C L Boehme

Department of Biochemistry and Molecular Biology, The University of Texas Medical School at Houston, Houston, Texas 77225, USA.

4 publications 1998 – 2003

What does C L Boehme research?

C L Boehme studies the role of liver proteins known as cytochromes P450 4F4 and 4F5 in the context of inflammation caused by infections and brain injuries. Specifically, they investigate how these proteins change in response to such conditions. Their research shows that these proteins are crucial in managing inflammation, which is the body's protective response to injury or infection. When the body experiences an infection, the levels of these proteins decrease significantly, leading to increased inflammation. After a brain injury, the proteins initially drop and then recover, illustrating how the body manages inflammation during different phases of healing.

Key findings

  • CYP 4F4 and 4F5 proteins dropped by 40-50% during infections.
  • After brain injury, the proteins vanished initially but returned to normal levels within two weeks.
  • The temporary decrease in these proteins allows inflammation, which is vital for healing, to occur.

Frequently asked questions

Does Dr. Boehme study infections?
Yes, Dr. Boehme researches how liver proteins respond to infections and their role in inflammation.
What impact do these liver proteins have on inflammation?
These proteins regulate inflammatory chemicals, affecting how the body manages swelling and pain during healing.
Is Dr. Boehme's work relevant to brain injury patients?
Yes, their research on liver proteins helps understand inflammation after brain injuries, which can inform treatment approaches.

Publications in plain English

Expression of cytochromes P450 4F4 and 4F5 in infection and injury models of inflammation.

2003

Biochimica et biophysica acta

Cui X, Kalsotra A, Robida AM, Matzilevich D, Moore AN +4 more

Plain English
Researchers studied how two liver proteins (CYP 4F4 and 4F5) change during infections and brain injuries. They found that these proteins drop by 40-50% during infections, but after brain injury they first disappear and then come roaring back over the following two weeks. This matters because these proteins control inflammatory chemicals in the body—substances that cause swelling and pain. The initial drop after injury allows inflammation to happen (which is actually necessary for healing), but as the proteins return to normal levels, they shut down that inflammation so the body can repair itself and recover.

PubMed

Sexual dimorphism and tissue specificity in the expression of CYP4F forms in Sprague Dawley rats.

2002

Drug metabolism and disposition: the biological fate of chemicals

Kalsotra A, Anakk S, Boehme CL, Strobel HW

Plain English
This study looked at how certain enzymes, known as CYP4F family members, behave in male and female rats, and found that these enzymes are produced in different amounts depending on the sex and the type of tissue. Specifically, female rats had much higher levels of these enzymes in their liver, kidneys, and lungs compared to males, with the research showing that females produced 2-3 times more from specific CYP4F genes. This matters because understanding these differences can help researchers develop better treatments that consider how male and female bodies respond differently to medications. Who this helps: This benefits researchers and healthcare providers who want to tailor treatments based on sex differences in patients.

PubMed

In vitro metabolism of chlorpromazine by cytochromes P450 4F4 and 4F5 and the inhibitory effect of imipramine.

2001

Neurotoxicity research

Boehme CL, Strobel HW

Plain English
This study looked at how two specific enzymes (called cytochromes P450 4F4 and 4F5) in rats break down the drug chlorpromazine and how the drug imipramine affects this process. Researchers found that both enzymes helped metabolize chlorpromazine, but when imipramine was added, it significantly reduced the breakdown of chlorpromazine. Understanding this interaction is important because it can influence how effective chlorpromazine is in treating conditions like schizophrenia, potentially affecting patient care. Who this helps: This helps doctors and patients using chlorpromazine for mental health treatment.

PubMed

High-performance liquid chromatographic methods for the analysis of haloperidol and chlorpromazine metabolism in vitro by purified cytochrome P450 isoforms.

1998

Journal of chromatography. B, Biomedical sciences and applications

Boehme CL, Strobel HW

Plain English
This study focused on how two drugs, haloperidol and chlorpromazine, are broken down in the lab by specific enzymes called cytochrome P450 isoforms. Researchers developed precise methods to separate and measure the breakdown products, finding that haloperidol produced three major metabolites and chlorpromazine produced five. Understanding how these drugs are metabolized is important because it can help improve their use and effectiveness in treating conditions like schizophrenia. Who this helps: This helps patients using haloperidol and chlorpromazine, as well as their doctors.

PubMed

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