Nuclear Medicine Technologists: Career Opportunities

Nuclear Medicine Technologists handle medical equipment, administer radiopharmaceuticals to patients, and observe the characteristics and functions of the relevant tissues or organs.

They create diagnostic images using cameras that detect and map the radioactive drug in a patient’s body, and they explain test procedures to patients. The images are interpreted by a physician.

Technologists keep patient records and operate diagnostic imaging equipment. They also assess the behavior of the radioactive substance inside the body.

In the U.S. there are about 20,000 people working as nuclear medicine technologists. Some 70% of the jobs are in hospitals. Other technologists work in offices of physicians or in medical and diagnostic laboratories, including diagnostic imaging centers.

Nuclear medicine technology programs are from 1 to 4 years, leading to a certificate, an associate degree, or a bachelor’s degree. Certificate programs are offered in hospitals, associate degree programs in community colleges, and bachelor’s degree programs in 4-year colleges and universities. Courses include physical sciences, biological effects of radiation exposure, radiation protection and procedures, the use of radiopharmaceuticals, imaging techniques and computer applications.

One-year certificate programs are for health professionals who already have an associate degree and wish to specialize in nuclear medicine.

Certification or licensure is required by many employers and an increasing number of states. Certification comes from the American Registry of Radiologic Technologists and the Nuclear Medicine Technology Certification Board. Nuclear medicine technologists are required to meet the minimum Federal standards on the administration of radioactive drugs and the operation of radiation detection equipment.

The Joint Review Committee on Education Programs in Nuclear Medicine Technology accredits most formal training programs in nuclear medicine technology.

Nuclear Medicine Technologists must be able to:

* have much physical stamina as they are on their feet much of the day and may lift or turn disabled patients,

* be sensitive to patients’ physical and psychological needs,

* pay attention to detail, follow instructions, and work as part of a team.,

* operate complicated equipment that requires mechanical ability and manual dexterity.

Job growth for nuclear medicine technologists is much faster than for all occupations, although the number of openings yearly will be relatively low because the occupation is small. Technologists with training in other diagnostic methods will have the best prospects.

How Much Do Nuclear Medicine Technologists Earn?

As of May 2004, the median annual earnings for nuclear medicine technologists were ,450. The middle 50 percent earned between ,720 and ,460. The lowest earnings were less than ,800, while the highest 10 percent earned more than ,300.

A Day in a Nuclear Medicine Technologist’s Life:

On a typical day a nuclear medicine technologist will:

* administer radiopharmaceuticals to patients,* monitor the effect of the drug on the tissues or organs,* operate cameras that detect and map the radioactive drug in a patient’s body,* explain test procedures to patients,* prepare a dosage of the radiopharmaceutical and administer it,* position patients for the procedure,* keep patient records,* operate diagnostic imaging equipment,* assess the behavior of a radioactive substance inside the body.

I hope this article gives you a good idea of what is involved in the career of a Nuclear Medicine Technologist. Health care is the largest industry in the world. In the U.S. about 14 million people work in the health care field. More new wage and salary jobs are in health care than in any other industry. (Some figures from Bureau of Labor Statistics.)

Nuclear Power vs. Photovoltaic Solar Panels

Article by HK Chaudhary

In the eve of the Second World War, in 1945, two bombs fell on Japan and the world shook. For the first time in all of man’s technological advancements, had we realized just how destructive weapons of war could be. As Japan lay burning and defeated, the War came to an end and nuclear power was realized as a potent force of the 20th century. By the 21st century, we have changed this force from an entity of destruction to a source of power. Power is one of the primary concerns of man, for modern life is impossible without it. For progress and survival, electricity supply has become vital. This is where there is a long ensuing controversy on how photovoltaic solar modules are also a viable source of energy.

Scientists are quite unbiased about the issue of using either nuclear or natural sources of power. In this age of development, technology is tapping into every resource. We are moving towards a huge strain on the energy requirements on the planet. Solar PV systems are just one of the many developments towards green energy. While only a handful of powerful nations have nuclear capability, the sun is accessible to us all. This is why multi crystalline solar modules are by far much more in demand than nuclear energy. But let us study the subject a bit more intricately in context –

Quantity vs. Safety

Polycrystalline solar panels are considerably a safe way to generate electricity from the light of the sun. As long as the sun provides sufficient light and radiant heat, the photo electric effect can help a photovoltaic solar panel generate electricity through the photoelectric effect. But this form of energy is both slow in production and very dependent on external factors like weather and climatic conditions.

Nuclear power on the other hand is not affected by any form of changes in the external surroundings. The immense power released in the decay of uranium, plutonium, or other radioactive elements is used to generate steam and thus in turn produce large amounts of electricity. However, nuclear power is extremely volatile and very sensitive. A little flaw in the process can cause a leak or a nuclear meltdown that could destroy entire geographical areas like Chernobyl in Ukraine.

Availability of Resources

The development of both nuclear power and multi crystalline solar modules is quite costly. However, a major difference lies in the procurement of the required materials. Silicon, the main substance required for making polycrystalline solar panels, makes up about 30% of the earth’s crust. Though it is very rare to find in its raw state, this metalloid can easily be extracted for photovoltaic solar panels.

The radioactive elements that are used to generate nuclear power are extremely rare and very costly to process. Most of the radioactive elements came to earth from outer space in our planet’s primordial past. Today, they are extremely costly to make a viable source of power, and hence only a few of biggest nations in the world can afford to develop this form of energy. This factor of easy availability of materials is one of the major reasons for the popularity of photovoltaic solar modules.

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Complex Services for Nuclear Power Technology Test Facility in China Conducted SGS

Article by Patrizia Schulz

SGS Industrial Services was assigned a contract to conduct complex third-party services in a groundbreaking project with a passive-core cooling system test facility for large-scale nuclear power technology CAP1400, based on the advanced AP1000 pressurized water reactor, in China, on June 21, 2011. During the entire contract, scheduled from August 2011 to December 2011, SGS will provide technical support in assessing equipment vendors bidding as well as conduct Inspection and Expediting services.

The purpose of the facility is complex testing at the cutting-edge of China


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