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Research Pillar

Biotechnology

Advancing Biotechnology Capabilities that strengthen National Security

National security is increasingly dependent on biotechnology as it has the potential to advance as well as threaten every strategic sector including defense, healthcare, agriculture, energy and manufacturing. From food safety, health & medicine, supply chain issues, production of critical chemicals and renewable energies, advances in biotechnology create unprecedented opportunities as well as complex challenges in the national security space.

The National Security Institute’s Biotechnology pillar brings together internationally recognized researchers from across Penn State with expertise in such diverse areas as computational biodesign, synthetic biology, biorenewables & biofuels, biosensors, nanomaterials and biomaterial engineering to create transformational technologies that will directly impact national security demands.

Researchers across Penn State are advancing the science of biotechnology that will address technology gaps in biosensors, biomaterials, AI-enabled biodesign, supply chain insecurities, and energy that will transform the national security landscape.

The Demirel Lab at Penn State is creating multifunctional films fabricated from squid-derived proteins including (c) colloids, (d) free-standing transparent flexible films, (e) complex 3D geometries, (f) biomimetic materials, (g) optical microresonators, (h) nanostructured surfaces, and (i) SRT-based membranes

Why It Matters

The dual-use nature of biotechnology creates considerable implications for deterrence, force protection, logistics & supply chains, and direct operational capability.
Penn State researchers are advancing technologies that:

  • Develop bio-inspired materials and protective systems
  • Create autonomous microbial sensing and CBRN detection systems
  • Establish AI-driven biodesign and digital twins to enhance biomanufacturing
  • Enable field-deployable biomanufacturing for critical parts, materials, and chemicals

Areas of Excellence

Biomaterials

Faculty are developing novel hybrid materials and bio-based materials that are more capable and resilient than purely synthetic products, have characteristics that can be specifically tailored to unique operating environments and can be produced domestically reducing supply chain and logistics stressors.

Biosensors

Penn State researchers are designing and building biosensors that provide real-time physiological, environmental and biochemical data to assess readiness under extreme conditions and enhance the human-machine interface making human-machine collaboration more intuitive, adaptive, and efficient.

Synthetic Biology

Penn State researchers are working at the interface of genetics, chemical biology, computational biology and engineering to understand the design principles that allow for the directed evolution of biologics to combat the most difficult technology gaps.

Featured Facilities and Centers

Equipment inside the CSL Behring Facility

CSL Behring Fermentation Facility

The Biomolecular Interactions Core Facility provides state-of-the-art instrumentation, software and expertise to support investigators to study macromolecular binding and folding, as well as protein and lipid quantification.

Biomolecular Interactions Facility

The Biomolecular Interactions Core Facility provides state-of-the-art instrumentation, software and expertise to support investigators to study macromolecular binding and folding, as well as protein and lipid quantification.

Latest News and Research

Biomanufacturing provides a more sustainable alternative to fossil-based chemical manufacturing of 3-Hydroxypropionic acid (3HP) which is a critical Department of Energy chemical. We established I. orientallis as a next-generation platform for cost-effective 3HP production.

This amplification-free lateral flow platform offors a simple, portable, contamination-free solution for rapid on-site Mpox detection within 30 minutes and provides clade-specific identification.