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3D-Bioprinting and additive manufacturing

3D-Bioprinting
3d bioprinting

Through 3D-printing it is possible to build biological structures by combining a biological, or synthetic material, with living cells. 3D-printing can e.g. be used to evaluate biological responses to pharmaceuticals or chemicals and can also be used in the development of future human spare parts. Within the manufacturing process, RISE develops competence and studies the characteristics and functions of 3D-Bioprinting systems.

Laboratory testbeds (LT)
Västra Götaland Region

Patrik Stenlund

Forskare
+46 10 516 58 30 Read more about Patrik
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Division: Division Bioeconomy

The 3D-printing technology, also known as additive manufacturing, are used to build structures or components layer by layer. When it comes to 3D-Bioprinting, living cells and support materials are combined to build structures similar to living tissues. An interesting aspect is that the printed structures can be used as systems for testing different biological effects, e.g. those of not fully developed pharmaceuticals, and chemicals in general. In the long term it is believed that 3D-Bioprinting may advance the development of transplants that can replace damaged or failing tissues and organs.

At RISE we perform research on new materials and implementations of 3D-Bioprinting within e.g. cancer research. The research projects are done in collaboration with medical industries and clinical research groups. Apart from 3D-Bioprinting, the establishment includes research and development of 3D-printing of a broad variety of materials, with a focus on health technical implementations, where surface modification, material characteristics, modeling, and geometry assurance hold great value.

We offer development of methods and printable materials and functionalize them to suit the specific application. We have a large infrastructure of different printing technologies within the institute. Lastly, we also offer characterization and evaluation in vitro and in vivo.

Health and Life Sciences
Additive manufacturing Life Science Pharmaceuticals
Not applicable
2019
Division (OLD): Division Bioeconomy Medtech Sekundär områdes navigation:
Additive manufacturing
Medtech
Biotechnology
Biobased materials
Drug development

COSMO@HOME

COSMO@HOME
Magnetic resonance imaging where the patient's experience is different

COSMO@HOME aims to develop a digital tool for children to prepare at home for upcoming MRI
scans to avoid sedation during the scans themselves.

Utvecking av prototyp
Active
Design Pharmaceuticals Medical devices
3 år
5 000 000 SEK
Division: Division Digital Systems and Societal Transformation

The app will contain different personalized modules such as exercises and games to learn to lay still or breathe deeply. One module may allow to experience a scan in virtual reality and another parental module would provide background information. The aim is to reduce the number of sedations with 20%, which will lead to a decrease in hospital time, cost reduction and improved healthcare.

To be able to carry out successful MR scans on children without sedation, a novel preparation protocol has been developed called COSMO. COSMO is designed to achieve MR acquisitions with awake children as young as four years of age in a time and resource efficient manner. This without mock scanners, lengthy preparation procedures or repeated hospital visits. The children are prepared by immersing them in a fantasy, child friendly and engaging story, which is told and performed by trained hospital staff.

The aim of this project is to scale up the COSMO protocol by creating a digital COSMO tool that can be used by children and parents to prepare for the scanning sessions at home. Such a tool will bypass or limit the need for dedicated staff members and is as such far more scalable and cost-effective than the current approach. In this project, we will design and implement the tool based on prior knowledge of all the partners to achieve optimal success, a maximal number of scans without the need for sedation. The tool will be tested in 3 different hospitals to evaluate its effectiveness, efficiency and clinical impact.

Marie Sjölinder

Senior Researcher
+46 70 776 15 96 Read more about Marie
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Project end date: Digital health Sekundär områdes navigation:
Design
Medtech
Service innovation

Smart Cold Chain Indicator Label

Smart Temperature Monitoring Label
Smart Temperature Monitoring Label with Last Mile indicator

A miniaturised temperature logger based on printed electronics for drug monitoring in field holds a potential for multimillion deployment. This sCCI, smart Cold Chain Monitoring system, with an electrochromic display for Last Mile readout, moves closer to industrial production.

Design and integration
Active
Digital infrastructure Digital health Electronics Mobility services Printed electronics
20 months
8MSEK
Division: Division Digital Systems and Societal Transformation
TSS
Image: MSF

”The potential with the printed sensor is tremendous and will provide a much better aid allowing the end-user to determine if the product is usable or not. The further out into the field you are, the harder it is to maintain the right temperature in the logistic chain which is vitally important in maintaining the quality of the vaccine or the medicines and in the end it affects the care we give our patients. Other alternative transport solutions available today are often very expensive", says Marpe Tanaka at the Innovation Unit at MSF/Doctors Without Borders.  Please note: MSF is not an active part in this project but played an important role in defining the initial project. This second phase focuses on upscaling industrially.

Drug transport in hot climates are particularly vulnerable, especially in conflict remote areas where transports are made under difficult conditions. This is a problem the organization Médecins Sans Frontières (MSF) International (Doctors Without Borders) and many other humanitarian organisations such as PATH, GAVI, WHO and UNICEF would like to solve. In co-operation with MSF, RISE has developed a demonstrator of an low-cost, all-printed hybrid temperature sensor for simple and efficient monitoring of drugs in field. 

The temperature sensor consists of printed components and silicon chip, forming an integrated measuring system for the monitoring of temperatures. This sensor system can track if a package with sensitive drugs, such as vaccine, has been exposed to temperatures outside a predefined interval. The result is presented on the integrated display. The temperature sensor tag can also be attached on the package after a repackaging which allows for a surveillance that can be flexible and adapted to different situations.

The original idea for the sensor platform came from MSF within the framework for the open innovations project ”PEA Open” which is financed by the European regional development fund. The idea originated in MSF, looking for ways to create better and cheaper temploggers by a complete analysis of the supply chain into the Last Mile. A project report by MSF is found here.

With the financial help of Swedish Innovation Agency Vinnova, two projects have been focusing on the development of the system

- one aiming at creating a proof of concept and a minor field study to check robustness and usability

- the second, ending in June 2019, is aiming at upscaling and securing the production chain for the sCCI.

Bioactive substances such as vaccines are heavily affected by temperature fluctuations. To make sure that they are still active, the integrity of the cold chain is heavily monitored in pharmacology. Since great values and lives are at stake, there's a multitude of actors in the humanitarian field who are constantly trying to improve the Cold Chain: PATH, GAVI, WHO, Unicef and MSF  among others.

To date, many parties have taken part in the development of the system and we'd like to thank all involved so far:

MSF Swedish Innovation Unit, MSF OCA,  Beneli, TU Delft, PATH, FLEX, Imprint Energy and TSS

Image: MSF, Louis Potter
Image: MSF

Länk till video:  https://youtu.be/VB4dI7ZvmB8

Field test in Bangladesh by MSF in q1 2017
Image: MSF, Rianne Schlepers

Björn Norberg

Affärsutvecklare
+46 10 228 41 21 Read more about Björn
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3. Good health and well-being
10. Reduced inequalities
A great consortium which covers the entire value chain from research to market.
Project end date: Medtech Sekundär områdes navigation:
Printed electronics
Data Science
Sensors and sensor systems
Logistics

Biological Safety and Function

BioSafe
Biologic safety and function

We offer everything from biological analysis related to human health to providing solid advice regarding or taking responsibility for the biological evaluation of a product. We perform cell-and tissue-based, microbiological and animal based experiments, according to standards or customised, in order to evaluate function or safety of a product.

RISE has invested in a BD FACSLyric – a flow cytometer designed to enhance precision and quality in advanced cell analysis.The BD FACSLyric enables cost- and time-efficient analysis combined with precise isolation and characterization capabilities.

Laboratory testbeds (LT)
Västra Götaland Region

Benny Lyvén

Affärsutvecklare
+46 10 516 52 68 Read more about Benny
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Division: Division Bioeconomy

We use cell and tissue-based systems, microbiological systems and animal models, and perform the studies in well-equipped and quality-assured laboratories, e.g.: 

  • Cytotoxicity and skin irritation tests performed according to GLP 
  • Wound healing models in vitro and in vivo 
  • Cell adhesion and cellular uptake tests 
  • Gene expression studies 
  • Analysis of inflammatory markers 
  • Evaluation of biocompatibility according to ISO 10993 
  • Skin absorption tests 
  • Validation of in vitro test methods 
  • Infection control studies in vitro, ex vivo and in vivo 
  • Cancer inhibition screening assays in vitro 

We have good knowledge regarding regulatory requirements and are happy to give advice regarding the planning and scope of a biological evaluation, interpretation of results and advice for registration of products. 

Health and Life Sciences
Pharmaceuticals
Not applicable
2015

Address

Brinellgatan 4, Borås

Medtech Sekundär områdes navigation:
Metrology
Infection control

Testbed for volume and flow technology

Flow laboratory

Unique facility in Scandinavia, also in an international perspective.

Laboratory testbeds (LT)
Västra Götaland Region

Kerstin Mattiasson

Civilingenjör
+46 10 516 53 80 Read more about Kerstin
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Division: Division Safety and Transport

The flow laboratory in Borås is used for both research & development, and calibration & testing. The laboratory has been developed to match the increased requirements from the industry

  Range:

  • Water: 0,02 – 12000 l/min, approx 10 – 90 °C
  • Petroleum: 0,001 – 7000 l/min, 1,3 – 80 mm2/s
  • Calibration of volume standards: μl till m3
  • Portable equipment (mounted on a vehicle) to be used for calibration on site: flow rates up to 25000 l/min, viscosity up to 300 mm2/s including LPG
  • Testing of flow meters, fuel dispensers etc exposed to climate/environmental/EMC disturbances

The laboratory can be used for research and development of everything from microflow for medical applications to high water flows (process industry, district heating facilities etc) with the highest accuracy and direct traceability to fundamental units.

Process industry
Generic metrology and measurement technology
Not applicable
1976

Address

Brinellgatan 4, Borås

Division (OLD): Division Safety and Transport Metrology Sekundär områdes navigation:
Water
Energy and electrification
Medtech

Nanometrology Methods for Magnetic Nanoparticles

NanoMag
NanoMag

The objectives of the EU financed NanoMag project were to standardize, improve and redefine analysing methods of magnetic nanoparticles. Using improved manufacturing technologies, synthesized magnetic nanoparticles with specific properties were analysed with a multitude of characterization techniques.

Coordination, R&D activities in AC susceptometry analysis, magnetic modelling, synthesis of magnetic nanoparticles, elemental analysis and standardization
Completed
Digital infrastructure Digitalisation Electronics Formulated products Pharmaceuticals Material transition Generic metrology and measurement technology
Region Stockholm Västra Götaland Region
From Nov. 2013 to Nov. 2017
120 MSEK
Division: Division Materials and Industry

Aim and goal
•    Identify analysis techniques to be used as standardization measurements in the field of magnetic nanoparticle research and development
•    Use new or improved analysis techniques to control the properties of magnetic nanoparticles
•    Promote the standardization techniques so they can be used both in research and in industry
•    Provide/enable a traceable route for novel characterization techniques towards the basis of new metrological standards

Challenge
•    Correlate magnetic and structural properties of magnetic nanoparticles
•    Develop analysis techniques and models in the field of magnetic nanoparticles
•    Improve traceability of the magnetic nanoparticle “life time” from manufacturing to a specific application
•    Present standardized procedures for manufacturing of magnetic nanoparticles with specific properties

Solution
The NanoMag project gathered Europe’s leading experts within research institutes, companies, universities and metrology institutes, all carrying out front end research and developing applications in the field of magnetic nanoparticles. Most all of existing analysing techniques for magnetic nanoparticles were used in the project.

Effect
The NanoMag results define standard measurements which are necessary for defining a magnetic nanoparticle system and for quality control. The result will provide valuables tools to the manufacturing process and the regulatory work on magnetic nanoparticles. The application areas of magnetic nanoparticles in the NanoMag project are focused on biomedical applications, for instance biosensing, contrast substances in medical tomography methods and for cancer therapy.

Christer Johansson

Senior Expert
+46 72 723 33 21 Read more about Christer
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RISE University College London Uppsala University The Spanish National Research Council (CSIC) micromod Partikeltechnologie GmbH Technical University of Denmark University of Cantabria Chalmers University of Technology Federal Institute of Materials Research and Testing (BAM) Technical University of Braunschweig nanoPET Pharma GmbH Solve Research & Consultancy AB University of Lübeck Eindhoven University of Technology The Physikalisch Technische Bundesanstalt (PTB) National Physical Laboratory (NPL)
Project end date: Metrology Sekundär områdes navigation:
Medtech
Biotechnology
Composites

RISE Fiberlab - R&D and pilot production of specialty optical fiber

RISE Fiberlab
RISE Fiberlab in Hudiksvall

RISE Fiberlab is a world-class laboratory for research, development, and pilot production of optical specialty fiber. Located in Hudiksvall, Sweden, the laboratory hosts three fiber draw towers and offers a range of services.

Laboratory testbeds (LT)
Region Gävleborg

Åsa Claesson

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Division: Division Digital Systems and Societal Transformation

RISE Fiberlab, in Hudiksvall, Sweden, is a leading facility for research, development, prototyping and small scale production of custom/specialty optical fiber. 

At RISE Fiberlab, we offer a range of services and solutions for optical specialty fiber, leveraging 25 years of experience in the field of development and production of custom optical fibers.

The laboratory hosts three 17m tall fiber draw towers, custom designed and built by RISE for the flexibility and stability that is needed for development and production of a very wide range of optical fibers, from ultrathin 25µm for medical sensors, to ultrathick >2mm fibers for power delivery.   

RISE Fiberlab is certified in accordance with ISO 9001:2015. We work closely with our customers and partners, from small and medium-sized enterprises to large corporations and academic institutions.

The facility was previously called Acreo Fiberlab. It was inaugurated in 2001. 

ICT and Telecom
Fibre optics and photonics Electronics Sensors and sensor systems
Electronic Components & Systems
2001

Address

Fibervägen 2, Hudiksvall

Division (OLD): Division Digital Systems and Societal Transformation Mer information:

RISE Fiberlab is situated in Hudiksvall, 2.5 hours north of Stockholm by train. 

Fiber optics and photonics Sekundär områdes navigation:
Sensors and sensor systems
Medtech
Production and manufacturing

FLU-ID - portable influenza diagnostics

FLU-ID
flu_id

The FLU-ID project developed a portable biosensor system solution that shortens the total time for the diagnostic test of influenza to less than 60 minutes. The detection method is based on volume amplification of a virus target in a microfluidic chip and magnetic sensing of a magnetic nanoparticle-based assay.

Project participant
Active
Infection control Medical devices Sensors and sensor systems
6 years
6.1 MSEK (32 MSEK)
Division: Division Digital Systems and Societal Transformation

Aim and Goal

The purpose of this interdisciplinary project was the development of a low-cost and portable miniaturized diagnostics unit, which will provide an efficient analytical platform for rapid detection of influenza directly at the point of care.

Challenge

An influenza epidemic is unlike any other public health emergency in terms of complexity, distribution and ability to devastate Sweden, Europe and the world. The H1N1 swine flu was the last example of such a pandemic. The more typical seasonal influenza remains the most frequent annual cause of respiratory illnesses requiring medical intervention.

Solution

The project developed a portable biosensor system solution that shortens the total time for the diagnostic test of influenza less than 60 minutes, while achieving a target sensitivity of 600 molecules per milliliter of sample. Sample preparation, assay and interface to the detector are realized through a microfluidic lab-on-a-chip device. A magnetic detection system was developed to analyze the magnetic nanoparticle-based assay.

Effect

The biosensor system is based on state-of-the-art bio- and nano-technology and enabled the detection, identification and monitoring of influenza, with universal relevance to both developed and resource-poor countries. The methods and instruments developed in the project focus on influenza, but are generic and not limited to this specific disease. The project generated Swedish-owned IP and lead to internationally competitive competence

Jakob Blomgren

Senior Scientist
+46 70 915 18 48 Read more about Jakob
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3. Good health and well-being
The consortium consists of expertise in test and assay development (Uppsala and Stockholm University), device and detection development (Chalmers and RISE), sample generation and preparation (Karolinska Institute)
Project end date: Medtech Sekundär områdes navigation:
Metrology
Sensors and sensor systems
Biotechnology
Chemical and biological analysis