ADANCED TECHNOLOGIES FOR THE PRESERVATION OF BIOLOGICAL SYSTEMS
preservING LIVING SYSTEMS FOR ACCESSIBILITY FOR ALL
ATP-Bio aims to “stop biological time” radically extending the ability to bank and transport cells, aquatic embryos, tissue, skin, whole organs, microphysiological systems, and even whole organs.
ATP-Bio is the leading provider of innovative solutions in the field of cell banking and transportation. Join us on our journey to revolutionize the way cells, embryos, tissues, and organs are preserved and transported. Follow us on social media to stay updated on the latest breakthroughs and advancements. Together, we can stop biological time and make a lasting impact.
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To make transformative discoveries, train a diverse workforce, and connect resources and partnerships to ethically translate technologies for the storage and distribution of living biological systems.
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To stop biological time, allowing living products to be readily available across the globe to advance healthcare, biodiversity, and food supply and sustainability.
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ATP-Bio leverages exceptional resources at each of ATP-Bio’s partner institutions to integrate five goals —Convergent Research (CR), Engineering Workforce Development (EWD), Diversity and Culture of Inclusion (DCI), Innovation Ecosystem (IE), and Ethics & Public Policy (EPP)—into a cohesive mission.
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ATP-Bio is a world-class partnership between engineering, medicine, science, education, business and ethics supporting crucial advancements of biopreservation technologies enabling innovation, commercialization and diverse workforce development.
Healthcare
Transplatable Tissues & Organs
Organoids
Cell Therapies
Biodiversity
Coral Conservation
Biobanking of Species
Vertebrate Model Systems
Food Supply & Sustainability
Aquaculture
Dysphagia
Invasive Species Management
ATP-Bio Pillars
Photo Credit: Caroline Yang for STAT
In a groundbreaking new study, engineers and medical researchers at the University of Minnesota Twin Cities have proven the life-saving potential of long-term organ preservation at ultra-low temperatures by successfully transplanting a rewarmed kidney in a rat and restoring full kidney function.
UMN News
UMN Medical School News
UMN College of Science & Engineering News
Read more in the Science article, the STAT article, and the Nature Communications article.
