COMPAMED - The trade fair for suppliers and manufacturers of medical technologies invites you to Düsseldorf / Germany from 12 - 15 November 2018.

Video

Arriving safely in the laboratory: protective bags for specimen transportation

The transport of clinical samples requires the reliable protection of both the shipped sample and its environment. The right packaging plays a crucial role. We have visited the Versapak Company, which makes –among many other items- protective bags used for the safe transportation of clinical samples.

Watch more videos in our MediaCenter

Special

Image: technical interior of a smartphone and a screwdriver; Copyright: panthermedia.net/JamaL1977a

Wearables and their technology: discreetly intelligent

Wearables greatly help in the medical field to measure various parameters such as heart or respiratory rate – discreetly in the patient's everyday life. However, there are some devices that are perceived as uncomfortable or even disturbing. This can not only impair the well-being of the patient but also falsify the results. In our Special you will learn how wearables and their technology are getting lighter, more inconspicuous and thus can be used better.

Click here for our current Special!

Photo: Visitor of the exhibition examines product samples in a display; © Messe Düsseldorf

Search exhibitors & products online

MEDICAlliance – Conquer new markets - Be part of our worldwide medical technology trade fairs

Photo: e ticket and bar code scanner at the turnstile; Copyright: Messe Düsseldorf

Register now and save your COMPAMED admission ticket

COMPAMED talks about...

Image: Rainbow-colored markings on a piece of metal; Copyright: photonicfab

Product piracy: Unique laser markings protect components

Safety is a top priority in medical technology. Not only does this apply to finished medical devices, it also pertains to individual components: Counterfeit parts jeopardize the proper functioning of a device and consequently the patient. In the future, suppliers could use color laser markings to protect components from forgery.

Read the interview with Carl Gehrmann here

Top News

Image: analysis of proteins; Copyright: pantermedia.net/Leonid Andronov3D printing by direct laser writing enables production of micro-meter-sized structures for many applications, from biomedicine to

3D inks that can be erased selectively

New technology developed by a team of McGill University scientists shows potential to streamline the analysis of proteins, offering a quick, high volume and cost-effective tool to hospitals and research labs alike.

Click here for our current TopNews

Image: three-dimensional microstructures made of various cleavable photoresists; Copyright: Nature Communications

3D inks that can be erased selectively

3D printing by direct laser writing enables production of micro-meter-sized structures for many applications, from biomedicine to microelectronics to optical metamaterials. Researchers of Karlsruhe Institute of Technology have now developed 3D inks that can be erased selectively. This allows specific degradation and reassembly of highly precise structures on the micrometer and nanometer scales.

Image: the nanomushroom chip ; Copyright: OIST

Chips, light and coding moves the front line in beating bacteria

The never-ending fight against bacteria has taken a turn in humanity's favor with the announcement of a tool that could give the upper hand in drug research. Bacterial resistance to antibiotics has produced alarming headlines in recent years, with the prospect of commonly prescribed treatments becoming obsolete setting off alarm bells in the medical establishment.

Placenta on a chip

In order to better understand important biological membranes, it is necessary to explore new methods. Researchers at TU Wien (Vienna) have succeeded in creating an artificial placental barrier on a chip, using a high-resolution 3D printing process.

Image: analysis of proteins; Copyright: panthermedia.net/Leonid Andronov

New technology can detect hundreds of proteins in a single sample

New technology developed by a team of McGill University scientists shows potential to streamline the analysis of proteins, offering a quick, high volume and cost-effective tool to hospitals and research labs alike.

Image: gloved fingers showing a flow sensor on a stent backbone; Copyright: Woon-Hong Yeo, Georgia Tech

Integrated sensor could monitor brain aneurysm treatment

Implantation of a stent-like flow diverter can offer one option for less invasive treatment of brain aneurysms - bulges in blood vessels - but the procedure requires frequent monitoring while the vessels heal.

Image: hand with tweezers takes material from an open machine; Copyright: Peter the Great St. Petersburg Polytechnic University

Unique materials to repair damaged organs and tissue

Tissue engineering is the future of medicine. Under Project 5-100, the Polymer Materials for Tissue Engineering and Transplantology Laboratory of Peter the Great St. Petersburg Polytechnic University (SPbPU) created unique polymeric materials for medical purposes that repair traumatized human organs.

Image: lab assistant looking at something in a petri dish; Copyright: panthermedia.net/kasto

Sensor could help doctors select effective cancer therapy

MIT chemical engineers have developed a new sensor that lets them see inside cancer cells and determine whether the cells are responding to a particular type of chemotherapy drug.

Image: 3D printed and brightly colored dragon; Copyright: American Chemical Society

Fast, cheap and colorful 3D printing

People are exploring the use of 3D printing for wide-ranging applications, including manufacturing, medical devices, fashion and even food. But one of the most efficient forms of 3D printing suffers from a major drawback: It can only print objects that are gray or black in color. Now, researchers have tweaked the method so it can print in all of the colors of the rainbow.

Image: Coloured CT-images of a lung; Copyright: Guillem Garaulet and Francisca Mulero, CNIO

Nano-carrier to release drugs into damaged cells

In the Cellular Plasticity and Disease lab headed by the ICREA researcher Manuel Serrano at the Institute for Research in Biomedicine (IRB Barcelona) and supported by "la Caixa" Banking Foundation, the researchers devise strategies to eliminate senescent cells.

Image: A female dentist is looking at the X-ray image of a patient's teeth; Copyright: panthermedia.net/Milan Markovic

Ground-breaking flexible X-ray detector

In a study published in Nature Communications, researchers from the University of Surrey's Advanced Technology Institute (ATI) detail how they have developed an x-ray detector by embedding oxide nanoparticles in a bulk organic structure that allows for large area detectors to be produced inexpensively.