Online Radiologic Technology Schools offer affordable, flexible, and convenient degree programs to busy, working adults. Online colleges and universities allow the option of learning at home at your own convenience. Distance learning is a convenient way to study anywhere via the Internet through online schools, colleges, and universities.

Radiologic Technology is a medical specialty that incorporates imaging to diagnose and treat diseases. Associate degrees and certificates in Radiologic Technology include x-ray and radiation, while advanced degrees in Radiologic Technology from four-year institutions are possible in ultrasound, fluoroscopy, computed tomography (CT), magnetic resonance imaging (MRI), and in nuclear medicine.

Training programs in Online Radiographic Technology schools, colleges, and universities range in length from one year for a certificate to about two years for an associate degree. Two-year associate degrees are most common. Bachelor and degrees in Radiologic Technology take longer.

Programs of study may include office skills and office management, as technicians of Radiologic Technology may be responsible for maintaining records and equipment, managing a radiology department, or preparing work schedules.

Most positions in Radiologic Technology are found in hospitals, but many positions are in physicians’ offices, medical and diagnostic laboratories, imaging centers, and outpatient care centers. Opportunities in the field of Radiologic Technology are very favorable, as reports indicate that it is difficult to find enough well-prepared technicians to fill the number of positions available.

The number of positions available in health care fields is growing rapidly – including cardiovascular technology jobs. Jobs in cardiovascular technology are those in which people assist physicians and other medical professionals in matters related to the heart and circulatory system. Unlike many positions in the field of medicine however, cardiovascular technology training can be completed in two years.

Those who work at cardiovascular technology careers assist physicians in the diagnosis and treatment of heart conditions and disorders of the blood and circulation. Jobs in cardiovascular technology fall into one of three major areas: invasive cardiology, echocardiography, and vascular technology.

One of the more interesting cardiovascular jobs is that of a cardiovascular technician. Students who undergo cardiovascular technology training in this particular field learn to administer electrocardiograms (EKGs) and stress tests as well as Holter monitors.

At cardiovascular technology schools, students also learn how to prepare patients for cardiac catheterization and balloon angioplasty. In cardiovascular careers, trained medical professionals monitor blood pressure and heart rate, using EKG equipment in the course of examinations as well as during major surgery.

Another interesting choice among the many cardiovascular technology jobs is that of diagnostic medical sonographer. These workers use ultrasound technology in order to conduct noninvasive examinations of the heart. The instrument scans the patient’s heart with sound waves, providing a picture of conditions inside the heart. As a sonographer, you would need to be able to explain the procedure to the patient, program the equipment and record results.

Cardiovascular technology education may take place online as well as at a traditional brick and mortar school. By preparing for a cardiovascular career over the Internet, you’ll be able to fit most of the coursework around your own schedule – and many courses can be taken at your own pace. Later, when you come to a point in your cardiovascular training that requires actual hands-on clinical experience, the online school can arrange this at a local hospital or other medical treatment facility.

Radiologic Technology Schools, colleges, and universities offer degree programs in medical specialties that incorporate imaging technology used for diagnosis and treatment of diseases.

Associate degrees and diplomas in X-ray and maxillofacial radiologic technology can be obtained in two-year programs. Advanced radiologic technology degrees in ultrasound, fluoroscopy, computed tomography (CT), magnetic resonance imaging (MRI), and nuclear medicine require lengthier studies at four-year institutions.

Programs of study in Radiographic Technology Schools , colleges, and universities may include office and business management courses, as some radiologic technology positions will include responsibilities of managing a radiology department, maintaining records and equipment, research and purchase of equipment, and preparing work schedules.

Hospitals, medical and diagnostic laboratories, imaging centers, outpatient care centers, and physicians’ offices require the services of trained radiologic technology professionals. Opportunities in Radiologic Technology are very good, as well-prepared technicians are too few to fill the number of available positions.

There are a lot of choices when it comes to health care education, and one of the most interesting would have to be medical technology training. The best medical technology schools across the US and Canada will be approved by national accrediting agencies. Only accredited schools are fully qualified to help you learn to be a certified medical technologist.

Medical technology schools can teach you all of the skills and professional methods used in the laboratory by professionals. You will gain much experience using modern laboratory equipment such as microscopes, cell counters and other lab equipment and learn to identify abnormal cells in tissue samples and blood specimens. You will learn to recognize cancerous cells and to relate your findings to pathologists or other medical professionals. Of course, there is much more to it, and you can request course curriculums from your choice of schools to see what is involved.

Training in medical technology is readily available in hospitals and medical schools, or you can earn an Associate degree (AS) at a community college, vocational or trade school. The AS degree will be the first step that will qualify you to enter a bachelor degree program (BS) to complete your training. To be employed as a medical technologist almost always requires a minimum of a bachelor degree with a major in medical technology or one of the life sciences, as well as certification from a nationally accredited agency, such as American Medical Technologists (AMT).

In short, a community college, hospital or trade school will be a great place to start your education and obtain your AS or even your BS degree in medical technology. You will find trade schools, vocational schools and even some online schools offering good undergraduate programs and excellent entry-level health care training.

Electronic Medical Record

The electronic medical record, or EMR, has been redesigned by technology to suite the 21st century medical practice. The entire process has been wrapped around your finger. In other words, information, records, superbill, transcription, soap notes, and medical procedure codes are all at your finger tips.

All electronic medical records have been organized and stored in a variety of ways, usually depending on the needs and budget of the practice. Often, multiple databases store patient information, medical collection, medical transcription, and other information vital to effective medical practice management.

Technology has simplified electronic medical records every step of the way by streamlining the databases, even for multiple offices of the same practice, in a secure online data environment. Another reason why technology has made electronic medical record so user friendly, is that it now saves practices money, through simple installation and management.

A Tour of the Medical Process

Technology can be a scary thing sometimes, so it is important to research the positives and negatives of adopting new technologies, especially in the medical profession. Accurate and complete information in an EMR system are a type of “preventative medicine,” which not only protects the patient but also the medical practice.

“Keep to the code” is not only a good line for a blockbuster pirate movie but also for medical practices. There are many codes to keep track of, and they are all necessary to keep around and refer to you. New medical office software includes easy access to icd9 codes, 2004 CPT codes, diagnosis code, and HCFA 1500 forms.

Medical office software also must be managed by a qualified medical billing specialist with a qualified HIPPA consultant available to assist in the processing of the electronic medical record. Medical office software puts practices in touch with qualified individuals to help process the electronic medical record.

In addition to working with codes and qualified consultants, medical billing software, medical claim software, and electronic claim processing combine their technology in order to manage all claims and billing, including Medicare billing. But, medical office software packages also remember to include access and management of every medical transcription job created on a transcription machine.

Electronic Medical Record Accessibility

In short, those who are not authorized have no access and those who are authorized have very simple and convenient access. Electronic medical records are secured and even backed up, allowing access codes and login information only to those who are authorized.

Those who are authorized not only have access at their office but also by medical billing PDA, which allows records and appointments to be managed on a PDA. Download medical palm is a convenient way to work with real-time information and to manage a medical practice, even when away from the office.

Technological Catch-22

The catch with technology will always be “fear not” on one hand, and “be careful” on the other. It is no different with new medical technology for medical practices. This article has provided terms and links to assist medical practices in getting started on learning new technology and making educated decisions on effective and affordable technology to adopt.

Clinical Vision. The Information Technology Business of McKessonHBOC, Inc., Alpharetta, GA, announced an expanded commitment to improved patient safety and reduced costs with [Horizon.sup.WP] Clinicals, an integrated suite of solutions. The suite features an expert physician order entry system with real-time clinical decision support, developed in conjunction with Vanderbilt University Medical Center, which has experienced a $3.5 million annual reduction in its pharmacy costs, www.hboc.com

For nearly a century, there was little change in the complex processes and procedures to develop, handle, transport and store hard-copy X-ray films.

Automation and manufacturing advances increased the speed of the film processing. However, at its core, it remained a chemical process. Even in the past decade, the stations at which hard-copy films could be viewed also went relatively unchanged–basically, a simple light box with no zoom or rotation capabilities.

Then, seemingly overnight, PACS arrived to supplant that technology, displacing tried and true methods with digital systems to examine and archive medical images. The new technology revolutionized the capture, movement, storage and display of medical images, and though old methods can die hard, innovative institutions, such as Oregon Health & Science University (OHSU) in Portland, Ore., found themselves, out of necessity, in a race to increase functionality.

Out With the Old, In With the New

OHSU’s approach to PACS somewhat mirrors the rise of their institution over the past 200 years. What began in 1867 as a medical education department at Willamette University in Salem, Ore., today sits on 263 acres atop Portland’s Marquam Hill. The OHSU campus encompasses two hospitals, OHSU Hospital and Doernbecher Children’s Hospital, with 447 beds and 31 buildings including clinics, administration, research labs and classrooms. Dental clinics, an eye institute and a child development and rehabilitation center are part of the institution, as well as a school of science and engineering, a primate research center, the Neurological Sciences Institute, and the Vaccine and Gene Therapy Institute. In 2005, OHSU provided more than 175,000 ambulatory services, with more than 39,000 ED visits, 24,900 hospital discharges, and 730,000 medical and dental outpatient visits.

OHSU purchased Agra’s IMPAX PACS in 1998, to address a growing need for a centralized repository of radiological images that could effectively service the entire organization, though, initially, only the radiology and pediatrics departments used it. Film cost was the primary motivation for switching to a PACS system, says Jon Hanada, systems manager, diagnostic imaging. “As soon as we converted, though, ,are knew it was more than just film cost we would be saving, it was time. Time to get the images from the modality to the radiologists, and still get the same studies, the same images to the clinicians.”

OHSU’s radiology department is quite decentralized, says Erwin Schwarz, director of diagnostic imaging services. It is spread out between eight different locations at five different buildings, with pediatric services offered in all five. As OHSU grew, moving images among the various branches of the institution became problematic. According to Schwarz, “PACS was able to facilitate the transfer of images across the enterprise better than the traditional method of film.”

From 1998 to 2000, OHSU converted their children’s hospital from film to digital. They also scanned decades of prior film studies and slowly reduced their image library staff. Though their ROI initially was small, as a portion of OHSU’s entire operating budget, the full benefit was not yet realized. “The total volume of the children’s hospital is less than 10 percent of the institution,” says Schwarz, “so the full payback didn’t happen until we implemented the system enterprisewide.” After that, OHSU’s expenditures dropped from more than $500,000 dollars per year they were spending on film and image library FTEs to less than $25,000 on just film.

Digital Automation

Today, IMPAX is fully integrated into OHSU’s clinical and radiological systems, and the institution’s image library is a fully automated database. X-ray techs digitally capture a CR study, for example, examine it for anomalies, and, if necessary, rotate or brighten the images. Then the study is sent to the PACS with a header containing the patient’s name, medical record number and study I.D. This information is drawn from the RIS in HL7 format and converted into DICOM data that can be understood by the PACS.

When the study arrives at the IMPAX gateway (a server that identifies the study’s “type” by its DICOM header), another server, the broker, verifies that the study belongs to the correct patient and communicates that to the gateway. Then, based on routing rules defined by radiology, the gateway forwards the study to its next destination. If that destination is the Web, which is outside of the PACS, the Web server converts the data into formats that can be viewed by the clinicians at their locations.

Differing Workflows and Version 6

OHSU’s IMPAX PACS is an enterprisewide system in use by surgeons and radiologists, as well as clinicians to view images at the POC. More than 3,000 PCs are on the system, according to Schwarz, and they are primarily used by non-radiologists. “Anybody who needs to look at an image for healthcare delivery can use the PACS, whether it’s a nurse practitioner, an emergency room physician, a physician’s assistant or a surgeon,” he says.

CONSIDER the following hypothetical case. Someone invents a pill that prevents heart disease but has one side effect: if taken by a pregnant woman, it induces an abortion. Plainly, we would allow it onto the market because it has a universally acknowledged therapeutic use, Equally plainly, we would tie its sale to a doctor’s prescription to prevent abortion on demand far beyond the limits to which Roe v.

Wade has been carried. But would not some doctors, either financially unscrupulous or fanatically pro-abortion, then prescribe the pill to healthy pregnant women for use.

In July, more than 1,300 technology and health leaders attended the Secretarial Summit on Health Information Technology. At the conference, HHS released a report, “The Decade of Health Information Technology: Delivering Consumer-centric and Information-rich Health Care,” prepared by David Brailer, M.D., Ph.D.

The report outlines four major goals and strategic action plans for reaching those goals. It stresses the need to bring information to the point of care, interconnect physicians and hospitals with interoperable electronic health record systems, give patients access to their medical records, and use health-related technology to track and measure quality of care. In addition, the report identified potential policy options for providing incentives for using electronic health records and three phases of implementing the action plan.

Research on women’s pregnancy and childbirth experiences suggests that the use of medical technology alienates many women by minimizing the importance of their roles and their level of control over their bodies and birth experiences (Davis-Floyd, 1992, 1994; Sandelowski, 1994). Little research focuses on the experience of expectant fathers, either during pregnancy and labor, in general, or with medical professionals and technology, in particular. We address this gap in this study by examining the influence of medical technology on the pregnancy and childbirth experiences of both expectant mothers and their husbands.

This focus is important for two reasons. First, despite the cultural impetus favoring greater participation of fathers in childbirth, many men perceive a lack of emotional involvement–defined as a perceived closeness to or emotional investment in the pregnancy (May, 1982). Little is known, however, about the factors that influence this state. Identifying these factors is important because some evidence indicates that greater levels of perceived involvement among expectant fathers result in stronger attachment with the infant and lower levels of stress and conflict across the transition to parenthood (Ferketich & Mercer, 1989; May, 1982; Peterson, Leiderman, & Herbert, 1979).

Second, comparing expectant mothers’ and fathers’ experiences with medical technology can inform theories about the social control functions of medicalization. Medicalization is defined as “a process by which nonmedical problems become defined and treated as medical problems” (Conrad, 1992, p. 209). Theories that frame medicalization as a form of social control often suggest that women experience this form of social control more frequently and to a greater extent than men (Conrad, 1992; Riessman, 1983). Most studies of childbirth experiences in medical settings, however, include only women. This obscures the possibility that the medical environment may influence the behavior and experiences of expectant fathers as well as expectant mothers.

The potential for medical technology to influence the perceived involvement of expectant fathers has grown as their presence at their partner’s medical office visits and in the delivery room has become more common. The few studies that examine this influence, however, focus only on experiences during pregnancy. Our approach allows us to expand on previous work by examining the impact of medical technology on expectant fathers’ involvement, not only during their partner’s pregnancy, but also during labor and delivery.

Although men’s health, per se, is not medicalized during childbirth, the medical profession may still have an opportunity to exert control over expectant fathers by discouraging their active participation. Alternately, the medical context and the use of medical technology may encourage and facilitate greater father involvement. If the latter is true, it may have consequences for the ability of the expectant mother to exert control over the birth process. For example, as fathers–aided by the use of medical technology–participate more in childbirth, they may encroach upon their female partner’s ability to exert control over labor and delivery. Comparing the experiences of expectant mothers and their husbands allows us to determine whether differences exist in the impact of medical technology on expectant mothers’ and fathers’ perceptions of involvement in and control over pregnancy and childbirth.

Expectant Mothers, Medicine, and Control

Since the mid-1980s, much attention has been given to the role of the medical profession in women’s lives. This body of theoretical and empirical work provides evidence of the power of the medical profession, enhanced by its use of technology, to construct, define, and, ultimately, to control women’s reproductive health (Rothman, 1991). The medicalization of childbirth has been particularly important in this regard. Many people argue that the definition of pregnancy and childbirth as illnesses transforms women’s natural bodily processes into deviant behavior in need of correction and gives the medical profession the power to construct women’s views about the meaning of pregnancy and birth and to control, on a more immediate level, their involvement in these processes (Davis-Floyd, 1992; Martin, 1992; Rothman, 1991).

Cultural and historical analyses describe the process through which childbirth came to be medicalized (Starr, 1982; Sullivan & Weitz, 1988). Prior to the 19th century, childbirth was treated largely as a natural process requiring little or no medical intervention (Sullivan & Weitz, 1988). In the mid- to late-1800s, however, a number of social and cultural factors converged to open the door for medical involvement in the birth process. Primary among these was the struggle of medical practitioners to gain cultural authority and economic power in the United States and to increase demand for their services (Starr, 1982). A central component of this effort was the medicalization of pregnancy and childbirth and the elimination of the competition of midwives.