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Biomedical Engineers conduct research into the biological aspects of humans and animals to develop new theories and facts or to test, prove, or modify known theories of life systems. Based on research results, they design and/or develop life-support apparatus, utilizing principles of engineering and bio-behavioral sciences. They assist in the application of instrumentation in clinical environments.
JOB DUTIES
Biomedical Engineers may:
Study engineering aspects of bio-behavioral systems of humans, using knowledge of human anatomy and physiology
Advise hospital administrators on the planning, acquisition, and use of medical equipment
Plan and conduct research concerning behavioral, biological, psychological, or other life systems
Develop mathematical models and computer simulations of human bio- behavioral systems in order to obtain information to measure or control life processes, using knowledge of computer graphics and other related technologies
Evaluate the effectiveness of drugs and other medications
Develop new applications for energy sources such as nuclear power for biomedical implants
Conduct research with scientists, chemists and medical scientist on engineering of the biological systems of humans and animals
Some may also teach, write, consult, and/or manage.
Evaluate the safety, efficiency, and effectiveness of biomedical equipment
Deliver technology to assist people with disabilities
Install, adjust, maintain, and/or repair biomedical equipment
Click here to view a video on Biomedical Engineers.
Design and develop instruments and devices such as artificial organs, limbs, pacemakers, lasers, CAT scanners, and PET scanners (a major advance in screening heart disease). A Positron Emissions Tomography (PET) Scanner is a large doughnut-shaped machine that takes three-dimensional photographs of a person's blood as it flows through the heart. The PET Scan tells doctors who has coronary disease and who hasn't, how sick the victims are and what the best treatment methods may be.
Machines, equipment, and tools used may include:
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* Surgical lasers
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* Physiological monitoring system
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* Computer systems (with Internet access)
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* Dialysis and heart-lung machines
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* Diagnostic equipment
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* Centrifuges and linear accelerators
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* Automated radiological reporting system
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* Transducers (sensing devices) and stimulators
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Materials used may include:
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* Silicone
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* Plastics
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* Stainless steel
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* Chemicals
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* Prescriptive drugs
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OCCUPATIONAL SPECIALTIES
Biomedical Engineers may specialize in these areas:
019.061-010
BIOMEDICAL ENGINEERS conduct research into the biological aspects of humans or animals to develop new theories and facts or to test, probe, or modify known theories of life systems. Based on research results, they design and develop life-support apparatus, utilizing principles of engineering and bio-behavioral sciences. They assist in the application of instrumentation in clinical environments.
Some Biomedical Engineers do not work in research and development, but instead work as sales engineers (Career Exploration Script #152) or as Field Engineers who install, adjust, maintain, and repair equipment for biomedical equipment manufacturers.
019.061-010
CLINICAL ENGINEERS work to improve and maintain health care delivery systems in hospitals, clinics, governmental facilities, universities, and industry. They supervise the maintenance of biomedical equipment, advise hospital personnel on the purchase and installation of new equipment, investigate accidents or equipment failure, and train and/or supervise biomedical equipment technicians and other staff in the use and maintenance of equipment. They may function as part of hospital operating teams, ensuring that critical life-support and analysis equipment is working properly. In some areas, Clinical Engineers work in a shared service program in which one engineer serves several hospitals.
Biomedical Engineers who develop instrumentation, materials, diagnostic and therapeutic devices, artificial organs, and other equipment used in biology and medicine may be referred to as medical engineers.
Bio-Environmental Engineers using concepts and technology to maintain the quality of the environment in order to protect human, animal, marine, and plant life from toxicants and pollutants.
In addition to learning about these specialties, you may also find it helpful to explore the following Career Exploration Scripts:
WORKING CONDITIONS AND REQUIREMENTS
Biomedical Engineers may work alone or as part of a team along with other engineers; medical and administrative personnel; life, social, and physical scientists; and other specialists. They may also direct, train, and supervise biomedical equipment technicians and other medical personnel in the proper use and maintenance of specialized equipment.
Most of these Engineers work in clean, well lighted medical, academic, industrial and government research laboratories as well as hospitals. Those who work in undersea and space programs are exposed to a variety of environmental conditions.
They may be exposed to hazards such as electrical shock, burns, radiation, noxious fumes, and communicable diseases. Their hazards are minimized by safety procedures and protective clothing.
Those working in research laboratories usually work 40 hours a week, from 8 am to 5 pm. Those in hospitals may work from 7:00 am to 3:30 pm, but they are frequently on call in case of emergencies.
Biomedical Engineers might have to work overtime in both settings. Those who work in sales and field engineering may be required to travel extensively to install, repair, maintain, and sell equipment. Biomedical Engineers attend meetings and conferences and read professional journals to keep up with rapid changes in their field.
Some Engineers may belong to organizations representing employees where they work. They may also belong to professional associations such as the Biomedical Engineering Society of the Association for the Advancement of Medical Instrumentation, and the Alliance for Engineering in Medicine and Biology. Association members usually pay periodic dues.
You Should Prefer:
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Activities of a scientific and technical nature
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Activities relating to machines, processes, and methods
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Activities dealing with things and objects
You Should Be Able To:
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Think logically in a clear and organized manner
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Work with precise standards of accuracy/highly sensitive equipment
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Analyze and solve problems based on accurate information
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Understand and use high level mathematics
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Compare/see differences in size/shape/form of objects/lines/figures
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Communicate effectively, orally and in writing
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Understand medical terminology
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Direct, control, and plan projects and the activities of others
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Work well under pressure in critical, risky, or unexpected situations
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Perform a variety of tasks
Math Problem You Should Be Able To Solve:
Use the equation for the volume of a sphere to find the volume of a spherical implant with a radius of 3 centimeters.
Reading Example You Should Be Able to Read and Comprehend:
Corticosteroids may be prescribed for acute flare-ups. Even more potent drugs, such gold salts, penicillamine, and drugs to suppress the immune system, may slow the disease down in people with severe rheumatoid arthritis.
Writing Example You Should Be Able to Produce:
You should be able to write results about any new findings that you have come up with.
Thinking Skill You Should Be Able to Produce:
You should be able to decide on the best procedural experiments to test the quality of different products.
Individuals who use the title "Licensed Professional Engineer" or offer consulting engineering services must be licensed. Click
here
for "Michigan Licensed Occupations," see Engineer for specific licensing information.
Some other states license Clinical Engineers separately. Clinical Engineers may obtain optional certification from the Association for the Advancement of Medical Instrumentation. Hospitals often require completion of a clinical internship and/or certification for employment.
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EDUCATION AND PREPARATION OPPORTUNITIES
NOTE: A Bachelor's Degree (four years of study beyond High School); a Master's Degree (five to six years of study beyond High School); a Professional Degree or Doctorate (seven to ten years of study beyond High School) may qualify a person for this occupation.
The following education and preparation opportunities are helpful in preparing for occupations in this Career Exploration Script:
***SCHOOL SUBJECTS***
0700
CAREERS ,
0900
COMMUNICATIONS ,
1000
COMPUTERS ,
1200
ELECTRONICS ,
1800
HEALTH & HEALTH CAREERS ,
2200
MATH ,
2900
SCIENCE ,
3300
TECHNOLOGY
***VOCATIONAL EDUCATION PROGRAMS***
There are no Vocational Education Programs related to this Career Exploration Script.
***POSTSECONDARY PROGRAMS***
022
BIOMEDICAL ENGINEERING
Programs in Biomedical Engineering provide opportunities to gain the knowledge and skills necessary to utilize principles of engineering and the bio-behavioral sciences, conduct life-systems research, and design life- support apparatus. Biomedical Engineers work in industries which specialize in the design and development of biomedical equipment. Biomedical Engineers must complete undergraduate programs. Programs in electrical and electronics, chemical, mechanical or general engineering are completed before entering graduate Biomedical Engineering Programs.
Courses vary from school to school but may include:
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Microbiology for Engineers
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Digital Signal Processing
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Artificial Implants
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Dynamics of Biochemical Systems
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Bioengineering Physiology
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Life-Support Systems
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Neurophysiologic Systems
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Neuroscience
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Bioelectrical Research Methods
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Medical Imaging
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Materials Analysis
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Electrical Biophysics
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Biomechanics & Physiology of Work
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Circuits, Electronics, & Instrumentation
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Fundamentals of Ultrasonic with Medical Applications
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Biomedical Instrumentation & Design
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Engineering Aspects of Nuclear Medicine & Radiology
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058
ENGINEERING (PRE-PROFESSIONAL)
Pre-Engineering Programs provide opportunities to gain the knowledge and skills required for admission to professional engineering colleges.
Many Michigan colleges and universities offer programs which may satisfy the prerequisites for admission to engineering schools. Students should contact the engineering schools of their choice for admission requirements and consult their school's pre-professional adviser to ensure that admission prerequisites will be met.
Courses vary from school to school but may include:
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Chemistry & Physics
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Differential Equations
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Analytical Geometry
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Statistics & Dynamics
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Calculus & Linear Algebra
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Digital Computer Techniques
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Engineering Graphics
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Trigonometry
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The most common requirements for entering a community college are a high school diploma, or GED, or being at least 18 years old and completing application forms. In addition, entering a college or university may require graduation from high school in a college preparatory program, a grade point average acceptable to the school to which you apply, and passing entrance examinations.
Search for a College and/or Instructional Program
***APPRENTICESHIP OPPORTUNITIES***
There are no Apprenticeships related to this Career Exploration Script.
***MILITARY TRAINING PROGRAMS***
Please check the Military website at
http://www.myfuture.com
.
CIVIL ENGINEERS
Airfields, roads, bridges, buildings, power plants, docks, and water treatment plants on military bases around the world are continually being built, repaired, and improved. Civil engineers plan, design, and direct the construction of military facilities.
What They Do
Civil engineers in the military perform some or all of the following duties:
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Study the need for roads, airfields, buildings, and other facilities
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Direct surveys of construction areas
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Design construction projects
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Help select contractors to build facilities
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Check construction progress to see that it meets plans
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Plan and direct facility maintenance and modernization
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Plan temporary facilities for use in emergencies
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Keep master plans for military bases up to date
Special Requirements
A 4-year college degree in civil, architectural, sanitary, or environmental engineering, or another closely related field is required to enter this occupation.
Helpful Attributes
Helpful attributes include:
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Interest in engineering principles and concepts
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Interest in working with mathematical formulas
Training Provided
No initial job training is provided to officers in this occupation. However, advanced courses are offered to support medical service and environmental control building programs.
Civilian Counterparts
Civilian civil engineers work for engineering firms, construction companies, and government agencies. Some may work for public utilities, railroads, and manufacturing firms. Civilian civil engineers perform duties similar to those performed in the military; however, they often specialize in certain types of projects.
Work Environment
Civil engineers work in offices when designing projects or reviewing reports. They work outdoors when overseeing survey or construction activities.
E-Learning Courses and Programs
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OPPORTUNITIES FOR EXPERIENCE AND METHODS OF ENTRY
Scientific and technical hobbies may provide preliminary exploration into this field. The Junior Engineering Technical Society (JETS) will offer high school students a chance to explore this field. College students may enter a postsecondary program in biomedical engineering. Cooperative education programs in biomedical engineering are available through various departments and agencies of the federal government. Military service may offer an opportunity for experience also.
School-to-Work opportunities include:
informal apprenticeships
mentorships
job shadowing experiences
touring a local Biomedical Engineer employer
internships
volunteer work with a Biomedical Engineer employer
community service work with an agency
Direct application to employers and taking civil service examinations are usual methods of entering the field. Jobs may be located through newspaper want ads, medical and professional publications, college placement offices, and college faculty members. In addition, you should access and search the Internet's on-line employment services sites such as:
You should also enter an electronic resume on these on-line services.
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EARNINGS AND ADVANCEMENT
The earnings of Biomedical Engineers depend on their education, experience, responsibilities, capabilities, or certification as well as type, size, and location of the employer. Generally, Engineers in administrative, sales, or consulting positions earn more than those in research or teaching positions earn.
Nationally, recent graduates of Bachelor's degree programs in Biomedical Engineering had beginning average salary offers of $75,500 in early 2009.
In early 2009, experienced Biomedical Engineers earned average salaries of $55,200 per year, with earnings ranging between $45,000 and $61,300 annually, while those in senior-level positions earned average salaries of $70,500 per year, with earnings ranging between $55,100 and $72,300. Some Directors of Biomedical Engineers earned average salaries of $ 89,800 (early 2009) per year. Biomedical Engineers in manufacturing generally earned more.
Beginning salaries for Biomedical Engineers with bachelor's degrees and employed by the federal government in 2009 were $35,135 or $43,521 annually, depending on their academic record. Engineers with master's degrees started at $43,521 or $53,234, while those with doctorates started at $53,234 or $61,362. The salaries of these federal government workers may be higher in some urban areas.
Biomedical Engineers employed in public colleges and universities earn salaries similar to wages of other engineering faculty members. Full professors of engineering earned salaries averaging about $130,446 in the 2007-2008 school year. New assistant professors of Engineering earned salaries averaging $71,922 per year. Some supplement their income by consulting and writing.
Depending on the employer, fringe benefits may include paid vacations, holidays, and sick leave; life, accident, health, and disability insurance; retirement plans; and tuition reimbursement. Engineers employed in hospitals may also receive dental and optical insurance. Some employers may offer stock purchase or savings plans.
Most graduates of Bachelor's and Master's degree programs in biomedical engineering start out as trainees. Others with backgrounds in aerospace, chemical, electrical, industrial, or mechanical engineering obtain a degree in biomedical engineering or take additional coursework to enter the field. After obtaining experience, Biomedical Engineers may enter managerial, administrative, or teaching positions. A career ladder may look like this: engineering trainee, Biomedical Engineer, lead engineer, manager or administrator. Advancements are usually based on experience, skill level, certification, completion of advanced degrees, and supervisory ability.
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EMPLOYMENT AND OUTLOOK
Nationally, there were about 14,400 Biomedical Engineers employed in 2006. However, the demand for Biomedical Engineers is expected to be much greater than the supply. Although the actual number of job openings is not likely to be very large, employment should grow much faster than the average for all occupations through the year 2016.
Opportunities will be best for Engineers with advanced degrees. Greatest demand will be in teaching, medical research, and systems for the delivery of health services. The industry distribution for Biomedical Engineers looked like this:
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NAICS Code
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NAICS Industry Title
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% Employed
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540000
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Professional, scientific, and technical services
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25.2
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339000
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Miscellaneous manufacturing
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20.1
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325400
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Pharmaceutical and medicine manufacturing
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15.7
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622000
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Hospitals, public and private
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12.6
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611300
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Colleges, universities, and professional schools, public and private
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4.9
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420000
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Wholesale trade
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2.9
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919999
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Federal government, excluding postal service
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2.5
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--
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Others
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16.1
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To find employers, click
Employer/Business Locator.
Biomedical Engineers are also employed by the federal government in the Veterans Administration, the Department of Health and Human Services, the Department of Education, the Department of Defense, the Department of Transportation, the National Aeronautics and Space Administration (NASA), and the Federal Aviation Administration (FAA).
Employment opportunities will be favorable because of the growth in the number of people requiring medical care, increased spending on research and development of biomedical instrumentation, and other related programs. With more stringent safety regulations, Clinical Engineers may be required on the staffs of some large hospitals.
In medical institutions and the federal government, opportunities are best for those with masters or doctoral degrees. Career opportunities for persons with bachelor's degrees could be provided by increased federal regulation of medical devices, mass health screenings, the implementation of National Health Insurance, and more services related to the expansion of medical technology.
Employment opportunities in industry are best for experienced mechanical or electrical engineers with additional training in biomedical engineering.
Research and development efforts are expected to expand in the applications of miniaturization and high speed computing. Recent developments by Biomedical Engineers include: telemetry systems which allow constant monitoring of patients by medical personnel while they move freely around the hospital; the refinement of lasers for microscopic surgery in the eye and for precise surgery on other body parts; and the design and development of artificial heart valves used to replace diseased valves.
Approximately 125 Biomedical Engineers are employed in Michigan. The employment of Biomedical Engineers in Michigan is expected to increase much faster than the average for all occupations through the year 2014. Less than 10 annual openings are expected each year.
MICHIGAN
'S EMPLOYMENT OUTLOOK TO 2014
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EMPLOYMENT
REGION
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NUMBER
EMPLOYED
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PERCENT
GROWTH
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PROJECTED
YEARLY JOB
OPENINGS
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MICHIGAN - State-wide
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125
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28.2
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6
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Ann Arbor Area
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40
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26.3
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2
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Detroit Area
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40
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22.7
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2
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Upper Peninsula
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25
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14.8
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1
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*NOTE: Areas may not add up to state-wide total due to rounding, sampling or statistical errors, and/or confidentiality issues.
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SOURCES OF ADDITIONAL INFORMATION
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National Society of
Professional Engineers
1420 King St.
Alexandria , VA 22314
(703) 684-2800
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National Council of Examiners for
Engineering and Surveying
P.O. Box 1686 (Seneca Creek Road)
Clemson, SC 29633-1686 U.S.A.
(800) 250-3196, (864) 654-6824
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The Association for the
Advancement of Medical
Instrumentation
1110 North Glebe Road, Suite 220 Arlington, VA 222014795
(703) 525-4890
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Biomedical Engineering Society
8401 Corporate Drive, Suite 140
Landover, MD 20785 -2224
(301) 459-1999
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Michigan Society for Clinical
Engineering
P.O. Box 374
Bloomfield Hills , MI 48303-9998
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American Institute of Physics
Career Services Division
One Physics Ellipse
College Park, MD 20740-3843
(301) 209-3100
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Radiation Research Society
810 E. 10th St.,
Lawrence, KS 66044
(800) 627-0326
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Foundation for Biomedical
Research
818 Connecticut Avenue, N.W.
Suite 900
Washington , DC 20006
(202) 457-0654
|
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College Placement Offices
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Institute of Biological Engineering
1020 Monarch St, Ste 300B
Lexington, KY 40512
(859) 977-7441
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Local Military Recruiters
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The American Society of Agricultural
and Biological Engineers
2950 Niles Rd.
St. Joseph, MI 49085-9659
(313) 269-0300
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Copyright © 2009 Michigan Department of Energy, Labor & Economic Growth