A team of researchers from Iowa State University has developed a proof-of-concept three-dimensional paper-based microbial fuel cell that generates power through biofilm formation on the anode. The device produces 1.3 μW of power and 52.25 μA of current, demonstrating its potential for environmentally friendly energy production.
Using miniature EPMs, researchers achieved forces up to 70 nN and displacement velocities up to 300 μm/s on water droplets. The study has potential applications in single cell manipulation and analysis using droplet microfluidics.
Researchers developed an integrated inertial microfluidic vortex sorter for simultaneous double sorting of rare target cells and removal of background cells. The device achieved highly purified target cell products, even in complex samples containing orders of magnitude larger number of background cells.
Researchers develop computational model to simulate long-term effects of cardiac regenerative therapies, overcoming limitations of existing heart models. The results are consistent with some clinical study findings and will aid in optimizing therapy parameters.
Researchers review bladder mechanics, focusing on material testing and theoretical modeling to improve understanding and diagnosis of urinary disorders. They highlight the need for more accurate models to simulate bladder behavior and predict outcomes.
Researchers developed a dual nanoparticle delivery system for piperlongumine and TRAIL, demonstrating increased therapeutic efficacy in vitro and in vivo. The system sensitizes cancer cells to TRAIL, leading to higher apoptotic rates and improved anti-cancer effects.
A team of researchers has developed an all-on-chip method for testing neutrophil chemotaxis directly from whole blood using a microfluidic system. The method enables rapid and accurate analysis of neutrophil migration in under 25 minutes, overcoming labor-intensive traditional cell preparation methods.
Dr. Lyons-Weiler examines successes in biomedical translational success, including breast cancer receptor research and individualized treatments, as well as problems with modern healthcare. He also critiques examples of 'Shamwizardry' in the pharmaceutical industry.
Researchers have engineered a novel variant of streptavidin that forms a stable monomer and binds biotin without crosslinking, allowing for efficient biotinylation of targets. The optimized monomeric streptavidin (mSA) can be fused to proteins to create a bi-functional molecule, enabling proximity-dependent biotinylation techniques.
The study proposes a multi-criteria decision aid framework to assess water storage systems, prioritizing farmers as key stakeholders. Outranking assessment is suggested to facilitate systematic planning and inclusion of various criteria, ensuring more effective water storage investments in Sub-Sahara Africa.
Researchers used DFT to calculate electronic, elastic, and vibrational properties of BiAlO3. The study explores its crystal structure, space group R3c, and lattice parameter a = b = c = 5.338?A.
Researchers developed a microfluidic platform to assess dynamic deformability and adhesion of red blood cells in controlled microphysiological flow. The study found that non-deformable RBCs have increased adhesion at high flow shear stresses, suggesting an interplay between deformability and adhesion.
A team of researchers from UCLA has developed biomaterial coatings that alter cell proliferation and attachment. The coatings, which include collagen and heparan sulfate, were found to improve cell survival after implantation by promoting blood vessel development. This breakthrough could lead to the creation of functional tissues for t...
Researchers found that nanostructured phases of segmental polyurethanes can guide endothelial cells into networks, crucial for vascular structure formation. Material-induced solid state phase morphology provides cues to endothelial cells without biological stimuli.
Researchers review challenges and advances in optimizing specific productivity of metabolic pathways in living cells. New tools for library generation, computational analysis, and high-throughput screening are discussed to improve pathway creation and screening.
Researchers developed a novel liquid salt formulation of propranolol for transdermal delivery, reducing skin toxicity. The formulation uses counter ions to shield drug charge, increasing therapeutic efficacy while minimizing side effects.
Researchers developed a microfluidic biochip to count red and white blood cells, and platelets from just 11 microliters of blood. The biosensor takes under 20 minutes to measure and has the potential to improve patient care in low-resource settings.
Researchers can follow the emergence of hydrogen-bonded capsules in modern physical organic chemistry, enabling new arrangements of molecules and reaction vessels. The book covers various types of capsules and their functions, providing insights into encapsulation phenomena at the molecular level.
Researchers at UT-Arlington developed a novel cancer cell detection method based on real-time cell behavior tracking, leveraging the unique dancing behavior of cancer cells on engineered surfaces. This technology has potential to serve as an additional modality for identifying tumor cells from blood samples or biopsy specimens.
Cities are facing bigger challenges than ever before, including rural-urban migration, optimizing housing conditions, health and education. Digital technology has the potential to overcome many of these challenges, but concerns remain around privacy and cybersecurity.
COP21 seeks a universal agreement on climate change, aiming for a 40% reduction in greenhouse gases. The conference will focus on sustainable innovation, including biofuels research development, and encourage public awareness on climate change.
Researchers have created a novel method to efficiently culture clusters of circulating tumour cells (CTCs) from blood samples in just 14 days. This breakthrough can help clinicians assess the best therapy options for patients and monitor their treatment progress, potentially replacing traditional biopsies.
The use of big data and analytics is crucial for managing chronic diseases in Singapore, where 48% of the disease burden is related to chronic illnesses. Data analytics can help identify patterns and correlations that improve healthcare outcomes and reduce costs.
A study using ^90Y-daclizumab, an anti-CD25 monoclonal antibody, achieved complete and partial responses in 50% of patients with relapsed Hodgkin's lymphoma. The treatment showed minor toxicity, but six patients developed myelodysplastic syndrome, limiting its use as a standalone therapy.
The partnership aims to improve genomic research efficiency, increase output, and reduce costs. Gene technology will be utilized to create a better life for humanity, with the goal of advancing life sciences research.
The Handbook of Computational Intelligence brings together experts to provide a systematic background for solving problems in various applications. It explores the intersection of nature-inspired approaches and computational methods, shedding light on hybrid systems and industrial applications.
A novel microalgae biomass technology has been developed by UniVerve Ltd., offering a scalable and cost-effective solution for the production of microalgae-biomass. The technology enables the extraction of high-quality oil, omega-3 fatty acids, proteins, and other valuable biomaterials from the biomass.
Researchers have developed a less painful treatment approach for Pneumothorax by analyzing gas pressure in the thoracic cavity. The new diagnostic strategy allows physicians to update treatment strategies accordingly, often switching from chest tube drainage to more conservative or needle aspiration methods.
Researchers at University at Buffalo have developed a novel pre-purification system to enhance the production of yersiniabactin, a metal-binding compound with potential applications in wastewater treatment and physiological metal imbalance. The new method improves the recovered levels of the final compound, paving the way for its use i...
Researchers at Concordia University have developed micro-photosynthetic cell technology that can generate clean energy. The technology involves trapping electrons released by blue-green algae to produce electricity, with the potential for high power density and scalability.
A model investigates optimal vaccination strategies to minimize cholera-related mortality and costs, considering seasonality in pathogen transmission. The study finds that effective vaccination can significantly reduce disease spread and associated expenses.
Researchers review the use of pulse electric fields to boost biogas yield in anaerobic digestion, finding significant benefits in lab and pilot plant studies. The technology has shown promising results in enhancing gas production with minimal side effects on microbial communities.
The BioLEGO web application enables single and two-step multiorganism fermentation process design, maximizing feedstock conversion rates. It also evaluates possible biomass-to-product yields and recommends media changes to increase process efficacy.
A new microchip design captures circulating tumor cells for serial analysis, while a 3D hydrogel scaffold enables retrieval and in vitro growth promotion. The technology also facilitates xenograft models in immunodeficient mice, offering a promising approach to personalized cancer therapies.
A novel process configuration produces clean middle-distillate fuels from coal with minimal emissions, suitable for jet or diesel engines. The process extracts coals with light cycle oil, separates solids, hydrotreats liquids to remove sulfur and aromatic compounds.
A novel approach using a motile bacteria and microbial lug-gage enhances cellulose degradation in solid-state conditions. This method overcomes limitations of current biocatalysts, offering a promising solution for efficient and cost-effective cellulose hydrolysis.
The book explores how hierarchical organization, wavelet transformation, subspace trees, and deep learning can overcome the curse of dimensionality to develop efficient big multimedia databases. It introduces essential statistical supervised machine learning algorithms for information retrieval.
A team of Italian researchers has demonstrated the feasibility of a novel biogas upgrading process using physical absorption column technology at low pressure and temperature. The process involves two absorption columns, one at atmospheric pressure for CO2 removal and the second, with reduced dimensionality, for biomethane purification.
A microfabricated device has been developed to evaluate the efficacy and toxicity of pro-drugs, enabling the separate culture of primary liver cells and cancer cells. The system simplifies the process by eliminating the need for pumping and tubing connections, providing a novel platform for studying drug metabolism and interactions.
The article explores how particle accelerators contribute to medical treatments by providing precise control over energetic particles. Researchers are developing smaller and lower-cost machines to improve the curative capabilities of cancer treatment while reducing costs.
Theoretical physicists explore effects of breaking Lorentz invariance in ultraviolet region to create renormalizable theories. A holographic superconductor can still be realized in this new gravity without LI.
A new approach breaks down the N-body problem into inertial and local reference frames, allowing for the solution of the Einstein field equations with accuracy. The results have practical applications in astronomy, geodesy, and astrophysics.
The study develops a method for label-free chemical imaging using infrared spectroscopic imaging, allowing molecular stains to be reproduced without tissue damage. This approach enables multiplexed molecular analysis and could revolutionize pathology in research and clinical practice.
Researchers have developed a new method for secure data transmission utilizing offline repositories and quantum information to overcome quantum computing threats. The approach provides robust authentication and authorship uniqueness, paving the way for potential applications in untraceable transactions.
Research identifies company characteristics, partner selection, and consumer uncertainty as crucial elements in platform adoption. The study suggests partnering with reputable firms can foster technology adoption.
Researchers have developed a new technology to preserve milk without refrigeration or chemicals, reducing waste and increasing income for small farmers. Pulsed electric fields can kill bacteria and extend shelf life without constant electricity supply.
Nexus theory reconciles GR and Quantum Theory, explaining dark matter as the nexus graviton's constant rotational motion. The theory also sheds light on perplexing questions in physics, including a quantum description of Black Holes without singularities.
The Nexus theory provides a self-consistent explanation for Quantum Gravity, reconciling GR with Quantum Theory. It introduces the Nexus graviton, a composite particle that induces constant rotational motion and constitutes space-time.
Researchers calculate tortuosity in Sierpinski carpet models using finite volume method, revealing a linear relationship between generations and tortuosity. This study enhances understanding of transport properties in porous media, crucial for various fields like oil recovery and groundwater engineering.
A team of astronomers successfully restored the Half-wave Spectropolarimeter (HPOL) instrument, allowing it to conduct measurements with improved performance. The upgraded HPOL is now fully operational at the University of Toledo's Ritter Observatory and enables researchers to study variable or transient objects more effectively.