News, Analysis, Trends, Management Innovations for
Clinical Laboratories and Pathology Groups

Hosted by Robert Michel

News, Analysis, Trends, Management Innovations for
Clinical Laboratories and Pathology Groups

Hosted by Robert Michel
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Venter’s Research Team Creates an Artificial Cell and Reports That 32% of Genes Are Life-Essential but Contain Unknown Functions

Understanding the unknown functions of these genes may lead to the creation of new diagnostic tests for clinical laboratories and anatomic pathology groups

Once again, J. Craig Venter, PhD, is charting new ground in gene sequencing and genomic science. This time his research team has built upon the first synthetic cell they created in 2010 to build a more sophisticated synthetic cell. Their findings from this work may give pathologists and medical laboratory scientists new tools to diagnose disease.

Recently the research team at the J. Craig Venter Institute (JCVI) and Synthetic Genomics, Inc. (SGI) published their latest findings. Among the things they learned is that science still does not understand the functions of about a third of the genes required for their synthetic cells to function. (more…)

Genome Sequencing of Tumors Are Helping Pathologist and Physicians Identify Useful Therapies for Patients with Unresponsive Cancers

Early research projects to sequence tumors in clinical settings are helping physicians and pathologists identify mutations that respond to specific therapeutic drugs

Step by step, progress is happening in the use of genome sequencing to advance personalized and precision medicine, with clinical laboratories and pathologists in the forefront of these developments. Much of this effort is focused on cancer and the sequencing of tumors.

One recent example comes from New York City, where the genomes of tumors of patients with unresponsive cancers were sequenced at the Institute for Precision Medicine at Weill Cornell and New York-Presbyterian Hospital Weill Cornell Medical Center. The outcomes of this effort demonstrates how the results of such testing can help patients who had not found an effective therapy to control their cancers. (more…)

Compressive Sensing Could Dramatically Reduce Time to Process Complex Clinical Laboratory Tests Involving Huge Amounts of Data and Lower the Cost of Tests

Experts believe compressive sensing could find wide application in medical laboratory and pathology testing, particularly where large amounts of data are generated

Pathologists and medical laboratory managers may soon be working with a new tool in their labs. It is called “Compressive Sensing” (CS) and it is an innovative mathematical approach that quickly and efficiently gets an answer by sampling large volumes of a data.

Currently compressive sensing is used in medical imaging technology. CS reduces radiation and speeds up imaging diagnostics. Some experts familiar with this technology believe that it can be used in those clinical laboratories that are working with new diagnostic technologies that generate large volumes of data. CS could dramatically reduce times to analyze results and lower the cost of expensive tests like whole-genome sequencing. (more…)

Use of “Long Read” Gene Sequencing Allows University of Washington Researchers to Uncover Thousands of Never-before Seen Gene Variations

This and similar research initiatives expected to increase the number of genetic markers that would be useful for creating clinical pathology laboratory tests and therapeutic drugs

Whole human genome sequencing continues to become faster, easier, cheaper, and more accurate to do. Because of these advances, the sheer number of human genomes being sequenced is skyrocketing. This huge increase in data is helping researchers unlock many new insights that, in turn, are fueling efforts to develop useful new medical laboratory tests and therapeutic drugs.

This is happening at the University of Washington (UW), where researchers using new genome sequencing technology are uncovering thousands of never-before-seen genetic variants. The application of “long read” gene sequencing technologies is allowing these researchers to identify genetic variants previously unknown, and that are made up of between 50 and 5,000 base pairs.

The discovery is important for two reasons. First, it could close existing gaps in the genome map. Second, it could help scientists identify new genomic variations that are closely associated with difficult-to-diagnose diseases. Of interest to pathologists and clinical laboratory professionals, such discoveries could point to expanded use of genetic testing for diagnosis and treatment of disease. (more…)

China’s Genome-Mapping Giant BGI Is Poised to Become an International Leader in Gene Sequencing and May Play Major Role in Interpretation of Genetic Test Results

However, China has a shortage of well-trained pathologists, which is why some American lab organizations are establishing medical lab testing ventures in China

If experts are right, a company in China is poised to become the world’s largest at gene sequencing. In addition, the huge volume of genetic data it generates is expected to give this company the world’s largest database of genetic information.

Such developments could mean that, in just a few years, many pathologists and molecular Ph.D.s in the United States will be accessing this trove of genetic data as they conduct research to identify new biomarkers or work with clinical specimens.

The company at the center of all this attention is genome-sequencing giant BGI, located in Shenzhen, China. It owns 230 of the largest, high-throughput gene-sequencing machines and wants to become the world’s largest genome-mapping company. (more…)

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