Tissue

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Bone healing

"Microrobots”: material morphs into bone

Researchers have developed a combination of materials that can morph into various shapes before hardening. The material is initially soft, but later hardens through a bone development process that…

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Multiple tumor tissue biomarkers

MOSAICA: next-generation biopsy technology

A new biopsy tool will enable scientists and clinicians to simultaneously profile many biomarkers in cells and tissues.

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In cardiac cells

Pop-up sensors measure electronic signals

A tiny ‘pop-up’ sensor monitors the electrical activity inside heart cells. The device could provide new insights into cardiac diseases, including myocardial infarction and arrhythmias.

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Tissue scarring

How a Covid-19 infection can damage the kidneys

The Coronavirus SARS-CoV-2 infects the kidneys and contributes to tissue scarring, as shown by researchers from Germany and the Netherlands.

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Intra-nasal administration

Microrobots for treating neurological diseases

The joint research team of Prof. Hongsoo Choi (DGIST) & Prof. Sung Won Kim (Seoul St. Mary’s Hospital), developed an hNTSC-based microrobot for minimally invasive delivery into the brain tissue…

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Immunological memory

How our lungs 'remember' a Covid-19 infection

After infection with SARS-CoV-2, where does the immune system store the memory to provide long-term protection against reinfection? Though numerous studies have examined blood to track immune…

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Organoid research

Structure formation in mini-organs

Many of the organ systems found in animals exhibit highly complex structures, which are essential for their various functions. How such structures develop during embryonic development is a central question in biology. Physicists led by Erwin Frey (Professor of Statistical and Biological Physics at LMU Munich) and Andreas Bausch (Professor of Cellular Biophysics at the Technical University of…

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After a heart attack

3D mapping of post-infarction scarring increases prognostic potential of cardiac MRI

A multidisciplinary team of scientists based at the Universidad de Valladolid and the Centro Nacional de Investigaciones Cardiovasculares (CNIC) has developed a highly efficient method for identifying the 3-dimensional features of the scar tissue formed after a myocardial infarction. The study was carried out in partnership with scientists and clinicians at Hospital Clínico San Carlos, Hospital…

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Up-converting nanoparticles technology

Digital pathology: tissue imaging patent granted

Imaging company Lumito has secured a European patent for an instrument and staining reagents based on UCNPs (up-converting nanoparticles) for imaging in scattering materials, such as human tissue. The instrument is intended for use in tissue diagnostics, to provide pathologists visual depictions of tissue samples as an input for making diagnosis. The technology is patented across three global…

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Hydrogel framework

Synthetic tissue with growing blood vessels developed

Using lab-created tissue to heal or replace damaged organs is one of the great visions for the future of medicine. Synthetic materials could be suitable as scaffolding for tissue because, unlike natural tissues, they remain stable in the organism long enough for the body to form new natural structures. A fundamental requirement for functional tissue is that blood vessels must be able to grow in…

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Customer Reference

And still it scans! 15 years of experience with Hamamatsu Photonics NanoZoomer

We recently had the pleasure of interviewing Dr. Peter Riegman from Erasmus University. Dr. Riegman is a Molecular Biologist and head of the Erasmus MC Tissue Bank. As an early adopter of digital pathology, Dr. Riegman purchased his first Hamamatsu Photonics whole slide scanner in 2005. It was a NanoZoomer HT, one of Hamamatsu’s very first production units, and it is still in daily use at…

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Digital pathology

Today’s tissue for tomorrow’s research

Specialist biorepositories are helping advance personalised medicine by supporting the availability of human tissue for research using digital pathology techniques. The pivotal role of the Glasgow Tissue Research Facility (GTRF) in making tissue available to shape new therapies and treatments was outlined in a presentation to the online “Transforming Digital Pathology – Integrating AI to Move…

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Nano science

Conductive hydrogel could replace brain tissue

Due to their tissue-like mechanical properties, hydrogels are being increasingly used for biomedical applications; a well-known example are soft contact lenses. These gel-like polymers consist of 90 percent water, are elastic and particularly biocompatible. Hydrogels that are also electrically conductive allow additional fields of application, for example in the transmission of electrical signals…

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Curbing collaterals

High energy radiotherapy ‘paints’ tumours, avoids healthy tissue

A radiotherapy technique which ‘paints’ tumours by targeting them precisely, and avoiding healthy tissue, has been devised in research led by the University of Strathclyde. Researchers used a magnetic lens to focus a Very High Electron Energy (VHEE) beam to a zone of a few millimetres. Concentrating the radiation into a small volume of high dose will enable it to be rapidly scanned across a…

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Regenerative medicine

Lab-grown ‘mini-bile ducts’ to repair human livers

Scientists have used a technique to grow bile duct organoids – often referred to as ‘mini-organs’ – in the lab and shown that these can be used to repair damaged human livers. This is the first time that the technique has been used on human organs. The research paves the way for cell therapies to treat liver disease – in other words, growing ‘mini-bile ducts’ in the lab as…

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Freefrom Reversible Embedding of Suspended Hydrogels

A 'FRESH' way to 3D-print tissues and organs

Research into 3D bioprinting has grown rapidly in recent years as scientists seek to re-create the structure and function of complex biological systems from human tissues to entire organs. The most popular 3D printing approach uses a solution of biological material or bioink that is loaded into a syringe pump extruder and deposited in a layer-by-layer fashion to build the 3D object. Gravity,…

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Digital pathology

An exciting new era for tissue microarrays

A new generation of tissue microarrays are delivering more efficient and time-effective solutions to answering complex clinical and scientific questions. Sitting at the core of this new approach is digital pathology, allowing specific and targeted analysis of small areas of tissue.

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Tissue analysis

Infrared spectroscopy as a diagnostic tool

New techniques of infrared-based technology are showing strong potential for cost-effective tissue analysis. Peter Gardner, Professor of Analytical and Biomedical Spectroscopy at the University of Manchester, outlined how hyperspectral imaging coupled with sophisticated computer algorithms can identify and grade cancerous tissue, as well as offer an indication of prognosis. The technique, he…

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