One-line bio ≈25 words
Emmanuel Idoko is a software engineer and AI researcher working across computer vision, multimodal AI, medical intelligence, agentic systems, and production software engineering.
Speaker Kit
I'm Emmanuel Idoko — a software engineer, AI researcher, and technical speaker working across computer vision, multimodal AI, reliable AI, production AI systems, healthcare technology, and software engineering.
I speak about the systems I build, the research questions behind them, the experiments that fail, and the engineering decisions required to move an AI idea from a notebook into something people can actually use.
SharpXR
Published — MIRASOL Workshop, MICCAI 2025
VAMAE
Accepted — ICPR 2026
ACVSS 2026
Selected 1 of 31 from 312 — full grant, Accra
AidCare
Founder — clinical decision-support platform
HabariPay (GTCO)
Software engineer — fintech infrastructure
Purpose-built for different events — not one paragraph truncated seven ways. Third person, present tense; each stands alone.
Emmanuel Idoko is a software engineer and AI researcher working across computer vision, multimodal AI, medical intelligence, agentic systems, and production software engineering.
Emmanuel Idoko is a software engineer and AI researcher working across computer vision, multimodal learning, medical AI, agentic systems, and production software engineering. His research includes work published at the MIRASOL Workshop at MICCAI 2025 and accepted at ICPR 2026, while his engineering work spans clinical decision support, retrieval systems, fintech, and intelligent software platforms.
Emmanuel Idoko is a software engineer, AI researcher, and technical speaker whose work spans computer vision, multimodal learning, medical AI, agentic systems, and production software engineering.
His research includes SharpXR, a structure-aware approach to pediatric chest X-ray denoising published at the MIRASOL Workshop at MICCAI 2025; VAMAE, vessel-aware masked autoencoders for OCT angiography accepted at ICPR 2026; and ongoing work investigating how retrieval can introduce hallucination into medical vision-language systems.
Alongside his research, Emmanuel builds applied AI systems. He founded AidCare, a clinical decision-support platform combining retrieval, multimodal document ingestion, and AI-assisted reasoning, and works as a software engineer at HabariPay, GTCO's fintech subsidiary.
He regularly teaches, presents research, moderates technical discussions, and speaks with engineering and student communities about AI, computer vision, software systems, research, and building technology that survives beyond the demo.
Emmanuel Idoko is a software engineer, AI researcher, builder, and technical speaker interested in a central question: how do we build intelligent systems that remain useful, reliable, and grounded when they encounter the complexity of the real world? His work spans computer vision, multimodal learning, medical artificial intelligence, retrieval-augmented systems, agentic AI, and production software engineering.
As a researcher, Emmanuel has contributed to work in medical imaging and representation learning. He co-authored SharpXR: Structure-Aware Denoising for Pediatric Chest X-Rays, published at the MIRASOL Workshop at MICCAI 2025, exploring how image enhancement can preserve clinically meaningful structure rather than optimizing perceptual quality alone. He also contributed to VAMAE: Vessel-Aware Masked Autoencoders for OCT Angiography, accepted at ICPR 2026, and is leading ongoing research investigating retrieval-induced hallucination in medical vision-language models. In 2026, he was selected as one of 31 participants from 312 applicants for the African Computer Vision Summer School at the Google AI Community Center in Accra.
His engineering work is similarly interdisciplinary. Emmanuel founded AidCare, a clinical decision-support platform for healthcare environments where specialist knowledge may be limited, and works as a software engineer at HabariPay, GTCO's fintech subsidiary, having previously built AI and data systems in banking, cloud engineering, and information retrieval.
Beyond research and product development, Emmanuel teaches AI and machine-learning concepts, presents research, facilitates paper-reading sessions, moderates technical conversations, and works with student and developer communities. His talks sit at the intersection of research insight and engineering reality: not just how a model works, but why it fails, how it is evaluated, and what happens when it meets production constraints.
Best for: Research conferences, universities, labs, seminars
Emmanuel Idoko is an AI and computer-vision researcher completing a B.Sc. in Computer Science at the University of Lagos. His interests include medical imaging, multimodal learning, self-supervised representation learning, vision-language models, and reliable clinical AI.
He is a co-author of SharpXR, published at the MIRASOL Workshop at MICCAI 2025, and VAMAE, accepted at ICPR 2026. His ongoing research investigates retrieval-induced hallucination and grounding failures in medical vision-language systems.
He was selected for the African Computer Vision Summer School 2026, where he presented his work and participated in advanced computer-vision research. Alongside research, he works as a software engineer and builds applied AI systems, giving him a particular interest in connecting experimental research with deployment and real-world evaluation.
Best for: Developer conferences, engineering communities
Emmanuel Idoko is a software engineer and AI researcher who builds systems across applied AI, retrieval, agentic architectures, computer vision, backend engineering, and cloud infrastructure.
His work ranges from clinical decision-support systems and multi-agent healthcare intelligence platforms to information-retrieval systems, fintech infrastructure, multimodal ingestion pipelines, and computer-vision applications. He is particularly interested in what happens between an impressive AI prototype and a dependable production system: architecture, evaluation, observability, retrieval quality, failure modes, data pipelines, deployment constraints, and responsible use.
His research has appeared at MICCAI-affiliated venues and ICPR, giving his technical talks a perspective that bridges contemporary AI research with practical software engineering.
Best for: University groups, student conferences, hackathons
Emmanuel Idoko is a software engineer, AI researcher, and technical community leader who enjoys helping students move from learning technology to building, researching, and contributing with it.
He began building competitively through hackathons and has since worked across software engineering, banking, fintech, cloud systems, computer vision, and artificial intelligence while pursuing research in medical imaging and multimodal AI. His work has been published or accepted at venues connected to MICCAI and ICPR, and he has participated in more than twenty hackathons, research programmes, technical communities, and engineering projects.
His student-focused sessions are practical and experience-driven: getting started with AI research, reading technical papers, learning engineering through projects, building strong hackathon teams, finding technical opportunities, and developing from an undergraduate learner into an engineer and researcher.
Our next speaker is Emmanuel Idoko, a software engineer and AI researcher working across computer vision, multimodal AI, medical intelligence, and production software systems.
His research includes work published at the MICCAI 2025 MIRASOL Workshop and accepted at ICPR 2026, and he is the founder of AidCare, a clinical AI platform. He also works as a software engineer at HabariPay, GTCO's fintech subsidiary.
His work combines research with building real systems, and today he'll be sharing some of the lessons from that intersection. Please welcome Emmanuel Idoko.
Emmanuel Idoko is a software engineer and AI researcher working across computer vision, medical AI, multimodal systems, and production engineering. His work has appeared at MICCAI-affiliated venues and ICPR, and he is the founder of clinical AI platform AidCare. Please welcome Emmanuel Idoko.
Seven territories my sessions are drawn from — each backed by research I’ve conducted, systems I’ve built, or communities I’ve taught.
Research and engineering around how machines perceive, represent, retrieve, and reason over visual information.
Vision-language models · Multimodal learning · Medical image analysis · Self-supervised learning · Representation learning · Image enhancement & super-resolution · Visual grounding · Generative vision · Evaluation beyond image-quality metrics
AI systems often look impressive until they meet the conditions under which they will actually be used.
Hallucination & grounding failures · Retrieval-induced failure in RAG · Evaluating generative AI · Semantic similarity vs. actual relevance · Failure analysis · Data leakage · High-stakes AI evaluation · When more context makes a model worse · Safeguards around imperfect models
What it takes to turn an AI experiment into software people can depend on.
Production RAG architectures · Agentic systems & orchestration · Retrieval infrastructure & vector search · Document ingestion · Speech & multimodal pipelines · Backend architecture for AI · Observability & evaluation · Cloud deployment · Architecture under resource constraints
Healthcare sets the hardest requirements: imperfect data, limited resources, high consequences, and a need for trustworthy outputs.
Clinical decision support · Medical vision-language models · Medical imaging · Healthcare retrieval systems · AI for resource-constrained health systems · Multimodal clinical interfaces · Responsible clinical deployment · Workflow-aware AI design
Research and engineering are often treated as separate worlds. My work sits deliberately between them.
Translating papers into implementations · Designing reproducible experiments · Reading research critically · Benchmarking correctly · Prototype to production · Knowing when an improvement is meaningful · Downstream-task-aware evaluation
More than twenty hackathons have been an unusual laboratory for product development.
Scoping ambitious ideas under time pressure · Technical decision-making in competition · Building effective engineering teams · Designing compelling demos · Turning prototypes into products · Learning rapidly through competitive building · Choosing what not to build
A practical conversation for students trying to move beyond coursework into meaningful technical work.
Finding a research direction · Reading your first papers · Working with collaborators · Reproducing papers · Designing experiments · Finding mentors · Building a research portfolio · Combining engineering and research · Learning publicly
Established sessions drawn from research I’ve conducted, systems I’ve built, and lessons I’ve learned. Each adapts to your audience’s technical depth, format, and duration.
How retrieval-augmented systems fail, why semantic similarity is not the same thing as relevance, and what our experiments with medical vision-language models reveal about designing safer RAG systems.
Retrieval-augmented generation is supposed to ground models in evidence. In medical vision-language models it can do the opposite. This talk walks through ongoing research on retrieval-induced hallucination in chest X-ray reporting: 95% of retrieval-augmented reports copied text verbatim from another patient's report (0% without retrieval), and the cause traced to embedding similarity tracking anatomy rather than disease. Retrieval doubled clinical accuracy when the retrieved case was relevant (CheXbert F1 0.201 → 0.402) and collapsed it to 0.043 when it wasn't. We cover the full pipeline — BioMedCLIP retrieval, LLaVA-1.5-7B generation, CheXbert evaluation — plus the patient-level leakage and coincidental-overlap controls that rule out chance, and what this means for anyone deploying RAG in a high-stakes domain.
Attendees leave with
The architecture, compromises, retrieval design, multimodal ingestion, privacy considerations, and deployment lessons behind building AidCare.
AidCare is a clinical decision-support platform built for healthcare settings where specialist knowledge is scarce and infrastructure is unreliable. This is a systems talk about the engineering decisions that weren't obvious: why a dual-mode RAG design with separate knowledge bases for physicians and community health workers; how a Sentence Transformers + FAISS pipeline over 500+ clinical protocols delivers sub-second retrieval; how Whisper ASR and Tesseract OCR turn voice notes and scanned records into queryable context; and how a token-efficient Gemini prompting layer produces grounded differential diagnoses. We close with deployment on a single DigitalOcean box — containerized FastAPI, RBAC, scoped tokens, anonymized logging — and the failure modes we hit along the way.
Attendees leave with
What building an agentic intelligence platform over hundreds of healthcare facilities taught us about supervisors, routing, tool boundaries, confidence, and observability.
Multi-agent systems are easy to demo and hard to make useful. This talk dissects a platform built for the Virtue Foundation that analyzes 797 healthcare facilities across Ghana's 16 regions: a LangGraph supervisor routes natural-language questions to six specialized sub-agents backed by a FAISS vector store, and an intelligent document-processing pipeline (GPT-4o-mini) extracts structured capability data from unstructured facility records with per-field confidence scores. It surfaced 10 medical deserts and 43 data anomalies — and took 2nd place at the Databricks × Hack-Nation Global AI Hackathon. We focus on routing design, when to split agents versus tools, confidence scoring for extraction, and how to keep an agentic pipeline debuggable.
Attendees leave with
A task-aware investigation of super-resolution, hallucinated structure, and downstream flood segmentation.
Super-resolution looks better. Does it work better? Built in a three-person team at the ACVSS 2026 research hackathon, this project treats enhancement as an intermediate representation whose value must be proven on a downstream task: a three-phase pipeline (conditioned latent-diffusion SR → flood-aware fine-tuning → U-Net segmentation → per-tile risk ranking) on a SpaceNet-8 subset. Controlled experiments against degraded-LR and bicubic baselines showed diffusion SR improved every downstream metric (mean IoU +24%, flood mIoU +11%) — while an earlier SR run hurt segmentation, isolating semantic fidelity versus hallucinated structure as the condition under which enhancement helps. A talk about experimental discipline as much as about models.
Attendees leave with
Lessons from SharpXR on evaluating image enhancement by the downstream clinical task rather than visual quality alone.
Pediatric chest X-rays are acquired at low dose, so they're noisy — and denoising that blurs fine structure can hurt the downstream diagnosis it was meant to help. SharpXR, published at the MIRASOL Workshop at MICCAI 2025, benchmarks seven denoising baselines (REDCNN, DnCNN, HFormer, ResUNet++, Attention U-Net, Sharp U-Net, BM3D) and shows that structure-preserving denoising raises downstream pneumonia-classification accuracy from 88.8% to 92.5%. This talk covers the evaluation design — judging denoisers by task performance rather than pixel metrics — the architectural choices that preserve edges, and lessons from presenting the work at MIRG-ICAIR 2025 and the African Computer Vision Summer School.
Attendees leave with
An accessible but technically grounded walkthrough of Transformers — and a framework for learning how to read difficult machine-learning papers.
A walkthrough of the paper that started the Transformer era, built for students and early researchers reading their first landmark paper. We break down self-attention, multi-head attention, and positional encoding with intuitive explanations and small worked examples — and, just as importantly, model how to read a dense ML paper: what to skim, what to slow down on, which assumptions to question, and how to check your understanding. Previously delivered to a student researchers session; slides available.
Attendees leave with
How short deadlines expose engineering priorities: scope, risk, architecture, teamwork, storytelling, and the difference between an idea and a working product.
Twenty-plus hackathons with wins and podiums on three continents — HackZurich's Hybrid Team Award, GDG Lagos' ₦2M winner-takes-all Amala Hackathon, 1st runner-up among 800+ at HackLab Nigeria, 2nd at the Databricks × Hack-Nation Global AI Hackathon. This talk distills what actually transfers from a 48-hour build to a real product: scoping ruthlessly, choosing the boring stack, demoing the risky part first, and turning judges' questions into a roadmap. Practical, story-driven, and honest about the projects that didn't work.
Attendees leave with
Software engineers · Machine-learning engineers · AI researchers · Computer-vision researchers · Data scientists · Health-tech teams · Product & engineering organizations adopting AI · University researchers · Undergraduate & graduate students · Developer communities · Startup & innovation communities · Technical leadership programmes
Not every session fits every group — each talk above lists its intended audience.
Computer Vision · Multimodal Learning · Vision-Language Models · Medical Imaging · Self-Supervised Learning · Representation Learning · Retrieval-Augmented AI · Reliable AI · Clinical AI
Applied AI · Agentic Systems · RAG · Information Retrieval · Backend Engineering · AI Infrastructure · Computer Vision · LLM Applications · Cloud Systems · Healthcare Technology · Fintech
Cropping is permitted. Please avoid heavy filters, recolouring, stretching, or modifying facial features.




Selected 1 of 31 from 312 applicants, with a full grant. Presented SharpXR at the poster session and competed in the research hackathon — building a task-aware super-resolution pipeline for satellite flood mapping — with keynotes from researchers at Oxford, EPFL, Amsterdam, Michigan, and Google DeepMind.
Full talk descriptions on the Talks page; publications and posters under Research.
I bring a perspective that sits between several communities that do not always speak enough to one another: research and engineering, models and systems, theory and deployment, students and practitioners.
My talks are built from work I have personally researched, implemented, tested, presented, or deployed. That means I can explain not only what worked, but also what failed, what surprised us, what the metrics initially hid, and what I would build differently the next time.
For highly technical audiences, I can go deep into model architecture, experimental design, retrieval, evaluation, computer vision, and AI systems. For broader developer audiences, I focus on architecture, engineering decisions, production constraints, debugging, and practical mental models. For student audiences, I make the same ideas accessible without stripping away the technical substance.
I’m interested in conversations at the intersection of AI research, computer vision, intelligent systems, software engineering, healthcare technology, and technical education. If you’re organizing a conference, research seminar, engineering event, university programme, workshop, panel, podcast, or developer-community session, send me: event name · audience · proposed topic · date · format · location · expected technical depth.
I’m happy to adapt an existing session or develop something that fits your audience.
Invite Emmanuel