Global Life Sciences & Healthcare Platform
A life sciences platform needed to automate regulatory document auditing, process multi-terabyte genomic datasets, and ingest live medical device streams, all in production, all at the same time. GYSP built the full stack: LLMOps multi-agent pipelines, distributed Spark genomics, and real-time Flink sensor ingestion.
The Challenge
A global life sciences and healthcare platform faced three distinct but interconnected data challenges. Regulatory compliance auditing required analysts to manually cross-examine internal documentation against vendor-supplied regulatory updates — a slow, inconsistent, and error-prone process that created compliance risk at scale. Genomics research workloads involved multi-terabyte sequencing datasets and clinical records that exceeded what any single-node processing system could handle, with variant calling and genotype-phenotype correlation analyses requiring distributed batch compute at a scale the existing infrastructure could not support. And real-time data ingestion from hardware sensors and medical monitoring devices needed a low-latency streaming architecture capable of continuous processing without data loss — a requirement that ruled out batch-oriented ETL approaches entirely. Each challenge required a fundamentally different engineering approach, and all three had to operate within a unified cloud infrastructure on AWS.
Our Solution
GYSP architected end-to-end LLMOps pipelines using LangChain and LlamaIndex, deploying multi-agent systems that autonomously cross-examine internal documentation against vendor regulatory updates, surface discrepancies, and generate structured audit outputs, replacing manual compliance review with an automated agent-driven workflow. A generative chat interface built on Streamlit with GPT-3.5 Turbo integration gave analysts the ability to query regulatory findings conversationally, with live model response streaming for immediate access to audit intelligence. For the genomics workload, Apache Spark clusters were deployed to run distributed batch processing across multi-terabyte genomic sequencing tracks and clinical datasets, executing optimised variant calling pipelines and genotype-phenotype correlation analyses at the scale the research required. Real-time ingestion from hardware sensors and medical monitoring devices was handled by Apache Flink clusters, delivering continuous low-latency stream processing directly from live device feeds. The entire inference layer was hosted on Amazon SageMaker with auto-scaled endpoints ensuring model availability under variable demand, with AWS Glue managing complex serverless ETL transformations across the data integration layer.
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Get free briefKey Deliverables
- End-to-end LLMOps pipelines with LangChain and LlamaIndex orchestrating multi-agent systems for automated regulatory document cross-examination
- Multi-agent audit workflow autonomously comparing internal documentation against vendor regulatory updates and generating structured compliance outputs
- Generative chat interface on Streamlit with GPT-3.5 Turbo streaming live model responses for conversational access to audit intelligence
- Apache Spark distributed batch processing across multi-terabyte genomic sequencing and clinical datasets for variant calling and genotype-phenotype analysis
- Apache Flink clusters delivering real-time low-latency stream ingestion from live hardware sensors and medical monitoring devices
- Amazon SageMaker auto-scaled model endpoints with AWS Glue serverless ETL managing the cloud data integration layer
- Active engagement running continuously since April 2022 across LLMOps, genomics, and real-time streaming workloads
Services Delivered
- AI/ML Development
- Data Engineering
- Cloud & DevOps Engineering
Tech Stack
Frequently Asked Questions
How do multi-agent LLMOps systems automate regulatory document auditing?+
The multi-agent system operates as a coordinated pipeline: an ingestion agent retrieves and chunks both internal documents and vendor regulatory updates using LlamaIndex; a comparison agent running on LangChain cross-examines the two document sets, identifying clauses present in one but absent or contradicted in the other; and an audit agent synthesises the discrepancies into structured compliance findings using GPT-3.5 Turbo. Each agent has a defined tool set and operates within guardrails that ensure outputs are traceable to specific source passages. The result is a regulatory delta report that previously required analyst hours to produce, generated automatically and consistently at each update cycle.
Why was Apache Spark used for genomic sequencing data rather than a conventional database?+
Genomic sequencing datasets at clinical scale are measured in terabytes per cohort, far beyond what a single-node system can process in any reasonable time window for variant calling or genotype-phenotype correlation analysis. Apache Spark distributes the computation across a cluster, allowing the same analytical jobs that would take days on a single machine to complete in hours across distributed nodes. Its partitioned data model also maps naturally to the batched structure of sequencing output files, and its Python and R APIs integrate directly with the bioinformatics tooling already in use for variant annotation and statistical genetics.
What is the difference between Apache Spark and Apache Flink for data processing?+
Spark is a batch processing engine optimised for large-scale analytical workloads where latency is measured in seconds to minutes, ideal for the genomic and clinical dataset processing in this engagement. Flink is a streaming engine designed for continuous, low-latency processing of data in motion, ideal for the real-time sensor and medical device feeds where decisions need to be made on incoming data within milliseconds of arrival. Both were deployed for their respective strengths: Spark for the genomic batch workload, Flink for the device streaming layer.
How does Amazon SageMaker support auto-scaled model serving for variable healthcare workloads?+
SageMaker Endpoints support auto-scaling policies that adjust the number of inference instances behind an endpoint based on observed request volume, scaling up during peak demand and scaling down during quiet periods to manage cost. For healthcare workloads with variable query patterns (high audit request volume during regulatory cycles, lower baseline between cycles), this means model inference capacity tracks actual demand automatically without manual intervention. SageMaker also manages model versioning, A/B traffic splitting for model updates, and inference logging, reducing the operational overhead of keeping multiple model versions in production.
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