
JAMS is an automation orchestration and job scheduling solution that runs, monitors, and manages critical IT processes from a single console. JAMS automates jobs across Windows, Linux, UNIX, IBM i, z/OS, and OpenVMS, with native integrations for the databases, BI tools, and ERP systems already running your business. Jobs run on any schedule or trigger off other events, with dependency management keeping workflows in order and an audit trail logging every execution.
JAMS includes two AI capabilities at no additional cost. JAX is an AI agent built into the JAMS Web Client: ask it a question in plain language, and it finds a job, troubleshoots a failure, or looks up how to do something, grounded in JAMS documentation. It acts only when asked, and every change waits for your approval. JAMS MCP brings JAMS into the AI coding tools teams already use, including Cursor, Claude Code, GitHub Copilot, and Claude Desktop.
For teams managing thousands of jobs across SQL Server, ADF, Airflow, SAP, JDE, and Banner, this cuts tribal knowledge and middle-of-the-night troubleshooting. Knowledge that once lived in one person's head becomes something any team member can ask about directly.
The AI lives in the product, not in the support queue. Support is staffed by humans JAMS will never outsource, based in the United States, the United Kingdom, and Australia. New tickets go to long-tenured engineers, and every JAMS customer has the CEO's cell phone number.
JAMS' mission is to reduce the operational burden of critical automation, so teams spend more time on the work automation was meant to free them for.
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Jama Connect®, a product development platform, uniquely creates Living Requirements™. This digital thread is created through siloed, test, and risk activities to provide end to end compliance, risk mitigation, process improvement, and compliance. Companies creating complex products, systems, and software can now define, align, and execute on what they need. This reduces the time and effort required to prove compliance and saves on rework. You can be sure of success by choosing a solution that is easy-to-use, flexible, and offers support and services that are adoption-oriented.
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MediaLab Case Simulators
The RBC Morphology simulator presents 25 unique case studies that highlight various conditions affecting RBC morphology. These cases simulate the experience of a technologist reviewing blood smears. Examples of morphological features include hypochromasia, macrocytes, microcytes, Pappenheimer bodies, platelet clumps, polychromasia, schistocytes, sickle cells, spherocytes, target cells, and teardrop cells.
The WBC Differential simulator presents 25 unique case studies. Each case study includes a patient history, results of the CBC, and a simulated 100 WBC differential. Cells shown include lymphocytes, segmented neutrophils, band neutrophils, reactive lymphocytes, monocytes, eosinophils, basophils, blasts, promyelocytes, myelocytes, metamyelocytes, and nucleated red blood cells.
The Bacteriology Case Simulator showcases 49 organisms common to the clinical setting. Students will describe colony morphology, review Gram stains using the virtual microscope, logically assemble testing pathways, and interpret biochemical testing to confirm identification. They will use the split-screen view to compare organisms or simultaneously display the resource-rich interactive identification flow chart.
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Parse Biosciences Evercode
Combinatorial barcoding technology revolutionizes the outdated limitations of traditional single-cell methodologies. By eliminating the need for specialized instruments, it empowers researchers to make groundbreaking discoveries with ease. This innovation allows for the profiling of anywhere from 1,000 to 1 million cells or nuclei in a single experiment, driving forward unparalleled advancements in science. Evercode combinatorial barcoding technology significantly outperforms droplet-based methods, enabling researchers to increase the scale of their experiments without the constraints of previous technologies. Enjoy enhanced data quality while avoiding the complexities and requirements of outdated hardware. Conduct single-cell experiments using only a pipette and standard laboratory tools, simplifying the process and making it more accessible. The split-pool combinatorial barcoding technique facilitates scalable single-cell analysis without relying on any specialized instruments, making it easier than ever to achieve scalable sequencing. Each kit includes a comprehensive set of reagents and user-friendly analysis software, streamlining the entire workflow from start to finish for optimal efficiency. This technology not only enhances research capabilities but also fosters a new era of accessibility in scientific exploration.
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