Mayo Clinic Laboratories takes the lead in designing and optimizing oncology testing based on specific cancer types. Our comprehensive test menu includes evaluations that aid in providing both diagnostic and prognostic information and treatment selection guidance across the full spectrum of malignancies. By offering testing for both acquired and inherited cancers in one place, we serve as the singular source for all cancer testing.
“tests like these assure patients get the best cancer care, as clinicians use these results to determine the best treatment strategies based on the patients tumor profile - It's really that simple.”
Benjamin Kipp, Ph.D., chair of the Division of Laboratory Genetics and Genomics
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PACE / State of FL - Register now - May 21, 2025: - This webinar will explore the role of cytology specimens in molecular genetic testing, emphasizing their effectiveness in identifying biomarkers critical for targeted therapies in patients with cancer. Advantages of cytology samples, challenges in specimen adequacy, and how advancements in next-generation sequencing (NGS) have led to improved utilization of cytology samples will be discussed. This discovery has led to enhancing diagnostic accuracy, reducing the need for repeat biopsies, and accelerating personalized cancer treatment, all of which will be highlighted during the webinar.
In this month’s “Hot Topic,” Anja Roden, M.D., discusses new entities and changes of terminology in the 2021 World Health Organization (WHO) classification of lung tumors as well as the nomenclature in small biopsies.
This “Specialty Testing” webinar will discuss the collaborative effort which led to the discovery of Kelch like protein 11 (KLHL11) IgG as a specific biomarker of neurological autoimmunity associated testicular germ cell tumor.
Mayo Clinic’s Advanced Diagnostics Laboratory (ADL) is a visionary space designed to foster innovation. The ADL has a direct impact on patient lives, bringing promising tests and services to patients at Mayo and around the world.
In this episode of Lab Medicine Rounds, Sounak Gupta, M.B.B.S., Ph.D., assistant professor of Laboratory Medicine and Pathology at Mayo Clinic, discusses hereditary oncology and the importance of performing molecular testing of solid tumors.
The genetic variability of glioma, and its more advanced relative glioblastoma, has made genetic testing to identify biomarkers associated with prognosis and treatment effectivity an integral component of care plan development. However, the acceleration of brain tumor research and discovery translates into an ever-changing testing environment.
Kevin Halling, M.D., Ph.D., explains how the MayoComplete Solid Tumor panel uses next-generation sequencing to assess 514 clinically significant, cancer-related genes for genetic alterations that offer insight on treatment effectivity.
Dr. Dollahite received world-class cancer treatment from a web of health care organizations, including Mayo Clinic in Rochester, Minnesota. Yet she never left New York; most of her treatment occurred in Ithaca. What made that possible was Cayuga Medical Center’s collaborative relationship with Mayo Clinic. Genetic testing at Mayo Clinic Laboratories provided important information about Dr. Dollahite’s cancer.
With the rise of next generation sequencing (NGS) technology, multigene panel testing is expanding so rapidly that clinical practice is racing to keep pace. And questions within genetic tests have expanded along with it, making definitive answers more challenging to come by. Experts in the Genomics Laboratory in Mayo Clinic's Department of Laboratory Medicine and Pathology work to explain this often misunderstood technology.
This "Specialty Testing" webinar will address practical aspects and pitfalls in the molecular diagnosis of brain tumors.
William Sukov, M.D., provides an overview of the MDM2 gene amplification assay — a test that looks for amplification of the MDM2 gene region on chromosome 12q. He reviews when this test should be ordered, how it compares to other test options, and how its results can affect patient care.
One of the biggest misunderstandings about genetic testing is a perception that once a variant is identified and analyzed thoroughly, using all the best tools available, it can be associated with a specific disease or condition. But many mutations are deemed “variants of unknown significance,” meaning there is no reported (or insufficient) evidence as to whether or not they cause disease.
In the last decade or so, genetic testing has evolved from single-gene Sanger based assays to much more complex next-generation sequencing (NGS) based assays. This incredible technology has facilitated the rapid and high-throughput evaluation of many genes (hundreds of thousands of DNA strands) all at once.