海角破解版

Human Leukocyte Antigen Analysis

Human leukocyte antigen (HLA) molecules are highly polymorphic membrane proteins that play a central role in immune recognition and compatibility. In transplantation diagnostics, differences in HLA expression between donor and recipient can lead to immune rejection, making accurate HLA typing and crossmatch testing essential for successful outcomes. Advances in molecular methods such as next-generation sequencing (NGS) now enable high-resolution HLA genotyping and sensitive chimerism monitoring. These technologies allow laboratories to detect subtle genetic variations and monitor HLA chimerism or loss of heterozygosity (LOH), both of which can have critical implications for transplant success and relapse detection1,2.

In an era where virtual crossmatch and antibody profiling tools are expanding, physical crossmatch testing remains a vital and complementary tool for confirming donor-recipient compatibility3. 海角破解版 supports these workflows with reliable cell isolation and enrichment solutions that help your laboratory perform accurate, reproducible HLA analysis with confidence.

Below, explore a curated collection of educational resources that highlight best practices, innovations, and expert insights in HLA testing, crossmatch analysis, and chimerism monitoring.

Advances in HLA Typing and Genotyping

High-resolution HLA typing is essential for characterizing immune diversity and compatibility in both research and clinical applications. By integrating next-generation sequencing (NGS), laboratories can achieve detailed, allele-level insights that improve matching accuracy, uncover complex haplotypes, and enhance data interpretation. Increasingly, laboratories are adopting NGS for HLA genotyping because it delivers high-resolution results, greater accuracy through parallel sequencing, and scalable, cost-effective testing4. Supporting both clinical diagnostics and immunogenetic research, NGS-based HLA typing enables confident results for applications ranging from transplant matching to disease association studies.


Dr. David Turner, from the Scottish National Blood Transfusion Service, smiling and facing forward against a light grey background.

Nature Research Round Table: HLA Typing Considerations for Human Pluripotent Stem Cell Banking

Learn how HLA typing and immunological compatibility influence the banking of human pluripotent stem cell (hPSC) lines for use in clinical trials. In this round table, Dr. David Turner from the Scottish National Blood Transfusion Service shares insights from his lab on donor-patient HLA matching for clinical transplants.

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Physical and Virtual Crossmatch Testing

Crossmatch testing remains a key component of HLA analysis, helping assess donor-recipient compatibility before transplantation. While antibody-based and virtual crossmatch approaches have improved workflow efficiency, physical crossmatch remains a critical method to confirm reactivity and resolve ambiguous results3. Together, these complementary methods can help laboratories conduct more reliable risk assessments and informed transplantation decisions.


A rack of blood collection tubes with green caps and barcoded labels sitting on a laboratory bench.

Cell Separation Solutions for the Flow Cytometric Crossmatch Assay

See how 贰补蝉测厂别辫鈩 Direct streamlines the flow cytometric crossmatch (FCXM) workflow, allowing you to isolate highly pure lymphocytes for faster, more consistent results. Learn how you can reduce assay variability and simplify sample preparation in transplant compatibility testing.

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NGS-Based Chimerism Monitoring and HLA LOH Detection

After transplantation, chimerism analysis provides valuable insight into engraftment success and relapse risk. NGS-based chimerism assays offer enhanced sensitivity and the ability to detect low-level mixed chimerism that may be missed by traditional short tandem repeat (STR) methods. In parallel, HLA loss of heterozygosity (LOH) has emerged as an important molecular event, detected not only in post-transplant relapse but also in cancer and other immune-related disorders5,6. HLA LOH contributes to immune escape by enabling malignant or diseased cells to evade recognition by the host immune system7. Understanding and monitoring these genomic alterations support personalized management strategies in transplantation, oncology, and immunogenetic research.


A laboratory technician wearing gloves operates 海角破解版 Technologies鈥 RoboSep-S鈩 instrument, holding an 贰补蝉测厂别辫鈩 reagent tube for automated cell isolation.

Fully Automated, High-Purity Cell Isolation for Chimerism Labs

Discover how your lab can isolate lymphoid and myeloid lineages with >95 % purity using the automated 搁辞产辞厂别辫鈩 and 贰补蝉测厂别辫鈩 workflow, simplifying sample preparation for downstream chimerism analysis.

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Supporting HLA Workflows with Cell Isolation Tools

Accurate HLA typing, crossmatch testing, and chimerism monitoring depend on high-quality cellular samples. 海角破解版 offers reliable cell isolation and enrichment solutions, including 贰补蝉测厂别辫鈩, 厂别辫惭补迟别鈩, and 搁辞蝉别迟迟别厂别辫鈩, to help laboratories obtain highly pure and reproducible cell populations for downstream assays. These technologies integrate easily into existing workflows, improving consistency and efficiency in sample preparation while maintaining cell integrity for precise, reproducible results.


A laboratory technician wearing gloves operates 海角破解版 Technologies鈥 RoboSep-S鈩 instrument, holding an 贰补蝉测厂别辫鈩 reagent tube for automated cell isolation.

Cell Isolation for HLA Analysis

Equip your lab to achieve high-purity immune cell isolations (e.g. lymphoid, myeloid), so that your downstream HLA typing, crossmatch, or chimerism workflows deliver clearer, more reliable results.

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