What are clients saying about this technology?

Name: Kaushal Sagar

Company: Robert Bosch (SEA) Pte Ltd

Extensive research and constant connect with the industry has resulted in comprehensive knowledge base on opto-chemical sensors at Joanneum. Smart textile application is one of the many examples of mature and affordable sensor technology finding its applications in healthcare, food technology and beyond. Covalent linking chemistry of these highly sensitive sensors further distinguishes itself to other technologies, attracting lot of industrial interest.

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Generally, opto-chemical sensor systems utilize light and optical properties of indicator materials to detect the interaction between sensor and analyte for determining the analyte`s concentration. Here, only the indicator itself interacts with the analyte. Hence, the remote readout systems are not directly in contact with the sample.
Example 1: New and unique opto-chemical sensors were developed based on the technology of electrospinning. Here, an ultra-fine network of polymer nanofibers is created sensor layers with high surface-to-volume ratio. Hence, the sensors show ultra-fast response characteristics and high sensitivity.
Example 2: Sensor textiles were developed by covalently coupling various indicator dyes to textiles and non-wovens. Upon contact with chemical or biological compounds these textiles change color or fluorescence properties indicating the presence or absence of an analyte. The staining process can be directly integrated into existing textile fabrication processes, thereby opening new applications in the field of clothing, healthcare, ambient assisted living, sports and food packaging.

1st key benefit for SME: BREATH GAS ANALYSIS, SENSOR TEXTILES

2nd key benefit for SME: ULTRA-FAST O2 SENSORS, SMART COLOUR TEXTILE

3rd key benefit for SME: CHEAP AND EASY MANUFACTURING PROCESS, MINIATURIZATION, HIGH FLEXIBILITY, TECHNOLOGY EASY TO UNDERSTAND

Opto-chemical SENSORs based on nanofibers

The ultra-fast oxygen sensing technology can be implemented in ergospirometric devices. Ergospirometry represents the future in non-invasive medical diagnosis of pulmonary and cardiovascular diseases, training optimization in sports and general fitness applications by means of breath gas analysis.

 

SENSOR TEXTILES

Sensor materials integrated in industrial protective clothing, for example, warn wearers of the presence of hazardous gases or liquids such as carbon monoxide, ammonia or strong acids in their immediate environment.

Fibres and yarns containing indicator dyes can be used in wound dressings to provide information on the wound healing process with colour changes indicating, for example, changes in oxygen or pH levels or problematic bacterial growth.

Clothing with colour changing properties can also be used to indicate excessive water or electrolyte loss. This can be important in healthcare applications involving the elderly or very young children who may find it difficult to communicate

Currently we have two reference projects within the scope of opto-chemical sensors (1st oxygen sensor and 2nd textile sensor).

  • O2 High-Speed: Ultra-fast oxygen detection in exhaled breath gas for ergospirometric devices.
  • Smart Colour Textiles: Indicator washcloth and sensor swabs for monitoring pH in wounds

Our researchers specialize in the development and technological implementation of chemical and biological sensors. These are compact analytical systems that allow for continuous monitoring of chemical, metabolic or biological parameters such as, for example, oxygen, glucose or lactate, but also of toxic gases, heavy metals, bacteria and toxins.

The research team is a leader in the development of optical chemical sensors (optodes) and measurement systems used in process control, medical diagnostics, environmental analysis, authentication and food monitoring.

In addition, new materials for screen printing, inkjet printing and aerosol-jet printing of electrode structures, as well as methods for surface functionalization and structuring of polymeric materials for biosensors, are developed.

  • Chemo- Biosensors and Microfluidics

Development and miniaturization of chemical (bio) sensors and detection systems

Surface modification

Coating methods

Process control based on opto-chemical and spectroscopic methods

Electronic development and instrumentation of measurement systems

  • Additive Manufacturing, Processing and Printing

Inkjet printing, aerosol jet printing

Screen printing, flexography

Development of new ink materials

Scientific and technological advice is provided for interdisciplinary solutions across the entire value chain (from the idea to design, simulation, proof of concept, lab testing, experimental setup and prototype).

Cutting edge technologies and methods based on miniaturization, integration and materials optimization are used.

State-of-the-art equipment and infrastructure are offered in order to fulfil the needs of business and industry.

Support companies with innovation projects and helping them to get superior products to market faster (www.actphast.eu/register-your-interest)

KET:

Biotechnologies

Micro- and nanoelectronics

Nanotechnologies

Photonics

Joanneum Research Forschungsgesellschaft mbH

Franz-Pichler-Straße 30, 8160 Weiz, Austria
Phone: +43 316 876-3000
www.joanneum.at
Contact: Dr. Jan Hesse
jan.hesse@joanneum.at