Maria E S Lind

Department of Internal Medicine, Division of Rheumatology, University of Michigan and Autoimmunity Center of Excellence, Ann Arbor, MI, USA.

7 publications 2011 – 2024

What does Maria E S Lind research?

Maria E S Lind studies the causes and treatments of inflammatory arthritis, a painful condition where the body's immune system attacks its own joints, leading to swelling and discomfort. Her research specifically looks at a protein called CD13, which leaks into the bloodstream and activates a receptor known as B1R. This activation is found to be overactive in patients with rheumatoid arthritis. By exploring how this process works, she aims to find new ways to block the inflammation that characterizes arthritis, which may also help in treating other similar diseases.

Key findings

  • CD13 causes inflammatory arthritis by activating the B1 receptor (B1R) on immune cells, identified as a key mechanism in the disease.
  • Blocking the B1R receptor with drugs has been shown to stop inflammation in both human tissue samples and mouse models of arthritis.
  • The overactivity of the B1R receptor is confirmed to be present in patients with rheumatoid arthritis, making it a relevant target for treatment.

Frequently asked questions

Does Dr. Maria E S Lind study rheumatoid arthritis?
Yes, she specifically studies the mechanisms of inflammatory arthritis, including rheumatoid arthritis.
What treatments has Dr. Lind researched?
Dr. Lind has researched blocking the B1 receptor to stop inflammation in rheumatoid arthritis and potentially other inflammatory conditions.
Is Dr. Lind's work relevant to patients with joint pain?
Yes, her work directly addresses inflammatory arthritis, which causes joint pain and swelling, and aims to find new treatment options.

Publications in plain English

Activation of cytotoxic lymphocytes through CD6 enhances killing of cancer cells.

2024

Cancer immunology, immunotherapy : CII

Gurrea-Rubio M, Wu Q, Amin MA, Tsou PS, Campbell PL +14 more

Plain English
This study investigated how a special antibody, UMCD6, affects immune cells that fight cancer. Researchers found that UMCD6 helps these immune cells, particularly natural killer (NK) cells and certain T cells, become more effective at killing cancer cells in mice with breast and prostate cancer, leading to improved survival rates. Specifically, treated mice had more powerful immune cells that were better positioned to attack tumors compared to those treated with a standard antibody. Who this helps: This benefits cancer patients by potentially improving treatments that enhance their immune responses to tumors.

PubMed

Activation of Cytotoxic Lymphocytes Through CD6 Enhances Killing of Cancer Cells.

2023

Research square

Gurrea-Rubio M, Wu Q, Amin MA, Tsou PS, Campbell PL +14 more

Plain English
This study looked at a specific way to boost the immune system's ability to fight cancer by focusing on a molecule called CD6. Researchers found that using an antibody (UMCD6) to block the interaction between CD6 and a protein found on many cancer cells (CD318) led to better survival rates in mice with breast and prostate cancer. In these mice, more immune cells that attack tumors, like NK and CD8+ T cells, were present and more active compared to those that didn’t receive the treatment. Who this helps: This benefits cancer patients by potentially improving treatment outcomes.

PubMed

Soluble CD13 induces inflammatory arthritis by activating the bradykinin receptor B1.

2022

The Journal of clinical investigation

Tsou PS, Lu C, Gurrea-Rubio M, Muraoka S, Campbell PL +26 more

Plain English
Researchers discovered that a protein called CD13, which leaks into the bloodstream, causes inflammatory arthritis by activating a receptor called B1R found on joint cells. They confirmed this by showing that blocking B1R with drugs stopped the inflammation in multiple types of arthritis in mice and in human joint tissue samples. This matters because B1R could be a new drug target to treat rheumatoid arthritis and other inflammatory diseases by preventing CD13 from triggering joint inflammation.

PubMed

CD6 is a target for cancer immunotherapy.

2021

JCI insight

Ruth JH, Gurrea-Rubio M, Athukorala KS, Rasmussen SM, Weber DP +13 more

Plain English
This research studied a new cancer treatment involving a specific antibody called UMCD6 that targets a protein known as CD6. The findings showed that UMCD6 significantly improved the ability of immune cells to kill breast, lung, and prostate cancer cells, leading to more effective cancer cell death than traditional treatments that block certain immune checkpoints. This is important because it not only enhances cancer killing but also helps control autoimmune responses, making it a promising new approach for cancer immunotherapy. Who this helps: This benefits cancer patients and doctors seeking more effective treatment options.

PubMed

Theoretical study of the reaction mechanism of phenolic acid decarboxylase.

2015

The FEBS journal

Sheng X, Lind ME, Himo F

Plain English
This study examined how a specific enzyme, phenolic acid decarboxylase (PAD), works to convert toxic compounds called phenolic acids into useful products. Researchers found a detailed mechanism that includes an intermediate compound formed during the reaction, which helps simplify the process of creating products that can be used in food processing and plastics. Understanding this mechanism is important because it could lead to better use of these enzymes in various industries. Who this helps: This helps food manufacturers and industries that produce biodegradable plastics.

PubMed

Quantum chemistry as a tool in asymmetric biocatalysis: limonene epoxide hydrolase test case.

2013

Angewandte Chemie (International ed. in English)

Lind ME, Himo F

Plain English
This study looked at how a specific enzyme called limonene epoxide hydrolase works, both in its natural form and in modified versions created through laboratory techniques. The researchers found that their theoretical model matched well with real experimental results, showing that this quantum chemistry approach can effectively analyze how enzymes selectively transform certain molecules. This is important because it can lead to more efficient processes in creating useful chemicals. Who this helps: This helps scientists and industry professionals working on enzyme-based reactions in medicine and manufacturing.

PubMed

Ribonucleotide reductase inhibition by metal complexes of Triapine (3-aminopyridine-2-carboxaldehyde thiosemicarbazone): a combined experimental and theoretical study.

2011

Journal of inorganic biochemistry

Popović-Bijelić A, Kowol CR, Lind ME, Luo J, Himo F +3 more

Plain English
This study explored how a promising cancer treatment called Triapine works by inhibiting an enzyme necessary for cancer cell growth. The researchers tested Triapine alone and with different metals, finding that it can disrupt a specific part of the mouse Ribonucleotide Reductase (RNR) enzyme, which is crucial for cancer cell survival. They discovered that Triapine can form reactive compounds that lead to damage in cancer cells, potentially making it more effective than some existing treatments. Who this helps: This research benefits patients with cancer who may be treated with Triapine.

PubMed

Publication data sourced from PubMed . Plain-English summaries generated by AI. Not medical advice.