Linda Griffith
systems engineering, tissue engineering, drug development, biomaterials, scaffolds
systems engineering, tissue engineering, drug development, biomaterials, scaffolds
synthetic biology, NSF, policy, government, research strategy
art-science collaboration, interdisciplinary collaborations, design
biological sciences, biochemistry, biophysics, models, antimalarial drugs, systems biology, computational biology
science policy, scientific publishing, stem cell policy, genomic technologies, research integrity
synthetic biology, science & technology studies, engineering studies, standard-setting, design and values
genome evolution, experimental evolution, yeast, comparative genomics
metabolic engineering, pharmaceuticals
CRISPR, translational control, RNAi
synthetic biology, quorum sensing, biofilm formation, cell-cell communication, directed evolution
metabolic engineering, synthetic biology, sustainable chemical production, applied microbiology, systems biology, RNA splicing, microbiology
biosensors, biomaterials, novel circuits, defense applications
metabolic pathway engineering, biofuels, biochemistry, chemical biology, synthetic biology, pharmaceuticals
genetic devices, design rules, microRNAs
science and technology studies, sociology of science, philosophy of biology, science policy, engineering studies, synthetic biology, systems biology
bioorthogonal chemistry, glycomics, biochemistry, organic synthesis, biopolymers, cell-cell communication
microbial chemistry, microbial communities, human microbiota, novel enzymes, biocompatible chemistry
directed evolution, material engineering, hybrid materials, self-assembly, electronic materials, magnetic materials
carbon capture, bio-solar energy generation, electronic materials, mineralization of carbonates, self assembly of S-layer proteins, nanostructure assembly
bioinspired materials, slippery surfaces, adaptive hybrid architectures, self-assembly, bionanointerfaces, crystal growth, nanostructured surfaces