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Heidelberg, Germany
11-50 Employees
2008
"Beschleunigen wir gemeinsam die Energiewende!” war am Mittwoch das Credo der 50 Teilnehmer aus Industrie und Forschung rund um die Metropolregion-Rhein-Neckar im Energiewende-Workshop am InnovationLab. Franziska Brantner und die Landtagsabgeordnete Theresia Bauer zu Besuch bei iL, um mit den Gesellschaftern über neue industrielle Technologien zur Energiewende zu sprechen. InnovationLab und Evonik sind seit vielen Jahren enge Partner auf dem Gebiet der druckbaren und wiederaufladbaren Batterien. Nun hat InnovationLab die Technologie von Evonik erworben. Wie kann gedruckte Elektronik dabei helfen die Überwachung von E-Fahrzeug-Batterien zu erleichtern und somit die Lebensdauer der Batterie zu verlängern? Jetzt in der neuen THINKTogether Podcastfolge!
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Featured
Printed Sensors for Retail
... Why Printed Sensors Provide the Leading ...
Brunswick, Germany
1-10 Employees
2019
The high-tech start-up MinkTec has developed the first sensor-shirt to detect the shape of the spine 24/7. The heart of our sensor shirt is a flexible sensor strip, the “FlexTail”, which can measure its own shape and display it on any device. The use of printing technologies enables an extremely cost-effective and robust sensor system that offers a wide range of possible applications.
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Featured
Printed Flexible Sensors
... Printed Flexible Sensors ...
Braga, Portugal
1-10 Employees
2016
Our vision is to contribute to the evolution of the Internet of Things (IoT), implementing new printed sensors in a wide variety of objects and devices, improving thus the quality of life of the mankind. We develop innovative functional inks and produce customized printed sensors. We are able to develop prototypes and final solutions, including electronics and software, to our customers. Our R&D and production facility is located in Braga, in Portugal, equipped with all type of equipment necessary to develop and produce functional inks and printed sensors. Our team is composed of highly trained and experienced people with expertise in physics, chemistry, materials and electronics engineering, dedicated to the achievement of high quality products. Nanopaint’s goal is to develop innovative functional inks for the printed electronics market, offering the best technology so our customers can create their own products and solutions. For those customers who don’t have the time, knowledge or the technical means, we are able to offer them partial or full solutions, which can include printed sensors, data acquisition electronics and analysis software.
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Featured
Services - Nanopaint
... Printed Sensors ...
Pierre-Bénite, France
1-10 Employees
Piezotech® FC is a range of P(VDF-TrFE) fluorinated copolymers. Piezotech® FC copolymers are an excellent choice for sensors, energy harvesting, actuators, speakers, ferroelectric memories. Piezotech® RT is a range of P(VDF-TrFE-CTFE) and P(VDF-TrFE-CFE) terpolymers. Piezotech® RT terpolymers are particularly advantageous for high-k dielectrics in OTFT, actuators, and electrocaloric devices. Join Arkema-Piezotech at LOPEC, the world's leading exhibition for flexible, organic and printed electronics. Arkema produces and markets electroactive polymers Piezotech®, in the form of powders, inks or films. Trade show dedicated to composite materials and their applications.
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Featured
Electroactive Films | Printed sensor | Arkema Piezotech
... Electroactive Films | Printed sensor | Arkema ...
Kempele, Finland
1-10 Employees
Elcoflex has been established in 2001 and has gained strong cumulative experience in the design and manufacture of electronic components and sub-assemblies from prototyping to mass production scale. Elcoflex is a European pioneer in Roll-to-Roll production, having strong cumulative experience in manufacturing electronic components on a mass production scale. Elcoflex is a world class partner in developing and manufacturing electronic components for wireless communications. Elcoflex is committed to continuous improvement in all processes, ethical principles and current regulations. Elcoflex Oy on saanut rahoitusta Euroopan aluekehitysrahaston (EAKR) Uudistuva ja osaava Suomi 2021-2027 -ohjelmasta. Elcoflex is attending to Imaps Nordic international conference and exhibition, NordPac2022. Elcoflex is attending to Prinse2022 in Oulu, Finland. Our production sites are in Finland and China.
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Featured
Products - Elcoflex
... Printed Sensors ...
Dobl-Zwaring, Austria
11-50 Employees
2014
At ATT, we are a team of experts in the field of printed electronics, with a diverse skill set that includes scientists, physicists, process engineers, electrical engineers, and production specialists. At ATT, we are committed to providing high-quality products and services to our clients, and we take pride in our track record of never failing to find a solution for a given challenge. We are passionate about what we do and we are always eager to collaborate with clients to help them achieve their goals. Since 2017 we are part of the Remus Group, and we are very proud of it! We are passionate about pushing the boundaries of what's possible, but we never lose sight of the ultimate goal: achieving our objectives in the most efficient and cost-effective manner. Since we are a small company, located in a high-wage country, outstanding quality is one of our key success factors. We are always focused on becoming better, and this is what we do:. Today, we are an ISO 9001:2015 certified company.
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Featured
Expertise - ATT advanced thermal technologies
... Printed Sensors ...
Huillé-Lézigné, France
51-100 Employees
1929
Nos produits sont destinés à l’industrie et la communication, de la pièce unitaire à la grande série. Nous sommes responsables de nos actes et de notre respect de nos engagements. Nous avons la particularité de maîtriser l’ensemble de nos process de fabrication.
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Featured
Printed Electronics & Sensors
... Printed Sensors | Martin ...
East Hertfordshire, United Kingdom
11-50 Employees
1978
We have two manufacturing sites in the UK, one in Asia and distribution centres in the USA and China. Our global reach allows us to export to more than 100 countries all over the world. Our distribution centres also source and supply a range of specialty chemicals for a wide range of industries. Our clients range from start-up distributors to large multinationals. Each client benefits from Makevale’s superior products and our team’s technical know-how, while enjoying extremely competitive prices.
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Featured
High-performance polymers manufacturer and developer - Makevale
... Techniques for 3D-printed biomedical sensors ...
Sunbury-on-Thames, United Kingdom
51-100 Employees
1981
FT Technologies specialises in the design and manufacture of ultrasonic wind sensors – also known as anemometers or air-flow sensors. What makes FT ultrasonic wind sensors unique is our use of acoustic resonance for measuring wind speed, direction and temperature. Invented by our Executive Chairman, Dr Savvas Kapartis, and patented in 1997, Acu-Res® Technology uses an acoustic wave which is resonated inside a small cavity. A strong resonating sound wave in a small space provides a large signal that is easy to measure. Acu-Res® has a signal to noise ratio more than 40db stronger than other ultrasonic technologies.
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Featured
Media coverage | News & Events | FT Technologies
... FT Technologies Launches Graphite AM 3D Printed Sensor For ...
Technologies which have been searched by others and may be interesting for you:
Some interesting numbers and facts about the results you have just received for Printed Sensor
| Country with most fitting companies | United Kingdom |
| Amount of fitting manufacturers | 57 |
| Amount of suitable service providers | 40 |
| Average amount of employees | 11-50 |
| Oldest suiting company | 1929 |
| Youngest suiting company | 2019 |
A printed sensor is a device fabricated through printing techniques, utilizing conductive inks to deposit various functional materials onto a substrate. This process allows for the creation of thin, flexible sensors that can be easily integrated into a wide range of applications. Unlike traditional manufacturing methods, printed sensor technology enables the production of lightweight, cost-effective, and highly customizable sensors, catering to specific needs across different industries. In the realm of healthcare, these sensors are revolutionizing patient monitoring by providing non-invasive, real-time data collection on vital signs and other health indicators. In the environmental sector, they offer innovative solutions for tracking air quality and detecting hazardous substances, contributing significantly to safety and sustainability efforts. Furthermore, printed sensors play a crucial role in the development of smart packaging, enhancing product integrity through the monitoring of conditions such as temperature and humidity. The versatility and adaptability of printed sensors underscore their transformative potential, making them a pivotal component in advancing the Internet of Things (IoT) ecosystem. By enabling seamless integration into everyday objects and environments, printed sensors are setting new standards for connectivity, efficiency, and data-driven decision-making across various fields.
1. Cost Efficiency
Printed sensors are significantly more affordable to produce than their traditional counterparts. The manufacturing process leverages printing technology, which allows for mass production at a lower cost. This cost-effectiveness makes printed sensors a viable option for a wide range of applications, including wearable technology and flexible electronics.
2. Flexibility and Adaptability
One of the standout benefits of printed sensors is their flexibility. They can be easily integrated into different surfaces and materials, including flexible substrates, making them perfect for innovative applications such as smart packaging and bendable devices. This adaptability opens up new possibilities for product design and functionality.
3. Speed of Production
The production process for printed sensors is much faster than that of traditional sensors. Since it relies on printing technology, it allows for rapid prototyping and efficient scale-up to mass production. This speed in production not only reduces time to market but also enables timely updates and iterations in response to market demands or technological advances.
4. Environmental Impact
Printed sensors have a lower environmental impact compared to conventional sensors. The printing process requires less material and energy consumption, contributing to a reduction in waste and carbon footprint. Additionally, the use of biodegradable materials for printing is becoming more common, further enhancing the environmental benefits of printed sensors.
While evaluating the different suppliers make sure to check the following criteria:
1. Manufacturing Capabilities
Ensure the supplier has advanced manufacturing facilities that can produce high-quality printed sensors with precision and scalability.
2. Customization Options
The supplier should offer customization options to meet specific application requirements, including size, sensitivity, and functionality.
3. Material Quality
Verify the quality of materials used in the printed sensors, as it significantly affects their durability and performance.
4. Technology and Innovation
Choose a supplier that invests in research and development to stay ahead with the latest technologies and innovative solutions in printed sensor manufacturing.
5. Cost-effectiveness
Consider the overall cost, including production and shipping, to ensure it aligns with your budget without compromising quality.
6. Lead Time and Reliability
Assess the supplier’s ability to deliver orders on time and their track record for reliability and consistency in product quality.
7. After-sales Support
Look for suppliers offering comprehensive after-sales support, including technical assistance and warranty, to address any post-purchase concerns.
Printed sensors are revolutionizing the healthcare industry by enabling more efficient and cost-effective patient monitoring solutions. These flexible, lightweight sensors can be integrated into wearable devices, providing continuous health data analytics such as heart rate, temperature, and blood oxygen levels. This capability allows for real-time patient monitoring outside traditional clinical settings, enhancing patient care and reducing healthcare costs. In the automotive sector, printed sensors are being utilized for improved safety and performance features. These sensors can be embedded into car seats, steering wheels, and even the vehicle's structure to monitor conditions like pressure, moisture, and temperature. This data aids in enhancing the vehicle's safety systems, such as airbag deployment and cabin comfort, contributing to a safer and more comfortable driving experience. The agriculture industry benefits from printed sensors through advanced soil and crop monitoring. These sensors provide vital data on soil moisture, pH levels, and temperature, enabling farmers to make informed decisions on irrigation and fertilization. This technology supports precision agriculture practices, optimizing resource use and increasing crop yields while minimizing environmental impact. In manufacturing, printed sensors are key to predictive maintenance. By monitoring equipment conditions such as temperature, vibration, and pressure, these sensors can predict potential failures before they occur. This predictive capability reduces downtime and maintenance costs, significantly improving operational efficiency and productivity across manufacturing processes.
Printed sensors, a pivotal innovation in the realm of flexible electronics, are predominantly positioned at TRL 6, indicating that these devices have been validated in a relevant environment. This classification stems from their successful demonstration in scenarios that closely mimic their intended operational settings, such as wearable health monitors and environmental sensing devices. The technical reasoning behind this TRL placement lies in the significant advancements in printing technologies and materials science. These have enabled the production of sensors with enhanced sensitivity, flexibility, and durability, using conductive inks and substrates that can conform to various surfaces. Moreover, the integration of printed sensors into complex systems has been achieved, showcasing their interoperability and the feasibility of large-scale manufacturing processes. However, challenges remain in ensuring long-term stability, achieving higher degrees of accuracy, and refining the data processing capabilities of these sensors when deployed in highly variable real-world conditions. These hurdles must be overcome before printed sensors can transition to higher TRLs, where full-scale commercial deployment and widespread market acceptance are achieved.
In the Short-Term, printed sensors are poised for significant advancements in materials and printing techniques. This phase will witness the development of more resilient, flexible materials that can be efficiently printed on a variety of substrates. Enhanced printing technologies will also allow for higher resolution sensors, enabling more precise data collection and analysis. This immediate future promises improvements in the cost-effectiveness and scalability of printed sensors, making them more accessible for applications in wearable technology, healthcare monitoring, and environmental sensing. Moving into the Mid-Term, integration and miniaturization will define the trajectory of printed sensor technology. Advances in hybrid electronics will facilitate the seamless integration of printed sensors with other electronic components, leading to the creation of smarter, multifunctional devices. The focus will be on developing ultra-thin, lightweight sensors with enhanced performance and lower power consumption. These developments are expected to unlock new possibilities in smart packaging, IoT devices, and bio-integrated sensors, providing continuous, real-time monitoring capabilities. In the Long-Term, the horizon for printed sensors includes the advent of fully autonomous sensor systems. Breakthroughs in materials science and nanotechnology will enable the production of self-powered sensors that can harvest energy from their surroundings. These sensors will be capable of self-diagnosis and repair, further extending their lifespan and reliability. Long-term advancements will also pave the way for the integration of AI and machine learning, allowing printed sensors to predict failures, optimize their operation, and interact intelligently with their environment. This era will mark the culmination of printed sensor technology as a cornerstone of autonomous systems and smart environments.
