safety, fluid mechanics, thermodynamics, engineering mathematics, ergonomics, environmental compliance, road traffic safety, chemistry Automobiles
Aerospace engineering Focuses on the development of aircraft and spacecraft Aeronautics, astrodynamics, astronautics, avionics, control engineering, fluid mechanics, kinematics, materials science, thermodynamics Aircraft, robotics, spacecraft, trajectories
Agricultural engineering Focuses on the engineering, science, and technology for the production and processing of food from agriculture, such as the production of arable crops, soft fruit and livestock. A key goal of this discipline is to improve the efficacy and sustainability of agricultural practices for food production. Agricultural engineering often combines and converges many other engineering disciplines such as Mechanical engineering, Civil engineering, electrical engineering, chemical engineering, biosystems engineering, soil science, environmental engineering Livestock, food, horticulture, forestry, renewable energy crops.

Agricultural machinery such as tractors, combine harvesters, forage harvesters.

Agricultural technology incorporates such things as robotics and autonomous vehicles.

Architectural engineering and building engineering Focuses on building and construction Architecture, architectural technology Buildings and bridges
Biomedical engineering Focuses on closing the gap between engineering and medicine to advance various health care treatments. Biology, physics, chemistry, medicine Prostheses, medical devices, regenerative tissue growth, various safety mechanisms, genetic engineering
Chemical engineering Focuses on the manufacturing of chemicals and or extraction of chemical species from natural resources Chemistry, thermodynamics, chemical thermodynamics, process engineering, transport phenomena, nanotechnology, biology, chemical kinetics, genetic engineering medicine, fluid mechanics, textiles Chemicals, hydrocarbons, fuels, medicines, raw materials, food and drink, waste treatment, pure gases, plastics, coatings, water treatment, textiles
Civil engineering Focuses on the construction of large systems, structures, and environmental systems Statics, fluid mechanics, soil mechanics, structural engineering, transportation engineering, geotechnical engineering, environmental engineering, hydraulic engineering Roads, bridges, dams, buildings, structural system, foundation, earthworks, waste management, water treatment
Computer engineering Focuses on the design and development of computer hardware & software systems Computer science, mathematics, electrical engineering Microprocessors, microcontrollers, operating systems, embedded systems, computer networks
Electrical engineering Focuses on application of electricity, electronics, and electromagnetism Mathematics, probability and statistics, engineering ethics, engineering economics, instrumentation, materials science, physics, network analysis, electromagnetism, linear system, electronics, electric power, logic, computer science, data transmission, systems engineering, control engineering, signal processing Electricity generation and equipment, remote sensing, robotics, control system, computers, home appliances, Internet of things, consumer electronics, avionics, hybrid vehicles, spacecraft, unmanned aerial vehicles, optoelectronics, embedded systems
Fire protection engineering Focuses on application of science and engineering principles to protect people, property, and their environments from the harmful and destructive effects of fire and smoke. Fire, smoke, fluid dynamics, thermodynamics, heat transfer, combustion, physics, materials science, chemistry, statics, dynamics, probabilistic risk assessment or risk management, environmental psychology, engineering ethics, engineering economics, systems engineering, reliability, fire suppression, fire alarms, building fire safety, wildfire, building codes, measurement and simulation of fire phenomena, mathematics, probability and statistics. Fire suppression systems, fire alarm systems, passive fire protection, smoke control systems, sprinkler systems, Code consulting, fire and smoke modeling, emergency management, water supply systems, fire pumps, structural fire protection, foam extinguishing systems, gaseous fire suppression systems, oxygen reduction systems, flame detection, aerosol fire suppression.
Industrial engineering Focuses on the design, optimization, and operation of production, logistics, and service systems and processes Operations research, engineering statistics, applied probability and stochastic processes, automation engineering, methods engineering, production engineering, manufacturing engineering, systems engineering, logistics engineering, ergonomics quality control systems, manufacturing systems, warehousing systems, supply chains, logistics networks, queueing systems, business process management
Mechatronics engineering Focuses on the technology and controlling all the industrial field Process control, automation Robotics, controllers, CNC
Mechanical engineering Focuses on the development and operation of energy systems, transport systems, manufacturing systems, machines and control systems Dynamics, kinematics, statics, fluid mechanics, materials science, metallurgy, strength of materials, thermodynamics, heat transfer, mechanics, mechatronics, manufacturing engineering, control engineering Cars, airplanes, machines, power generation, spacecraft, buildings, consumer goods, manufacturing, HVAC
Metallurgical engineering/materials engineering Focuses on extraction of metals from its ores and development of new materials Material science, thermodynamics, extraction of metals, physical metallurgy, mechanical metallurgy, nuclear materials, steel technology Iron, steel, polymers, ceramics, metals
Mining engineering Focuses on the use of applied science and technology to extract various minerals from the earth, not to be confused with metallurgical engineering, which deals with mineral processing of various ores after they have already been mined Rock mechanics, geostatistics, soil mechanics, control engineering, geophysics, fluid mechanics, drilling and blasting Gold, silver, coal, iron ore, potash, limestone, diamond, rare-earth element, bauxite, copper
Software engineering Focuses on the design and development of software systems Computer science, information theory, systems engineering, formal language Application software, Mobile apps, Websites, operating systems, embedded systems, real-time computing, video games, virtual reality, AI software, edge computing, distributed systems, computer vision, music sequencers, digital audio workstations, software synthesizers, robotics, CGI, medical software, computer-assisted surgery, Internet of things, avionics software, computer simulation, quantum programming, satellite navigation software, antivirus software, electronic design automation, computer-aided design, self-driving cars, educational software

Ethics[edit]

Engineers have obligations to the public, their clients, employers, and the profession. Many engineering societies have established codes of practice and codes of ethics to guide members and inform the public at large. Each engineering discipline and professional society maintains a code of ethics, which the members pledge to uphold. Depending on their specializations, engineers may also be governed by specific statute, whistleblowing, product liability laws, and often the principles of business ethics.[15][16][17]

Some graduates of engineering programs in North America may be recognized by the iron ring or Engineer’s Ring, a ring made of iron or stainless steel that is worn on the little finger of the dominant hand. This tradition began in 1925 in Canada with The Ritual of the Calling of an Engineer, where the ring serves as a symbol and reminder of the engineer’s obligations to the engineering profession. In 1972, the practice was adopted by several colleges in the United States including members of the Order of the Engineer.

Education[edit]

Most engineering programs involve a concentration of study in an engineering specialty, along with courses in both mathematics and the physical and life sciences. Many programs also include courses in general engineering and applied accounting. A design course, often accompanied by a computer or laboratory class or both, is part of the curriculum of most programs. Often, general courses not directly related to engineering, such as those in the social sciences or humanities, also are required.

Accreditation is the process by which engineering programs are evaluated by an external body to determine if applicable standards are met. The Washington Accord serves as an international accreditation agreement for academic engineering degrees, recognizing the substantial equivalency in the standards set by many major national engineering bodies. In the United States, post-secondary degree programs in engineering are accredited by the Accreditation Board for Engineering and Technology.

Regulation[edit]

In many countries, engineering tasks such as the design of bridges, electric power plants, industrial equipment, machine design and chemical plants, must be approved by a licensed professional engineer. Most commonly titled professional engineer is a license to practice and is indicated with the use of post-nominal letters; PE or P.Eng. These are common in North America, as is European engineer (EUR ING) in Europe. The practice of engineering in the UK is not a regulated profession but the control of the titles of chartered engineer (CEng) and incorporated engineer (IEng) is regulated. These titles are protected by law and are subject to strict requirements defined by the Engineering Council UK. The title CEng is in use in much of the Commonwealth.

Many skilled and semi-skilled trades and engineering technicians in the UK call themselves engineers. A growing movement in the UK is to legally protect the title ‘Engineer’ so that only professional engineers can use it; a petition[18] was started to further this cause.

In the United States, engineering is a regulated profession whose practice and practitioners are licensed and governed by law. Licensure is generally attainable through combination of education, pre-examination (Fundamentals of Engineering exam), examination (professional engineering exam),[19] and engineering experience (typically in the area of 5+ years). Each state tests and licenses professional engineers. Currently, most states do not license by specific engineering discipline, but rather provide generalized licensure, and trust engineers to use professional judgment regarding their individual competencies; this is the favoured approach of the professional societies. Despite this, at least one of the examinations required by most states is actually focused on a particular discipline; candidates for licensure typically choose the category of examination which comes closest to their respective expertise. In the United States, an «industrial exemption» allows businesses to employ employees and call them an «engineer», as long as such individuals are under the direct supervision and control of the business entity and function internally related to manufacturing (manufactured parts) related to the business entity, or work internally within an exempt organization. Such person does not have the final authority to approve, or the ultimate responsibility for, engineering designs, plans, or specifications that are to be incorporated into fixed works, systems, or facilities on the property of others or made available to the public. These individuals are prohibited from offering engineering services directly to the public or other businesses, or engage in practice of engineering unless the business entity is registered with the state’s board of engineering, and the practice is carried on or supervised directly only by engineers licensed to engage in the practice of engineering.[20] In some instances, some positions, such as a «sanitation engineer», does not have any basis in engineering sciences. Although some states require a BS degree in engineering accredited by the Engineering Accreditation Commission (EAC) of Accreditation Board for Engineering and Technology (ABET) with no exceptions, about two thirds of the states accept BS degrees in engineering technology accredited by the Engineering Technology Accreditation Commission (ETAC) of ABET to become licensed as professional engineers. Each state has different requirements on years of experience to take the Fundamentals of Engineering (FE) and Professional Engineering (PE) exams. A few states require a graduate MS in engineering to sit for the exams as further learning. After seven years of working after graduation, two years of responsibility for significant engineering work, continuous professional development, some highly qualified PEs are able to become International Professional Engineers Int(PE). These engineers must meet the highest level of professional competencies and this is a peer reviewed process. Once the IntPE title is awarded, the engineer can gain easier admission to national registers of a number of members jurisdictions for international practice.[21]

In Canada, engineering is a self-regulated profession. The profession in each province is governed by its own engineering association. For instance, in the Province of British Columbia an engineering graduate with four or more years of post graduate experience in an engineering-related field and passing exams in ethics and law will need to be registered by the Association for Professional Engineers and Geoscientists (APEGBC)[22] in order to become a Professional Engineer and be granted the professional designation of P.Eng allowing one to practice engineering.

In Continental Europe, Latin America, Turkey, and elsewhere the title is limited by law to people with an engineering degree and the use of the title by others is illegal. In Italy, the title is limited to people who hold an engineering degree, have passed a professional qualification examination (Esame di Stato) and are enrolled in the register of the local branch of National Associations of Engineers (a public body). In Portugal, professional engineer titles and accredited engineering degrees are regulated and certified by the Ordem dos Engenheiros. In the Czech Republic, the title «engineer» (Ing.) is given to people with a (masters) degree in chemistry, technology or economics for historical and traditional reasons. In Greece, the academic title of «Diploma Engineer» is awarded after completion of the five-year engineering study course and the title of «Certified Engineer» is awarded after completion of the four-year course of engineering studies at a Technological Educational Institute (TEI).

Perception[edit]

Archimedes regarded as one of the leading scientists in classical antiquity.

The perception and definition of the term ‘engineer’ varies across countries and continents.

Corporate culture[edit]

In companies and other organizations, there is sometimes a tendency to undervalue people with advanced technological and scientific skills compared to celebrities, fashion practitioners, entertainers, and managers. In his book, The Mythical Man-Month,[23] Fred Brooks Jr says that managers think of senior people as «too valuable» for technical tasks and that management jobs carry higher prestige. He tells how some laboratories, such as Bell Labs, abolish all job titles to overcome this problem: a professional employee is a «member of the technical staff.» IBM maintains a dual ladder of advancement; the corresponding managerial and engineering or scientific rungs are equivalent. Brooks recommends that structures need to be changed; the boss must give a great deal of attention to keeping managers and technical people as interchangeable as their talents allow.

Europe[edit]

As of 2022, thirty two countries in Europe (including nearly all 27 countries of the EU) now recognise the title of ‘European Engineer’ which permits the use of the pre-nominal title of «EUR ING» (always fully capitalised). Each country sets its own precise qualification requirement for the use of the title (though they are all broadly equivalent). Holding the requisite qualification does not afford automatic entitlement. The title has to be applied for (and the appropriate fee paid). The holder is entitled to use the title in their passport. EUR INGs are allowed to describe themselves as professionally qualified engineers and practise as such in any of the 32 participating countries including those where the title of engineer is regulated by law.[citation needed]

UK[edit]

British school children in the 1950s were brought up with stirring tales of «the Victorian Engineers», chief among whom were Brunel, Stephenson, Telford, and their contemporaries. In the UK, «engineering» has more recently been erroneously styled as an industrial sector consisting of employers and employees loosely termed «engineers» who include tradespeople. However, knowledgeable practitioners reserve the term «engineer» to describe a university-educated professional of ingenuity represented by the Chartered (or Incorporated) Engineer qualifications.[24] A large proportion of the UK public incorrectly thinks of «engineers» as skilled tradespeople or even semi-skilled tradespeople with a high school education. Also, many UK skilled and semi-skilled tradespeople falsely style themselves as «engineers». This has created confusion in the eyes of some members of the public in understanding what professional engineers actually do, from fixing car engines, television sets and refrigerators (technicians, handymen) to designing and managing the development of aircraft, spacecraft, power stations, infrastructure and other complex technological systems (engineers).[citation needed]

France[edit]

In France, the term ingénieur (engineer) is not a protected title and can be used by anyone who practices this profession.[25]

However, the title ingénieur diplomé (graduate engineer) is an official academic title that is protected by the government and is associated with the Diplôme d’Ingénieur, which is a renowned academic degree in France. Anyone misusing this title in France can be fined a large sum and jailed, as it is usually reserved for graduates of French engineering grandes écoles. Engineering schools which were created during the French revolution have a special reputation among the French people, as they helped to make the transition from a mostly agricultural country of late 18th century to the industrially developed France of the 19th century. A great part of 19th-century France’s economic wealth and industrial prowess was created by engineers that have graduated from École Centrale Paris, École des Mines de Paris, École polytechnique or Télécom Paris. This was also the case after WWII when France had to be rebuilt. Before the «réforme René Haby» in the 1970s, it was very difficult to be admitted to such schools, and the French ingénieurs were commonly perceived as the nation’s elite. However, after the Haby reform and a string of further reforms (Modernization plans of French universities), several engineering schools were created which can be accessed with relatively lower competition.

In France, engineering positions are now shared between the ingénieurs diplomés graduating from engineering grandes écoles; and the holders of a Master’s degree in Science from public universities.

Italy[edit]

In Italy, only people who hold a formal engineering qualification of at least a bachelor’s degree are permitted to describe themselves as an engineer. So much so that people holding such qualifications are entitled to use the pre-nominal title of «Ingegnere» (or «Ingegnera» if female — in both cases often abbreviated to «Ing.») in lieu of «Signore», «Signorina» or «Signora» (Mr, Miss and Mrs respectively) in the same manner as someone holding a doctorate would use the pre-nominal title «Doctor».

North America[edit]

Canada[edit]

In Canada, engineering is a regulated profession whose practice and practitioners are licensed and governed by law.[26] Licensed professional engineers are referred to as P.Eng. Many Canadian engineers wear an Iron Ring.[27]

In all Canadian provinces, the title «Professional Engineer» is protected by law and any non-licensed individual or company using the title is committing a legal offence and is subject to fines and restraining orders.[28] Contrary to insistence from the Professional Engineers Ontario («PEO») and Engineers Canada, use of the title «Engineer» itself has been found by Canadian law to be acceptable by those not holding P.Eng. titles.[29][30]

The title of engineer is not exclusive to P.Eng titles. The title of Engineer is commonly held by «Software Engineer»,[31] the Canadian Military as various ranks and positions,[32] railway locomotive engineers,[33] and Aircraft Maintenance Engineers (AME), all of which do not commonly hold a P.Eng. designation.

United States[edit]

In the United States, the practice of professional engineering is highly regulated and the title «professional engineer» is legally protected, meaning that it is unlawful to use it to offer engineering services to the public unless permission, certification or other official endorsement is specifically granted by that state through a professional engineering license.[34]

Spanish-speaking countries[edit]

Certain Spanish-speaking countries follow the Italian convention of engineers using the pre-nominal title, in this case «ingeniero» (or «ingeniera» if female). Like in Italy, it is usually abbreviated to «Ing.» In Spain this practice is not followed.

The engineering profession enjoys high prestige in Spain, ranking close to medical doctors, scientists and professors, and above judges, journalists or entrepreneurs, according to a 2014 study.[35]

Asia and Africa[edit]

In the Indian subcontinent, Russia, Middle East, Africa, and China, engineering is one of the most sought after undergraduate courses, inviting thousands of applicants to show their ability in highly competitive entrance examinations.

In Egypt, the educational system makes engineering the second-most-respected profession in the country (after medicine); engineering colleges at Egyptian universities requires extremely high marks on the General Certificate of Secondary Education (Arabic: الثانوية العامة al-Thānawiyyah al-`Āmmah)—on the order of 97 or 98%—and are thus considered (along with the colleges of medicine, natural science, and pharmacy) to be among the «pinnacle colleges» (كليات القمة kullīyāt al-qimmah).

In the Philippines and Filipino communities overseas, engineers who are either Filipino or not, especially those who also profess other jobs at the same time, are addressed and introduced as Engineer, rather than Sir/Madam in speech or Mr./Mrs./Ms. (G./Gng./Bb. in Filipino) before surnames. That word is used either in itself or before the given name or surname.

See also[edit]

  • Building engineer
  • Engineer’s degree
  • Engineers Without Borders
  • European Engineer
  • Greatest Engineering Achievements
  • History of engineering
  • List of Bangladeshi engineers
  • List of engineering branches
  • List of engineers
  • List of fictional scientists and engineers

References[edit]

  1. ^ a b c d Bureau of Labor Statistics, U.S. Department of Manual Labor (2006). «Engineers». Occupational Outlook Handbook, 2006–07 Edition (via Wayback Machine). Archived from the original on 23 September 2006. Retrieved 23 September 2006.
  2. ^ National Society of Professional Engineers (2006). «Frequently Asked Questions About Engineering». Archived from the original on 22 May 2006. Retrieved 21 September 2006. «Science is knowledge based on our observed facts and tested truths arranged in an orderly system that can be validated and communicated to other people. Engineering is the creative application of scientific principles used to plan, build, direct, guide, manage, or work on systems to maintain and improve our daily lives.»
  3. ^ Pevsner, N. (1942). «The Term ‘Architect’ in the Middle Ages». Speculum. 17 (4): 549–562. doi:10.2307/2856447. JSTOR 2856447. S2CID 162586473.
  4. ^ Oxford Concise Dictionary, 1995
  5. ^ «engineer». Oxford Dictionaries. April 2010. Oxford Dictionaries. April 2010. Oxford University Press. 22 October 2011
  6. ^ Steen Hyldgaard Christensen, Christelle Didier, Andrew Jamison, Martin Meganck, Carl Mitcham, and Byron Newberry Springer. Engineering Identities, Epistemologies and Values: Engineering Education and Practice in Context, Volume 2, p. 170, at Google Books
  7. ^ A. Eide, R. Jenison, L. Mashaw, L. Northup. Engineering: Fundamentals and Problem Solving. New York City: McGraw-Hill Companies Inc.,2002
  8. ^ a b c Robinson, M. A. (2010). «An empirical analysis of engineers’ information behaviors». Journal of the American Society for Information Science and Technology. 61 (4): 640–658. doi:10.1002/asi.21290.
  9. ^ Baecher, G.B.; Pate, E.M.; de Neufville, R. (1979). «Risk of dam failure in benefit/cost analysis». Water Resources Research. 16 (3): 449–456. Bibcode:1980WRR….16..449B. doi:10.1029/wr016i003p00449.
  10. ^ Hartford, D.N.D. and Baecher, G.B. (2004) Risk and Uncertainty in Dam Safety. Thomas Telford
  11. ^ International Commission on Large Dams (ICOLD) (2003) Risk Assessment in Dam Safety Management. ICOLD, Paris
  12. ^ British Standards Institution (BSIA) (1991) BC 5760 Part 5: Reliability of systems equipment and components – Guide to failure modes effects and criticality analysis (FMEA and FMECA).
  13. ^ a b Robinson, M. A. (2012). «How design engineers spend their time: Job content and task satisfaction». Design Studies. 33 (4): 391–425. doi:10.1016/j.destud.2012.03.002.
  14. ^ Robinson, M. A.; Sparrow, P. R.; Clegg, C.; Birdi, K. (2005). «Design engineering competencies: Future requirements and predicted changes in the forthcoming decade». Design Studies. 26 (2): 123–153. doi:10.1016/j.destud.2004.09.004.
  15. ^ American Society of Civil Engineers (2006) [1914]. Code of Ethics. Reston, Virginia, USA: ASCE Press. Archived from the original on 14 February 2011. Retrieved 11 June 2011.
  16. ^ Institution of Civil Engineers (2009). Royal Charter, By-laws, Regulations and Rules. Archived from the original on 3 January 2011. Retrieved 11 June 2011.
  17. ^ National Society of Professional Engineers (2007) [1964]. Code of Ethics (PDF). Alexandria, Virginia, USA: NSPE. Archived from the original (PDF) on 2 December 2008. Retrieved 20 October 2006.
  18. ^ «Make ‘Engineer’ a protected title». Petitions – UK Government and Parliament.
  19. ^ [1] NCEES is a national nonprofit organization dedicated to advancing professional licensure for engineers and surveyors.
  20. ^ «Texas Engineering and Land Surveying Practice Acts and Rules Concerning Practice and Licensure» (PDF). texas.gov. The State of Texas. Archived (PDF) from the original on 9 October 2022. Retrieved 10 July 2021.
  21. ^ «NCEES International Registry for Professional Engineers». NCEES. Retrieved 8 February 2020.
  22. ^ «Engineers and Geoscientists BC». egbc.ca. Retrieved 11 September 2018.
  23. ^ The Mythical Man-Month: Essays on Software Engineering, p119 (see also p242), Frederick P. Brooks, Jr., University of North Carolina at Chapel Hill, 2nd ed. 1995, pub. Addison-Wesley
  24. ^ Burns, Corrinne (19 September 2013). «Are you an engineer? Then don’t be shy about it | Are you an engineer? Then don’t be shy about it | Corrinne Burns». The Guardian. ISSN 0261-3077. Retrieved 19 February 2019.
  25. ^ Pourrat, Yvonne (1 April 2011). «Perception of French students in engineering about the ethics of their profession and implications for engineering education». ResearchGate. Retrieved 19 February 2019.
  26. ^ «About Engineers Canada». engineerscanada.ca. Engineers Canada. Retrieved 13 April 2022.
  27. ^ «The Calling of an Engineer», The Corporation of the Seven Wardens, Retrieved November 29, 2022
  28. ^ «Engineering licensing body clarifies the use of the term «engineer» following reported dismissal of Hydro One employee». peo.on.ca. Professional Engineers Ontario. 13 May 2015. Archived from the original on 8 April 2015. Retrieved 15 July 2020.
  29. ^ Assn. of Professional Engineers, Geologists and Geophysicists of Alberta (Council of) v. Merhej, 2003 ABCA 360 (CanLII), <https://canlii.ca/t/1g18s>, retrieved on 2022-11-29
  30. ^ Section (3)(f) of the Professional Engineer Act of Ontario does not prevent people form using the title Engineer. (3) Subsections (1) and (2) do not apply to prevent a person, (f) from using the title “engineer” or an abbreviation of that title in a manner that is authorized or required by an Act or regulation. It does prevent Professional Engineer title under section 2 of the act.
  31. ^ «Computer Software Engineer in Canada | Job requirements — Job Bank». www.jobbank.gc.ca. Retrieved 29 November 2022.
  32. ^ «Who Are We? | Canadian Military Engineers». cmea-agmc.ca. Retrieved 29 November 2022.
  33. ^ «Train Engineer in Canada | Labour Market Facts and Figures — Job Bank». www.jobbank.gc.ca. Retrieved 29 November 2022.
  34. ^ «What is a PE?». National Society of Professional Engineers. Retrieved 19 May 2022.
  35. ^ Lobera, Josep; Torres Albero, Cristóbal (2015). «El prestigio social de las profesiones tecnocientíficas». Percepción social de la Ciencia y la Tecnología 2014 (PDF) (in Spanish). FECYT. pp. 218–240. Archived (PDF) from the original on 15 March 2020. Retrieved 22 April 2021.

External links[edit]

Look up engineer in Wiktionary, the free dictionary.

Media related to Engineers at Wikimedia Commons

Noun



Design engineers are working on ways to make the cars run more efficiently.



The engineer stopped the train.



Army engineers were called in to construct the canal.

Verb



The rebels engineered a successful attack.



the mayor engineered an agreement to have a major league team play in our city

Recent Examples on the Web



Stephanie Hughes, a chemical engineer and representative of the Bay Area Clean Water Agencies, also noted pesticide pollution can affect compliance with water safety standards.


Johnathan Hettinger, USA TODAY, 23 Mar. 2023





The railroads have proposed to have only a lone engineer on each train.


Chris Isidore, CNN, 22 Mar. 2023





Before coming to science writing and journalism, Lee earned a Ph.D. in molecular biology at Princeton University and then worked as a data engineer for several years in the Bay Area.


Jack Lee, San Francisco Chronicle, 21 Mar. 2023





What were some of your most memorable experiences as a flight-test engineer?


Kyle Mizokami, Popular Mechanics, 20 Mar. 2023





Jan Dell, a chemical engineer and founder of the anti-plastic pollution organization The Last Beach Cleanup, noted that many cleaning products are housed in PET or HDPE, two types of plastic with relatively high recycling rates.


Susan Shain, New York Times, 17 Mar. 2023





Ana Basalduaruiz, a combat engineer at Fort Hood, Texas, who had served with the division for the last 15 months, Army officials said Thursday.


Nadine El-bawab, ABC News, 16 Mar. 2023





Ana Basaldua Ruiz, a combat engineer, died on March 13.


Charmaine Patterson, Peoplemag, 16 Mar. 2023





Ana Basaldua Ruiz, a combat engineer, who served with the 1st Cavalry Division for the past 15 months at Fort Hood.


Cara Tabachnick, CBS News, 16 Mar. 2023




This worked out as planned for Rebecca Hutton, who was one of the 2022 interns, and who will be joining Ganassi Racing as a simulations engineer for 2023.


Elana Scherr, Car and Driver, 3 Mar. 2023





On Sunday, outgoing premier Li Keqiang will deliver a work report outlining a GDP target that analysts expect to be around 5 percent and as high as 6 percent, as leaders try to engineer a post-pandemic recovery.


Lily Kuo, Washington Post, 3 Mar. 2023





The closing segment featured Antetokounmpo looking in the camera and trash-talking rivals, a bit Minhaj orchestrated to engineer some faux spice from the famously humble Bucks star.


Jr Radcliffe, Journal Sentinel, 2 Mar. 2023





So what’s the best way to really engineer that or to help manifest that?


Mark Inabinett | Minabinett@al.com, al, 28 Feb. 2023





Instead, the GOP is still talking about budget cuts and a plan to engineer a debt ceiling standoff in order to eviscerate the social safety net.


Alex Shephard, The New Republic, 23 Feb. 2023





Sure, gloves with capacitive fingertips exist, and Apple will probably engineer ways for these pretend buttons to play nicely with gloves.


Allison Johnson, The Verge, 18 Feb. 2023





In his column, Roose said the bot also expressed a desire to steal nuclear codes and engineer a deadly virus in order to appease its dark side.


Joe Silverstein, Fox News, 17 Feb. 2023





Blum, a legal strategist affiliated with the conservative American Enterprise Institute, helped engineer these now-famous test cases – Bush v. Vera (1996), Fisher v. University of Texas (2013) and Shelby v. Holder (2015).


Julian Maxwell Hayter, The Conversation, 3 Feb. 2023



See More

These examples are programmatically compiled from various online sources to illustrate current usage of the word ‘engineer.’ Any opinions expressed in the examples do not represent those of Merriam-Webster or its editors. Send us feedback about these examples.

en·gi·neer

 (ĕn′jə-nîr′)

n.

1. One who is trained or professionally engaged in a branch of engineering.

2. One who operates an engine.

3. One who skillfully or shrewdly manages an enterprise.

tr.v. en·gi·neered, en·gi·neer·ing, en·gi·neers

1. To plan, construct, or manage as an engineer.

2. To alter or produce by methods of genetic engineering: bacteria that are genetically engineered to produce insulin.

3. To plan, manage, and bring about by skillful acts or contrivance: engineer a business takeover; engineer social changes by legislation.


[Middle English enginour, from Old French engigneor, from Medieval Latin ingeniātor, contriver, from ingeniāre, to contrive, from Latin ingenium, ability; see engine.]

American Heritage® Dictionary of the English Language, Fifth Edition. Copyright © 2016 by Houghton Mifflin Harcourt Publishing Company. Published by Houghton Mifflin Harcourt Publishing Company. All rights reserved.

engineer

(ˌɛndʒɪˈnɪə)

n

1. (General Engineering) a person trained in any branch of the profession of engineering

2. the originator or manager of a situation, system, etc

3. (Mechanical Engineering) a mechanic; person who repairs or services machines

4. (Railways) US and Canadian the driver of a railway locomotive

5. (Nautical Terms) an officer responsible for a ship’s engines

6. (Military) Informal name: sapper a member of the armed forces, esp the army, trained in engineering and construction work

vb (tr)

7. to originate, cause, or plan in a clever or devious manner: he engineered the minister’s downfall.

8. (General Engineering) to design, plan, or construct as a professional engineer

[C14: enginer, from Old French engigneor, from engignier to contrive, ultimately from Latin ingenium skill, talent; see engine]

Collins English Dictionary – Complete and Unabridged, 12th Edition 2014 © HarperCollins Publishers 1991, 1994, 1998, 2000, 2003, 2006, 2007, 2009, 2011, 2014

en•gi•neer

(ˌɛn dʒəˈnɪər)

n.

1. a person trained and skilled in any of various branches of engineering: a civil engineer.

2. a person trained and skilled in the design, construction, and use of engines or machines.

3. a person who operates or is in charge of an engine or locomotive.

4. a member of an army, navy, or air force specially trained in engineering work.

5. a skillful manager: a political engineer.

v.t.

6. to plan, construct, or manage as an engineer.

7. to alter or create by means of genetic engineering.

8. to arrange, manage, or carry through by skillful or artful contrivance.

[1350–1400; < Old French engigneor < Medieval Latin ingeniātor, derivative of ingeniāre to design, devise (v. derivative of ingenium; see engine)]

Random House Kernerman Webster’s College Dictionary, © 2010 K Dictionaries Ltd. Copyright 2005, 1997, 1991 by Random House, Inc. All rights reserved.

engineer

engine driver

1. ‘engineer’

An engineer is a skilled person who uses scientific knowledge to design and construct machinery, electrical devices, or roads and bridges.

He trained as a civil engineer and worked on the M4 motorway.

…a brilliant young mining engineer.

An engineer is also a person who repairs mechanical or electrical devices.

The telephone engineer can’t come until Wednesday.

In American English, a person who drives a train is also called an engineer.

An engineer pulled his freight train into a siding.

2. ‘engine driver’

In British English, a person who drives a train is called an engine driver.

Every little boy has an ambition to be an engine driver.

Collins COBUILD English Usage © HarperCollins Publishers 1992, 2004, 2011, 2012

engineer

Past participle: engineered
Gerund: engineering

Imperative
engineer
engineer
Present
I engineer
you engineer
he/she/it engineers
we engineer
you engineer
they engineer
Preterite
I engineered
you engineered
he/she/it engineered
we engineered
you engineered
they engineered
Present Continuous
I am engineering
you are engineering
he/she/it is engineering
we are engineering
you are engineering
they are engineering
Present Perfect
I have engineered
you have engineered
he/she/it has engineered
we have engineered
you have engineered
they have engineered
Past Continuous
I was engineering
you were engineering
he/she/it was engineering
we were engineering
you were engineering
they were engineering
Past Perfect
I had engineered
you had engineered
he/she/it had engineered
we had engineered
you had engineered
they had engineered
Future
I will engineer
you will engineer
he/she/it will engineer
we will engineer
you will engineer
they will engineer
Future Perfect
I will have engineered
you will have engineered
he/she/it will have engineered
we will have engineered
you will have engineered
they will have engineered
Future Continuous
I will be engineering
you will be engineering
he/she/it will be engineering
we will be engineering
you will be engineering
they will be engineering
Present Perfect Continuous
I have been engineering
you have been engineering
he/she/it has been engineering
we have been engineering
you have been engineering
they have been engineering
Future Perfect Continuous
I will have been engineering
you will have been engineering
he/she/it will have been engineering
we will have been engineering
you will have been engineering
they will have been engineering
Past Perfect Continuous
I had been engineering
you had been engineering
he/she/it had been engineering
we had been engineering
you had been engineering
they had been engineering
Conditional
I would engineer
you would engineer
he/she/it would engineer
we would engineer
you would engineer
they would engineer
Past Conditional
I would have engineered
you would have engineered
he/she/it would have engineered
we would have engineered
you would have engineered
they would have engineered

Collins English Verb Tables © HarperCollins Publishers 2011

ThesaurusAntonymsRelated WordsSynonymsLegend:

Noun 1. engineer - a person who uses scientific knowledge to solve practical problemsengineer — a person who uses scientific knowledge to solve practical problems

applied scientist, technologist

individual, mortal, person, somebody, someone, soul — a human being; «there was too much for one person to do»

aeronautical engineer — an engineer concerned with the design and construction of aircraft

aerospace engineer — an engineer of aircraft and space vehicles

army engineer, military engineer — a member of the military who is trained in engineering and construction work

automotive engineer — an engineer concerned with the design and construction of automobiles

civil engineer — an engineer trained to design and construct and maintain public works (roads or bridges or harbors etc.)

electrical engineer — a person trained in practical applications of the theory of electricity

marine engineer, naval engineer — a naval officer responsible for the operation and maintenance of the ship’s engines

mechanical engineer — a person trained to design and construct machines

metallurgical engineer, metallurgist — an engineer trained in the extraction and refining and alloying and fabrication of metals

mining engineer — an engineer concerned with the construction and operation of mines

coder, computer programmer, programmer, software engineer — a person who designs and writes and tests computer programs

rocket engineer, rocket scientist — an engineer who builds and tests rockets

surveyor — an engineer who determines the boundaries and elevations of land or structures

2. engineer - the operator of a railway locomotiveengineer — the operator of a railway locomotive

engine driver, locomotive engineer, railroad engineer

manipulator, operator — an agent that operates some apparatus or machine; «the operator of the switchboard»

Verb 1. engineer — design as an engineer; «He engineered the water supply project»

design, plan — make a design of; plan out in systematic, often graphic form; «design a better mousetrap»; «plan the new wing of the museum»

2. engineer - plan and direct (a complex undertaking)engineer — plan and direct (a complex undertaking); «he masterminded the robbery»

mastermind, orchestrate, organize, organise, direct

plan — make plans for something; «He is planning a trip with his family»

choreograph — plan and oversee the development and details of; «The meeting between the two Presidents had been carefully choreographed»

Based on WordNet 3.0, Farlex clipart collection. © 2003-2012 Princeton University, Farlex Inc.

engineer

noun

1. designer, producer, architect, developer, deviser, creator, planner, inventor, stylist, artificer, originator, couturier He is a fully qualified civil engineer.

verb

2. bring about, plan, control, cause, effect, manage, set up (informal), scheme, arrange, plot, manoeuvre, encompass, mastermind, orchestrate, contrive, concoct, wangle (informal), finagle (informal) Some people believe that his murder was engineered by Stalin.

Collins Thesaurus of the English Language – Complete and Unabridged 2nd Edition. 2002 © HarperCollins Publishers 1995, 2002

engineer

verb

To make, achieve, or get through contrivance or guile:

The American Heritage® Roget’s Thesaurus. Copyright © 2013, 2014 by Houghton Mifflin Harcourt Publishing Company. Published by Houghton Mifflin Harcourt Publishing Company. All rights reserved.

Translations

مُهَنْدِسمُهَندِس آلاتمُهَنْدِس مَدَنييُدَبِّر بِمَهارَه ودَهاءسائِق قِطار

inženýr

ingeniøriscenesættelokoførerlokomotivførermaskinmester

insinöörijuoniasuunnitellasuunnittelija

inženjervlakovođavozovođa

mérnök

koma fram meî lagni/kænskulestarstjóri; eimreiîarstjórivélstjóriverkfræîingur

技師

기술자

inžinierlodný inžinierzosnovať

inženirstrojevodja

inženjervozovođaвозовођаинжењер

ingenjörlokförare

วิศวกร

kỹ sư

Collins Spanish Dictionary — Complete and Unabridged 8th Edition 2005 © William Collins Sons & Co. Ltd. 1971, 1988 © HarperCollins Publishers 1992, 1993, 1996, 1997, 2000, 2003, 2005

engineer

[ˌɛndʒɪˈnɪər]

n

(British) (= repairman) → réparateur/trice m/f

(US)mécanicien/ienne m/f

Collins English/French Electronic Resource. © HarperCollins Publishers 2005

engineer

Collins German Dictionary – Complete and Unabridged 7th Edition 2005. © William Collins Sons & Co. Ltd. 1980 © HarperCollins Publishers 1991, 1997, 1999, 2004, 2005, 2007

Collins Italian Dictionary 1st Edition © HarperCollins Publishers 1995

engine

(ˈendʒin) noun

1. a machine in which heat or other energy is used to produce motion. The car has a new engine.

2. a railway engine. He likes to sit in a seat facing the engine.

ˈengine-driver noun

a person who drives a railway engine.

ˌengiˈneer noun

1. a person who designs, makes, or works with, machinery. an electrical engineer.

2. (usually civil engineer) a person who designs, constructs, or maintains roads, railways, bridges, sewers etc.

3. an officer who manages a ship’s engines.

4. (American) an engine-driver.

verb

to arrange by skill or by cunning means. He engineered my promotion.

ˌengiˈneering noun

the art or profession of an engineer. He is studying engineering at university.

Kernerman English Multilingual Dictionary © 2006-2013 K Dictionaries Ltd.

engineer

مُهَنْدِس inženýr ingeniør Techniker μηχανικός ingeniero insinööri ingénieur inženjer ingegnere 技師 기술자 ingenieur ingeniør inżynier engenheiro инженер ingenjör วิศวกร mühendis kỹ sư 工程师

Multilingual Translator © HarperCollins Publishers 2009

Other forms: engineers; engineering; engineered

An engineer is someone who possesses the knowledge or expertise to create and implement plans or build machines. Even if you’re not an engineer, when you engineer you make plans and solve problems.

An interesting part of the word engineer is the suffix -eer, which turns a word into one that means someone who does something indicated by the base it is affixed to — a mountaineer climbs mountains, an auctioneer presides at auctions, an engineer designs, coming from the Old French engin, which means «skill or cleverness.» If you want to become an engineer, you’ll have to study all kinds of mechanical systems, not just engines.

Definitions of engineer

  1. noun

    a person who uses scientific knowledge to solve practical problems

    synonyms:

    applied scientist, technologist

    see moresee less

    examples:

    show 32 examples…
    hide 32 examples…
    Gottlieb Daimler

    German engineer and automobile manufacturer who produced the first high-speed internal combustion engine (1834-1900)

    Rudolf Christian Karl Diesel

    German engineer (born in France) who invented the diesel engine (1858-1913)

    Bryan Donkin

    English engineer who developed a method of preserving food by sterilizing it with heat and sealing it inside a steel container—the first tin can (1768-1855)

    Alexandre Gustave Eiffel

    French engineer who constructed the Eiffel Tower (1832-1923)

    Richard Buckminster Fuller

    United States architect who invented the geodesic dome (1895-1983)

    George Washington Goethals

    United States army officer and engineer who supervised the construction of the Panama Canal (1858-1928)

    Hugo Junkers

    German aircraft engineer who designed the first all-metal airplane (1859-1935)

    Charles Franklin Kettering

    United States electrical engineer who made numerous automotive improvements (including the electric starter) (1876-1958)

    Leonardo da Vinci

    Italian painter and sculptor and engineer and scientist and architect; the most versatile genius of the Italian Renaissance (1452-1519)

    John Augustus Roebling

    United States engineer (born in Germany) who designed and began construction of the Brooklyn bridge (1806-1869)

    Claude Elwood Shannon

    United States electrical engineer who pioneered mathematical communication theory (1916-2001)

    Sir Charles William Siemens

    engineer who was a brother of Ernst Werner von Siemens and who moved to England (1823-1883)

    Elmer Ambrose Sperry

    United States engineer and inventor of the gyrocompass (1860-1930)

    Richard Trevithick

    English engineer who built the first railway locomotive (1771-1833)

    Thomas Augustus Watson

    United States telephone engineer who assisted Alexander Graham Bell in his experiments (1854-1934)

    James Watt

    Scottish engineer and inventor whose improvements in the steam engine led to its wide use in industry (1736-1819)

    Sir Henry Bessemer

    British inventor and metallurgist who developed the Bessemer process (1813-1898)

    Wernher Magnus Maximilian von Braun

    United States rocket engineer (born in Germany where he designed a missile used against England); he led the United States Army team that put the first American satellite into space (1912-1977)

    Vannevar Bush

    United States electrical engineer who designed an early analogue computer and who led the scientific program of the United States during World War II (1890-1974)

    Father of Radio

    United States electrical engineer who in 1907 patented the first triode vacuum tube, which made it possible to detect and amplify radio waves (1873-1961)

    Ray M. Dolby

    United States electrical engineer who devised the Dolby system used to reduce background noise in tape recording

    Oliver Heaviside

    English physicist and electrical engineer who helped develop telegraphic and telephonic communications; in 1902 (independent of A. E. Kennelly) he suggested the existence of an atmospheric layer that reflects radio waves back to earth (1850-1925)

    Arthur Edwin Kennelly

    United States electrical engineer noted for his work on the theory of alternating currents; independently of Oliver Heaviside he discovered the existence of an atmospheric layer that reflects radio waves back to earth (1861-1939)

    Guglielmo Marconi

    Italian electrical engineer who invented wireless telegraphy and in 1901 transmitted radio signals across the Atlantic Ocean (1874-1937)

    Reginald Joseph Mitchell

    English aeronautical engineer (1895-1937)

    Ernst Werner von Siemens

    German electrical engineer (1816-1892)

    Sir Clive Marles Sinclair

    English electrical engineer who founded a company that introduced many innovative products (born in 1940)

    David Barnard Steinman

    United States civil engineer noted for designing suspension bridges (including the George Washington Bridge) (1886-1960)

    Charles Proteus Steinmetz

    United States electrical engineer and inventor (born in Germany) (1865-1923)

    Nikola Tesla

    United States electrical engineer and inventor (born in Croatia but of Serbian descent) who discovered the principles of alternating currents and developed the first alternating-current induction motor and the Tesla coil and several forms of oscillators (1856-1943)

    Elihu Thomson

    United States electrical engineer (born in England) who in 1892 formed a company with Thomas Edison (1853-1937)

    Sir Frank Whittle

    English aeronautical engineer who invented the jet aircraft engine (1907-1996)

    types:

    show 22 types…
    hide 22 types…
    aeronautical engineer

    an engineer concerned with the design and construction of aircraft

    aerospace engineer

    an engineer of aircraft and space vehicles

    army engineer, military engineer

    a member of the military who is trained in engineering and construction work

    automotive engineer

    an engineer concerned with the design and construction of automobiles

    civil engineer

    an engineer trained to design and construct and maintain public works (roads or bridges or harbors etc.)

    electrical engineer

    a person trained in practical applications of the theory of electricity

    marine engineer, naval engineer

    a naval officer responsible for the operation and maintenance of the ship’s engines

    mechanical engineer

    a person trained to design and construct machines

    metallurgical engineer, metallurgist

    an engineer trained in the extraction and refining and alloying and fabrication of metals

    mining engineer

    an engineer concerned with the construction and operation of mines

    coder, computer programmer, programmer, software engineer

    a person who designs and writes and tests computer programs

    rocket engineer, rocket scientist

    an engineer who builds and tests rockets

    surveyor

    an engineer who determines the boundaries and elevations of land or structures

    cracker

    a programmer who cracks (gains unauthorized access to) computers, typically to do malicious things

    hacker

    a programmer for whom computing is its own reward; may enjoy the challenge of breaking into other computers but does no harm

    cyber-terrorist, cyberpunk, hacker

    a programmer who breaks into computer systems in order to steal or change or destroy information as a form of cyber-terrorism

    highway engineer

    a civil engineer who specializes in the design and construction of roads and highways

    lineman

    the surveyor who marks positions with a range pole

    locater, locator

    a person who fixes the boundaries of land claims

    sapper

    a military engineer who does sapping (digging trenches or undermining fortifications)

    sapper

    a military engineer who lays or detects and disarms mines

    tribologist

    a specialist in tribology

    type of:

    individual, mortal, person, somebody, someone, soul

    a human being

  2. verb

    design as an engineer

    “He
    engineered the water supply project”

  3. verb

    plan and direct (a complex undertaking)

  4. noun

    the operator of a railway locomotive

    synonyms:

    engine driver, locomotive engineer, railroad engineer

    see moresee less

    examples:

    John Luther Jones

    United States railroad engineer who died trying to stop his train from crashing into another train; a friend wrote a famous ballad describing the incident (1864-1900)

    type of:

    manipulator, operator

    an agent that operates some apparatus or machine

DISCLAIMER: These example sentences appear in various news sources and books to reflect the usage of the word ‘engineer’.
Views expressed in the examples do not represent the opinion of Vocabulary.com or its editors.
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  • British

This shows grade level based on the word’s complexity.

[ en-juhneer ]

/ ˌɛn dʒəˈnɪər /

This shows grade level based on the word’s complexity.


noun

a person trained and skilled in the design, construction, and use of engines or machines, or in any of various branches of engineering: a mechanical engineer; a civil engineer.

a person who operates or is in charge of an engine.

Also called locomotive engineer .Railroads. a person who operates or is in charge of a locomotive.

a member of an army, navy, or air force specially trained in engineering work.

Digital Technology. a person skilled in the design and programming of computer systems: a software engineer;a web engineer.

a skillful manager: a political engineer.

verb (used with object)

to plan, construct, or manage as an engineer: He’s engineered several big industrial projects.

to design or create using the techniques or methods of engineering: The motor has been engineered to run noiselessly.

to arrange, manage, or carry through by skillful or artful contrivance: He certainly engineered the election campaign beautifully.

QUIZ

CAN YOU ANSWER THESE COMMON GRAMMAR DEBATES?

There are grammar debates that never die; and the ones highlighted in the questions in this quiz are sure to rile everyone up once again. Do you know how to answer the questions that cause some of the greatest grammar debates?

Which sentence is correct?

Origin of engineer

1350–1400; engine + -eer; replacing Middle English engin(e)our<Anglo-French engineorOld French engigneor<Medieval Latin ingeniātor, equivalent to ingeniā(re) to design, devise (verbal derivative of ingenium;see engine) + Latin -tor-tor

OTHER WORDS FROM engineer

sub·en·gi·neer, nounun·en·gi·neered, adjectivewell-en·gi·neered, adjective

Words nearby engineer

engild, engin., engine, engine company, engine driver, engineer, engineering, engineering geology, engineer officer, engineer’s chain, engine house

Dictionary.com Unabridged
Based on the Random House Unabridged Dictionary, © Random House, Inc. 2023

Words related to engineer

architect, builder, designer, director, inventor, manager, planner, surveyor, arrange, come up with, conceive, concoct, create, direct, manage, manipulate, negotiate, organize, set up, supervise

How to use engineer in a sentence

  • In fact, researchers beyond Neuralink are working on it now, including Alik Widge, a psychiatrist and biomedical engineer at the University of Minnesota.

  • Future engineers might also look into developing qubits that are somehow less sensitive to radiation.

  • He’s a chemical engineer at the University of California, Davis.

  • Once again, engineers have to carefully set up the system for each ballpark.

  • Solving for these physical and psychological hurdles has kept architects, engineers and designers busy over the last few months.

  • As a nascent sound engineer, Brinsley “tried the best he could.”

  • The former apprentice engineer retained a lifelong interest in the way things worked.

  • One week of salaries for four musicians and two crew members (front of house engineer and tour manager) cost us $8794.

  • When engineer Williams first heard the song, it reminded him of hit songs by Johnny “Guitar” Watson.

  • Three of the six members of the group work on the channel full time, but Sep has a full time job as a mechanical engineer.

  • The engineer officer charged with preparing the line of retreat reported that the one bridge across the Elster was not sufficient.

  • Fulton, the American engineer, (originally a painter) studied here in 1795.

  • «I thought we hit a man,» said the engineer, swinging his lantern far out into the darkness.

    A Lost Hero|Elizabeth Stuart Phelps Ward and Herbert D. Ward

  • The engineer took his lantern and silently went back and swung the spot of fire in the black, cold air.

    A Lost Hero|Elizabeth Stuart Phelps Ward and Herbert D. Ward

  • A practical mining engineer who was recently sent to examine and report on this property says that it is 100 per cent.

British Dictionary definitions for engineer


noun

a person trained in any branch of the profession of engineering

the originator or manager of a situation, system, etc

a mechanic; person who repairs or services machines

US and Canadian the driver of a railway locomotive

an officer responsible for a ship’s engines

Informal name: sapper a member of the armed forces, esp the army, trained in engineering and construction work

verb (tr)

to originate, cause, or plan in a clever or devious mannerhe engineered the minister’s downfall

to design, plan, or construct as a professional engineer

Word Origin for engineer

C14: enginer, from Old French engigneor, from engignier to contrive, ultimately from Latin ingenium skill, talent; see engine

Collins English Dictionary — Complete & Unabridged 2012 Digital Edition
© William Collins Sons & Co. Ltd. 1979, 1986 © HarperCollins
Publishers 1998, 2000, 2003, 2005, 2006, 2007, 2009, 2012

A train engineer is lulled to sleep by the monotony of the job and misses a signal. ❋ Tessa Muggeridge (2010)

In contrast, the term engineer is often associated with someone called out to repair a photocopier or gas boiler, where they are often dressed in clothing that is functional rather than a suit. ❋ Unknown (2010)

D. from two of the world’s finest engineering schools, a sizable handful of publications in peer-reviewed engineering and scientific journals (and a number more at large conferences), and am currently a working engineer consulting to the nuclear power industry in Ontario (where, incidentally, it is illegal for an unqualified person such as yourself to use the title engineer). ❋ Unknown (2006)

The exact words of the engineer is that the block alone provides little actual structural support in the case of an earthquake. ❋ Unknown (2009)

Amotz, an engineer, is busy juggling the day-to-day needs of his elderly father, his children, and his grandchildren. ❋ Unknown (2010)

In September, a commuter train engineer missed a stop signal while trading text messages with a friend, leading to a collision with a freight train that killed 25 people in California, according to federal investigators. ❋ Unknown (2009)

Matthews, a full-time network engineer, is the main financial backer, but Sawyers — a geotechnical engineer — played a key role: When the men needed more space, they moved their winery from Matthews ‘basement to the garage of Sawyers’ mom. ❋ Unknown (2010)

We had a meeting where the bottom-of-the-food-chain engineer, who of course was the one who actually knew what the heck was going on, talked directly to the lab management and AA from NASA. ❋ Unknown (2009)

And, since the engineer is young and probably non-exempt, if she says, «I did it on my own time», then alarm bells would go off, and the corporate IP police would start taking an interest. ❋ Unknown (2009)

[The engineer] was the cause of [the system] [meltdown] ❋ Scott Adams (2004)

Yea, the [clothes] wouldn’t have [fit] you [anyway] ❋ Perflubon (2004)

One day an engineer found himself at the pearly gates. [St. Peter] looked him up in the book, and found that he was destined for [the other place]. The engineer protested that this must be a mistake, and that he had lived a righteous life, going to church every week, being faithful to his wife etc. to no avail. About 6 weeks later God reviews the lists and realizes that the engineer has been sent to the wrong place. So he rings up Lucifer and demands that the engineer be sent up. Lucifer says NO WAY. This guy was the best thing to ever happen here. He’s got the AC working, we have running water and cable now too, and next week he thinks we will get internet access and an ice cream machine. God is pissed and yelling says «I’ll sue». Lucifer says [LOL where] are you going to get a lawyer and hangs up. ❋ Gunder (2007)

[Optimist]: «The glass is half full.»
[Pessimist]: «The glass is half empty.»
[Engineer]: «The glass is twice the size it needs to be.» ❋ Destillat (2006)

«[You know that] you’re an engineer if you can [prove it] [mathematically]» ❋ Douglas Weltman (2003)

What’s [the difference] between an engineer and a [scientist]? When engineers are wrong they get [sued]. ❋ Sigma Eta Aero (2007)

If [building] stuff isn’t solving problems then [the engineer] [don’t know] what is. ❋ Bmaster (2010)

The [aerospace engineer] is the guy in the plane who is [whimpering] quietly and looking [worried]. ❋ Victorhadin (2003)

You: Hey engineer, keep checking your back. There’s a [spy] around.
Me: Thanks, HEY, [SPY] [SAPPIN] MY SENTERY! ❋ LON Master 000 (2009)

My [iron ring] cost me $25+$[57],000 of [student debt]. ❋ Mr. Engineer (2005)

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I pushed the process forward by saying, ‘We should do this, this, and this right now. Please find the budget for me to find a structural engineer, a mechanical engineer, a civil engineer, so we can do the preliminary work.’

Michael Arad

section

ETYMOLOGY OF THE WORD ENGINEER

Enginer, from Old French engigneor, from engignier to contrive, ultimately from Latin ingenium skill, talent.

info

Etymology is the study of the origin of words and their changes in structure and significance.

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PRONUNCIATION OF ENGINEER

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GRAMMATICAL CATEGORY OF ENGINEER

Engineer is a verb and can also act as a noun.

A noun is a type of word the meaning of which determines reality. Nouns provide the names for all things: people, objects, sensations, feelings, etc.

The verb is the part of the sentence that is conjugated and expresses action and state of being.

See the conjugation of the verb engineer in English.

WHAT DOES ENGINEER MEAN IN ENGLISH?

engineer

Engineer

An engineer is a professional practitioner of engineering, concerned with applying scientific knowledge, mathematics, and ingenuity to develop solutions for technical, societal and commercial problems. Engineers design materials, structures, and systems while considering the limitations imposed by practicality, regulation, safety, and cost. The word engineer is derived from the Latin roots ingeniare and ingenium. The work of engineers forms the link between scientific discoveries and their subsequent applications to human needs and quality of life. This word has a specific and larger meaning in French Higher Education. See subsection.


Definition of engineer in the English dictionary

The first definition of engineer in the dictionary is a person trained in any branch of the profession of engineering. Other definition of engineer is the originator or manager of a situation, system, etc. Engineer is also a mechanic; person who repairs or services machines.

CONJUGATION OF THE VERB TO ENGINEER

PRESENT

Present

I engineer

you engineer

he/she/it engineers

we engineer

you engineer

they engineer

Present continuous

I am engineering

you are engineering

he/she/it is engineering

we are engineering

you are engineering

they are engineering

Present perfect

I have engineered

you have engineered

he/she/it has engineered

we have engineered

you have engineered

they have engineered

Present perfect continuous

I have been engineering

you have been engineering

he/she/it has been engineering

we have been engineering

you have been engineering

they have been engineering

Present tense is used to refer to circumstances that exist at the present time or over a period that includes the present time. The present perfect refers to past events, although it can be considered to denote primarily the resulting present situation rather than the events themselves.

PAST

Past

I engineered

you engineered

he/she/it engineered

we engineered

you engineered

they engineered

Past continuous

I was engineering

you were engineering

he/she/it was engineering

we were engineering

you were engineering

they were engineering

Past perfect

I had engineered

you had engineered

he/she/it had engineered

we had engineered

you had engineered

they had engineered

Past perfect continuous

I had been engineering

you had been engineering

he/she/it had been engineering

we had been engineering

you had been engineering

they had been engineering

Past tense forms express circumstances existing at some time in the past,

FUTURE

Future

I will engineer

you will engineer

he/she/it will engineer

we will engineer

you will engineer

they will engineer

Future continuous

I will be engineering

you will be engineering

he/she/it will be engineering

we will be engineering

you will be engineering

they will be engineering

Future perfect

I will have engineered

you will have engineered

he/she/it will have engineered

we will have engineered

you will have engineered

they will have engineered

Future perfect continuous

I will have been engineering

you will have been engineering

he/she/it will have been engineering

we will have been engineering

you will have been engineering

they will have been engineering

The future is used to express circumstances that will occur at a later time.

CONDITIONAL

Conditional

I would engineer

you would engineer

he/she/it would engineer

we would engineer

you would engineer

they would engineer

Conditional continuous

I would be engineering

you would be engineering

he/she/it would be engineering

we would be engineering

you would be engineering

they would be engineering

Conditional perfect

I would have engineer

you would have engineer

he/she/it would have engineer

we would have engineer

you would have engineer

they would have engineer

Conditional perfect continuous

I would have been engineering

you would have been engineering

he/she/it would have been engineering

we would have been engineering

you would have been engineering

they would have been engineering

Conditional or «future-in-the-past» tense refers to hypothetical or possible actions.

IMPERATIVE

Imperative

you engineer
we let´s engineer
you engineer

The imperative is used to form commands or requests.

NONFINITE VERB FORMS

Past participle

engineered

Present Participle

engineering

Infinitive shows the action beyond temporal perspective. The present participle or gerund shows the action during the session. The past participle shows the action after completion.

WORDS THAT RHYME WITH ENGINEER

Synonyms and antonyms of engineer in the English dictionary of synonyms

SYNONYMS OF «ENGINEER»

The following words have a similar or identical meaning as «engineer» and belong to the same grammatical category.

Translation of «engineer» into 25 languages

online translator

TRANSLATION OF ENGINEER

Find out the translation of engineer to 25 languages with our English multilingual translator.

The translations of engineer from English to other languages presented in this section have been obtained through automatic statistical translation; where the essential translation unit is the word «engineer» in English.

Translator English — Chinese


工程师

1,325 millions of speakers

Translator English — Spanish


ingeniero

570 millions of speakers

English


engineer

510 millions of speakers

Translator English — Hindi


इंजीनियर

380 millions of speakers

Translator English — Arabic


مُهَنْدِس

280 millions of speakers

Translator English — Russian


инженер

278 millions of speakers

Translator English — Portuguese


engenheiro

270 millions of speakers

Translator English — Bengali


প্রকৌশলী

260 millions of speakers

Translator English — French


ingénieur

220 millions of speakers

Translator English — Malay


Jurutera

190 millions of speakers

Translator English — German


Techniker

180 millions of speakers

Translator English — Japanese


技師

130 millions of speakers

Translator English — Korean


기술자

85 millions of speakers

Translator English — Javanese


Engineer

85 millions of speakers

Translator English — Vietnamese


kỹ sư

80 millions of speakers

Translator English — Tamil


பொறியாளர்

75 millions of speakers

Translator English — Marathi


अभियंता

75 millions of speakers

Translator English — Turkish


mühendis

70 millions of speakers

Translator English — Italian


ingegnere

65 millions of speakers

Translator English — Polish


inżynier

50 millions of speakers

Translator English — Ukrainian


інженер

40 millions of speakers

Translator English — Romanian


inginer

30 millions of speakers

Translator English — Greek


μηχανικός

15 millions of speakers

Translator English — Afrikaans


ingenieur

14 millions of speakers

Translator English — Swedish


ingenjör

10 millions of speakers

Translator English — Norwegian


ingeniør

5 millions of speakers

Trends of use of engineer

TENDENCIES OF USE OF THE TERM «ENGINEER»

The term «engineer» is very widely used and occupies the 4.343 position in our list of most widely used terms in the English dictionary.

Trends

FREQUENCY

Very widely used

The map shown above gives the frequency of use of the term «engineer» in the different countries.

Principal search tendencies and common uses of engineer

List of principal searches undertaken by users to access our English online dictionary and most widely used expressions with the word «engineer».

FREQUENCY OF USE OF THE TERM «ENGINEER» OVER TIME

The graph expresses the annual evolution of the frequency of use of the word «engineer» during the past 500 years. Its implementation is based on analysing how often the term «engineer» appears in digitalised printed sources in English between the year 1500 and the present day.

Examples of use in the English literature, quotes and news about engineer

10 QUOTES WITH «ENGINEER»

Famous quotes and sentences with the word engineer.

I pushed the process forward by saying, ‘We should do this, this, and this right now. Please find the budget for me to find a structural engineer, a mechanical engineer, a civil engineer, so we can do the preliminary work.’

I am, and ever will be, a white socks, pocket protector, nerdy engineer.

There’s always something that an engineer can do to make microscopes better.

When a train goes through a tunnel and it gets dark, you don’t throw away the ticket and jump off. You sit still and trust the engineer.

And one of the things that I learned was you can’t generalise at all about a woman in a veil. You can’t think you know her story, because she will confound you over and over again. She may be an engineer or a diplomat or a doctor. Or she may be an unbelievable babe with bleached hair down to her waist.

My dad never decided what he wanted to do; at times he fought in the army, was a teacher, a boxer, a light engineer, and a then a publican. My mum was a traditional housewife and mother. They showed my brother and I unconditional love.

Video games are engineered now, but the step I am trying to take, no one can engineer.

I got out of high school, bought a recording studio and started operating it as an engineer and a producer.

I believe destiny and hard work go hand in hand. I was studying to be an engineer when my mom and my brother sent my pictures for the Miss India contest. I didn’t even know about it. If that isn’t destiny, what is?

Chris is the engineer down at the studio where we do these things. And he’s just such an integral part and he has such a marvelous ear. Also it turns out, we didn’t know, but he’s a pretty good fiddle player.

10 ENGLISH BOOKS RELATING TO «ENGINEER»

Discover the use of engineer in the following bibliographical selection. Books relating to engineer and brief extracts from same to provide context of its use in English literature.

1

From Engineer to Manager: Mastering the Transition

If you are looking for a lively, down-to-earth experience in the journey to innovative engineering management, this is definitely the book for you.

2

Pro/Engineer Wildfire 5.0 Advanced Tutorial

This book is suitable for a second course in Pro/ENGINEER for users who understand the features covered in Roger Toogood’s Pro/ENGINEER Tutorial. The style and approach of the previous tutorial have been maintained.

Introduction to metallurgy — Plastic and elastic deformation of metals — Iron and steel making — Alloying and heat treatment of steels — Historic overview of man’s production of iron and steel — Non-ferrous metals and their metallurgy …

4

Petroleum Engineering Handbook for the Practicing Engineer

This first of two volumes provides a comprehensive overview of petroleum engineering. Created with the purpose of answering daily questions faced by the practicing petroleum engineer, it is suitable for field and office use.

5

Being Successful As an Engineer

This text is designed to help the young engineer make the transition from student to practicing professional.

William Henry Roadstrum, 2003

6

Pro/ENGINEER Wildfire 5.0: Tutorial and Multimedia CD

Provides tutorial style lessons that cover such topics as creating a simple object, modeling utilities, datum planes and sketcher tools, patterns and copies, engineering drawings, and assembly operations.

7

The Certified Reliability Engineer Handbook, Second Edition:

The structure of this book is based on that of the Body of Knowledge specified by ASQ for the Certified Reliability Engineer, which includes design review and control; prediction, estimation, and apportionment methodology; failure mode …

Donald W. Benbow, Hugh W. Broome, 2012

8

What Every Engineer Should Know about Ethics

Concentrating primarily on situations engineers encounter on a daily basis and offering pragmatic answers to ethical questions, What Every Engineer Should Know About Ethics discusses recent headline-making disasters such as the Challenger …

Kenneth K. Humphreys, 1999

9

The Certified Quality Engineer Handbook

Completely updated and revised, this book is a comprehensive resource for engineers both studying for the ‘Certified quality engineer’ exam and also on the job.

10

The Beaver: Natural History of a Wetlands Engineer

The beaver is a keystone species—their skills as foresters and engineers create and maintain ponds and wetlands that increase biodiversity, purify water, and prevent large-scale flooding.

Dietland Müller-Schwarze, Lixing Sun, 2003

10 NEWS ITEMS WHICH INCLUDE THE TERM «ENGINEER»

Find out what the national and international press are talking about and how the term engineer is used in the context of the following news items.

A former Microsoft engineer says the company’s crazy holographic …

It seems so realistic, in fact, that one former Microsoft engineer almost believed that the virtual objects the HoloLens projected on to the scene … «Business Insider, Jul 15»

Prasa to probe allegations that chief engineer is unqualified for …

THE Passenger Rail Agency of SA (Prasa) is to look into the veracity of allegations that its chief engineer is not qualified or registered with the … «BDlive, Jul 15»

Engineer switch to reignite Whincup’s title hopes

Speedafe.com can reveal that Whincup’s engineer of the last 18 months, David Cauchi, has been dropped back into a ‘wingman’ role following … «Speedcafe, Jul 15»

The Little-Known Engineer Who Made the First Abstract Paintings in …

MUSKEGON, Mich. — Like its better-known sisters, Detroit and Flint, Muskegon is a Michigan city clawing its way back from the brink. And, like … «Hyperallergic, Jul 15»

Flash! Aha – not a technology, but a business process re-engineer

SUMMARY: Many may see it as the memory technology that made the smartphone possible, but collected together in vast gobs in enterprise … «Diginomica, Jul 15»

How Mobile Game Company Seriously Aims To Reverse&Engineer …

Founded by Rovio alums, Seriously is trying to do «Hollywood backwards» by building out entertainment franchises with games at their core. «Fast Company, Jul 15»

Bogota engineer discusses drainage on West Fort Lee Road

BOGOTA — Borough Engineer Robert Costa, of Hackensack-based Costa Engineering Corp., addressed the Bogota Council at the June 25 … «NorthJersey.com, Jul 15»

Dalit engineer’s murder: National Commission for Scheduled Castes …

Terming the recent murder of a Dalit engineer in Tamil Nadu as a «caste-related violence», National Commission for Scheduled Castes (NCSC) … «Daily News & Analysis, Jul 15»

Reaseheath College engineer bags top award

A talented Reaseheath College student has bagged herself a top award in a competition aimed at finding the nation’s best construction plant … «Crewe Chronicle, Jul 15»

Would-be engineer Austin Ross faring well as Colorado Springs Sky …

The relief pitcher grew up set to become a third-generation petroleum engineer. He enrolled as a petroleum engineering major at Louisiana … «Colorado Springs Gazette, Jul 15»

REFERENCE

« EDUCALINGO. Engineer [online]. Available <https://educalingo.com/en/dic-en/engineer>. Apr 2023 ».

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Discover all that is hidden in the words on educalingo

An Engineer is an individual who combines knowledge of science, mathematics, and economics to solve the Engineering problems that confront society. Nearly all the manufactured objects that surround your result from the efforts of Engineers.

Just think of all that went into making the chair on which you sit. Its metal components came from ores extracted from mines designed by mining Engineers. Metallurgical Engineers refined the metal ores in mills that Civil and mechanical engineers helped build.

Mechanical engineers designed the chair components as well as the machines that fabricated them. The polymers and fabrics in the chair were probably derived from oil that was produced by petroleum engineers and refined by chemical engineers.

The assembled chair was delivered to you in a truck that was designed by mechanical, aerospace, and electrical engineers, in plants that industrial engineers optimized to make the best use of space, capital, and labor. The roads on which the truck traveled were designed and constructed by civil engineers.

Obviously, engineers play an important role in bringing ordinary objects to market. In addition, engineers are key players in some of the most exciting ventures of humankind.

For example, the Apollo program was a wonderful enterprise in which humankind was freed from the confinement of earth and landed on the moon. It was an engineering achievement that captivated the United States and the world. Some pundits say the astronauts never should have gone to the moon, simply because all other achievements pale in comparison; however, we say that even more exciting challenges await you and your generation.

What is an Engineer?

As explained above, Engineers are individuals who combine knowledge of science, mathematics, and economics to solve technical problems that confront society. It is our practical knowledge that distinguishes engineers from scientists, for they too are masters of science and mathematics.

Our emphasis on the practical was eloquently stated by the engineer A. M. Wellington (1847-1895), who described engineering as “the art of doing . . . well with one dollar, which any bungler can do with two.”

Although engineers must be very cost-conscious when making ordinary objects for consumer use, some engineering projects are not governed strictly by cost considerations.

President Kennedy promised the world that the Apollo program would place a man on the moon prior to 1970. Our national reputation was at stake and we were trying to prove our technical prowess to the Soviet Union in space, rather than on the battlefield. The cost was a secondary consideration; landing on the moon was the primary consideration.

Thus, engineers can be viewed as problem solvers who assemble the necessary resources to achieve a clearly defined technical objective

Engineer: Origins of the word

The root of the word engineer derives from the engine and ingenious, both of which come from the Latin root in generare, meaning “to create.” In early English, the verb engine meant “to contrive” or “to create.”

The word engineer traces to around A.D. 200 when the Christian author Tertullian described a Roman attack on the Carthaginians using a battering ram described by him as an Ingenium, an ingenious invention. Later, around A.D. 1200, a person responsible for developing such ingenious engines of war (battering rams, floating bridges. assault towers, catapults, etc.) was dubbed an inventor. ln the 1500s, as the meaning of “engines” was broadened, an engineer was a person who made engines.

Today, we would classify a builder of engines as a mechanical engineer, because an engineer, in the more general sense, is “a person who applies science, mathematics, and economics to meet the needs, of humankind.”

THE ENGINEER AS A PROBLEM SOLVER

Engineers are problem solvers. Given the historical roots of the word engineer (above), we can expand this to say that engineers are ingenious problem solvers.

In a sense, all humans are engineers. A child playing with building blocks who learns how to construct a taller structure is doing engineering. A secretary who stabilizes a wobbly desk by inserting a piece of cardboard under the short leg has engineered a solution to the problem.

Early in human history, there were no formal schools to teach engineering. Engineering was performed by those who had a gift for manipulating the physical world to achieve a practical goal. Often, it would be learned through an apprenticeship with experienced practitioners. This approach resulted in some remarkable accomplishments.

Current engineering education emphasizes mathematics, science, and economics, making engineering an “applied science.” Historically, this was not true; rather, engineers were largely guided by intuition and experience gained either personally or vicariously.

For example, many great buildings, aqueducts, tunnels, mines, and bridges were constructed prior to the early 1700s, when the first scientific foundations were laid for engineering. Engineers often must solve problems without even understanding the underlying theory. Certainly, engineers benefit from scientific theory, but sometimes the solution is required before the theory can catch up to the practice.

For example, theorists are still trying to fully explain high-temperature superconductors while engineers are busy forming flexible wires out of these new materials that may be used in future generations of electrical devices.

Also, You May want to Read: Water Supply Design | Water Sources and Storage Tanks

THE TECHNOLOGY TEAM

Modern technical challenges are seldom met by the lone engineer. Technology development is a complex process involving the coordinated efforts of a technology team consisting of:

  1. Scientists, study nature in order to advance human knowledge. Although some scientists work in the industry on practical problems, others have successful careers publishing results that may not have immediate practical applications. Typical degree requirements: BS, MS, Ph.D.
  2. Engineers, apply their knowledge of science, mathematics, and economics to develop useful devices, structures, and processes. typical degree requirements: BS, MS, Ph.D.
  3. Technologists, apply science and mathematics to well-defined problems that generally do not require the depth of knowledge possessed by engineers and scientists. Typical degree requirement: BS.
  4. Technicians, work closely with engineers and scientists to accomplish specific tasks such as drafting, laboratory procedures, and model building. typical degree requirement: two-year associate’s degree.
  5. Artisans have the manual skills (welding, machining, carpentry) to construct devices specified by scientists, engineers, technologists, and technicians. Typical degree requirement: high school diploma plus experience.

Successful teamwork results in accomplishments larger than can be produced by individual team members. There is magic when a team coalesces and each member builds off teammates’ ideas and enthusiasm. For this magic to occur and to produce output that surpasses individual efforts, several characteristics must be present:

  1. Mutual respect for the ideas of fellow team members.
  2. The ability of team members to transmit and receive the ideas of the team.
  3. The ability to lay aside criticism of an idea during the early formulation of solutions to a problem.
  4. The ability to build on initial or weakly formed ideas.
  5. The skill to accurately criticize a proposed solution and analyze for both strengths and weaknesses.
  6. The patience to try again when an idea fails or a solution is incomplete.

ENGINEERING DISCIPLINES AND RELATED FIELDS

At this point in your engineering career, you may not have selected a major. Does your future lie in mechanical engineering, chemical engineering, electrical engineering, or other fields? Once you have made your selection, you will have decided upon your engineering discipline. To help in this decision, we briefly describe the major engineering disciplines and some related fields.

Civil Engineering

Civil engineering is generally considered the oldest engineering discipline-its works traced back to the Egyptian pyramids and before. Many of the skills possessed by civil engineers (e.g., building walls, bridges, and roads) are extremely useful in warfare, so these engineers worked on both military and civilian projects. To distinguish those engineers who work on civilian projects from those who work on military projects, the British engineer John Smeaton coined the term civil engineer in about 1750.

Mechanical Engineering

Mechanical engineering was practiced concurrently with civil engineering because many of the devices needed to construct great civil engineering projects were mechanical in nature. During the Industrial Revolution (1750-1850), wonderful machines were developed: steam engines, internal combustion engines, mechanical looms, sewing machines, and more. Here we saw the birth of mechanical engineering as a discipline distinct from civil engineering.

Engineer in engineering responsibilities

Mechanical engineers make engines, vehicles (automobiles, trains, planes), machine tools (lathes, mills), heat exchangers, industrial process equipment, power plants, consumer items (typewriters, pens), and systems for heating, refrigeration, air conditioning, and ventilation. Mechanical engineers must know structures, heat transfer, fluid mechanics, materials, and thermodynamics, among many other things.

Electrical Engineering

Soon after physicists began to understand electricity, the electrical engineering profession was born. Electricity has served two main functions in society: the transmission of power and of information. Those electrical engineers who specialize in power transmission design and build electric generators, transformers, electric motors, and other high-power equipment. Those who specialize in information transmission design and build radios, televisions, computers, antennae, instrumentation, controllers, and communications equipment.

Electronic equipment can be analog (meaning the voltages and currents in the device are continuous values) or digital (meaning only discrete voltages and currents can be attained by the device). As analog equipment is more susceptible to noise and interference than digital equipment, many electrical engineers specialize in digital circuits.

Modern life is largely characterized by electronic equipment. Daily, we rely on many electronic devices-televisions, telephones, computers, calculators, and so on. In the future, the number and variety of these devices can only increase. The fact that electrical
engineering is the largest engineering discipline-comprising over 25% of all engineers underscoring the importance of electrical engineering in modem society.

Chemical Engineering

By 1880, the chemical industry was becoming important in the U.S. economy. At that time, the chemical industry hired two types of technical persons: mechanical engineers and industrial chemists. The chemical engineer combined these two persons into one. The first chemical engineering degree was offered at the Massachusetts Institute of Technology (MIT) in 1888.

Chemical engineering is characterized by a concept called unit operations. A unit operation is an individual piece of process equipment (chemical reactor, heat exchanger, pump, compressor, distillation column). Just as electrical engineers assemble complex circuits from component parts (resistors, capacitors, inductors, batteries), chemical engineers assemble chemical plants by combining unit operations together.

Chemical engineers process raw materials (petroleum, coal, ores, com, trees) into refined products (gasoline, heating oil, plastics, pharmaceuticals, paper). Biochemical engineering is a growing subdiscipline of chemical engineering. Biochemical engineers combine biological processes with traditional chemical engineering to produce food and pharmaceuticals and treat wastes.

Industrial Engineering

In the late 1800s, industries began to use “scientific management” techniques to improve efficiency. Early pioneers in this field did time motion studies on workers to reduce the amount of labor required to produce a product. Today, industrial engineers develop, design, install, and operate integrated systems of people, machinery, and information to produce either goods or services. Industrial engineers bridge engineering and management.

Industrial engineers are famous for designing and operating assembly lines that optimally combine machinery and people. However, they can also optimize train or plane schedules, hospital operations, banks, or overnight package delivery services. Industrial engineers who specialize in human factors design products (e.g., hand tools, airplane cockpits) with the human user in mind.

Aerospace Engineering

Aerospace engineers design vehicles that operate in the atmosphere and in space. It is a diverse and rapidly changing field that includes four major technology areas: aerodynamics, structures and materials, flight and orbital mechanics and control, and propulsion.

Aerospace engineers help design and build high-performance flight vehicles (e.g., aircraft, missiles, and spacecraft) as well as automobiles. Also, aerospace engineers confront problems associated with wind effects on buildings, all pollution, and other atmospheric phenomena.

Materials Engineering

Materials engineers are concerned with obtaining the materials required by modem society. Materials engineers may be further classified as:
Geological engineers, study rocks, soils, and geological formations to find valuable ores and petroleum reserves.
Mining engineers, who extract ores such as coal, iron, and tin.
Petroleum engineers, who find, produce, and transport oil and natural gas.
Ceramics engineers, who produce ceramic (i.e., nonmetallic mineral) products.
Plastics engineers, who produce plastic products.
Metallurgical engineers, who produce metal products from ores or create metal alloys with superior properties.
Materials science engineers, who study the fundamental science behind the properties (e.g., strength, corrosion resistance, conductivity) of materials.

Agricultural Engineering

Agricultural engineers help farmers efficiently produce food and fiber. This discipline was born with the McCormick reaper. Since then, agricultural engineers have developed many other farm implements (tractors, plows, choppers, etc.) to reduce farm labor requirements.

Modern agricultural engineers apply knowledge of mechanics, hydrology, computers, electronics, chemistry, and biology to solve agricultural problems. Agricultural engineers may specialize in food and biochemical engineering; water and environmental quality; machine and energy systems; and food, feed, and fiber processing.

Nuclear Engineering

Nuclear engineers design systems that employ nuclear energy, such as nuclear power plants, nuclear ships (e.g., submarines and aircraft carriers), and nuclear spacecraft.

Some nuclear engineers are involved with nuclear medicine; others are working on the design of fusion reactors that potentially will generate limitless energy with minimal environmental damage.

Architectural Engineering

Architectural engineers combine the engineer’s knowledge of structures, materials, and acoustics with the architect’s knowledge of building esthetics and functionality.

Biomedical Engineering

Biomedical engineers combine traditional engineering fields (mechanical, electrical, chemical, industrial) with medicine and human physiology. They develop prosthetic devices (e.g., artificial limbs), artificial kidneys, pacemakers, and artificial hearts. Recent developments will enable some deaf people to hear and some blind people to see.

Biomedical engineers can work in hospitals as clinical engineers, in medical centers as medical researchers, in medical industries designing clinical devices, in the FDA evaluating medical devices, or as physicians providing health care.

Computer Science and Engineering

Computer science and engineering evolved from electrical engineering. Computer scientists understand both computer software and hardware, but they emphasize software. In contrast, computer engineers understand both software and hardware but emphasize hardware.

Computer scientists and engineers design and build computers ranging from supercomputers to personal computers, network computers together, write operating system software that regulates computer functions, or write application software such as word processors and spreadsheets.

Given the increasingly important role of computers in modem society, computer science, and engineering are rapidly growing professions.

Engineering Technology

Engineering technologists bridge the gap between engineers and technicians. Engineering technologists typically receive a 4-year BS degree and share many courses with their engineering cousins. Their coursework evenly emphasizes both theory and hands-on applications, whereas the engineering disciplines described above primarily emphasize theory with less emphasis on hands-on applications.

Engineering technologists can acquire specialties such as general electronics, computers, and mechanics. With their skills, engineering technologists perform such functions as designing and building electronic circuits, repairing faulty circuits, maintaining computers, and programming numerically controlled machine shop equipment.

Engineering Technicians

Engineering technicians typically receive a 2-year associate’s degree. Their education primarily emphasizes hands-on applications with less emphasis on theory. They are involved in product design, testing, troubleshooting, and manufacturing. Their specialties include the following: electronics, drafting, automated manufacturing, robotics, and semiconductor manufacturing.

Artisans

Artisans often receive no formal schooling beyond high school. Typically, they learn their skills by apprenticing with experienced artisans who show them the “tricks of the trade.” Artisans have a variety of manual skills such as machining, welding, and carpentry. and equipment operation. Artisans are generally responsible for transforming engineering ideas into reality; therefore, engineers often must work closely with them.

Wise engineers highly value the opinions of artisans, because artisans frequently have many years of practical experience.

ENGINEERING FUNCTIONS

Regardless of their discipline, engineers can be classified by the functions they perform:
Research engineers, search for new knowledge to solve difficult problems that do not have readily apparent solutions. They require the greatest training, generally an MS or Ph.D. degree.
Development engineers apply existing and new knowledge to develop prototypes of new devices, structures, and processes.
Design engineers, apply the results of research and development engineers to produce detailed designs of devices, structures, and processes that will be used by the public.
Production engineers, are concerned with specifying production schedules, determining raw materials availability, and optimizing assembly lines to mass produce the devices conceived by design engineers.
Testing engineers, perform tests on engineered products to determine their reliability and suitability for particular applications.
Construction engineers, build large structures.
Operations engineers, run and maintain production facilities such as factories and chemical plants.
Sales engineers, have the technical background required to sell technical products.
• Managing engineers, are needed in the industry to coordinate the activities of the technology team.
Constructing engineers, are specialists who are called upon by companies to supplement their in-house engineering talent.
Teaching engineers, to educate other engineers in the fundamentals of each engineering discipline.

To illustrate the roles of engineering disciplines and functions, consider all the steps required to produce a new battery suitable for automotive propulsion. (The probable engineering discipline is in parentheses and the engineering function is in italics.) A research engineer (a chemical engineer) performs fundamental laboratory studies on new materials that are possible candidates for a rechargeable battery that is lightweight but stores much energy.

The development engineer (chemical or electrical engineer) reviews the results of the research engineer and selects a few candidates for further development. She constructs some battery prototypes and tests them for such properties as a maximum number of recharge cycles, voltage output at various temperatures, the effect of discharge rate on battery life, and corrosion. If the development engineer lacks expertise in corrosion, the company would temporarily hire a consulting engineer (chemical, mechanical, or materials engineer) to solve a corrosion problem.

When the development engineer has finally amassed sufficient information, the design engineer (mechanical engineer) designs each battery model that will be produced by the company. He must specify the exact composition and dimension of each component and how each component will be manufactured.

A construction engineer (civil engineer) erects the building in which the batteries will be manufactured and a production engineer (industrial engineer) designs the production line (e.g., machine tools, assembly areas) to mass produce the new battery. Operation engineers (mechanical or industrial engineers) operate the production line and ensure that it is properly maintained.

Once the production line is operating, testing engineers (industrial or electrical engineers) randomly select batteries and test them to ensure that they meet company specifications. Sales engineers (electrical or mechanical engineers) meet with automotive companies to explain the advantages of their company’s battery and answer technical questions.

Managing engineers (any discipline) make decisions about financing plant expansions, product pricing, hiring new personnel, and setting company goals. All of these engineers were trained by teaching engineers (many disciplines) in college.

In this example, the engineering disciplines that satisfy each function are unique to the project. Other projects would require the coordinated efforts of other engineering disciplines. Also, the disciplines selected for this project are an idealization. A company might not have the ideal mix of engineers required by a project and would expect its existing engineering staff to adapt to the needs of the project.

After many years, engineers become cross-trained in other disciplines, so it becomes difficult to classify them by the disciplines they studied in college. An engineer who wishes to stay employed must be adaptable, which means being well acquainted with the fundamentals of other engineering disciplines.

HOW MUCH FORMAL EDUCATION IS RIGHT FOR YOU?

Knowledge is expanding at an exponential rate. It is impossible to fully grasp engineering with a 4-year BS degree. Although you will continue leaning on the job, your experience there will tend to be narrowly focused on the needs of the company.

As you proceed through your engineering studies you should ask yourself, how much more formal education do I need? The answer depends upon your ultimate career objectives. Many of the job functions described above can be performed adequately with a BS degree.

However, others-like the research engineer and the development engineer-generally require an MS or a Ph.D. These individuals are engaged in the early stages of product development. More education is required because they must solve more challenging technical problems.

If you think that you would enjoy the technical challenges met by advanced-degree engineers, do not let the educational costs dissuade you. Most graduate schools provide financial assistance to their students in the form of a stipend. Although the stipend does not equal the pay received in the industry, it is usually enough to live a comfortable life.

Because people with advanced degrees generally earn higher salaries, the short-term financial loss may eventually be recouped. Financial gain should not be your primary motivation for obtaining an advanced degree, however. You should consider it only if you would enjoy a job with greater technical challenges.

Some BS engineering students decide to continue formal education in other fields such as law, medicine, or business. The engineering curriculum provides an excellent background for these other fields because it develops excellent discipline, work habits, and thinking skills.

Sanitary Engineering

THE ENGINEER AS A PROFESSIONAL

Historically, a professional was simply a person who professed to be “duly qualified” in a given area. Often, these professionals professed adherence to the monastic vows of a religious order. So, being a professional meant not only mastering a body of knowledge but also abiding by proper standards of conduct.

In the modem world, our concept of a professional has become more formalized. We consider a professional to have the following traits:
Extensive intellectual training – all professions require many years of schooling, at the undergraduate or postgraduate level.
Pass qualification exam-professionals must demonstrate that they master a common body of knowledge.
Vital skills-the skills of professionals are vital to the proper functioning of society.
Monopoly society gives professionals a monopoly to practice in their respective fields.
Autonomy-society entrusts professionals to be self-regulated.
Code of ethics-the behavior of professionals is regulated by self-imposed codes.

Engineering, architecture, medicine, law, dentistry, and pharmacy are examples of professions; they are some of the most prestigious occupations in our society.

THE ENGINEERING DESIGN METHOD

In high school, you probably have been exposed to the scientific method:
1. Develop hypotheses (possible explanations) of a physical phenomenon.
2. Design an experiment to critically test the hypotheses.
3. Perform the experiment and analyze the results to determine which hypothesis, if any, is consistent with the experimental data.
4. Generalize the experimental results into law or theory.
5. Publish the results.

Although engineers use knowledge generated by the scientific method, they do not routinely use the method; that is the domain of scientists. The goals of scientists and engineers are different. Scientists are concerned with discovering what is, whereas engineers are concerned with designing what will be. To achieve our goals, engineers use the engineering design method, which is, briefly stated:

  1. Identify and define the problem.
  2. Assemble a design team.
  3. Identify constraints and criteria for success.
  4.  Search for solutions.
  5. Analyze each potential solution.
  6. Choose the “best” solution.
  7. Document the solution.
  8. Communicate the solution to management.
  9. Construct the solution.
  10. Verify and evaluate the performance of the solution.

Your engineering education will focus primarily on analysis. The hundreds (or thousands) of homework and exam problems you will work on during your studies are all designed to sharpen your analytical skills.

In their analysis of physical systems, engineers use models. A model represents the real system of interest. Depending upon the quality of the model, it may, or may not, be an accurate representation of reality.

TRAITS OF A SUCCESSFUL ENGINEER

All of us would like to be successful in our engineering careers because it brings personal fulfillment and financial reward. (For most engineers, financial reward is not the highest priority. Surveys of practicing engineers show that they value exciting and challenging work performed in a pleasant work environment over monetary compensation).

As a student, you may feel that performing well in your engineering courses will guarantee success in the real engineering world.

Unfortunately, there are no guarantees in life. Ultimate success is achieved by mastering many traits of which academic prowess is but one. By mastering the following traits, you will increase your chances of achieving a successful engineering career:

  • Interpersonal skills. Engineers are typically employed in an industry where success is necessarily a group effort. Successful engineers have good interpersonal skills. Not only must they effectively communicate without her highly educated engineers but also with artisans, who may have substantially less education or other professionals who are highly educated in other fields (marketing, finance, psychology, etc.).
  • Communication skills. Although the engineering curriculum emphasizes science and mathematics, some practicing engineers report that they spend up to 80% of their time in oral and written communications. Engineers generate engineering drawings or sketches to describe a new product be it a machine part an electronic circuit or a crude flowchart of new computer code. They document test results in reports. They write memos, manuals, proposals to bid on jobs, and technical papers for trade journals. They give sales presentations to potential clients and make oral presentations at technical meetings. They communicate with the workers who build the devices designed by engineers. They speak at civic groups to educate the public about the impact of their plant on the local economy or address safety concerns raised by the public.
  • Leadership. Leadership is one of the most desired skills for success. Good engineering leaders do not follow the herd; rather, they assess the situation and develop a plan to meet the group’s objectives. Part of developing good leadership skills is learning how to be a good follower as well.
  • Competence. Engineers are hired for their knowledge. If their knowledge is faulty, they are of little value to their employer. Performing well in your engineering courses will improve your competence.
  • Logical thinking. Successful engineers base decisions on reason rather than emotions. Mathematics and science, which are based on logic and experimentation, provide the foundations of our profession.
  • Quantitative thinking. Engineering education emphasizes quantitative skills. We transform qualitative ideas into quantitative mathematical models that we use to make informed decisions.
  • Follow through. Many engineering projects take years or decades to complete. Engineers have to stay motivated and carry a project through to completion. People who need immediate gratification may be frustrated in many engineering projects.
  • Continuing education. Undergraduate engineering education is just the beginning of a lifetime of learning. Your professors can’t teach all relevant current knowledge in a 4-year curriculum. Also, over your 40-plus-year career, knowledge will expand dramatically. Unless you stay current, you will quickly become obsolete.
  • Maintaining a professional library. Throughout your formal education, you will be required to purchase textbooks. Many students sell them after the course is completed. If that book contains useful information related to your career, it is foolish to sell it. Your textbooks should become personalized references with appropriate underlining and notes in the margins that allow you to quickly regain the knowledge years later when you need it. Once you graduate, you should continue purchasing handbooks and specialized books related to your field. Recall that you will be employed for your knowledge and that books are the readiest sources.
  • Dependability. Many industries operate with deadlines. As a student, you also have many deadlines for homework, reports, tests, and so forth. If you hand in homework and reports late, you are developing bad habits that will not serve you well in the industry.
  • Honesty. As much as technical skills are valued in the industry, honesty is valued more. An employee who cannot be trusted is of no use to a company.
  • Organization. Many engineering projects are extremely complex. Think of all the details that had to be coordinated to construct your engineering building. It is composed of thousands of components (beams, ducting, electrical wiring, windows, lights, computer networks, doors, etc.). Because they interact, all those components had to be designed in a coordinated fashion. They had to be ordered from vendors and delivered to the construction site sequentially when they were required. The activities of the contractors had to be coordinated to install each item when it arrived. The engineers had to be organized to construct the building on time and within budget.
  • Common sense. Many commonsense aspects of engineering cannot be taught in the classroom. A lack of common sense can be disastrous. For example, a library was recently built that required pilings to support it on soft ground. (A piling is a vertical rod, generally made from concrete, that goes deep into the ground to support the building that rests on it.) The engineers very carefully and meticulously designed the pilings to support the weight of the building, as they had done many times before. Although the pilings were sufficient to hold the building, the engineers neglected the weight of the books in the library. The pilings were insufficient to carry this additional load, so the library is now slowly sinking into the ground.
  • Curiosity. Engineers must constantly learn and attempt to understand the world. A successful engineer is always asking, why?
  • Involvement in the community. Engineers benefit themselves and their community by being involved with clubs and organizations (Kiwanis, Rotary, etc.). These organizations provide useful community services and also serve as networks for business contacts.
  • Creativity. From their undergraduate studies, it is easy for engineering students to get the false impression that engineering is not creative. Most courses emphasize analysis, in which a problem has already been defined and the “correct” answer is being sought. Although analysis is extremely important in engineering, most engineers also employ synthesis, the act of creatively combining smaller parts to form a whole. Synthesis is essential to design, which usually stalls with a loosely defined problem for which many possible solutions exist. The creative engineering challenge is to find the best solution to satisfy the project goals (low cost, reliability, functionality, etc.). Many of the technical challenges facing society can be met only with creativity, for if the solutions were obvious, the problems would already be solved.

CREATIVITY

Imagination is more important than knowledge.

Albert Einstein

If the above quotation is correct, you should expect your engineering education to stan with Creativity 101. Although many professors do feel that creativity is important in engineering education, creativity per se is not taught. Why is this?

  • Some professors feel that creativity is talent students are born with and cannot be taught. Although each of us has different creative abilities-just as we have different abilities to run the 50-yard dash-each of us is creative. Often, all the student needs are to be in an environment in which creativity is expected and fostered.
  • Other professors feel that because creativity is hard to grade, it should not be taught. Although it is important to evaluate students, not everything a student does must be subjected to grading. The student’s education should be placed above the student’s evaluation.
  • Other professors would argue that we do not completely understand the creative process, so how could we teach it? Although it is true, that we do not completely understand creativity, we know enough to foster its development.

Rarely is creativity directly addressed in the engineering classroom. Instead, the primary activity of engineering education is the transfer of knowledge to future generations that was painstakingly gained by past generations. (Given the vast amount of knowledge, this is a Herculean task.)

Further, engineering education emphasizes the proper manipulation of knowledge to correctly solve problems. Both these activities support analysis, not synthesis.

The “analysis muscles” of an engineering student tend to be well-developed and toned. In contrast, their “synthesis muscles” tend to be flabby due to lack of use. Both analysis and synthesis are part of the creative process; engineers cannot be productively creative without possessing and manipulating knowledge.

But it is important to realize that if you wish to tone your “synthesis muscles,” it may require activities outside the engineering classroom. Although the goals of authors, artists, and composers are many, most have the desire to communicate. However, the constraints placed upon their communication are not severe.

TRAITS OF A CREATIVE ENGINEER

The following list describes some traits of a creative engineer:

  • Stick-to-it-Inverness. Producing creative solutions to problems requires unbridled commitment. There are always problems along the way. A successful creative engineer does not give up.
  • Asks why. A creative engineer is curious about the world and is constantly seeking understanding. By asking why the creative engineer can learn how other creative engineers solved problems.
  • Is never satisfied.  A creative engineer goes through life asking, how could 1 do this better? Rather than complaining about a stop light that stops this car at midnight when there is no other traffic, the creative engineer would say, how could I develop a sensor that detects my car and turns the light green?
  • Learns from accidents. Many great technical discoveries were made by accident. Instead of being single-minded and narrow, be sensitive to the unexpected.
  • Makes analogies. Recall that problem-solving is an iterative process that largely involves chance. By having rich interconnections, a creative engineer increases the chance of finding a solution. We obtain rich interconnections by making analogies during learning so information is stored in multiple places.
  • Generalizes. When a specific fact is learned, a creative engineer seeks to generalize that information to generate rich interconnections.
  • Develops qualitative and quantitative understanding. As you study engineering, develop not only quantitative analytical skills but also qualitative understanding. Get a feeling for the numbers and processes, because that is what your subconscious needs for its qualitative model.
  • Has good visualization skills. Many creative solutions involve three-dimensional visualization. Often, the solution can be obtained by rearranging components, turning them around, or duplicating them.
  • Has good drawing skills. Drawings or sketches are the fastest way by far to communicate spatial relationships, sizes, order of operations, and many other ideas. By accurately communicating through engineering graphics and sketches, an engineer can pass her ideas easily and concisely to her colleagues, or with a little explanation, to non-engineers.
  • Possesses unbonded thinking. Very few of us are trained in general engineering. Most of us are trained in an engineering discipline. If we restrict our thinking to a narrowly defined discipline, we will miss many potential solutions. Perhaps the solution requires combined knowledge of mechanical, electrical, and chemical engineering. Although it is unreasonable that we are experts in all engineering disciplines, each of us should develop enough knowledge to hold intelligent conversations with those in other disciplines.
  • Has broad interest. A creative engineer must be happy. This requires balancing intellectual, emotional, and physical needs. Engineering education emphasizes your intellectual development; you are responsible for developing your emotional and physical skills by socializing with friends, having a stimulating hobby (e.g., music, art, literature), and exercising.
  • Collects obscure information. Easy problems can be solved with commonly available information. The hard problems often require obscure information.
  • Works with nature. not against it. Do not enter a problem with preconceived notions about how it must be solved. Nature will often guide you through the solution if you are attentive to its whispers.
  • Keeps an engineering toolbox. An engineering “toolbox” is filled with simple qualitative relationships that are needed by the qualitative model in the subconscious. These simple qualitative relationships may be the distilled wisdom from a quantitative engineering analysis.

SUMMARY

From above, Engineers are individuals who combine knowledge of science, mathematics, and economics to solve technical problems that confront society. As civilization has progressed and become more technological, engineers’ impact on society has increased.

Engineers are part of a technology team that includes scientists, technologists, technicians, and artisans. Historically, various disciplines within engineering have evolved (e.g., civil, mechanical, industrial). Regardless of their discipline, engineers fulfill many functions (research, design, sales. etc.).

Because of engineers’ importance to society, their education is regulated by ABET, and professional licenses are granted by states. There are many engineering professional societies serving a variety of roles, such as providing continuing education courses and publishing technical journals.

In meeting the needs of society, engineers use the engineering design method. An important step in the engineering design method is to formulate models of reality. These models can range from simple qualitative relationships to detailed quantitative codes in digital computers.

To be successful, engineers need to cultivate many traits, such as competence and communication skills. Among the more important skills is creativity, which is needed to solve the more difficult problems faced by society.

The creative process involves an interplay between qualitative models that are understood by the subconscious and quantitative models understood by the conscious. These qualitative models may be viewed as tools that engineers keep in their “toolbox” to help guide their creativity in productive directions.

We hope this article helped you learn more about An Engineer. You may also want to learn about Structural Engineers, Engineering Ethics, Aluminium and Copper as Building Materials, and Construction Terminologies You Should Know.

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Meaning engineer

What does engineer mean? Here you find 33 meanings of the word engineer. You can also add a definition of engineer yourself

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mid-14c., enginour, «constructor of military engines,» from Old French engigneor «engineer, architect, maker of war-engines; schemer» (12c.), from Late Latin ingeniare (see engine) [..]

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engineer

1818, «act as an engineer,» from engineer (n.). Figurative sense of «arrange, contrive, guide or manage (via ingenuity or tact)» is attested from 1864, originally in a political co [..]

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engineer

person who plans the building of things, such as structures (construction engineer) or substances (chemical engineer).

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engineer

A contract under which the contractor engineers, procures and constructs [EPC] the work, often a building or large-scale facility.  In practice, this is a form of outsourcing under which the client d [..]

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engineer

A contract under which the contractor engineers, procures, installs and commissions [EPIC] the work, often an engineering project.  In practice, this is a form of outsourcing most common to the oil a [..]

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engineer

A contract under which the contractor engineers, procures, installs, commissions, operates and maintains [EPICOM] the work.  For example a manufacturer of a piece of capital plant not only designs an [..]

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engineer

railroad engine-driver

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engineer

a person who uses scientific knowledge to solve practical problems design as an engineer; &amp;quot;He engineered the water supply project&amp;quot; mastermind: plan and direct (a complex unde [..]

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engineer

Someone who designs and builds mechanical or electrical devices. For example, an aeronautical engineer designs aircraft. To do this, an aeronautical engineer must study aeronautics and understand fluid dynamics and aerodynamics.

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engineer

someone who makes or looks after machines. The same word also means someone who plans and builds dams, roads, railways and bridges

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engineer

The person on a ship or train who runs and cares for the engines; also the person in the army who deals with ordnance (supplies such as ammunition, weapons, and tools). The term engineer also refers t [..]

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engineer

inzhenir

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engineer

To see an engineer, forebodes weary journeys but joyful reunions.   

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engineer

The person who operates the audio equipment during the voice-over session.

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engineer

person, usually from a technical or electronic background, who records or mixes the sound in a studio or at a live gig. The engineer is usually not responsible for the structure or arrangements of the songs, just the sound of the instruments that gets put on to the recording.

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engineer

North American term for a train driver.

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engineer

An engineer is a person who, by reason of his or her special knowledge of the mathematical and physical sciences and the principles and methods of engineering analysis and design, acquired by engineer [..]

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engineer

(n) a person who uses scientific knowledge to solve practical problems(n) the operator of a railway locomotive(v) design as an engineer(v) plan and direct (a complex undertaking)

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engineer

        A crew member of the engineering staff, who works in the engine room.

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engineer

n. ingeniero

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engineer

See fabricator

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engineer

A great Engineer is a composer’s best friend—really! They record and mix the music, and oversee all the technical aspects of the recording session. The great ones are also often musicians themselves, so have that creative ear as well as the technical prowess necessary for a successful session. Composers often have favorite Engineers and will re [..]

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engineer

Adds as additional insured an engineer, architect or surveyor not engaged by the insured, for premises or operations liability. To endorse this form to the policy the underwriter must acquire certificates of insurance from the additional insured on their professional and general liability policies. CONTROLLING INTEREST COVERAGE: Adds as an addition [..]

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engineer

Officer who is in charge of engines for the time being. Certificated officer competent to take charge of engines and to effect repairs and adjustments.

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anyone who works with the ship’s propulsion equipment, electrical equipment, or other mechanical devices. A snipe.

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engineer

The person or pilot who operates a train or locomotive.

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engineer

The train crew member who drives the train (engine or locomotive) and is the crew’s boss. Also see conductor.

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engineer

To plan and construct.

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engineer

Also commonly known as a software engineer, or a programmer. An engineer is a person on the development team who is responsible for programming the video game graphics, animation, or any other facet o [..]

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engineer

Short for character engineer.

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1) A technician in charge of a recording session; Also called Recording Engineer. 2) A person with an engineering degree. 3) A person with sufficient experience in the field to be equivalent to the ed [..]

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In English, the term is associated with engines, although this is a historical accident, the first engineers having been military engineers who were responsible for 'engines of war' su [..]

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engineer

A contentious issue, this one! A person who designs or makes or puts to use engines, machines, structures or public works such as canals, bridges and harbours etc. Some of them grumble about the term being used for mechanics who fix washing machines or the folk who unblock drains, however most engineers ought to help out if you ask politely. Despit [..]

Dictionary.university is a dictionary written by people like you and me.
Please help and add a word. All sort of words are welcome!

Add meaning

For other uses, see Engineer (disambiguation).

Engineer

Conference of Engineers at the Menai Straits Preparatory to Floating one of the Tubes of the Britannia Bridge by John Lucas.jpg
Conference of Engineers at the Menai Straits Preparatory to Floating one of the Tubes of the Britannia Bridge, by John Seymour Lucas, 1868
Occupation
Names Engineer
Activity sectors Applied sciences
Description
Competencies Mathematics, scientific knowledge, management skills
Education required Engineering education

An engineer is a professional practitioner of engineering, concerned with applying scientific knowledge, mathematics and ingenuity to develop solutions for technical problems. Engineers design materials, structures, machines and systems while considering the limitations imposed by practicality, safety and cost.[1][2] The word engineer is derived from the Latin roots ingeniare («to contrive, devise») and ingenium («cleverness»).[3][4]

Engineers are grounded in applied sciences, and their work in research and development is distinct from the basic research focus of scientists.[2] The work of engineers forms the link between scientific discoveries and their subsequent applications to human needs.[1]

Contents

  • 1 Roles and expertise
    • 1.1 Design
    • 1.2 Analysis
    • 1.3 Specialization
  • 2 Ethics
  • 3 Education
  • 4 Regulation
  • 5 Perception
  • 6 References
  • 7 See also

Roles and expertise

Design

Engineers develop new technological solutions. During the engineering design process, the responsibilities of the engineer may include defining problems, conducting and narrowing research, analyzing criteria, finding and analyzing solutions, and making decisions. Much of an engineer’s time is spent on researching, locating, applying, and transferring information.[5] Indeed, research suggests engineers spend 56% of their time engaged in various different information behaviours, including 14% actively searching for information.[6]

Engineers must weigh different design choices on their merits and choose the solution that best matches the requirements. Their crucial and unique task is to identify, understand, and interpret the constraints on a design in order to produce a successful result.

Analysis

Engineers conferring on prototype design, 1954

Engineers apply techniques of engineering analysis in testing, production, or maintenance. Analytical engineers may supervise production in factories and elsewhere, determine the causes of a process failure, and test output to maintain quality. They also estimate the time and cost required to complete projects. Supervisory engineers are responsible for major components or entire projects. Engineering analysis involves the application of scientific analytic principles and processes to reveal the properties and state of the system, device or mechanism under study. Engineering analysis proceeds by separating the engineering design into the mechanisms of operation or failure, analyzing or estimating each component of the operation or failure mechanism in isolation, and re-combining the components. They may analyse risk.[7][8][9][10]

Many engineers use computers to produce and analyze designs, to simulate and test how a machine, structure, or system operates, to generate specifications for parts, to monitor the quality of products, and to control the efficiency of processes.

Specialization

Most engineers specialize in one or more engineering disciplines.[1] Numerous specialties are recognized by professional societies, and each of the major branches of engineering has numerous subdivisions. Civil engineering, for example, includes structural and transportation engineering, and materials engineering includes ceramic, metallurgical, and polymer engineering. Engineers also may specialize in one industry, such as motor vehicles, or in one type of technology, such as turbines or semiconductor materials.[1]

Ethics

Engineers have obligations to the public, their clients, employers and the profession. Many engineering societies have established codes of practice and codes of ethics to guide members and inform the public at large. Each engineering discipline and professional society maintains a code of ethics, which the members pledge to uphold. Depending on their specializations, engineers may also be governed by specific statute, whistleblowing, product liability laws, and often the principles of business ethics.[11][12][13]

Some graduates of engineering programs in North America may be recognized by the Iron Ring or Engineer’s Ring, a ring made of iron or stainless steel that is worn on the little finger of the dominant hand. This tradition began in 1925 in Canada with The Ritual of the Calling of an Engineer, where the ring serves as a symbol and reminder of the engineer’s obligations for the engineering profession. In 1972, the practice was adopted by several colleges in the United States including members of the Order of the Engineer.

Education

Most engineering programs involve a concentration of study in an engineering specialty, along with courses in both mathematics and the physical and life sciences. Many programs also include courses in general engineering. A design course, sometimes accompanied by a computer or laboratory class or both, is part of the curriculum of most programs. Often, general courses not directly related to engineering, such as those in the social sciences or humanities, also are required.

Graduate training is essential for engineering faculty positions and some research and development programs, but is not required for the majority of entry-level engineering jobs. Many experienced engineers obtain graduate degrees in engineering or business administration to learn new technology and broaden their education. Numerous high-level executives in government and industry began their careers as engineers.

Accreditation is the process by which engineering program are evaluated by an external body to determine if applicable standards are met. The Washington Accord serves as an international accreditation agreement for academic engineering degrees, recognizing the substantial equivalency in the standards set by many major national engineering bodies. In the United States, post-secondary degree programs in engineering are accredited by the Accreditation Board for Engineering and Technology. In much of Europe and the Commonwealth professional accreditation is provided by Engineering Institutions, such as the Institution of Civil Engineers,the Institution of Mechanical Engineers or the Institution of Engineering and Technology from the United Kingdom.

Regulation

In many countries, engineering tasks such as the design of bridges, electric power plants, and chemical plants, must be approved by a licensed engineer. Most commonly titled as Professional Engineer or Chartered Engineer, the status of professional licensing is often indicated with the use of post-nominal letters; PE or P.Eng is common in North America, European Engineer (Eur Ing) in Europe, while CEng and IEng is used in the United Kingdom and CEng in much of the Commonwealth.

In the United States, licensure is generally attainable through combination of education, pre-examination (Fundamentals of Engineering exam), examination (Professional Engineering Exam),[14] and engineering experience (typically in the area of 5+ years). Each state tests and licenses Professional Engineers. Currently most states do not license by specific engineering discipline, but rather provide generalized licensure, and trust engineers to use professional judgement regarding their individual competencies; this is the favoured approach of the professional societies. Despite this, however, at least one of the examinations required by most states is actually focused on a particular discipline; candidates for licensure typically choose the category of examination which comes closest to their respective expertise.

In Canada, the profession in each province is governed by its own engineering association. For instance, in the Province of British Columbia an engineering graduate with four or more years of post graduate experience in an engineering-related field and passing exams in ethics and law will need to be registered by the Association for Professional Engineers and Geoscientists (APEGBC) [15] in order to become a Professional Engineer and be granted the professional designation of P.Eng allowing one to practice engineering.

In Continental Europe, Latin America, Turkey and elsewhere the title is limited by law to people with an engineering degree and the use of the title by others is illegal. In Italy, the title is limited to people who both hold an engineering degree and have passed a professional qualification examination (Esame di Stato). In Portugal, professional engineer titles and accredited engineering degrees are regulated and certified by the Ordem dos Engenheiros. In the Czech Republic, the title «engineer» (Ing.) is given to people with a (masters) degree in chemistry, technology or economics for historical and traditional reasons. In Greece, the academic title of «Diploma Engineer» is awarded after completion of the five-year engineering study course and the title of «Certified Engineer» is awarded after completion of the four-year course of engineering studies at a Technological Educational Institute (TEI).

Perception

The perception of engineering varies across countries and continents. In the United States, continental western Europe, eastern Europe, Asia, the Middle East, Latin American and Canada engineering and engineers are held in very high esteem. The perception and definition of engineering in some English speaking countries is confused. The contemporary British public perceive engineers as skilled or semi skilled maintenance workers but this is a recent development. British school children in the 1950s were brought up with stirring tales of ‘the Victorian Engineers’, chief amongst whom were the Brunels, the Stephensons, Telford and their contemporaries but now British people often incorrectly use the term ‘Engineer’ to describe Plumbers and Mechanics. British Gas refer to their gas repair mechanics as registered «professional engineers». In Canada, a 2002 study by the Ontario Society of Professional Engineers revealed that engineers are the third most respected professionals behind doctors and pharmacists.[16] In the Indian subcontinent, Russia and China, engineering is one of the most sought after undergraduate courses, inviting thousands of applicants to show their ability in highly competitive entrance examinations. In Egypt, the educational system makes engineering the second-most-respected profession in the country (after medicine); engineering colleges at Egyptian universities require extremely high marks on the General Certificate of Secondary Education (Arabic: الثانوية العامةal-Thānawiyyah al-`Āmmah)—on the order of 97 or 98%—and are thus considered (with colleges of medicine, natural science, and pharmacy) to be among the «pinnacle colleges» (كليات القمة kullīyāt al-qimmah).

The definition of what engineering is varies across countries. In the UK «engineering» is defined as an industry sector consisting of employers and employees loosely termed as «engineers» who range from semi skilled trades to chartered engineers. In the US and Canada, engineering is defined as a regulated profession whose practice and practitioners are licensed and governed by law. In some English speaking countries engineering has been seen as a somewhat dry, uninteresting field in popular culture and has also been thought to be the domain of nerds.[17] For example, the cartoon character Dilbert is an engineer. In science fiction, engineers are often portrayed as highly knowledgeable and respectable individuals who understand the overwhelming future technologies often portrayed in the genre. Several Star Trek characters are engineers. One difficulty in increasing public awareness of the profession is that average people, in the typical run of ordinary life, do not ever have any personal dealings with engineers, even though they benefit from their work every day. By contrast, it is common to visit a doctor at least once a year, the accountant at tax time, the pharmacist for drugs, and, occasionally, even a lawyer.

In companies and other organizations in some English-speaking countries (UK) there is a tendency to undervalue people with advanced technological and scientific skills compared to celebrities, fashion practitioners, entertainers and managers. In his book The Mythical Man-Month,[18] Fred Brooks Jr says that managers think of senior people as «too valuable» for technical tasks, and that management jobs carry higher prestige. He tells how some laboratories, such as Bell Labs, abolish all job titles to overcome this problem: a professional employee is a «member of the technical staff.» IBM maintain a dual ladder of advancement; the corresponding managerial and engineering / scientific rungs are equivalent. Brooks recommends that structures need to be changed; the boss must give a great deal of attention to keeping his managers and his technical people as interchangeable as their talents allow.

References

  1. ^ a b c d Bureau of Labor Statistics, U.S. Department of Labor (2006). «Engineers». Occupational Outlook Handbook, 2006-07 Edition. http://www.bls.gov/oco/ocos027.htm. Retrieved 2006-09-21.
  2. ^ a b National Society of Professional Engineers (2006). «Frequently Asked Questions About Engineering». Archived from the original on 2006-05-22. http://web.archive.org/web/20060522214617/http://www.nspe.org/media/mr1-faqs.asp. Retrieved 2006-09-21. Science is knowledge based on observed facts and tested truths arranged in an orderly system that can be validated and communicated to other people. Engineering is the creative application of scientific principles used to plan, build, direct, guide, manage, or work on systems to maintain and improve our daily lives.
  3. ^ Oxford Concise Dictionary, 1995
  4. ^ «engineer». Oxford Dictionaries. April 2010. Oxford Dictionaries. April 2010. Oxford University Press. 22 October 2011
  5. ^ A.Eide, R.Jenison, L.Mashaw, L.Northup. Engineering: Fundamentals and Problem Solving. New York City: McGraw-Hill Companies Inc.,2002
  6. ^ Robinson, M. A. (2010). An empirical analysis of engineers’ information behaviors. Journal of the American Society for Information Science and Technology, 61(4), 640–658. http://dx.doi.org/10.1002/asi.21290
  7. ^ Baecher, G.B., Pate, E.M., and de Neufville, R. (1979) “Risk of dam failure in benefit/cost analysis”, Water Resources Research, 16(3), 449-456.
  8. ^ Hartford, D.N.D. and Baecher, G.B. (2004) Risk and Uncertainty in Dam Safety. Thomas Telford
  9. ^ International Commission on Large Dams (ICOLD) (2003) Risk Assessment in Dam Safety Management. ICOLD, Paris
  10. ^ British Standards Institution (BSI) (1991)BC 5760 Part 5: Reliability of systems equipment and components — Guide to failure modes effects and criticality analysis (FMEA and FMECA).
  11. ^ American Society of Civil Engineers (2006) [1914]. Code of Ethics. Reston, Virginia, USA: ASCE Press. http://www.asce.org/Leadership-and-Management/Ethics/Code-of-Ethics/. Retrieved 2011-06-11.
  12. ^ Institution of Civil Engineers (2009). Royal Charter, By-laws, Regulations and Rules. http://www.ice.org.uk/getattachment/c0b1371e-5179-49da-8e5f-62a6abe0b9fd/ICE-Royal-Charter,-By-laws,-Regulations-and-Rules.aspx. Retrieved 2011-06-11.
  13. ^ National Society of Professional Engineers (2007) [1964]. Code of Ethics. Alexandria, Virginia, USA: NSPE. http://www.nspe.org/resources/pdfs/Ethics/CodeofEthics/Code-2007-July.pdf. Retrieved 2006-10-20.
  14. ^ [1] NCEES is a national nonprofit organization dedicated to advancing professional licensure for engineers and surveyors.
  15. ^ APEGBC — Professional Engineers and Geoscientists of BC
  16. ^ Ontario Society of Professional Engineers, 2002, Engineering: One of Ontario’s most respected professions
  17. ^ David Anderegg. Nerds: who they are and why we need more of them. Jeremy P. Tarcher, 2008
  18. ^ The Mythical Man-Month: Essays on Software Engineering, p119 (see also p242), Frederick P. Brooks, Jr., University of North Carolina at Chapel Hill, 2nd ed. 1995, pub. Addison-Wesley

See also

  • Engineer’s degree
  • Greatest Engineering Achievements
  • Engineers Without Borders
  • Washington Accord
  • List of engineers
  • List of engineering branches
  • List of fictional scientists and engineers
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