Core provides advanced computational analysis and consultation for high-throughput genomics and multi-omics research. Supports investigators across GW and external collaborators with experimental design, data processing, statistical analysis, and biological interpretation of next-generation sequencing datasets. Offers expertise in bulk and single-cell transcriptomics, epigenomics, variant analysis, and integrative multi-omics approaches. Develops and maintains reproducible computational pipelines and collaborates closely with researchers to translate complex genomic data into actionable biological insights.

Genomics Core team has expertise in bacterial genomics, computational biology, infectious disease, HIV, population and conservation genetics. Offers NGS services. Capable of supporting projects at any stage, from planning to sample processing to sequencing.










keith crandall

Core provides researchers with confocal imaging equipment to enable acquisition of high resolution images (both in vivo and in vitro). Offers training and assistance in the use of confocal microscopes. Optimization of data acquisition and image processing are both part of the training, thus enabling researchers to efficiently design studies, acquire image data and extract relevant data features.

Facility maintains and administers the chip high performance computing cluster. The chip cluster is built from more than 150 machines featuring Intel CPUs and NVIDIA GPUs.

Core specializes in custom production with high titer, high standards, and fast turnaround. Provides services from designing viral constructs to troubleshooting experiments. Offers routine adeno-associated virus (AAV), rabies, and lenti/retrovirus vector production. Other viral vectors can be produced on as-needed basis.

Core team designs, builds and tests instruments, tools, and software that enable novel scientific investigation. Offers expertise in Data acquisition and analysis; Machine vision and image processing; Precision machining; Embedded systems design and programming;
Laser, microscopy, and optical imaging systems engineering; Custom circuit design; Novel sensor systems; Lab automation, robotics and motion control; Mechanical design, machined and/or fabricated components and assemblies; Process automation.

Core provides services and expert advice on routine and specialized molecular biology techniques including plasmid preps, genome editing, mutation detection, digital PCR and spatial transcriptomics.

Core offers support for various tasks such as plating, passaging, cryopreserving, transfection, and preparing cells for imaging and other applications. Our facility fosters collaboration, allowing researchers to reserve cell culture hoods and engage with fellow lab and staff members.

The AIC provides access, through call-for-proposals, to cutting edge optical imaging instruments developed at HHMI Janelia. Currently, the instruments include bessel beam plane illumination microscope, single molecule TIRF, interferometric PALM, 3D-Structured illumination microscope, and multifocus fluorescence microscope.

We provide broad service to anything related to genomic analysis, such as RNAseq, genome sequencing, ATACseq etc, you name it, from experiment design all the way down to data analysis.

The Flow Cytometry Shared Resource (FCSR) provides a range of instrumentation and expertise for cell sorting and analysis that can support experimental needs related to single cells, cell line production, biosensor development, and dye analysis, allowing researchers to develop new tools and answer questions about the nature and function of cells. The FCSR has expertise in flow cytometry experimental design, operation of instruments, distribution of raw data and sort reports, interpretation of results, and preparation of graphics for presentation and publication.

The Light Microscopy facility is a fully-supported, shared resources environment open 24 hours a day, seven days a week to Janelia scientists. It houses a full complement of state-of-the-art microscopes and multiple workstations dedicated to image processing.

Provides access to the latest technologies, with consultation and services available throughout the design and execution of sequencing projects.

A pharmacogenomics resource for study of cancer. Multiple tools are available, currently including the CellMiner family with CellMiner, CellMinerCDB (cross data-base), CellMinerCDB: Small Cell Lung Cancer (SCLC), CellMinerCDB: National Center for Advancing Translational Sciences (NCATS) andCellMinerCDB: Sarcoma. These sites include multiple cancerous cell lines sets and data types. In addition there is CIMMiner for cluster image maps and MIMminer, with several scholarly molecular interaction maps.

Core provides access to genomic technologies and Next-Generation Sequencing. Provides DNA and RNA quality control services, user accessible instrumentation, training, consultation services, bioinformatics support, and secure data delivery management.

Mission:
The Genetic Engineering and Viral Vector Core (GEVVC) provides support to NIDA-IRP researchers by facilitating studies of brain function under physiological and pathological conditions through developing and producing genetic tools capable of modulating and monitoring the molecules, cells and circuits in the nervous system.

Services:
The NIDA GEVVC provides services in three main categories: 1) the custom design and/or production of viral vectors/nanoparticles, 2) in vitro molecular and cell biology services, 3) consultation and training.

The NIDA-IRP Histology and Imaging Core (HIC) serves NIDA-IRP researchers by providing access to existing and emerging neuroanatomical technologies to map and characterize neuronal circuits. Towards this end, the HIC has established three goals:

Goal 1. Increase access to existing and emerging neuroanatomical techniques to NIDA-IRP researchers.

Goal 2. Develop and adopt emerging neuroanatomical techniques for the use of NIDA-IRP researchers.

Goal 3. Provide consultations and training to NIDA-IRP researchers in the adaptation and execution of neuroanatomical techniques and procedures.

The NIDA IRP Confocal and Electron Microscopy Core (CEMC) serves NIDA-IRP researchers by providing access to confocal and electron microscopic technologies to characterize cellular and ultrastructural properties of organelles, tissue culture and brain tissue. Towards this end, the CEMC has established three goals:

Goal 1. Increase access to confocal and electron microscopic techniques to NIDA-IRP researchers.

Goal 2. Develop and adapt emerging confocal and electron microscopic techniques for NIDA-IRP researchers.

Goal 3. Provide consultations and training to NIDA-IRP researchers in the adaptation and execution of confocal and electron microscopic techniques and procedures.

As a scientists-founded and scientists-driven leading biotechnological company, Creative Biogene focuses on developing high quality products and services, as well as proprietary technology to support the research in the field of basic life sciences research, biomedical development, industrial synthetic application and preclinical drug discovery.

Provides advanced computing systems and services including supercomputer applications, AI and machine learning, big data analysis and storage. Offers suite of cyberinfrastructure coordination services targeted at supporting all areas of science and engineering research and education.