Cancer cells exploit host cell mitochondria
On March 22, 2026, researchers announced that tumor cells exploit nerve cells by directly siphoning functional mitochondria through nanotubes, a process validated in human cancer tissue and observed across various cancer types, including breast and prostate cancer. As of March 22, 2026, this 'energy theft' provides cancer cells with a metabolic advantage, enhancing their survival and proliferation, particularly during metastasis. A new method called MitoTRACER was developed to identify these mitochondria-receiving cancer cells, which were found in higher numbers at metastatic sites in mouse models of breast cancer. This mechanism extends beyond nerve cells, as cancer cells also acquire mitochondria from immune cells, specifically T cells, through nanotubes, highlighting a broader strategy for energy acquisition. This builds on earlier discoveries, such as the finding on August 1, 2025, that breast cancer cells steal mitochondria from neurons to fuel metastasis, increasing ATP content and metastatic capacity.
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March 2026 — 3 developments
Tumor cells can acquire energy from nerve cells by directly siphoning functional mitochondria throug…
Tumor cells can acquire energy from nerve cells by directly siphoning functional mitochondria through nanotubes, a process validated in human cancer tissue and observed across various cancer types, including breast and prostate cancer. This 'energy theft' provides cancer cells with a metabolic advantage, enhancing their survival and proliferation, particularly during metastasis.
Researchers have developed a method called MitoTRACER to identify cancer cells that have absorbed mi…
Researchers have developed a method called MitoTRACER to identify cancer cells that have absorbed mitochondria from nerve cells, enabling them to gain a metabolic advantage for spread. In mouse models of breast cancer, these mitochondria-receiving cells were found in higher numbers at metastatic sites, indicating a significant role for neuronal mitochondria in cancer progression.
Cancer cells have been found to acquire mitochondria not only from nerve cells but also from immune cells, specifically T cells, through the formation of nanotubes.
Cancer cells have been found to acquire mitochondria not only from nerve cells but also from immune cells, specifically T cells, through the formation of nanotubes. This highlights a broader mechanism by which cancer cells exploit their microenvironment to enhance survival and proliferation. Researchers are exploring these multifaceted strategies for energy acquisition, including 'energy waves' on cell membranes, which may offer new avenues for cancer staging and drug targeting.
February 2026 — 1 developments
Scientists have uncovered a new partnership where support cells lure nerve fibers to release signals that accelerate early pancreatic cancer growth.
Scientists have uncovered a new partnership where support cells lure nerve fibers to release signals that accelerate early pancreatic cancer growth. Blocking nerve activity significantly reduced tumor growth in experiments, suggesting a novel treatment strategy. Researchers used advanced 3D imaging to observe that tumor-promoting fibroblasts release chemical signals attracting nerve fibers.
January 2026 — 2 developments
MD Anderson research highlighted the increasing understanding of cancer metabolism as a central fram…
MD Anderson research highlighted the increasing understanding of cancer metabolism as a central framework for understanding and potentially treating metastatic disease, building on recent discoveries about energy acquisition.
Canadian scientists identified how specific brain cells contribute to glioblastoma growth and spread…
Canadian scientists identified how specific brain cells contribute to glioblastoma growth and spread, suggesting that an existing HIV medication could be repurposed to target this newly identified cellular process.
November 2025 — 1 developments
Researchers at the Technical University of Munich discovered that pancreatic tumors exploit the nerv…
Researchers at the Technical University of Munich discovered that pancreatic tumors exploit the nervous system by forming 'pseudosynapses' to absorb the neurotransmitter glutamate, which then drives tumor growth.
October 2025 — 1 developments
Researchers at the West Virginia University Cancer Institute explored mitochondrial transplantation …
Researchers at the West Virginia University Cancer Institute explored mitochondrial transplantation from healthy muscle cells into glioblastoma cells as a novel therapeutic strategy to disrupt tumor metabolism and increase sensitivity to radiation therapy.
August 2025 — 1 developments
Researchers discovered that breast cancer cells can steal mitochondria from neurons to fuel their metastasis, leading to increased ATP content and greater metastatic capacity.
Researchers discovered that breast cancer cells can steal mitochondria from neurons to fuel their metastasis, leading to increased ATP content and greater metastatic capacity. This mechanism involves intimate physical contacts between neurons and cancer cells, facilitating the transfer of these energy-producing organelles. Blocking nerves in primary tumors reduced this mitochondria transfer, suggesting a potential therapeutic target.
June 2025 — 1 developments
New Australian research found that glioblastoma cells use GABA-related ion channels to support their…
New Australian research found that glioblastoma cells use GABA-related ion channels to support their growth and invasion into healthy brain tissue, identifying a potential new method to slow the spread of this aggressive brain cancer.
February 2025 — 1 developments
Researchers have discovered that stomach cancers in mice form electrical connections with nearby sensory nerves, utilizing these circuits to stimulate growth and spread.
Researchers have discovered that stomach cancers in mice form electrical connections with nearby sensory nerves, utilizing these circuits to stimulate growth and spread. This finding represents the first evidence of electrical contacts between nerves and cancer outside of the brain, suggesting that other cancer types may employ similar mechanisms. The study indicates that manipulating nerve input could offer a potential avenue for cancer control.
January 2025 — 1 developments
Studies demonstrated that cancer cells exploit the brain's electrical activity and learning mechanis…
Studies demonstrated that cancer cells exploit the brain's electrical activity and learning mechanisms, with brain-derived neurotrophic factor (BDNF) activating tumor cells to fuel their growth.
September 2024 — 1 developments
Researchers at Baylor College of Medicine discovered that tumor cells can fire action potentials, a …
Researchers at Baylor College of Medicine discovered that tumor cells can fire action potentials, a capability previously believed to be exclusive to neurons, providing new insights into cancer neuroscience.
June 2023 — 1 developments
Research further emphasized how tumors hijack the nervous system for faster growth, showing that tumor cells form connected networks and receive growth factors from neurons.
Research further emphasized how tumors hijack the nervous system for faster growth, showing that tumor cells form connected networks and receive growth factors from neurons.
May 2023 — 1 developments
Cleveland Clinic-led findings, published in Nature Cancer, revealed that glioblastoma cells acquire …
Cleveland Clinic-led findings, published in Nature Cancer, revealed that glioblastoma cells acquire mitochondria from astrocytes (a type of glial cell) to enhance their growth and aggressiveness, marking a significant step in understanding energy transfer in brain tumors.
May 2021 — 1 developments
Studies began to highlight close metabolic similarities between cancer and neurological diseases, su…
Studies began to highlight close metabolic similarities between cancer and neurological diseases, suggesting shared metabolic characteristics that could open avenues for novel therapeutic strategies.
January 2013 — 1 developments
Research by Paul Frenette and colleagues demonstrated a significant correlation between an increased…
Research by Paul Frenette and colleagues demonstrated a significant correlation between an increased density of nerve endings in prostate tumors and greater tumor aggressiveness, as well as poorer responses to treatment.