Articles tagged with Protein Analysis
Researchers at Pohang University of Science & Technology developed a new method for regenerating damaged conjunctiva using mussel adhesive protein, achieving stable tissue adhesion and biodegradation. The technique replaces traditional sutures in ocular surface reconstruction.
Researchers have developed a new method to select efficient gRNA molecules for CRISPR-Cas9 gene editing, achieving high efficiency and precision. The algorithm uses deep learning and large datasets to predict the efficiency of gRNAs, promising improved outcomes in genetic disorders and biotechnology applications.
The SARS-CoV-2 papain-like protease (PLpro) inactivates human proteins crucial for immune response, cardiovascular function and blood clotting. This link may explain COVID-19 symptoms of heart damage, blood clots and inflammation.
A new simulation method predicts blood flow conditions that cause pathological behavior of the human blood protein vWF. This breakthrough has the potential to optimize the design of left ventricular assist devices used in heart failure patients and improve diagnosis and treatment of von Willebrand disease, a common inherited bleeding d...
Researchers have developed a remedy for renal anemia in cats using feline-derived erythropoietin, which shows minimal adverse reactions. The Pegylated fEPO was tested on 60 cases and proven effective in improving symptoms and quality of life for both cats and their owners.
Researchers have developed a new method to control human hormones and metabolism, which could help prevent diseases such as prostate cancer and high cholesterol. The method involves binding to the POR protein, influencing hormone production and degradation, and has shown promise in treating prostate cancer by regulating CYP17 levels.
Researchers discovered that certain anaerobic bacteria can use citrate synthase to catalyze citrate cleavage without consuming ATP, requiring very high CO2 concentrations. The findings suggest that this metabolic pathway may be a relic of early life and have potential applications in biotechnology.
Researchers at Kanazawa University created a new AFM approach to increase frame rates up to 30 fps, reducing sample disturbance and improving imaging capabilities.
Researchers at CNIO describe how embryonic stem cells are maintained in optimal conditions for use in regenerative medicine. The study reveals the molecular events that help stabilize these valuable cells, which can differentiate into any cell type.
A Korean research team has developed an innovative treatment method for vesico-vaginal fistulas using a mussel adhesive protein-based bioadhesive. The new method shows promise in sealing fistulas quickly and effectively, with improved outcomes compared to conventional suture methods.
Scientists at Osaka University fabricated nanopores in silicon dioxide that can prevent particles from entering by applying a voltage. The technology may enable the development of single-particle sensors and next-generation DNA sequencing technology.
Researchers applied a new method to analyze ancient dental calculus, identifying dairy proteins and bacterial fragments that shed light on ancient diseases. The single-pot solid-phase-enhanced sample preparation (SP3) approach increased the number of unique protein fragments detected.
Researchers discovered that spraying leaves with high concentrations of ascorbic acid increases protein production three-fold in plants. This simple method can produce valuable pharmaceutical proteins at a lower cost and with increased efficiency.
UT Southwestern researchers have identified nine serum proteins in blood that strongly predict autism spectrum disorder (ASD) using machine learning tools. These biomarkers could enable earlier diagnosis and prompt therapeutic support, potentially improving quality of life for children with ASD.
New tools have been developed by WEHI researchers to study 'tryptophan C-mannosylation', a protein modification linked to diseases such as muscular dystrophy and cancer. The tools enable the mapping of this modification's prevalence in healthy tissues, laying the foundation for future studies.
Herbert Waldmann has been awarded the Richard Willstätter Prize for his groundbreaking work in chemical biology. He is recognized for developing novel approaches to create new active substances that can target specific biological processes, such as stopping cancer cell glucose uptake.
A Purdue University team developed a patented extraction method to separate mucilage from chia seeds, yielding a protein-rich flour with improved bioactivity. This method allows for more efficient processing of chia seeds for nutritional and pharmaceutical uses, potentially slowing signs of aging.
A new study has made a significant discovery about the origins of TAU protein in Alzheimer's disease, revealing its primary emergence in the rhinal cortex. The automated method, which tracks TAU buildup using PET imaging, suggests targeting this area could slow disease progression.
A new study has created the most complete annotated resource of proteins present in synapses, which could aid in early diagnosis and specific drug targets for brain diseases. Researchers identified 1466 synaptic vesicle proteins, many of which were previously unknown, and found that lower-abundance proteins often have crucial functions.
Researchers have discovered a protein that can expand typically scarce blood stem cells, potentially leading to new methods for growing a large quantity of these cells inside and outside the human body. The findings could benefit patients with inherited blood disorders and certain types of blood cancers.
Scientists have created a method to expand lipids in cell membranes, enabling the imaging of proteins and organelles with unprecedented resolution. This breakthrough allows for detailed insights into bacterial infection mechanisms and potential therapeutic targets.
Researchers have developed a novel approach to quantify ChIP-seq results, eliminating the need for spike-ins and ensuring reproducibility. The sans-spike-in method defines a physical scale for sequencing results, allowing comparison between experiments.
Researchers applied proteogenomics to identify precise diagnostics for known treatment targets, new tumor susceptibilities, and mechanisms involved in breast cancer treatment resistance. The study provides insights into the metabolic vulnerabilities of ER+ and ER- breast cancers and suggests potential targets for diagnosis and treatment.
Scientists developed an AI tool called DeepFRET that analyzes protein motion and interaction, speeding up research and making it accessible to more labs. The tool's accuracy exceeds 95%, outperforming human operators and requiring minimal human input.
Researchers at Karolinska Institutet have developed a new DNA-based analytical method called NanoDeep, which enables the analysis of entire populations of cells. This breakthrough could lead to better drugs for breast and other cancers by providing a more detailed understanding of membrane protein organisation.
A team of scientists from KAUST has rediscovered the value of an old technique in studying proteins through NMR spectroscopy. By re-examining the molecular motions of proteins, they found that dynamic NOE provides more accurate information about protein flexibility and is less prone to errors, especially in flexible regions.
Researchers have developed a new technology to diagnose sickle cell disease with increased sensitivity and speed, using only a small droplet of blood and costing less than traditional methods. The Acousto Thermal Shift Assay (ATSA) measures protein interactions and mutations in under one minute.
Researchers at uOttawa developed a novel computational procedure for enzyme design that approximates the intrinsic flexibility of protein scaffolds, improving catalytic efficiency by 1000-fold. This breakthrough enables the creation of artificial enzymes with high-efficiency catalysis on par with natural enzymes.
Researchers at Arizona State University have developed a method to examine proteins in keen detail, using surface plasmon resonance (SPR) and innovative microscopy techniques. This new technique resolves single molecules, including proteins, with high sensitivity.
Scientists at Nagoya University developed a new method for visualizing microtubule dynamics and cell membrane protein endocytosis in living plant cells. They successfully used SNAP-tag to mark auxin transporters, allowing clear differentiation between newly synthesized and endocytosed proteins.
Researchers have identified a new enzymatic reaction involving carbohydrates in plant cell walls, which is essential for their structure and function. This discovery contributes to our understanding of how plant cell walls can be formed, structured, and re-modelled.
A systematic review and dose-response meta-analysis found diets high in plant protein are associated with a lower risk of death from any cause. Plant protein intake was also linked to reduced risks of cardiovascular disease and cancer mortality.
A new protein-based technique analyzes amelogenin in tooth enamel to estimate human biological sex with superior accuracy than DNA analysis. This method allows for sex determination of children and is reliable even with weak DNA signals.
Researchers from Kazan Federal University developed a program to predict DSC curves from known binding constants and concentrations. This approach allows for the accurate measurement of high and weak binding constants, as well as stoichiometry of complexes, using albumin as a model protein.
Researchers from CityU have developed a novel detection method called CARPID to identify binding proteins of specific RNAs in living cells. The method uses CRISPR/dCasRx system and biotin-labelling technology to detect RNA-protein interactions, showing high specificity and applicability for lncRNAs of different lengths.
Researchers at NJIT have developed a new coulometric mass spectrometric approach to quantify proteins, which could aid in discovering new therapeutic antibodies or biomarkers. The method is faster and more efficient than current methods, requiring less time-consuming preparation of synthesized standard material.
Researchers have developed a CRISPR-Cas9 method to optimize proteins in mammalian cells, producing the fluorescent protein mCRISPRed that labels lysosomes. This technique enables targeted protein diversification and validation within organelles, opening new possibilities for biosensors, receptors, and therapeutic proteins.
A team of MIT researchers has developed ELAST technology, which provides a fast way to fluorescently label cells, proteins, and molecules in brain and other large tissues. The technology enables fully reversible tissue shape transformation while preserving structural and molecular information.
Researchers at EPFL have developed an algorithm to design artificial proteins that precisely guide the body's immune system to produce specific antibodies. The proteins were tested in animal models, triggering a strong immune response against respiratory syncytial virus (RSV), a leading cause of serious lung infections.
Researchers at Penn State have developed a novel method to deliver therapeutic proteins inside the body using an acoustically sensitive carrier and ultrasound imaging. The method uses a fluorous mask to interact with the particle's fluorous liquid medium, allowing the protein to be released in a precise manner.
Researchers at the University of Copenhagen found that fava beans can be processed into a concentrated protein powder using a unique method called wet fractionation, which increases protein content and improves digestibility. Fava beans are also more climate-friendly than soy due to local cultivation and reduced genetic modification.
Researchers developed a new technique to detect the aggregation state of amyloid beta proteins in solution, which could aid early diagnosis of Alzheimer's disease. The technique uses terahertz waves and provides a dementia quotient index to distinguish between protein states.
A new method detects trace proteins secreted by embryos using microfluidic droplets and multicolor fluorescence, predicting developmental potential with high accuracy. The technique improves upon conventional morphological scoring, reducing variability among embryologists.
Scientists have developed new methods to analyze individual proteins in marine protists, enabling studies on how these tiny organisms respond to environmental changes. The research sheds light on seasonal fluctuations and climate change impacts, providing insights into global cycles driven by phytoplankton.
A comprehensive map of the proteome of the model plant Arabidopsis thaliana has been created, detailing the presence, location, and quantity of approximately 18,000 proteins in the plant. This study provides new insights into plant biology and offers potential avenues for improving crop yields and disease resistance.
Researchers developed a new method that combines genomic and proteomic analysis to provide more detailed insights into cancer biology, tumor type, and response to therapy. The study showed promise for future clinical application and highlights the potential for precision medicine.
An analysis of self-reported data from over 37,000 US adults found associations between low-carb and low-fat diets and mortality risk, with unhealthy diets linked to higher total mortality. Healthy low-carb and low-fat diets were associated with lower total mortality rates.
A protein associated with ovarian cancer may contribute to the progression of Alzheimer's disease by impairing mitochondria function and causing neuronal damage. Researchers have identified OCIAD1 as a potential therapeutic target for the disease.
Researchers developed MaSIF, a machine learning-driven method to predict protein interactions and biochemical activity based on surface appearance. The algorithm analyzes chemical and geometric properties of proteins, creating a unique 'fingerprint' for each, enabling the prediction of behavior patterns.
Scientists at NIST have developed a single-step method to dissolve hair proteins, allowing for quantitative analysis and comparison of protein molecules from two hairs. This new technique removes the major obstacle of working with durable hair, making it a valuable tool for forensic investigation.
Researchers developed a new technique using light to stabilize proteins for study, allowing scientists to observe how specific proteins contribute to health, development, and disease. The method, called GLIMPSe, involves attaching a short peptide sequence that signals the cell to degrade the protein, which can be controlled using light.
A large-scale study implicates 10 new genes in the development of schizophrenia, providing insights into the genetic underpinnings of the disorder. The findings also suggest a connection between schizophrenia and other neurodevelopmental disorders.
Researchers at Graz University of Technology have created a new method to introduce lipids into proteins, simplifying the process previously employed in medical research. This breakthrough uses a noble metal catalyst and ligand combination to achieve rapid lipidation of cysteine-containing peptides and proteins.
A study of 42 skeletons from the Kilkenny Union Workhouse identified corn and milk as primary sources of starch and protein in the victims' diets. This research provides insight into historical diet patterns and offers new methods for analyzing skeletal remains to reconstruct past nutritional habits.
A new technique allows rapid degradation of targeted cellular proteins within minutes, enabling researchers to study protein functions and diseases. The method has potential for novel diagnostic and therapeutic methods, improving our understanding of cell biology.
Researchers developed a microfluidic concentration method that selectively concentrates proteins and nucleic acids, enabling rapid detection of pathogens and biomarkers. This technique enhanced concentrations by up to a billion-fold within 30 minutes.
A deep learning-powered computational framework called DeepEC has been developed to predict enzyme commission numbers with high accuracy and efficiency. It uses convolutional neural networks and homology analysis to identify EC numbers, which is essential for understanding enzyme functions.
Researchers have developed L-TEAM, a low-temperature DNA amplification method that works at body temperature, enabling highly sensitive nucleic acid detection. The method reduces non-specific amplification errors, making it suitable for disease diagnostics and biosensors.
Researchers have developed an AI-powered approach that enables faster and more accurate analysis of proteins, revolutionizing the field of proteomics. The new method has been trained on a vast dataset and can recognize proteins with high accuracy, enabling researchers to better understand life processes and diseases.
Researchers at Far Eastern Federal University developed a technology to synthesize protein from amaranth grains and mushroom mycelium, enriching stock-raising feed. The new feed is biologically equivalent to the storage protein A1 isolated from amaranth, meeting the natural amino acid composition.