Scientists at Tokyo University of Science have developed a novel polymer-based hydrogel that can prevent postoperative pancreatic fistulae, a frequent complication of pancreatic surgery. The Exceval hydrogel shows great promise for clinical applications due to its adjustable properties and high absorption abilities.
Engineered biofilms made of E. coli bacteria exhibit emergent drug resistance properties when printed using the new technique. This study provides valuable insights into harnessing the beneficial aspects of biofilms while combating their negative effects, potentially leading to breakthroughs in medicine and materials science.
Researchers in Japan have designed the first de novo-designed peptides that can form artificial nanopores to identify and enable single molecule-sorting of genetic material in a lipid membrane. The peptides can detect specific molecules, including DNA, and have the potential to mimic natural proteins' ability to detect specific proteins.
Researchers from the University of Copenhagen have discovered a natural substance, a flavonoid, that can inhibit cancer cells' ability to defend themselves against chemotherapy by targeting efflux pumps. This could lead to more effective treatment and potentially even combat antibiotic resistance.
Scientists at Washington University in St. Louis have created a biocompatible adhesive hydrogel that can stick to various surfaces underwater, with properties similar to natural mussel foot protein and spider silk. This breakthrough has potential applications in tissue repair, particularly for tendon-bone repair.
Scientists have developed a method to synthesize nanocrystals in live cells through space-time coupled synthesis, enabling the creation of super biosystems. This approach has been successfully applied to various cell types, including yeast, bacteria, and mammalian cells.
Researchers at UC Berkeley engineered bacteria to produce an unnatural molecule through a combination of synthetic chemistry and biology. This breakthrough enables the creation of previously impossible chemicals, paving the way for sustainable materials and innovative products.
Researchers at CRG and Pulmobiotics have created the first 'living medicine' to treat antibiotic-resistant bacteria growing on medical implants. The experimental treatment successfully treated infections across in vitro, ex vivo, and in vivo testing methods.
A new method for recording information to DNA has been proposed by Northwestern University researchers, taking minutes to complete instead of hours or days. This method, called TURTLES, uses a novel enzymatic system to synthesize DNA that records rapidly changing environmental signals directly into DNA sequences.
Scientists have created a novel method for synthesizing starch from carbon dioxide and hydrogen without using living cells. This breakthrough could revolutionize industrial biomanufacturing of starch, which is used in paper, bioplastics, and animal feed.
Researchers at Rice University have been awarded a four-year, $1.2 million National Institutes of Health grant to advance the art and science of creating custom-designed microbial colonies. The grant will enable the development of technologies like synthetic tissues that enhance soils or gut microbiomes.
The Vilcek Foundation has awarded four prizes worth $250,000 to foreign-born scientists in the United States. The prizes recognize outstanding career contributions to biomedical science and innovative research. This year's recipients include Vishva M. Dixit, Markita del Carpio Landry, Hani Goodarzi, and Harris Wang.
Researchers at Washington University in St. Louis have developed a method to produce synthetic muscle protein using microbes, which can be spun into fibers with exceptional toughness and strength. The resulting material has potential biomedical applications, such as sutures and tissue engineering.
Isaac Hilton is using non-integrating episomal DNA viruses to create a new platform technology for cell and gene therapies. He aims to hijack these viruses to safely program medicinal functions in human cells.
The center will provide a one-stop shop for custom DNA constructs, accelerating cancer research through access to state-of-the-art tools. The facility will enable transformative, large-scale experimental projects that were previously impossible for individual labs.
SYNB1618 demonstrates dose-responsive, non-saturated increases in gastrointestinal Phe consumption, suggesting therapeutic potential for Phenylketonuria (PKU). A mechanistic model predicts SYNB1618's function in PKU patients and informs clinical development.
MIT researchers develop a methodology for designing protein interactions that occur at a fast timescale, allowing circuits to respond within seconds. This approach has potential applications in creating environmental sensors and diagnostics.
Researchers at the University of Bristol developed the concept of 'evotype' to capture the evolutionary potential of biosystems. The evotype framework provides a means for bioengineers to control evolution by adjusting variation, function, and selection.
Researchers from the University of Warwick have developed a cheap way to switch bacteria into chemical production mode using a natural nutrient, drastically reducing costs. This breakthrough brings closer the realization of sustainable industrial-scale production of high-value chemicals from cheap feedstocks.
Researchers developed a design-driven process using computational modeling to identify useful genetic designs for cellular engineering. The approach accelerates the development of new treatments for diseases by enabling the efficient identification and testing of genetic programs.
Researchers used synthetic biology to develop a genetic design that reproduces key processes in natural systems, such as symmetry breakage observed in embryos. The new platform can generate spatial patterns seen in more complex animals like Drosophila melanogaster and humans.
Researchers have developed a new type of model using synthetic biology to replicate symmetry breakage observed in embryos, enabling the creation of complex structures. The study identified essential parameters that modulate spatial pattern emergence in E. coli, paving the way for understanding embryonic development.
A new study found that patients with rheumatoid arthritis taking biologic DMARDs have a 17% lower risk of developing dementia compared to those on conventional synthetic DMARDs. The treatment reduces inflammation, which may explain the decreased risk.
A partnership between Sandia National Laboratories and BioBright LLC aims to improve synthetic biology equipment security. The team is developing countermeasures to risks, protecting America's bioeconomy and digital infrastructure from potential data theft or targeted attacks.
Researchers have developed machine learning algorithms to predict which RNA-based toehold switches function well, enabling the identification and optimization of these tools. The algorithms analyzed a massive dataset of over 100,000 toehold switch sequences and predicted their behavior with high accuracy.
Berkeley Lab scientists develop a tool using machine learning algorithms to guide synthetic biology development systematically. The Automated Recommendation Tool (ART) predicts how changes in a cell's DNA or biochemistry will affect its behavior and recommends the next engineering cycle.
A new platform technology can assess water safety and quality with just a single drop and minutes. The platform tests for 17 different contaminants, including toxic metals, pharmaceuticals, and cosmetics, providing fast and easy results.
A Bristol team has developed a new photosynthetic protein system that enables an enhanced and more sustainable approach to solar-powered technological devices. The system uses both chlorophyll and bacteriochlorophyll, demonstrating poly-chromatic solar energy harvesting for the first time.
A new conservation tool has identified top priorities and projections of what species would benefit from increased conservation dollars. The algorithm considers diverse data, including land acquisition costs, development patterns, budget allocations, and threatened species, to find optimal protection opportunities.
Researchers have created a highly stable artificial protein called SUWA, which can withstand temperatures of up to 122°C without denaturing. This breakthrough could lead to new applications in nanotechnology and synthetic biology.
Northwestern University researchers Julius Lucks and Sera Young present innovative solutions for monitoring water quality and addressing household water insecurity. The Household Water Insecurity Experiences Scale (HWISE.org) measures experiences of household-level water access and use globally.
A new synthetic biology toolkit called COMET allows researchers to design and tune gene expression programs in mammalian cells with unprecedented precision. This breakthrough could lead to the development of novel cell-based therapies for cancer and other challenging diseases.
A new test developed by Northwestern University can detect high levels of fluoride in drinking water, exceeding EPA standards. The test is inexpensive, easy to use, and requires no scientific expertise, making it a potential solution for communities with naturally high fluoride levels.
The TU Dresden team presented their DipGene project, a DNA sequence-specific diagnostic method applicable in bacteria and human genomic DNA. The method is faster and cheaper than PCR, taking only five to ten minutes to detect predispositions to monogenic diseases.
Researchers have made significant breakthroughs in cell-free gene expression, enabling high-yielding protein synthesis and expanding genetically encoded chemistry. This has opened doors to create new types of enzymes, materials, and therapeutics. Northwestern University's Center for Synthetic Biology is at the forefront of this field.
Researchers have created a biohybrid system that combines gene circuits with electrodes to detect specific nucleic acid sequences. This approach enables parallel detection of multiple pathogens and has the potential to transform medicine, biotech, academic research, food safety, and other applications.
Researchers created an all-aqueous, water-in-water construct that achieves compartmentalization in a synthetic biologic system. The system uses electrical charge to separate functions and materials, mimicking the behavior of living cells.
A new roadmap by the Engineering Biology Research Consortium outlines potential breakthroughs in synthetic biology, including genetically modified crops, disease-fighting microbes, and novel biofuels. The report aims to secure federal support for this field to address societal challenges and fuel economic growth.
Researchers developed a fast and efficient way to engineer metabolic pathways using cell-free protein synthesis and SAMDI mass spectrometry. This enables the creation of thousands of potential mixtures to be tested in a single day, providing new insights for synthetic biologists.
Researchers at Arizona State University are using synthetic biology to study the mechanisms of cellular activities and develop artificial membraneless organelles that can perform complex functions. They aim to exploit liquid-liquid phase separation to create designed structures with potential applications in catalysis and synthetic bio...
Researchers successfully developed yeast to produce large quantities of stevia, a zero-calorie sweetener, cutting out the need for plant extraction. The study aims to improve the production process and create next-generation no-calorie sweeteners with better taste.
The U.S. Army Research Laboratory has developed a new resource for teaching synthetic biology to kindergartners through high school using an affordable, hands-on kit called BioBitTM. The kit enables experiments that circumvent current barriers in science education and fills a gap in STEM education.
Researchers at UT Institute of Agriculture will modify potato plants to detect and report potential threats such as nerve agents, radiation, and plant pathogens. The goal is to innovate a new sensor platform that can help protect deployed troops and civilians in post-conflict settings.
A team of scientists from the US Army Research Laboratory and MIT have developed a novel synthetic biology tool that delivers DNA programming into a broad range of bacteria. The XPORT bacterium enables precise and controlled transfer of DNA to various microorganisms, opening up new possibilities for military applications.
Ajoene, a stable organosulfur compound in garlic oil extracts, has similar health-promoting effects to allicin and exhibits anticancer activity. Researchers have developed a total synthesis approach to produce ajoene with improved yields, paving the way for its further evaluation in medicinal research.
Researchers at Rice University and the University of Houston created models to predict the output of custom-built genetic circuits, enabling unprecedented precision in programming microorganisms. The models can be used to design microbes for complex environments, such as the gut microbiome or soil, and improve the controllable manufact...
The BioBits kits allow students to learn about key biological concepts through experiments with DNA and produce glowing proteins or scents. The kits contain freeze-dried cellular components, making them inexpensive and accessible.
BioBits kits use freeze-dried cell-free reactions to enable simple, hands-on biological experiments without specialized lab equipment. The kits introduce molecular and synthetic biology concepts, inspiring students to consider STEM careers.
Researchers propose genetically engineering houseplants to serve as early sensors of environmental hazards like mold, radon gas, and volatile organic compounds. This technology could lead to more responsive interior environments that prioritize occupant health and well-being.
Researchers aim to create storage systems integrating synthetic biology with semiconductor technology, potentially storing 1,000 times more data than current capabilities. The goal is to develop devices with greater storage capacity and lower power usage.
Scientists at Colorado State University aim to engineer world's strongest biomaterial sporopollenin in lab, with $1.7 million DARPA grant. The goal is to produce tunable, scalable polymer for protective coatings on ships, bridges and other infrastructure.
Rice University scientists introduce a new technique to fine-tune two-component biological sensors, enabling tailor-made biosensors for diagnostic gut bacteria and environmental pollutant detection. The approach uses phosphatase activity to alter the sensitivity of these pathways, promising a major breakthrough in synthetic biology.
Researchers aim to develop an optimized cell-free platform to speed up synthetic biology design-build-test-analyze cycles, enabling faster characterization of novel and improved pathways. The proposed technology leverages advances in DNA synthesis, cell-free biosynthesis capabilities, and genome engineering tools.
Researchers develop a gene promoter library to precisely tune genetic inputs and outputs, allowing for the design of probiotics that can diagnose or fight disease. The toolkit enables the creation of non-leaky promoters that turn on as much as needed, opening new doors for fighting disease.
The European Research Council has awarded a €2 million ERC Consolidator Grant to TU Darmstadt's Heinz Koeppl for his project 'CONSYN', which aims to improve the design of synthetic genetic circuits. The grant will support computational modelling and computer-aided circuit synthesis to overcome experimental challenges in synthetic biology.
Researchers at the University of Bristol created a new platform for producing desperately needed antibiotics by combining synthetic biology with biology and chemistry. The team successfully generated a semi-synthetic pleuromutilin derivative with enhanced antibiotic activity, addressing the growing resistance to existing antibiotics.
The Pelvic Floor Society issues a consensus statement on the use of mesh surgeries for treating constipation and rectal prolapse. The statement emphasizes proper training, accreditation, and tracking of complications to ensure patient safety.
A team at Harvard's Wyss Institute has created genetically encodable RNA nano-devices that can perform an unprecedented 12-input logic operation, enabling cells to analyze complex environments efficiently. These programmable devices may enable the construction of more sophisticated synthetic biological circuits.
A team of scientists is working on synthesizing a human genome from scratch, tackling the technical and ethical challenges that come with it. They have already made significant progress in building smaller genomes, such as those of microbes, but still face significant hurdles in constructing the complex human genome.
Researchers developed a biocatalytic system to produce terephthalic acid from p-xylene using metabolically engineered E. coli, offering a greener alternative to traditional chemical methods. The resulting yield of 97 mol% demonstrates the feasibility of this bio-based technology for large-scale production.