Cancer News and Research

RSS

Cancer begins in your cells, which are the building blocks of your body. Normally, your body forms new cells as you need them, replacing old cells that die. Sometimes this process goes wrong. New cells grow even when you don't need them, and old cells don't die when they should. These extra cells can form a mass called a tumor. Tumors can be benign or malignant. Benign tumors aren't cancer while malignant ones are. Cells from malignant tumors can invade nearby tissues. They can also break away and spread to other parts of the body.

Rapid fluctuations in electrical activity within breast cancer cells identified

Recent research has discovered that the membranes of breast cancer cells have varying voltages, revealing information regarding their growth and spread.

15 Nov 2022

CRISPR technology to improve the efficacy of immunotherapy

Using CRISPR technology for the first time, researchers have inserted genes that enable immune cells to concentrate their attack on cancer cells, potentially sparing healthy cells and boosting the effectiveness of immunotherapy.

14 Nov 2022

microRNA molecules upregulate proteins instead of dampening it

microRNAs are thought to only suppress protein expression in dividing cells, such as tumor cells, and can contribute to the development of cancer.

11 Nov 2022

Uncovering a cell-intrinsic mechanism to regulate cell population sizes

A new cell-intrinsic mechanism has been unraveled by scientists at the University of Basel. This regulates the correct number of T cells present in the organism and thus guarantees that the immune system functions in a proper manner.

11 Nov 2022

Lung cancer treatment with protein insights

Scientists studying the mechanics of lung cancer’s early stages have discovered a new potential treatment that could also aid in the early detection of the disease.

10 Nov 2022

Novel high-resolution taxonomy facilitates effective management of CRC patients

Recent research discovered that bowel tumors can be classified into six clinically relevant subcategories based on patterns of gene interactions seen within tumor cells. The study was published in eLife.

10 Nov 2022

Meet Dragonfly 600, Oxford Instruments’ new flagship confocal microscope

Oxford Instruments Andor, a world leader in scientific imaging solutions, has today announced the launch of Dragonfly 600, further strengthening its award-winning confocal microscopy portfolio.

From Andor Technology Ltd. 10 Nov 2022

New electrochemical sensing platform holds promise for monitoring perfusable vascular networks

The costliness of drug development and the limitations of studying physiological processes in the lab are two separate scientific issues that may share the same solution.

9 Nov 2022

Regulating cholesterol production with novel protein

Everyone must have heard about cholesterol and how important it is to eat heart-healthy meals to keep it under control.

From The University of New South Wales (UNSW) 8 Nov 2022

Understanding immune cell function to improve vaccine efficacy

The immune system’s capacity to remember defeated disease-causing germs and avoid recurrent infections is still poorly understood, but a new study published in Science Immunology fills in some gaps.

From Rutgers University 8 Nov 2022

DNA barcoding tracks the progression of tumor cells through time

According to a recent study from the Garvan Institute of Medical Research, some cancer cells can use parallel mechanisms to elude immune system defenses and withstand immunotherapy treatment.

8 Nov 2022

Enhancing outcomes after surgery of breast cancer patients with miR-145

According to research results published online ahead of print in the Journal of the American College of Surgeons (JACS), microRNA (miRNA) can be used as a biomarker to identify which individuals are most likely to experience breast cancer recurrence and mortality.

8 Nov 2022

High-throughput quantitative phase microscopy yields promising results

Numerous cellular life processes include the organelles of cells. Their malfunction and the growth and spread of cancer are strongly connected.

4 Nov 2022

Different cancers carry distinctive genetic signatures

After analyzing data from a public repository, CD4-T, CD8-T cells, and Treg cells, a team of researchers led by bioinformatics Mabel Vidal from the University of Concepcion and working with researchers from MELISA Institute and other academic institutions discovered a distinctive genetic signature among subsets of infiltrating T cells of various types of cancer.

4 Nov 2022

Role of p53-mediated metabolism in preventing genomic instability

The gene that codes for the protein p53 is most likely the most significant factor in defending human cells against DNA-damaging agents that cause cancer. The protein permits cells to repair DNA damage and so prevents the formation of malignancies, earning it the nickname “guardian of the genome.”

4 Nov 2022

New bioprinting platform to replicate tumors in 3D spheroids

Bowel cancer patients could in future benefit from a new 3D bioprinting technology which would use their own cells to replicate the complex cellular environment of solid tumors in 3D models.

3 Nov 2022

Novel liposomal nanovaccines strongly activate cellular immunity

Cancer immunotherapies, such as immune checkpoint inhibition therapy, have been attracting attention in recent years as new methods for treating cancer.

2 Nov 2022

New technique could help fine-tune the production of useful proteins

Using an approach based on CRISPR proteins, MIT researchers have developed a new way to precisely control the amount of a particular protein that is produced in mammalian cells.

2 Nov 2022

DNA-based nanotransporters could improve treatment of cancers, other diseases

A team of Canadian researchers from Université de Montréal has designed and validated a new class of drug transporters made of DNA that are 20,000 times smaller than a human hair and that could improve how cancers and other diseases are treated.

2 Nov 2022

Quantifying microanatomical tissue structures without human intervention

Scientists at Weill Cornell Medicine have created a computational method for mapping the architecture of human tissues in extraordinary detail. Their method guarantees to expedite research on organ-scale cellular interactions and could lead to strong new diagnostic strategies for a variety of disorders.

1 Nov 2022