What are Voltage Stabilizers and what types are there?
Voltage stabilizersare used to protect machinery and electrical equipment from voltage fluctuations. This ensures that they always work at a constant voltage and maintain the quality of the power supply. The devices are very simple and intuitive to use, in our range we offer three types of voltage stabilizers, all equipped with a digital display for control purposes:
Servo motor stabilizers:These types of voltage stabilizers are used more frequently in the industry. On the one hand, they are extremely precise and very robust, which makes them idealfor a wide range of applications. There are different types of servomotors for this product range. Contact our technical staff for advice on the most suitable device for your project.
Static stabilizers: these are also very precise devices, which are also characterized by their speed of reaction to voltage fluctuations. They are also available as single-phase or three-phase models.
Relay Stabilizers:This version was developed especially for personal use. They are used when high accuracy is not required, but the voltage must always be within a certain limit. In addition, this variant of voltage stabilizers are also the most economical option.
What are the advantages of
voltage stabilizers?
All three different
devices have a standard response
rate with variations up to 90 V/s. Depending on what your requirements are, of course,
you can resort to a device, which offers an even faster reaction speed, such as static stabilisers.
As mentioned earlier, they are all easy to use and
equally intuitive to control via the digital display. In addition, the accuracy
of the output voltage is better than 1% for all devices.
Examples of applications for
voltage stabilizers
Stabilizers are used to regulate and stabilize the
voltage supplied to electrical equipment, as its name suggests. Some areas
where these types of electrical systems are installed may be in hospitals,
numerical control machines, computer equipment, laboratory equipment, and
radio/television transmission equipment.
Therefore, if you are using equipment that regulates the
supply voltage, you can contact us to work with our team of experts to see
which option would be best for your application.
Magnetic
surgery and magnets reduce pain and scarring
Magnetic surgery and
magnets in medicine reduce pain
Since last innovations of Dr. Guillermo Domínguez, frow now on, magnets in medicine will be common. Magnetic surgery reduces the need for multiple incisions by inserting powerful magnets through the navel and controlling them with magnetic arms on the outside of the body, greatly decreasing scarring by up to 66% and, of course, minimizing pain in patients.
This new technology, which has been born from the hand of
the Argentine doctor Guillermo Domínguez who uses this "surgery without
fingerprints" in adults. In 2016 the paediatric section of the Vall
d'Hebrón hospital implanted this technique together with Domínguez, with whom
they performed the first operations. Today it is the only Spanish centre to
perform operations with this minimally invasive technique.
This magnetic surgical system is composed of:
Magnetic Grasper device. Has a delivery/retrieval shaft removed from the trocar after delivery and application of the detachable tip.
Magnetic controller. It is positioned externally on the abdominal wall to magnetically attract the tip of the detachable intra-abdominal forceps and maneuver through the abdominal wall to achieve the desired retraction.
Removable tip. With a non-fixed pivot point, unrestricted angles of movement and retraction by the trocar or its location.
How does the magnetic
surgery system work?
A magnetic gripping device delivers and retrieves a
detachable tip that attaches to the gallbladder and can also be repositioned.
The magnetic clamp is adjusted through a single point of entry, such as the
navel, which would be the same access through which surgical teams are
inserted.
The permanent magnetis attached to a forceps and this is attached to the viscera or tissues that need to be moved, allowing the area to be cleared for the surgeon to work more comfortably and safely, as it is less cumbersome than using a surgical forceps.
The inserted magnet is directed from the outside with a more powerful magnet, called a magnetic controller, which is placed over the abdominal wall and used to maneuver the tip into the desired position. In this sense, the removal of the gallbladder can be performed with a single incision through the navel, unlike traditional or conventional techniques, which requires between three or four.
As a result, this results in a faster postoperative period,
with less pain and less scarring.
Laparoscopic surgery may require four or five multiport
incisions. Surgeons end up lacking triangulation when they move from a
multiport port to a reduced port model. This can lead to instrument shock and
poor visualization, leading to greater difficulty in the operating room and a
greater overall risk in performing the surgery. A port limits movement.
But, with magnets in medicine, a surgeon can let go, so that
mobility is not limited. In addition, the visibility of a single port is not
limited once a surgeon lets go. It's a little like driving. If you can see
well, you can go fast and safe. If you have to slow down, that costs more
resources.
Gallbladder removal is a very common procedure, representing
more than 700,000 surgeries in the United States each year, at a dramatically
high cost to healthcare providers. This, as well as other surgeries, can be
painful and costly, with long recovery times and powerful painkillers to achieve
it.
The company that has developed this technology has spent
more than a decade developing a magnetic surgical system to alleviate some of
the challenges associated with common procedures, beginning with the removal of
the gallbladder through a single incision.
By using magnets through the abdominal wall to maneuver
tools during surgery, surgeons can benefit from a better view of the operative
field.
At IMA we are up to date with new technologies such as the use of magnets in medicine. If you are interested in learning more about this and other topics, continue browsing our news section.
This website uses cookies so that we can provide you with the best user experience possible. Cookie information is stored in your browser and performs functions such as recognising you when you return to our website and helping our team to understand which sections of the website you find most interesting and useful.
Strictly Necessary Cookies
Strictly Necessary Cookie should be enabled at all times so that we can save your preferences for cookie settings.
If you disable this cookie, we will not be able to save your preferences. This means that every time you visit this website you will need to enable or disable cookies again.
Additional Cookies
This website uses the following additional cookies:
(List the cookies that you are using on the website here.)
Please enable Strictly Necessary Cookies first so that we can save your preferences!