Articles tagged with Cancer Medication
Researchers found that activating the non-mutated form of P53 can change the fundamental makeup of cancer stem cells in mouse models of mucoepidermoid carcinoma. This new therapy approach shows promise for treating this lethal form of salivary gland cancer.
The updated guideline provides recommendations on the use of radiation therapy and systemic therapy after surgery to treat patients with endometrial cancer. It considers the role of surgical staging and molecular profiling techniques in determining whether a patient should receive post-operative therapy.
Researchers found that certain glycoalkaloids in plants like potatoes and tomatoes can inhibit cancer cell growth and promote cancer cell death. These compounds have huge potential for future treatments and may be used to develop new cancer drugs.
Researchers developed polymeric micelles to reprogram tumor microenvironment, enhancing nano-immunotherapy efficacy in mouse breast cancer models. The treatment response can be predicted from ultrasound shear wave elastography measurements prior to treatment initiation.
Researchers from City of Hope identified how a protein receptor targeted by 33% of all federally approved medications works. This discovery could facilitate pharmaceutical research and lead to the creation of innovative medicines with fewer side effects.
A Mount Sinai study found that certain inflammatory markers can predict which patients are more likely to respond to COVID-19 immunotherapies. The researchers identified a subtype of COVID-19 patients with hyperinflammation who could benefit from pacritinib, an anti-cancer drug.
Researchers analyzed genetic data from 233 patients with ovarian cancer and found that precise localization of BRCA gene mutations is crucial for effective treatment. The study suggests that PARP inhibitors can be highly effective in patients with mutations in the DNA-binding domain, leading to improved overall survival rates.
Research found that male rats exposed to ifosfamide during adolescence had offspring and grand-offspring with increased incidence of diseases, including kidney and testis problems. The study's epigenetic analysis revealed changes passed down through sperm and ova, indicating a potential risk for future generations.
Researchers at University of Pittsburgh have designed novel nanoparticles that co-deliver a chemotherapy drug and a novel immunotherapy, shrinking tumors in mouse models of colon and pancreatic cancer. The therapy silences a gene involved in immunosuppression by blocking Xkr8 protein distribution on the cell membrane.
University of Copenhagen researchers made a groundbreaking discovery about the mammalian brain, finding that a vital enzyme that enables brain signals is switching on and off at random intervals. This challenges the long-held assumption that these enzymes are active at all times to convey essential signals continuously.
A systematic review and meta-analysis of ADC clinical trials found that 91.2% of patients experienced treatment-related adverse events, with serious side effects including neutropenia, hypoesthesia, and thrombocytopenia. The study highlights the need for clinicians to address these toxicities in ADCs' use.
Scientists at KAUST have identified dynamic regions, called cryptic binding sites, that can be targeted by drugs to treat cancer. The study reveals how molecular motion influences ligand binding to BTB domains, a critical part of many proteins involved in disease.
The American College of Physicians recommends policies to improve healthcare access and quality for incarcerated patients, including adequate funding and timely access to necessary services. The organization also supports treating substance use disorders as an alternative to incarceration.
Researchers at University Hospitals and Case Western Reserve University have discovered a small-molecule oral drug that reduces PCSK9 levels and lowers cholesterol by 70% in animal models. This breakthrough could also improve the efficacy of cancer immunotherapies.
A 30-year follow-up study of patients with early breast cancer found that radiotherapy does not improve overall survival rates after 10 years but reduces the risk of recurrence in the same breast. The study's findings challenge traditional concepts of long-term anti-cancer benefits of radiotherapy.
Researchers identified specific immune cells driving deadly heart inflammation in cancer immunotherapy patients, and found that CD8 T cells target the heart muscle. The study's findings have led to investigations into preventing or treating this form of myocarditis, a common but fatal side effect of ICIs.
Researchers demonstrate a new way to deliver medication to malignant brain tumors in mice, using a modified peptide that can penetrate the blood-brain barrier. The study shows promising results, with a 50% increase in survival rate for treated mice, and offers hope for future treatment breakthroughs.
A new prodrug called DRP-104 targets cancer cells' high demand for glutamine, eliminating them while sparing healthy tissues. The drug is in early-stage clinical trials for advanced solid tumors and shows promise as a safer alternative to existing treatments.
Researchers found that a new drug inhibiting GRP78 effectively reduces SARS-CoV-2 replication in human lung cells. The drug also shows potential in treating certain types of cancer by suppressing mutant KRAS proteins.
Researchers have created a chemical tag that can be added to drugs, allowing them to enter blood circulation via the intestines. The tag, called EPP6, is a neutral peptide that can deliver drugs orally, potentially replacing injections for diabetes and cancer patients.
The West Texas Pharmacology Core laboratory at TTUHSC will focus on two primary areas: drug development and pediatric cancer. The core aims to address obstacles in drug development, including limited pharmacology expertise for small biotech companies and low profitability for pediatric cancer drugs.
Researchers at CNIO have identified epigenetic changes, specifically DNA methylation, as a key mechanism behind resistance to proteasome inhibitor drugs in multiple myeloma. This finding suggests that methylation levels in the PSMD5 gene can predict treatment response and potentially reverse resistance.
Researchers at the University of Missouri have successfully used click chemistry to deliver radiopharmaceuticals specifically to tumors in large dogs with bone cancer, increasing effectiveness and minimizing circulation. This breakthrough could pave the way for click chemistry-based treatments for humans with cancer in the future.
Assistant Professor Nourridine Siewe developed a new mathematical model to assess different approaches for treating metastatic cancer. The model evaluates the interactions among immune cells and cancer, helping clinicians decide on the best treatment strategies.
Researchers uncover critical shape-change in cereblon protein that CELMoD drugs must cause to work effectively. The finding enables the development of more effective cancer-fighting treatments.
A study by CeMM researchers and the University of Dundee identifies mutations in E3 ligases that mediate resistances in cell cultures, but also finds that these mutations can be targeted by chemically modified degraders. This understanding has clinical relevance and enables further improvement of cancer therapy drugs.
A recent study found worsening disparities in cancer drug trial participant diversity from 2000 to 2018, highlighting systemic biases and unequal access to new treatments. The findings underscore the need for increased diversity in phase 1 clinical trials to ensure equitable access to life-saving treatments.
A small clinical trial showed 40% of patients experienced progression-free survival when treated with a CD105 inhibitor, which prevented cancer cells from making splice variant proteins. This approach may resensitize select patients to androgen suppression therapy.
Researchers have designed DNA-based transporters that can deliver precise concentrations of drugs, potentially improving cancer treatment. These nanotransporters can also be programmed to prolong the effect of a drug and minimize its dosage, reducing side effects.
A study reveals that interleukin 34 (IL-34) modulates the balance between two myeloid-derived suppressor cell populations, leading to immunosuppression and chemoresistance in triple-negative breast cancer. Neutralizing IL-34 with a drug reduces tumor growth and susceptibility to chemotherapy.
Researchers mapped the detailed neural pathway of defensive responses from the gut to the brain in mice after detecting germs. The study could lead to better anti-nausea medications for cancer patients undergoing chemotherapy.
Researchers found that reducing SAMHD1 levels made brain tumor cells sensitive to chemotherapy drugs and slowed cell growth. They also suspect that glioblastoma alters SAMHD1's function to aid its own survival and treatment resistance.
A comparison of two cancer drugs reveals that life cycle management strategy is crucial for a drug's commercial success. The research found that product sales are closely linked to the number of approved indications and inter-organizational alliances.
In the ARROS-1 trial, 48% of patients achieved partial responses to NVL-520, with responses seen across all dose levels and in heavily pre-treated patients. The treatment also showed promise for brain metastases, with three out of three patients experiencing measurable response or no emergence of new metastases.
A new experimental drug has shown promising results in treating liver cancer, with two patients experiencing a partial response to the treatment. The drug, NMS-01940153E, targets an enzyme that plays a critical role in cell division and growth, and its side effects are manageable.
A Phase Ib clinical trial found that sequential administration of PARP inhibitor olaparib and WEE1 inhibitor adavosertib is safe and well-tolerated, with promising signs of anti-tumor activity in patients with advanced cancers driven by DNA damage response mutations. The combination showed durable responses in patients with resistant c...
Researchers at UNIGE have discovered a way to overcome resistance to chemotherapy in colorectal cancer, using an optimized combination of tyrosine kinase inhibitors. This breakthrough opens up new avenues for developing targeted therapies that can effectively treat patients with low five-year survival rates.
The study found that BRAF alterations, particularly Class I mutations like v600E, are associated with improved overall survival in adults with glioma. However, the effectiveness of targeted therapies depends on the specific type and combination of genetic alterations driving the cancer.
Researchers have developed a drug compound that stops cancer cell growth in mice with little effect on normal healthy cells, making it potentially nontoxic for patients. The therapy targets the epidermal growth factor receptor gene, which is overexpressed in about half of all triple-negative breast cancer cases.
A new Northwestern Medicine study identifies common and rare gene mutations that impact radiation resistance and sensitivity. This information will allow clinicians to better calibrate radiation doses based on genetic mutations, improving treatment efficacy while reducing toxicity.
Researchers at Duke University have developed a novel treatment that combines internal radiation and chemotherapy to eliminate tumors in 80% of mice with pancreatic cancer. The approach uses a gel-like depot implanted with radioactive iodine-131, which deposits beta radiation directly into the tumor without affecting surrounding tissue.
A recent study by Weill Cornell Medicine investigators found that corrupted endothelial cells can protect leukemia cells from chemotherapy drugs. The discovery has the potential to improve drug discovery programs and clinical trials for T-cell acute lymphoblastic leukemia (T-ALL) patients.
A novel polysorbate-based formulation enhances carboplatin's therapeutic response in lymph nodes, amplifying antitumor effects and increasing drug penetration.
Researchers developed a new machine-learning approach to classify macrophages, which are key immune cells involved in pro- or anti-inflammatory responses. This technology could be used as a diagnosis tool or to highlight the role of specific cell types in disease environments.
Researchers at LSU Health New Orleans have identified a new drug target for triple-negative breast cancer, which lacks estrogen and progesterone receptors. The novel small molecule inhibitor NSC33353 works synergistically with doxorubicin to suppress the growth of TNBC cells.
A new potential antitumor drug, TRIP, causes rapid protein aggregation, hyperactivating the unfolded protein response and leading to programmed cell death in ovarian cancer cells. The Fe-S cluster biogenesis factor NUBP2 is identified as the probable starting point for the cellular processes triggered by TRIP.
The study reveals how the activating partner PI5P interacts with two different regions of regulatory protein UHRF1, showing its role in modulating complex proteins. This finding could breathe new life into the search for UHRF1-directed medicines.
Researchers developed an AI model that analyzes immune cells to predict which skin cancer patients will benefit from treatments activating the immune system. The study found that patients with more immune cells recognizing skin cancer had better treatment outcomes.
A recent study found that cancer biomarker data is biased towards European populations, potentially misclassifying patients of Asian or African descent. The researchers propose a computational approach to correct this bias, which could have significant implications for treatment selection.
Researchers have developed a new approach to test the efficacy of multiple anticancer drug combinations simultaneously, rapidly, and accurately. Combi-seq overcomes limitations of conventional technologies by using microfluidics to carry out large-scale experiments with small sample volumes.
Scientists from NTU Singapore have discovered that telomeres are stacked in columns like a spring, leaving DNA exposed to damage. This finding could improve understanding of how humans age and develop cancer, with potential treatments for diseases caused by dysfunctional telomeres.
Recent media releases from UK government agencies and NHS organizations lack objectivity and provide unbalanced information on prescription-only medicines. The Drug and Therapeutics Bulletin expresses concerns over the use of hyperbolic language and omission of key information about potential harms and benefits.
Researchers at the University of Helsinki have identified target genes of the MYC oncogene responsible for its growth-promoting effects. By modifying these genomic binding sites, they slowed down cell growth. This finding has significant implications for developing new cancer treatments.
Researchers have identified a small molecule drug, SHP656, that can target the circadian clock proteins responsible for glioblastoma's recurrence and spread. The drug has shown promise in reducing cancer stem cell growth without harming normal stem cells.
A potential new treatment for glioblastomas, a deadly form of brain tumor, is being researched using the medication letrozole. Studies have shown that letrozole can be effective in killing tumor cells and reaching target tissue safely.
Mayo Clinic researchers identified critical genomic changes associated with abiraterone acetate/prednisone resistance in advanced prostate cancer. An 11-gene drug panel predicted a worse prognosis for a subset of patients, and whole-exome sequencing data revealed mechanisms of acquired resistance.
Researchers have developed a flexible endoscopic imaging probe using a bendable graded index (GRIN) lens, enabling 3D microscopic imaging of tissue. The new technology could shorten biopsy waiting times to minutes and enable real-time monitoring of tissue changes.
Researchers at UMC Utrecht will investigate how intestinal microbiota impacts cancer immunotherapy and therapy side effects. The project aims to develop microbiota-targeted therapies to improve ICI treatment effectiveness and reduce severe inflammation.
Researchers at Nagoya University have identified new agents involved in DNA damage tolerance pathways, including RFWD3, which may contribute to anticancer treatment. The study's findings suggest that inhibiting these pathways could sensitize cancer cells to conventional chemotherapeutic agents.
Researchers discovered a type of triple-negative breast cancer cell that can trigger dormancy, evading therapies and allowing for efficient survival in distant organs. This finding highlights the need for more selective therapeutic strategies targeting both dividing and invasive dormant cells.