Videos
Looking to the future
Listen2Future - Video presentation
Listen2Future project presents its corporate video!
Listen2Future is not just a project; it's a vision for a brighter and more connected world.
Our mission is to harness the power of technology to create a platform that empowers individuals and organizations to better understand, engage with, and shape the future.
🌟 The Vision: We believe in a future where insights drive innovation, collaboration leads to progress, and technology bridges gaps.
🚀 Our Progress: Get a glimpse of the milestones we are going to achieved and the exciting journey ahead.
🌍 Global Impact: Learn how Listen2Future is making a difference on a global scale.
Discussion: Multimodal ultrasonic application in new strategies for cancer treatment
Experience the captivating premiere of our video series as we delve into the cutting-edge research unfolding at the prestigious University of Granada and the innovative SMD Polyclinic. In this inaugural interview, witness the incredible potential of ultrasound technology as it takes center stage in two groundbreaking missions.
We'll embark on a transformative journey into the realm of cancer treatment. Discover a pioneering approach that promises to revolutionize the fight against cancer by targeting tumor cells with non-invasive precision, offering new hope for patients battling this formidable adversary.
Use case 1: Towards the future of medical ultrasound probes
Listen2Future is spearheading a new era of ultrasound technology by crafting a super-powered, eco-friendly solution. The prototype boasts a built-in sensor, a smart computer, and cutting-edge software, all designed to create powerful images while significantly reducing the use of lead Zirconate Titanate.
One of the most exciting aspects of this initiative is the potential for increased accessibility. The incorporation of dual-frequency devices in our ultrasound tech holds immense promise for enhanced performance in #biomedical applications. This means a double impact on diagnosis accuracy, ultimately translating into better treatment outcomes for patients.
Listen2Future's material is not only better for the environment but also more reliable, energy-efficient, and built to last.
Use case 4: Ultrasonic stimulation of hair follicle stem cells for hair implant
We are thrilled to share a groundbreaking project we're working on – the development of a cutting-edge medical device and ultrasonic bioreactor to stimulate hair follicle stem cell. 🚀 Our aim? To accelerate and enhance hair regrowth, particularly for women undergoing cancer therapy.
Hair loss during cancer treatment is not just a cosmetic concern; it profoundly impacts emotional well-being and the overall journey of those battling the disease. That's why we're on a mission to revolutionize existing treatments by harnessing the power of ultrasonic compressional and shear waves to remotely stimulate hair recovery through stem-cell mechanotransduction.
Use case 5: Fighting cancer with mechanical waves
A team from the University of Granada, Spain is behind this cutting-edge research. They are working on a new medical device and bioreactor that can affect cancer stem cells. Their research aims to understand and control the cellular mechanics behaviour by using shear mechanical waves. For this, knowledge from the fields of mechanics, genomics, transcriptomics, proteomics and metabolomics are put together. They have found that specific mechanical waves at certain frequencies and amplitudes can either promote or suppress cancer mechanical waves proposal. This research is unique because it proposes to use a therapeutic non-invasive technology using ultrasonic waves combined with drugs to impact cancer stem cells, which will help open the horizon for new cancer treatments. See also on Listen2Future.
Use case 7: Next generation of ear probes for objective audiometry
One of the teams at Listen2Future is focused on developing cutting-edge micro-electro-mechanical systems (MEMS) microphones, designed for specialized ear probes used in procedures like otoacoustic emissions and tympanometry. Their primary challenge is engineering MEMS microphones that can achieve noise levels comparable to those of traditional electret microphones.
These new MEMS microphones will be significantly smaller yet highly robust. They will offer exceptional clarity with minimal background noise, ensuring precise and efficient sound transfer to the ear canal. Additionally, their increased durability will contribute to more cost-effective hearing test probes.
This project is yet another example of the groundbreaking innovation fostered at Listen2Future, demonstrating how science can continuously improve the quality of life and push the boundaries of what is possible.
Use Case 6: Developing better microphone technology for Hearing Aids
At Sonion, the team is developing a more advanced microphone technology for hearing aids with the goal of improving durability, sound quality, and energy efficiency. The new microphone is designed to be more robust and long-lasting, while delivering superior sound clarity. Additionally, it will feature enhanced energy efficiency, allowing for longer battery life, providing users with a more reliable and seamless experience.
Use case 9 Infrastructure monitoring and maintenance optimization
This video our colleague Zdeněk Pohl shows a demo of a the work developed under our use case 9, a devise created for video capture and match of acoustic and visual events, which is useful for precise acoustic event localisation in infrastructure monitoring and maintenance optimization. The team's work will also include developments of methods for calibration of audio and video-based measurements, post-processing and visualisation of detections.
WP2 Towards more performant acoustic MEMS transducers for emerging applications
Video WP2 - Towards more performant acoustic MEMS transducers for emerging applications
In this video, our colleague Xu Tingzhong, from Silicon Austria Labs, shows a M2.1 Generation 1 demo transducer, as part of the work he is doing for our Work Package 2.