Thursday, June 22, 2017

Should Medical Facilities Outsource Medical Equipment Maintenance & Repairs?

Healthcare facilities often outsource their equipment support services to ensure medical equipment is always up and running. However, with health care costs being continually cut and medical funding reduced, many healthcare facilities have now been forced to look for ways to pay for operational costs more wisely.  This is done by improving the equipment maintenance and repair processes, thus ensuring the long-term reliability of the repaired equipment.
Outsourcing medical equipment can have a significant impact on a healthcare facility’s bottom line. This in part is due to the increased sophistication and specialization of equipment such as the refurbished linear accelerators, otherwise known as LINAC, as well as the integration with electronic networks, and the ever-increasing requirements for compliance, safety, reliability and accuracy.
Having an in-house by clinical engineer already on staff to work on simple adjustments and minor repairs can be more costly than paying an outside vendor.  Although it does empower clinical engineers to conduct as many repairs in-house as possible and provides a great opportunity for healthcare facilities to prevent downtime when waiting for an outside technician to get to the hospital.
On the other hand, outsourcing can eliminate the need to hire in-house resources. Therefore labor costs and operational costs can be minimized to a great extent. Instead of hiring an in-house engineer, a medical facility can hire a vendor only on a need be basis. The hired vendor will handle all resourcing needs by tapping into their pool of highly skilled, trained and certified technicians and depending on the facility’s size and levels of technology, outsourcing is beneficial because it will eliminate additional costs such as having a customer service call center and a technical helpdesk. This will not only improve operations but investing in an outsourced program will decrease the costs of managing clinical assets by using a strategic approach to servicing medical equipment.
There are many new independent firms with clinical engineering expertise and comprehensive medical equipment maintenance of the modern, sophisticated and high-end medical equipment that healthcare organizations can benefit from. The probability is that an in-house engineer would cost a hospital just as much as a hired vendor. Why not capitalize on the quality resources and support of such specialists, because medical devices continue to grow in sophistication with every passing day and the need for highly skilled service technicians will drastically increase in the near future.
Hiring a skilled outside vendor will ensure that you have one at your beck-and-call at all times. Nowadays, outside vendors offer remote service options to medical facilities, where the inside technician/ engineer lacks the scope of training needed to successfully implement a modern day equipment maintenance or is unable to do a sufficient job to a certain degree.
In addition to that, outsourced clinical engineering programs have the ability to track equipment inventory in real-time such as the equipment’s age and condition, its failure rate, and preventative maintenance scheduling. This is just a few more reasons to outsource medical equipment maintenance.
Acceletronics is an independent service company dedicated to delivering the best equipment performance and service reliability from Linear Accelerators and CT Scanners across all major brands and models. Learn more about Acceletronics and their selection of new and refurbished linear accelerators and CT scanners today at http://www.acceletronics.com.  To contact one of our LINAC experts call 610.524.3300.

Thursday, June 15, 2017

Benefits of Contracting a Private Medical Equipment Repair Company

There are a number of benefits that come with outsourcing medical equipment repairs. Technicians are trained to fix a countless number of medical devices. This ensures the hospital or medical center has access to professional technicians with expertise on any number of medical devices. Medical equipment never gives an advance notice for when it is going to stop functioning as it is intended. Outsourcing medical equipment repair ensures that you have a professional technician at a moment’s notice. To expect an in-house program to posses the scope of training that is needed to be successful in implementing repairs to a various number of different medical devices is a lot to ask. It is difficult to anticipate issues that will arise when it comes to complicated medical equipment such as linear accelerators and CT Scanners. Medical equipment is complicated by big data and oftentimes driven by compliance thus making it pertinent that it is repaired quickly and correctly. Independent linear accelerator companies provide services to a variety of companies that manufacture equipment such as Varian, Siemens, and Elekta linear accelerators. Since they are independent of the manufacturer they offer an advantage to clients because they are able to objectively aid in project repairs without vendor bias. They are also able to facilitate when it comes to purchasing equipment. Independent medical repair companies often associate with companies that offer new and refurbished equipment for sale incase repairs are unable to be accomplished at a reasonable price in a timely manner. There are a number of benefits to outsourcing medical equipment repairs such as reduced costs and higher quality. Reduced Costs The obvious benefit of contracting medical repair services is the decreased cost of operations that an experienced technician offers. Contracting outside sources eliminates the necessity to hire resources within the hospital. In house specialists not only require a salary but continued training that can be expensive. Hiring a company that provides the services you need when you need them can offer a standardized approach to repairs within your facility. This ensures the most economical approach at repair equipment quickly while providing patients with top notch equipment and abundant treatment options. Quality Medical equipment maintenance specialists render instance access to the highest level of technicians available for even the most complex medical devices. Independent service technicians are device trained often directly from the OEM. Technicians are provided with current service manuals, test fixtures, symptomatic tools, and they can participate during an ongoing training for highly enhanced medical equipment. It is extremely costly to expect in house technicians to have up to date training on the vast array of medical devices. An in house tech may be able to adequately maintain devices to a degree but detailed repairs should be left to trained professionals specializing in medical equipment repairs. Acceletronics is an independent service company dedicated to delivering the best equipment performance and service reliability from Linear Accelerators and CT Scanners across all major brands and models. Learn more about Acceletronics and their selection of new and refurbished linear accelerators and CT scanners today at http://www.acceletronics.com. To contact one of our Linac experts call 610.524.3300.

Wednesday, June 14, 2017

Compact linac designed for proton therapy

A design for a compact, fully linear accelerator for proton therapy has been developed by researchers at CERN. The linear design offers a higher beam quality than circular medical accelerators but – thanks to its high accelerating gradient – has a similar footprint (Phys. Rev. Accel. Beams 20 040101). The TULIP all-linac design Hadron therapy uses beams of high-energy particles, such as protons, to kill off tumours. Presently there are two types of particle accelerator used for hadron treatments: cyclotrons and synchrotrons. Both are circular accelerators, with the former using a constant magnetic field and a spiral beam path, and the latter accelerating particles around a fixed, circular orbit that is maintained by increasing the strength of the magnetic field as the particles speed up within the machine. Both accelerator types come with certain disadvantages. Cyclotrons have fixed beam-extraction energies, meaning that to target tumours at different depths within a patient's body, moveable absorbers must be placed in the beam's path to reduce its energy. The drawback of this, however, is that 99% of the beam energy is lost, the absorbers become activated, and beam scattering may generate secondary neutrons that can be hazardous for the patient. While synchrotrons do allow for the tuning of the output beam, adjustments take up to a whole second, making treatment times longer and more uncomfortable for patients. Both of these issues might be overcome by using a linear accelerator instead. The key advantage of linacs over circular accelerators lies in how the energies of their output beams can be adjusted in mere milliseconds with no loss in beam intensity, allowing for quick treatments and no beam scattering. Beams are adjusted by varying the radiofrequency amplitude and phase of the linac's final accelerating structure. Linacs typically come with a major drawback, however: the large space usually required to accommodate them is difficult to find within hospital buildings. A previous solution to this issue, developed by the TERA foundation, combined circular and linear accelerator structures into a so-called "cyclinac" concept. The design – the turning linac for proton therapy (TULIP) – presented a single-room facility enabled by having a commercial cyclotron on the floor, accelerating protons up to tens of MeV, which are then injected into a linac mounted on a rotating frame around the patient, which boosted the particles to 70–230 MeV, suitable for therapeutic use. Cyclotrons and linacs are not entirely compatible, however, being designed for beams with inherently different time structures, resulting in beam losses, instabilities and emittance growth. In a new study, Stefano Benedetti – a physicist at CERN and EPFL – and colleagues present an all-linac twist on the original TULIP design that overcomes these issues, thereby providing a higher beam quality while offering the most compact all-linac proton therapy design to date. "The idea is to have a linac-based proton therapy facility that is as compact as possible, so to have a product that fits, ideally, into already existing hospital buildings, saving on infrastructural costs," says Benedetti. This is achieved thanks to the collaboration between TERA and CERN, which has led to the development of new accelerating structures that can support higher electric fields, and resulting accelerating gradients, without risk of electrical breakdown. The TULIP all-linac design has a footprint of only 9 × 22 m, which would make it comparable with existing single-treatment beam cyclotrons and synchrotrons. The TULIP all-linac would be capable of delivering protons penetrating up to 33 cm into a patient's tissues, which would be comparable with other solutions. At the same time, the design results in particle losses being concentrated at energies below 5 MeV, reducing the shielding requirements in comparison with cyclotron facilities. The researchers are presently testing a prototype of a single accelerating structure – with promising results – and moving to develop similar designs suitable for accelerating carbon ions, but Benedetti says he is unsure whether CERN will develop a full prototype of the TULIP all-linac design. The proposed TULIP all-linac design "could stimulate new and innovative solutions for approaching the design of compact linear accelerators of protons," says Concetta Ronsivalle, a physicist from the Italian National Agency for New Technologies, Energy and Sustainable Economic Development, who was not involved in this study. Ronsivalle notes, however, that "such a delicate application as that of proton therapy will require a reduction of the complexity of the system in order to limit costs, and to increase reliability and operational simplicity." Original Source: http://medicalphysicsweb.org/cws/article/research/69024 Original Date: Jun 8, 2017 Original Author: Ian Randall

Monday, June 12, 2017

TheraView TBI gets 510k approval

TheraView and its Distributor Acceletronics are proud to present the first commercially available mobile Total Body Irradiation (TBI) detector. With its unique software features, radiation therapists can easily follow the entire TBI treatment. An easy setup on any Linac makes the patient treatment very efficient and accurate. During a live video stream the system will warn the user of any patient deviation by a change in color scheme or clinical audio alarm.  Please take a moment to visit our website TheraView page which has a link to the new TBI Imaging system brochure. We are available for an onsite or online demo at a convenient time to share this new product with you and your team. Contact us at info@Acceletronics.com or call 800-543-5144.  

Toll Free 1-800-626-8704 www.acceletronics.com

www.radparts.com

info@acceletronics.com

Tuesday, June 6, 2017

How Do Medical Linear Accelerators Work In The Treatment Of Cancer?

Linear accelerator offer many different medical uses. For example, the radiation put out by linear accelerators can crush the denial of an organ transplant; overpower the immune systems of patient’s blood, in essence the transplant, and correct positive neurological & cardiovascular illnesses.
The medical linear accelerator is a vivid case of what can be accomplished when scholars from different academic disciplines join to solve a problem. This 50-year-old accomplishment was a sign to the multidisciplinary method now named as the translational medicine.  According to the doctors, the linear accelerator is considered to be the most important cases of translational study that has happened globally. Oncology radiation equipment’s only focus on the intense X-rays for destroying a tumor without any sort of harm.
Key advantages of the linear accelerator include:
  • Smaller treatment plans
  • Speediness and accuracy
  • Effortless treatment
  • Nominal damage to close tissue.
Disadvantages of oncology radiation equipment;
  • These equipment’s limits are normally used for one purpose only.
  • Many devices and their related power supplies are compulsory, which expand the expense.
Treating growth is much more propelled today than it was only a couple of years back with a wide range of treatment alternatives accessible. Regularly a patient's treatment plan will call for radiation treatment as it is a standout amongst the most well-known medications for disease.
Radiation treatment is a critical instrument in the battle against tumor with two out of three individuals with growth experiencing some type of radiation treatment as a major aspect of their treatment. Radiation treatment utilizes uncommon gear to send high-vitality particles or waves, for example, x-beams, gamma beams, electron bars or protons to pulverize malignancy cells. It is utilized overwhelmingly for the treatment of strong malignancies.
Radiation treatment can be given in two diverse courses – from outside the body (outer bar radiation treatment) or inside the body (inner radiation treatment - Brachytherapy). Outer radiation treatment normally includes utilizing a machine called a linear accelerator that coordinates high-vitality beams from outside the body into the tumor.
The main utilization of linear accelerator in drug goes back to the 1950s. TrueBeam direct quickening agent is one such propelled machine fit for conveying a wide range of radiation like Intensity Modulated Radiation (IMRT), Image guided radiation (IGRT), stereotactic radiosurgery (SRS), stereotactic body radiotherapy (SBRT). These strategies utilize non-obtrusive tumor-annihilating radiation to treat malignancies all through the body while restricting harm to close-by solid tissue.
TrueBeam linear accelerator utilizes leveling channel free (FFF) photon pillars to wreck disease cells. An additional favorable position of utilizing linear accelerators in FFF mode is the stamped increment in measurements rates, up to 1400 MU/min and 2400 MU/min and this shortens abbreviate general treatment delivery time.
The high measurements are communicated with exactness and precision, bringing about the disease cells losing their capacity to imitate and biting the dust. Another principle favorable position of utilizing TrueBeam direct quickening agent is that its imaging framework enables doctors to track the tumor during treatment, despite the tumors movement because of normal breathing.
Acceletronics is an independent service company dedicated to delivering the best equipment performance and service reliability from Linear Accelerators and CT Scanners across all major brands and models. Learn more about Acceletronics and their selection of new and refurbished linear accelerators and CT scanners today at http://www.acceletronics.com.  To contact one of our Linac experts call 610.524.3300.