The AI Research Operations Platform closes the Research Delivery Gap facing UK NHS Trusts, academic research centres, and mid-market CROs transforming fragmented coordination into a live, machine-executable operational graph that protects institutional memory and accelerates study activation.
The AI Research Operations Platform combines real-time coordination intelligence, AI predictive modelling, and regulatory compliance into a unified platform that transforms study administration from a manual bottleneck into a precision driver of clinical breakthroughs.
A first-of-its-kind framework bridging fragmented coordination signals (meetings, emails, approvals) and real-time study activation outcomes creating a continuous feedback loop that improves timeline prediction with every study cycle.
Automatically diagnoses root causes of premature timeline slippage sponsor-query lag, administrative workload friction by analysing the delta between a study's expected activation date and its actual operational velocity.
An architectural approach to federated learning enabling anonymised "Coordination DNA" benchmarks across UK NHS Trusts allowing each site to leverage sector-wide trends without revealing private institutional or patient data.
AI Research Operations Platform was founded on a clear premise: UK clinical and academic research operations are still dominated by reactive, manual monitoring of spreadsheets and siloed email threads "analogue coordination" that causes a systemic "Coordination Tax" costing commercial sponsors up to £6.5 million per day in delayed study starts.
Our platform transforms research administration from a fragmented, reactive practice into a governed, real-time intelligence system. We don't just monitor milestones we model the behavioural and operational signature of each study, providing predictive intelligence needed to move from "tracking deadlines" to "optimising delivery velocity."
Built by a clinical operations professional with deep NHS frontline experience, the platform encodes expert study-coordination knowledge into a SaaS platform specifically designed for the UK's NHS Trusts, academic research centres, and mid-market CROs.
Mokshitha possesses a unique "founder–problem–market fit" to lead the AI Research Operations Platform. Her background bridges high-precision clinical administration and rigorous analytical engineering providing first-hand expertise in the "Coordination Tax" that causes billion-pound efficiency losses in the UK research sector.
As an NHS MDT Coordinator in specialist oncology at Christie NHS Foundation Trust, Mokshitha has managed complex patient pathways (SIRT/PRRT), ensured Cancer Waiting Time compliance, and navigated the administrative friction between multi-disciplinary teams. This operational mastery, combined with expert-level proficiency in Somerset Cancer Register (SCR) and NHS EPR systems, provides the clinical DNA required to build a defensible AI Research Operations Platform infrastructure.
The AI Research Operations Platform is building its core team through a phased, revenue-linked strategy: a Full-Stack Software Engineer to stabilise the SCR/EDGE API integrations; a Senior Data Scientist to refine the Coordination DNA Fingerprinting models; and dedicated Research Success Leads to manage onboarding across London and South East NHS hubs.
All hires are UK-based, targeting 20+ high-value HealthTech jobs by Year 5 across technical development, clinical operations, and international commercial functions aligned with the UK Science Superpower agenda.
The AI Research Operations Platform is a cloud-native SaaS platform built on a modular architecture real-time dashboards, secure Research Logic Nodes, proprietary coordination AI models, and UK GDPR/HRA-compliant infrastructure designed to serve NHS Trusts and academic research units without requiring internal informatics engineering teams.
Machine learning models that identify and "fingerprint" patterns of successful study-activation journeys, allowing benchmarking and cloning of optimal startup logic across diverse clinical sites.
A proprietary schema that converts unstructured coordination signals (meeting minutes, emails, approval threads) into structured, machine-executable "Study Activation Graphs" that drive automated workflows.
Secure, proprietary IoT terminals for real-time site-level data capture and coordination integrating with Somerset Cancer Register (SCR), NIHR EDGE, and local NHS EPR systems.
Automatically maps real-time coordination signals onto study conditions identifying exactly which operational breaks are impacting the reliability of the study's 150-day setup target.
A federated learning architecture enabling anonymised "Coordination DNA" benchmarks from UK NHS sites to continuously improve predictive models without sharing sensitive institutional or patient data.
Closes the loop linking every successful study activation to coordination patterns and automatically prioritising the logic sequences that deliver the highest recruitment velocity and financial margin protection.
The UK presents a structurally underserved market for intelligent research operations management. With over 4,000 active clinical trials across hundreds of NHS sites and only 5% of site-level coordinators using AI-enabled predictive systems the demand for the AI Research Operations Platform is both urgent and commercially validated.
The AI Research Operations Platform's Input-to-Activation lifecycle moves research teams from fragmented manual monitoring to intelligent automated coordination protecting study timelines, reducing administrative waste, and building permanent institutional "Research Equity."
The platform ingests real-time data from meeting outputs, email dependencies, sponsor queries, regulatory approval threads, and investigator response patterns. Unstructured coordination exhaust minutes, chat logs, query trackers is catalogued and mapped to study activation potential.
Infrastructure-agnostic Research Logic Nodes connect to Somerset Cancer Register (SCR), NIHR EDGE, local EPR vendors, and EDC systems ensuring zero system lock-in and a low-friction starting point for NHS specialist sites.
The Coordination DNA Fingerprinting engine uses machine learning to identify and "fingerprint" the patterns of successful study-activation journeys staff capacity windows, MDT response latency profiles, protocol amendment cycle-buffers allowing benchmarking and cloning of expert-level coordination logic.
This Research DNA is stored as the institution's permanent operational asset ensuring that expert study-setup logic remains within the department even after key research coordinators or PIs depart, eliminating the "Institutional Brain Drain" that currently paralyses UK NHS R&D units.
The Input-to-Activation Compiler automatically deconstructs a single coordination signal a missed query, a protocol amendment, a delayed signature into a complex, multi-step operational workflow that aligns with live regulatory timelines, sponsor requirements, and site capacity.
When a site-sponsor communication break occurs or an HRA approval triggers downstream tasks, the Workflow Auto-Synthesis engine automatically adjusts the coordination queue without manual staff intervention removing the 30% manual-entry bottleneck that currently consumes UK research coordinator time.
The Velocity Delta Diagnostics (VDD) Engine automatically diagnoses root causes of timeline slippage sponsor-query lag, administrative workload friction, investigator response delays by analysing the delta between the study's expected activation date and its actual operational velocity.
Unlike reactive milestone trackers, the platform is predictive enabling intervention before a coordination break becomes a clinical loss. Hard-coded "Decision Provenance Chains" ensure every automated action meets the rigorous standards required by UK HRA and NIHR auditors.
The Federated Research Logic Network (FRLN) enables anonymised "Coordination DNA" from dozens of UK NHS sites to continuously improve predictive models without sharing sensitive commercial or patient data a network effect not available to any competitor.
Coordination patterns learned from specialist Oncology sites in London can be used to optimise the Activation Pipeline for a smaller Trust in Manchester creating a collective intelligence ecosystem that gives mid-market NHS Trusts the strategic intelligence usually reserved for global pharma sponsors.
The Outcome-Learning Research Memory closes the loop every delay event (a trial failing its 150-day setup target) is transformed into "Operational Intelligence" using proprietary algorithms that map unsuccessful outcomes back to the coordination profile recorded at study intake.
This converts transient staff "study-specific expertise" into permanent organisational "Research Equity" protecting the institution from the high fiscal cost of missed recruitment windows and trial shutdowns while generating CFO-ready reports showing how compiled Operational Logic has reduced Time-at-Risk.
Tiered pricing designed to scale alongside your institution's study portfolio from basic coordination tracking to full-spectrum, machine-executable Input-to-Activation logic. No enterprise price tag. No massive informatics team required.
The AI Research Operations Platform team is available for pilot discussions, technical briefings, and demonstrations of the Input-to-Activation platform for UK NHS Trusts, academic research centres, and regional CROs.
The AI Research Operations Platform is actively recruiting pilot partners across UK NHS Specialist Trusts, academic health science centres, and regional CROs. Engage Mokshitha Kotala directly to discuss how the Input-to-Activation Platform can transform research coordination from a manual bottleneck into your institution's most powerful strategic asset.
We are actively recruiting 5–10 London and South East-based NHS Specialist Trusts and Academic Health Science Centres for a 12-week Input-to-Activation pilot. Five London-based NHS Trusts and three mid-market AHSCs have already submitted Letters of Intent to participate in Phase 1.