Research on the cell biology of tumors. Covers cancer-cell vulnerabilities, tumor spread, nanoreactor therapies, and AI-guided cancer research.
Researchers developed an AI tool called AAnet to characterize cancer cell diversity, identifying five distinct cell groups with different gene expression profiles. This could lead to more targeted therapies and improved patient outcomes.
Researchers from Université Libre de Bruxelles discovered inflammation-induced cellular reprogramming leading to tumor initiation. They found that this process occurs differently in various regions of the prostate, with severe cases associated with more aggressive cancers.
Researchers discovered dynamic cells coordinate movements to sculpt living tissue in developing fruit flies, highlighting a powerful role of migrating cells in organ formation. This finding suggests similar systems may shape different organs, including the brain and testis.
Researchers at Nagoya University have created CAR-T cells that recognize and target the Eva1 protein on cancer cells, effectively eliminating tumors in lab mice. The treatment is designed to be safer by ignoring healthy cells with low amounts of Eva1.
A pilot study found that exercising during chemotherapy can increase the number of immune cells fighting cancer, including CD8+ T cells and natural killer cells. The exercise programme improved patients' aerobic fitness, leading to stronger immune responses inside tumours.
Researchers identified a novel region in AR that binds to PCNA, and developed a small peptide to mimic this region, blocking the AR-PCNA connection. This approach reduced cancer cell growth, particularly in patients with limited treatment options.
Researchers at Ben-Gurion University of the Negev have made a breakthrough in harnessing patient's own T-cells to fight off cancer by creating artificial surfaces mimicking natural immune cells. These surfaces, engineered with nanostructures, strengthen and prolong activation of T-cells, leading to more effective immunotherapy.
Cancer cells and immune cells without the Y chromosome tend to have poorer outcomes, making them more aggressive. Researchers hope to adapt therapies to account for this loss to improve treatment effectiveness.
Researchers discovered a specialized histone arrangement, called the CENP-A–H4 octasome, in centromeric regions. This unique structure likely contributes to proper kinetochore formation and mitosis.
Researchers developed a 3D in vitro culture system to study tumor cell behavior, finding that clusters can infiltrate blood vessels by disrupting the endothelial barrier. This discovery suggests new targets for cancer treatment strategies.
A UCLA study found that selective serotonin reuptake inhibitors (SSRIs) can significantly enhance the ability of T cells to fight cancer and suppress tumor growth across various cancer types in mouse and human tumor models. SSRIs increased access to serotonin signals, making killer T cells happier and more effective at killing cancer c...
Researchers developed an artificial intelligence technique that detects DNA fragments in patient blood to monitor treatment response. The ARTEMIS-DELFI approach was found to be more effective and simpler than existing methods, allowing for quicker identification of patients who are not responding to therapy.
Researchers at MIT developed a method to quickly measure cell density, which can predict whether immunotherapies will work in patients or how tumors will respond to drug treatment. The technique uses a combined microfluidic device and fluorescent microscope to measure up to 30,000 cells in an hour.
Dr. Britta Will has been appointed as the permanent director of the Ruth L. and David S. Gottesman Institute, succeeding Ulrich Steidl. Her research focuses on restoring blood regeneration in older adults and those with cancer. She aims to advance fundamental research into stem cell function and tissue regeneration to combat chronic de...
A study led by Johns Hopkins Medicine scientists found that rearranged genes in a rare type of kidney cancer form liquid droplets that turn on cancer-promoting genes. By disrupting these droplets, researchers may develop new therapies for this currently untreatable cancer.
The University of Texas at Arlington's nursing and physics team has developed a system to study alpha radiation, improving the effectiveness of radiation therapy. The team's research was recognized with the Best in Physics award at the American Association of Physicists in Medicine's annual meeting.
Researchers developed a comprehensive cell line atlas to better understand the biology of advanced biliary tract cancer. The atlas identifies new molecular subtypes and therapeutic targets, offering a path toward more tailored treatment strategies.
Researchers at MD Anderson Cancer Center have made breakthroughs in understanding pancreatic cancer metastases and identifying potential biomarkers for treatment-resistant pancreatic cancer. A comprehensive spatial map provides insights into lineage shifts in cancer cells transitioning from primary tumors to organ-specific metastases.
Researchers from the University of Southampton engineered a new type of super-strong antibody that triggers a stronger response from the immune system compared to naturally produced antibodies. The study confirms that making subtle increases in rigidity stimulates immune activity, creating a powerful immune response against disease.
A USC team has developed an advanced platform to analyze chimeric antigen receptor (CAR) T cells, revealing how their manufacturing conditions impact effectiveness. The tool uses laser technology to analyze 36 characteristics of a single cell, providing a clearer view of CAR T cell behavior.
Researchers have developed three-dimensional spheroid cultures that better replicate cell-cell interactions and nutrient gradients, leading to a greater understanding of tumour tissue behaviour and drug responses. The study highlights the importance of mimicking tumour architecture in testing cancer therapies.
Indigenous Nigerian food plants, such as Spondias mombin and Xanthosoma sagittifolium, contain flavonoids, alkaloids, terpenoids, and phenolic acids that exhibit anticancer properties. These plants induce apoptosis, inhibit cell proliferation, reduce oxidative stress, and modulate key cellular pathways.
Researchers developed a blood test analyzing messenger RNA to detect cancers, track treatment resistance, and monitor tissue injury. The test increased cancer detection by over a factor of 50 and provides useful information for non-cancer applications, such as COVID-19 severity and lung health.
Researchers at Tokyo Metropolitan University have created a novel technique using phase-contrast microscopy to track and analyze the motion of unlabeled cells. This allows for the accurate differentiation of cancerous cells with up to 94% accuracy, opening new avenues for diagnosis and research on cell motility related functions.
Researchers at Duke University and colleagues discover a way to improve the uptake of cancer-fighting drugs called PROTACs by leveraging the CD36 protein. This approach delivered up to 23 times more potent treatment without compromising stability or solubility, paving the way for effective medications.
Recent studies have improved the diagnostic accuracy of CUP, surpassing 90%, with advancements in methodologies such as gene expression profiling. Site-specific therapies have shown significant benefits over empirical chemotherapy, leading to improved patient outcomes for those affected by this condition.
Lower-intensity electrical pulses reshape the tumor environment, increasing blood vessel density and boosting lymphatic vessel growth. This may guide immune cells to the tumor, improving the body's natural ability to fight cancer.
Researchers developed a cell-based reporter assay that can quantify epigenetic changes induced by chemicals and potential carcinogens. The epi-TK assay detects gene silencing and activation, reflecting epigenetic changes associated with both gene expression and DNA methylation.
Researchers discover that oxygen-starved cancer cells use the same gene as high-altitude populations, such as Tibetans and Sherpas, to adapt to hypoxia. This convergence in genetic adaptation could lead to new therapeutic targets for cancer treatment.
Researchers have discovered new interactions and identified potential targets for cancer therapy by analyzing the effects of inactivating DNA repair genes. By comprehensively studying the interactions between more than 500 crucial genes, the team gained important new insights into how cells maintain genome integrity.
A new study led by NYU Langone Health scientists sheds light on how the major cancer gene BRCA2 determines which cancer cells can be killed by a class of precision cancer drugs called PARP inhibitors. Intact BRCA2 functions as a molecular shield, preventing PARP1 from disrupting DNA repair complexes, and its activity dictates PARP inhi...
Researchers discovered that a high-fat diet activates mechanisms facilitating breast cancer metastasis by promoting platelet activation and fibronectin expression, creating a fertile breeding ground for tumor cells to take root. This study provides new insights into the relationship between obesity and breast cancer spread.
Michigan State University researchers have created a new light-activated treatment for metastatic breast cancer, offering a targeted option with reduced side effects. The innovative cyanine-carborane salts work like a 'smart' bomb to kill cancer cells while sparing healthy tissue.
A French research team has discovered that an organogold(III) complex accumulates selectively in the mitochondria of lung cancer cells, demonstrating its potential as an anticancer treatment. The complex's antitumor activity is attributed to its interactions with specific biological molecules, disrupting their function.
Researchers found that NSD2 helps maintain MM cell identity by reorganizing DNA and influencing gene activity. This discovery could shape future treatment approaches for patients with t(4;14) myeloma.
Researchers at USC Viterbi have developed a new type of immune cell that can sense and destroy cancer cells for extended periods using focused ultrasound. This technology could overcome obstacles in treating tumors with immunotherapy while keeping healthy tissue safe.
Researchers have developed a new approach to personalize treatments for young cancer patients by growing tumors in chicken eggs and analyzing proteins. The technique, which combines genomics and proteomics, was successful in identifying a treatment option for a patient with a rare pediatric cancer.
Researchers at Mass General Brigham have identified mutations in VPS35 that can prevent chemotherapy-induced cell death, leading to treatment-resistant tumors. Higher tumoral VPS35 levels were associated with improved treatment responses and overall survival rates in patients with ovarian cancer.
A team of scientists has created a new method to selectively modify specific proteins in complex biological environments. They achieved this using aptamers and deoxyoxanosine, allowing precise conjugation of desired sites on target proteins. This breakthrough technology has the potential to revolutionize cancer diagnosis and treatment.
Scientists have long believed that cells respond to stress in a linear chain of events, but a new study reveals a more complex 'split-integrated stress response' that can be fine-tuned depending on the type and intensity of stress. This flexibility could lead to new targets for treating cancer and neurodegenerative diseases.
Researchers created a highly detailed map of gastric cancer tissues using advanced mapping technologies, identifying distinct subgroups of cancer cells and evolutionary pathways that influence tumour behaviour. These insights could lead to more precise, targeted treatments that improve survival rates and reduce side effects.
A Japanese research team has discovered a novel global cooperative phenomenon of cell interactions in cervical cancer cells. The framework used in their studies could prove useful for investigating hidden states of a group of cells and may lead to novel cancer therapies.
Researchers developed a new diagnostic platform that classifies brain tumors based on the body's cancer-fighting immune response. The approach tailors treatment options to each patient's unique immune profile, offering improved diagnostics and potential for immunotherapies to revolutionize childhood leukemia treatments.
Researchers at St. Jude Children's Research Hospital found that removing the 'signal jammer' protein VDAC2 can improve how tumors respond to immunotherapy. This breakthrough could lead to new ways to enhance immunotherapies and make them more effective in treating resistant cancers.
Researchers developed a synthetic mRNA that revitalizes the immune system to recognize and attack metastasizing cancer cells, significantly reducing metastasis in mice and human cells. The treatment shows promise for use in patients with colon and breast cancers, outperforming existing therapies.
Dr. Nowicki's team has engineered 'supercharged' T cells that produce extra TNF-alpha to boost cancer-fighting ability, offering a potentially more precise and toxic-free treatment option. The new funding will help test these enhanced T cells in preclinical models to evaluate their effectiveness.
The study found that Black patients have a higher prevalence of PD-L1 overexpression, TP53 mutations, and KRASG12R mutations compared to White patients. This could affect how their cancer progresses and responds to treatment.
Researchers found that pancreatic cancer cells gain a survival edge by carrying copies of critical cancer genes on circular pieces of DNA outside chromosomes. The discovery highlights the importance of targeting extrachromosomal DNA in treating the disease.
Researchers used CRISPR to cut a single gene from cancer cells of head and neck tumors, resulting in the elimination of 50% of the tumors after 84 days. This groundbreaking study demonstrates that some genes are essential for cancer cell survival, making them excellent targets for CRISPR therapy.
Researchers develop a 'colocatome' to study the interactions between cancer cells and their surrounding non-cancerous cells, revealing how these interactions impact tumor growth and treatment resistance. The study aims to provide insights into universal rules of tumor behavior and guide the design of more effective treatments.
Researchers have developed a next-generation CAR-T cell therapy called ALA-CART that can enhance the effectiveness and longevity of cancer cells against harder-to-treat cancers. The treatment has shown promising results in fighting acute lymphocytic leukemias resistant to traditional CAR-T cells.
Magnetic nanoparticles are guided to tumors using a magnet and heated by a laser to destroy cancer cells. Researchers developed nanoparticles that outperform conventional photothermal agents, killing cancer cells with high efficiency.
Researchers found that aspirin prevents cancers from spreading by decreasing a clotting factor called thromboxane A2 and releasing T cells from suppression. This discovery could lead to the development of targeted treatments to prevent cancer metastasis, making aspirin potentially less expensive than antibody-based therapies.
Researchers at University of Arizona Cancer Center found that an immunotherapy previously shown to be ineffective against prostate cancer may have therapeutic potential when combined with a specific protein inhibitor. The study's co-author, Noel Warfel, PhD, identified a way to sensitize prostate tumors to immune checkpoint inhibitors ...
PARP inhibitors have been found to be effective in treating cancers with BRCA1/2 mutations by blocking DNA repair pathways. The combination of PARPis with chemotherapeutic drugs can also improve treatment efficacy, increasing DNA damage and blocking repair processes.
Researchers discover engineered TIMP molecules can block cancer cell migration and invasion, offering a targeted approach to treating GBM. The findings also suggest the potential for safe treatment with minimal side effects.
Researchers have developed a specialized nanoscale material that illuminates cancer cells under freezing conditions, improving surgical precision. This technology enhances surgeons' ability to detect and remove cancer cells during cryosurgery.
Researchers have discovered lipid signatures associated with chemotherapy-resistant cells in colorectal cancer. These lipid alterations can serve as prognostic markers and help develop new treatment strategies to restore drug sensitivity.
A study by Andreas Koeberle and colleagues reveals that certain natural substances can increase polyunsaturated fatty acids in cancer cell membranes, making them susceptible to ferroptosis, a type of cell death. This discovery creates new avenues for treating therapy-resistant tumours.
Researchers at Aston University and the Royal Orthopaedic Hospital are developing an injectable paste using gallium-doped bioglass to treat bone cancer. The substance has anticancer and bone regenerative properties, showing a 99% success rate in eliminating cancerous cells.