German China
Fig. 1: In many laboratories, multiple sacks of consumables such as cell culture flasks, pipette tips, laboratory gloves and packaging are accumulated every day. Do we really need all of this? (©luchschen - stock.adobe.com)
Plastic Waste in Life Sciences Laboratories

Tackling Waste: 5 Steps to Less Plastic Waste in the Lab

Life sciences laboratories are another area in which plastic waste can be reduced. Approximately 5.5 million tons of plastic waste are produced every year in life sciences laboratories alone, including items like pipette tips, nitrile gloves, cell culture flasks. In the age of global waste pollution and the ubiquity of plastic in the world around us, this is definitely too much. It can’t all be changed, but improvements are possible in some areas.

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Close up image of one node of the triangular honeycomb. The structure, which consists of air surrounded by ceramic, can be designed with specific porosity. (James Weaver/Wyss Institute)
Materials Research

3D-Printing — Lightweight Materials Inspired by Nature

Inspired by natural cellular structures, researchers at the Harvard John A. Paulson School of Engineering and Applied Sciences (Seas), the Wyss Institute for Biologically Inspired Engineering at Harvard University, and MIT have developed a new method to 3D print materials with independently tunable macro-and microscale porosity using a ceramic foam ink.

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Eager eye: The 3D camera detects the exact position and layer height of the pens by scanning the complete top layer in the bulk box after each pick of the robot. This image allows the pens to be taken out of the box with high-level precision. (Lukas Gojda/Fotolia.com, Schubert Packaging Systems, [M]-Sahlmüller)
Packaging Solution

Automated Handling of Sensitive Products with Novel 3D Technology

In order to expand its capacities and modernise its packaging line, those responsible for the location of a large biotechnology firm in the Netherlands were looking for a new system to pack vials and pens in different configurations. Automating this small-component packaging task would open up the possibility of increasing efficiency and saving production costs. At the same time, the chosen packaging solution needed to offer a high level of flexibility and precise handling.

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The image, created with OPT, shows the pancreas of a healthy mouse. The individual pancreatic islets have been color-coded and their exact volume and 3D-coordinates can be precisely determined throughout the pancreas. The exocrine pancreatic tissue (in grey) has partly been digitally removed.  (Ulf Ahlgren)
Molecular Medicine

3D Visualisation: New Tool in Diabetes Research

Swedish scientists have developed datasets that are able to map the three-dimensional distribution and volume of the insulin-producing cells in the pancreas. The visual and quantitative data of this development could become a valuable reference resource for diabetes researchers. The Umeå University researchers are publishing these datasets in the Nature Research journal Scientific Data.

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