Software Engineering Prerequisites

 

Prerequisites

Most colleges require similar courses as prerequisites for their Software Engineering programs. You’ll normally be expected to study mathematics up through Calculus, basic computer programming, and cross-discipline engineering basics. You’ll also take courses in computer algorithms and system documentation methods prior to moving on to the core Software Engineering program.

Undergrad

Once your undergraduate prerequisites are met, you start taking classes in Software Engineering. This is where you gain cutting-edge expertise in skills like requirements identification, system design, software integration and software testing methodologies. During this coursework, you’ll learn how modern software systems are designed and implemented.

There are an incredibly complex number of variables when engineering software components, and a Software Engineering degree provides the educational foundation you need to be productive in the field.

There are numerous avenues for studying Software Engineering. Virtually every major university offers this as an undergraduate major, and many larger colleges offer Master’s and PhD programs as well. You can also get a Software Engineering degree through many of the top online colleges.

Since a lot of the software work being done is on the Internet and mobile devices, studying Software Engineering online can be a flexible and effective method for pursuing your education.

An undergraduate Software Engineering degree is normally a 4-year program. There are some colleges where this can be accelerated, and others that demand enough coursework to take up a fifth year. A Master’s in Software Engineering will usually take 2 years to complete if you’re able to go full time, and your doctorate degree will take as long as 3 years to finish due to the writing and research involved at that level.

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Academic Requirements for Structural Engineers

Employers require structural engineers to have a college degree in the discipline or comparable areas such as civil engineering. Most professionals have acquired a Master’s Degree or even a Ph.D. to distinguish themselves in the marketplace. Undergraduate students complete coursework in materials, algorithms, design and mechanics, among other concepts. Advanced academic training in the field facilitates a candidate’s ability to receive management positions in the industry as well as university teaching roles. At the Master’s Degree level, students complete classwork in advanced materials design principles, structural mechanics and seismology. For Ph.D. students, coursework includes classes in computer modeling, advanced renovation and restoration as well as risk analysis.

Organizations such as Structural Engineers Association, the Structural Engineering Institute, and the International Association for Bridge and Structural Engineering (IABSE) are a few of the organizations dedicated to fostering the development of professionals in the field. They organized congresses throughout the world to educate and bring together professionals in the industry to trade knowledge and share opportunities and best practices, thereby expanding the breadth and awareness around the industry. Moreover, they feature digital libraries of materials, including journal publications and links to online resources that enhance the toolbox of practitioners. 

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Prerequisites for a B.S. in Petroleum Engineering

 

Prerequisites for a B.S. in Petroleum Engineering

This curriculum combines college-level mathematics with basic sciences, developing a working knowledge of thermodynamics, material properties, fluid mechanics, material strengths, transport situations, and phase behavior (what to expect from resources when working with them).

Students develop competence in well design and analysis, drilling procedures, and evaluation of subsurface geology. They design and analyze systems that produce, inject, and handle fluids, optimizing resource development and management, using reservoir engineering principles and practices. They are proficient with project economics and resource valuation practices for decision-making under risky and uncertain conditions.

Topping off this degree is a design experience, preparing students for engineering practice, using the knowledge and skills acquired in their coursework.

Since the beginning of petroleum engineering, in the early 20th century, many easily accessed deposits have been depleted. Fuel harvesting has become more dependent on fresh technologies incorporating horizontal drilling and computer modeling.

Drilling in deserts and in deep waters requires today's engineers to have expertise in intelligent systems, geomechanics, and hydraulics, naming only a few things on their growing list of knowledge bases.

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Masters of Nuclear Engineering

 The basic Bachelor of Science degree in Nuclear Science and Engineering develops practical skills through hands-on education. Laboratory courses cover radiation physics, measurement, and protection. Laboratory exercises work with electronics, imaging and computation. This degree includes courses on nuclear systems and an undergraduate thesis based on any area of nuclear science and engineering.

Absolutely. Students who have completed the bachelor's degree generally need 12-18 months to earn a Master of Science degree, assuming they carry a full load of courses each term.

Many students prefer to pursue a master's in a discipline other than that of their bachelor's degree. They focus on nuclear science and engineering as graduates.

Master's degree candidates usually specialize in fission nuclear technology, nuclear science and technology, or applied plasma physics.

Each discipline of nuclear engineering has a specially focused degree program. The main fields of study are applied plasma physics, nuclear science and technology, or fission nuclear technology.

Bachelors-degree students have heavy course loads in science, chemistry, physics, calculus, biology, technology, the humanities and communication. Their studies also include nuclear engineering basics, the fundamentals of nuclear energy and engineering, nuclear reactor systems, radiation safety, fuel cycles, nuclear materials and electromagnetism.

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Employer Requirements for Nanoengineers

Employers require these professionals to have completed at least a Bachelor’s Degree in nanoengineering or chemical engineering to assume a job in the industry. Undergraduate students explore coursework that prepares them for making contributions in the fields of medicine, energy and environmental applications, among others. Students take classes that integrate a medley of math, science and engineering courses that prepare them for the versatile field. Acquiring a Master’s Degree or Ph.D. in the field may be required to qualify for some executive positions with a given company. Advanced education also enables these professionals to undertake teaching roles at universities. For those seeking business-based positions, a candidate should focus on developing leadership and management skills, as they will be asked to spearhead a team of engineers. In addition, they will be asked to communicate and negotiate with suppliers. In this setting, superb oral and written communication skills will prove essential.

The American Society of Mechanical Engineers has organized conferences to expand the discourse and awareness around the field of nanoengineering. In addition, they provide a digital library of resources, including publications, news, and best practices in the field that are vital to practitioners in the industry.

Though the U.S. Bureau of Labor Statistics (BLS) does not provide exact data on job prospects for nano engineers, chemical engineers, a comparable field, expect to see job growth prospects of 6 percent through 2020. The states of California, Texas, New York, Illinois and Michigan feature the most bountiful opportunities for professionals. While exact statistics on the median salary of these professionals is unavailable, O*Net reports that chemical engineers of the same background command a yearly salary of $95, 730.

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Academic Requirements for Molecular Engineers

A Bachelor’s Degree is mandated by companies seeking to offer jobs to aspiring candidates in the field. Colleges and universities throughout the United States offer programs in bimolecular engineering and the related chemical engineering. Candidates are encouraged to expose themselves to broad subjects in math and science, including but not limited to mechanics, thermodynamics and chemistry. Job applicants with more advanced credentials such as a Master’s Degree or Ph.D. have a greater potential to assume senior management positions with a company as well as teach university students. At this level, students complete coursework in advanced bioenergy, fuel cells and polymers. Those candidates more interested in the commercial side of the industry should refine their business acumen, particularly their negotiating skills, leadership qualities and written and oral communication capacities, as they will be responsible for managing teams, making presentations and acquiring assets.

The Society for Molecular Biology and Evolution is one of many associations dedicated to the advancement of professionals and the field as a whole. Related organizations like the National Society of Professional Engineers (NSPE) and the Technology Student Association (TSA) endeavor to accomplish these same goals by organizing meetings throughout the globe that expand the discourse on technological innovations and best practices in the industry. They feature vast digital libraries of industry and academic publications and related resources. Mentoring and networking outlets exist as well that bolster a members or aspiring professional’s ability to grow within the field of molecular engineering. Practitioners should also consult social media outlets and an array of associations in the field founded by universities throughout the country. University-based alumni associations and career placement centers possess further resources and outlets for students to learn of what companies seek as well as on-campus recruiting initiatives. Companies such as Google, Boeing, Genentech, and Bayer Pharmaceuticals have employed these avenues to recruit new talent to their efforts. Based on data from the U.S. Bureau of Labor Statistics (BLS), molecular and chemical engineers expect a job growth rates of 6 percent to the year 2020. Illinois, California, New York, and Texas offer the most opportunities for candidates. Data provided by O*Net indicates that engineers in this field earn a yearly salary of $92,680.

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Geological Engineering Education Requirements

 

Education Requirements

Requiring a minimum of a bachelor’s degree from an accredited college or university, the licensing requirements for geological and mining engineering vary by state. Specific degree programs for aspiring geological and mine engineers include Geology, Geophysics, Geological Engineering, Mining Engineering, Mineral Preparation Engineering and Social Geology, among many others, and range from undergraduate Bachelors programs to advanced graduate and post-graduate programs. In addition to materials mining and extraction, additional studies and industry focuses include ecological impact research, which measures broader environmental and ecological effects of mining operations, social geological impact research which focuses on both the sociological hazards and benefits to geological or mining efforts and discovery oriented exploration, studying geological formations below the Earth’s surface so as to refine the broader understanding of the planet’s composition. Regulated by the Mine Safety and Health Administration ( the field of geological and mine engineering is one with an intense focus on hazard awareness and occupational safety.

As with any dynamic and engaging field of study, the geological, mineral and mining industries and sciences, the training and education continues well after one has earned their degree. With numerous trade associations, professional networks and academic research societies, such as the American Institute of Professional Geology  American Rock Mechanics Association  and Association of Environmental and Engineering Geologists the field of geological and mine engineering is one of a continually evolving nature, with regular conferences and training programs designed to keep geological professionals on the cutting edge of their chosen pursuits. Combining age old techniques in respect to surveying, exploration and extraction, new technologies continue to emerge in the field, bringing new and exciting methods of research and exploratory prospecting into the hands of professionals and students every year. And as these new technologies and discoveries continue to change the professional landscape for those entering the engineering fields of geology or mining, the increasing demands for raw and precious materials by industry and the public at large have led to an increased demand for well educated, qualified professionals to enter the fields.

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