Top 10 AI Prompts and Use Cases and in the Healthcare Industry in Lebanon
Last Updated: September 10th 2025
Too Long; Didn't Read:
Top 10 AI prompts/use cases for Lebanese healthcare prioritize imaging triage, bilingual telehealth bots, EHR scribing, genomic profiling, predictive analytics, RPM, drones and registry matching - delivering measurable gains: chest X‑ray 11.2→2.7 days, NGS 5–7 vs 6 weeks, charting −70%, drones 2h→15m.
Lebanon stands at a practical inflection point: home‑grown research and reviews show AI already transforming diagnosis, lab analysis and radiology triage while promising sharper, more personalized care and lower downstream costs - especially when diagnostic imaging and telehealth bridge gaps for rural patients and overstretched urban providers.
Local authors highlight how AI can reduce waste in the health bill and speed discovery, but also flag training, data quality, privacy and fairness as immediate hurdles; a recent scoping review sums the most used methods, benefits and barriers for Lebanese health technologies.
For hospitals and clinics thinking strategically, starting with imaging and bilingual triage tools offers fast wins while investing in staff upskilling and governance to ensure trustworthy, equitable rollouts (see the role of AI in healthcare and key Lebanese trends linked below).
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Table of Contents
- Methodology: How we chose the top 10 prompts and use cases
- Medical imaging diagnostics (radiology triage & detection)
- Personalized treatment planning (precision oncology & chronic care)
- Predictive analytics for disease prevention and population risk stratification
- Fig chatbot: 24/7 bilingual digital health assistant and triage
- Cloudfish social‑listening: public health surveillance in Arabic
- EHR documentation automation (audio-to-SOAP notes, summarization)
- Remote patient monitoring and multimodal agent alerts
- Administrative automation: scheduling, billing and claims review
- Clinical trial matching and registry automation
- NAR drone-assisted logistics and remote facility inspection
- Conclusion: Getting started with AI in Lebanese healthcare - practical next steps
- Frequently Asked Questions
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Methodology: How we chose the top 10 prompts and use cases
(Up)Selection balanced practical impact in Lebanon with technical readiness: priority went to prompts and use cases that reduce frontline burden in low‑resource settings (as seen in the Rhazes AI pilot at Al Hamshari Hospital), scale with governance and human‑in‑the‑loop evaluation, and are teachable to local clinicians and students.
Criteria included measurable patient‑level benefit (faster throughput, fewer missed diagnoses), clear admin wins (documentation, coding and triage), feasibility where infrastructure is limited, and strong evaluation paths to move pilots into production - drawing on lessons from the Al Hamshari trial and enterprise practices for scaling agents.
Prompt design followed healthcare best practices (clarity, scope, safety checks) and paired technical tests with clinician review so outputs can be audited and improved.
Medical education research and local training needs also guided choices: use cases that create quick, demonstrable time savings and that can be supervised by upskilled staff were ranked higher.
These pragmatic, evidence‑driven filters - impact in low‑resource clinics, governance for agents, measurable metrics, and prompt safety - shaped the top 10 list for Lebanon's hospitals and clinics (see pilot details and scaling guidance linked below).
| Evaluation Metric | Why it matters |
|---|---|
| Number of patients seen | Measures throughput gains from AI-assisted workflows (Al Hamshari pilot) |
| Patient outcomes (death vs admissions) | Clinical safety and effectiveness |
| Record keeping quality | Enables monitoring, research and billing automation |
| Staff and patient satisfaction | Acceptability and sustainability of deployment |
“For every hour a doctor spends with a patient, they spend two hours doing paperwork.” - Zaid Al‑Fagih, Rhazes AI (reporting on the Al Hamshari Hospital pilot)
Medical imaging diagnostics (radiology triage & detection)
(Up)For Lebanese hospitals and imaging centers, AI is already a practical lever to speed triage, surface subtle findings and reduce costly downstream care: cloud and on‑prem tools can flag urgent chest X‑rays, speed mammography reads, and serve as a dependable “second read” for breast screening (see SecondReadAI for mammography support).
Algorithms trained on millions of images enable instant, user‑friendly interpretation of X‑rays, CT and MRI that clinicians and even patients can act on quickly - CT Read emphasizes clear, plain‑language reports and near‑instant analysis that help demystify scans for non‑specialists.
Vendors and reviews also report real efficiency gains (examples include cutting chest X‑ray turnaround from 11.2 to 2.7 days and algorithm performance as high as ~94.4% for lung nodules and ~89.6% for breast cancer in large datasets), benefits that matter in Lebanon where radiology capacity can bottleneck care.
Start with high‑impact, well‑validated prompts - triage chest X‑rays, automate mammography detection, and route urgent cases - to free radiologists for complex reads while retaining human oversight and auditability (see practical Lebanese use cases and cost benefits linked below).
Personalized treatment planning (precision oncology & chronic care)
(Up)Precision treatment planning is already within reach for Lebanese patients thanks to AUBMC's in‑house Genomic Profiling Program, which runs comprehensive NGS assays (ROCHE AVENIO/FOUNDATIONONE) locally and trims report turnaround to 5–7 days instead of the six‑week waits that come with overseas testing - an operational detail that can change treatment timelines for advanced cancers.
Genomic profiling at AUBMC combines tumor sequencing, predictive genetic testing and inherited‑risk counseling (including carrier screening for hemoglobinopathies), enabling oncologists to match targeted drugs, spot hereditary risks, and avoid repeated biopsies when tissue is scarce.
Globally, AI and machine‑learning methods are proving their value by sifting large genomic datasets to surface mutation‑treatment patterns and survival signals - work like the USC study that identified hundreds of mutation‑outcome links shows how computational tools can sharpen treatment choice.
For Lebanon, practical next steps are integrating molecular tumor boards to interpret reports, building clinician workflows that pair NGS results with human oversight, and exploring advanced options such as neoantigen prediction and vaccine design through services like CancerNeo® to expand immunotherapy strategies; each step leans on fast local testing, trained genetics counselors, and governance to translate molecular data into safer, more precise care.
“By understanding how different mutations influence treatment response, doctors can select the most effective therapies.” - Ruishan Liu
Predictive analytics for disease prevention and population risk stratification
(Up)Predictive analytics can shift Lebanese care from reactive to preventive by turning routine clinic data into population risk maps: a recent single‑score effort validated across cohorts shows final risk ranges such as −34 to 72 for dementia and −42 to 45 for diabetes, offering a compact way to flag ageing‑related risk (see the BMC Medicine single‑risk assessment).
For chronic kidney disease, a systematic review identified dozens of usable models (36 for healthy adults, 12 for people with type 2 diabetes) with AUCs ranging roughly 0.63–0.91 and several scores that perform above 0.8 - one sex‑specific CKD model even reached AUC ≈0.95 - signals that primary‑care screens can be both simple and discriminating (see the CDC review).
Clinically, diabetes is a double threat: large cohort work links type 2 diabetes to a 53–73% higher dementia risk, and meta‑analyses tie severe hypoglycemia to elevated dementia rates, underscoring why stratifying patients by glycemic control and comorbidity matters for prevention.
In Lebanon, repurposing validated scores into bilingual EHR prompts and targeted screening campaigns - starting with people who have diabetes, hypertension or CKD risk factors - offers rapid, measurable prevention wins while local validation studies confirm calibration to the population.
| Metric | Reported range (source) |
|---|---|
| Dementia single‑score range | −34 to 72 (BMC Medicine single‑risk dementia assessment study) |
| CKD model AUCs | ≈0.63–0.91; several >0.80; sex‑specific model up to ~0.95 (CDC systematic review of chronic kidney disease prediction models) |
| Type 2 diabetes → dementia | ~53–73% higher risk (large UK cohort) |
Fig chatbot: 24/7 bilingual digital health assistant and triage
(Up)Fig chatbot can act as a 24/7 bilingual digital health assistant for Lebanon by combining symptom triage, Arabic language support and appointment booking so patients get the right next step fast - self‑care advice, a clinic visit, or urgent referral - without tying up clinicians.
Emerging work shows chatbots can perform symptom triage and multilingual conversation, guiding users through structured interviews to suggest the most suitable action, and companies like Infermedica now offer Arabic symptom navigation used by millions to plug access gaps and lower costs (Infermedica Arabic symptom triage and AI-driven patient navigation).
Practical templates already exist for Arabic workflows (WhatsApp‑ready booking, reminders and lead capture) that run 24x7 and reduce front‑desk load - one Tars deployment reported saving 4,000+ calls per month - so a Lebanon‑focused Fig chatbot can free staff for complex care, improve rural access, and nudge patients toward timely, cost‑effective options (Arabic healthcare chatbot templates with WhatsApp integration).
For hospitals and insurers building trustworthy bots, pairing clear triage prompts with clinician review, escalation rules and bilingual UX creates a practical tool that patients actually use and that measurably lightens administrative burden (Chatbot triage and multilingual support in healthcare overview).
“The broader goal is to improve customers' performance, increase healthcare accessibility, and reduce costs.” - Piotr Orzechowski, Infermedica
Cloudfish social‑listening: public health surveillance in Arabic
(Up)Cloudfish social‑listening for Lebanon means turning Arabic social feeds into an early‑warning layer that complements clinical surveillance: WHO's Eastern Mediterranean review found that 95.8% of COVID‑19 signals (9,732 of 10,160 items) were captured via social media, and nearly all event updates from those feeds were official Ministry of Health posts, underscoring how platforms became a real‑time channel for public‑health intelligence (WHO EMRO social‑media epidemic intelligence (BMJ Global Health study)).
NLP research shows Arabic infodemiology can work if tools handle dialect and slang - one JMIR Med Inform study achieved F1 scores up to ~94% for COVID‑19 tweet classification and used informal terms to boost accuracy while recovering user locations with ~63.6% accuracy for COVID‑19 cases (Arabic COVID‑19 tweet classification (JMIR Medical Informatics study)).
Large‑scale topic and sentiment work on >1,000,000 Arabic tweets (processed to ~637,718) found anger to be the dominant public emotion, which is exactly the kind of signal public‑health communicators need to spot and address quickly (Arabic tweet topic and sentiment analysis (JMIR Infodemiology study, 2025)).
| Study / Source | Key metric | Value |
|---|---|---|
| WHO EMRO (BMJ Global Health) | COVID‑19 signals from social media | 95.8% (9,732 of 10,160) |
| Alsudias & Rayson (JMIR Med Inform) | Tweet classification F1 / COVID geolocation accuracy | F1 up to ~94%; geolocation ≈63.6% (COVID‑19) |
| Alshanik et al. (JMIR Infodemiology 2025) | Arabic tweets analyzed / dominant emotion | >1,000,000 collected; ~637,718 processed; anger dominant |
EHR documentation automation (audio-to-SOAP notes, summarization)
(Up)EHR documentation automation - ambient audio capture, speech‑to‑text and AI scribe workflows that turn conversation or shorthand into polished SOAP notes - is a practical way for Lebanese clinics to reclaim clinician time, reduce backlog and make telehealth visits charting‑ready in minutes; vendors advertise results ranging from automated notes in under a minute to charting time cut by as much as 70%, with some users reporting up to two hours saved per day or 7+ hours a week.
These tools support multiple inputs (live dictation, telehealth recordings, uploaded audio) and offer EHR APIs and FHIR/HL7-friendly integrations so generated notes can flow into existing systems, while commercial platforms emphasize compliance and BAAs for secure handling of PHI. For overstretched hospitals and private practices in Lebanon, pragmatic pilots - start with high‑volume ambulatory clinics, pair the scribe with rapid clinician review, and measure throughput and documentation quality - can free clinicians for complex care and speed coding and billing workflows; vendors such as SOAPNoteAI clinical documentation platform and implementation guides from John Snow Labs guide to generating SOAP notes with AI show common deployment patterns and tech stacks to consider.
| Metric | Reported value (source) |
|---|---|
| Charting time reduction | Up to ~70% (ScribeHealth.ai) |
| Provider time saved | Up to 2 hours/day reported by providers (Sunoh) |
| Auto‑note generation & usage | SOAPNoteAI: 25,840 notes generated; 4,240 hours saved (SOAPNoteAI) |
| Adoption example | AutoNotes trusted by 65,000+ clinicians (AutoNotes) |
“I LOVE SOAP Note AI! It gives me back the time that charting was taking away from my patients at work and my family at home.” - Allison Carroll (SOAPNoteAI testimonial)
Remote patient monitoring and multimodal agent alerts
(Up)Remote patient monitoring (RPM) offers a practical way to extend care beyond clinic walls in Lebanon - especially for rural patients and overstretched urban providers - by using wireless wearable sensors for continuous observation and agent‑driven alerts that surface early concerns between visits.
A qualitative overview of nurses' perspectives on continuous monitoring highlights that implementation hinges on real workflows and frontline buy‑in, making human factors as important as the devices themselves (BMC Nursing study on wireless wearable sensors).
For Lebanese health systems, pairing these monitoring tools with clear escalation rules, bilingual patient touchpoints and reliable escalation channels can turn raw signals into timely clinical action; practical guidance on deploying telehealth and remote monitoring at scale in Lebanon helps translate that potential into measurable access and efficiency gains (Telehealth and remote monitoring in Lebanon).
The memorable test: a continuous sensor that “keeps watch” between visits can be the difference between an early outpatient adjustment and an avoidable emergency admission, but only when nurses, clinicians and alerting agents are all part of the design.
| Study | Metric | Value |
|---|---|---|
| Remote continuous monitoring (BMC Nursing) | Accesses | 5,423 |
| Remote continuous monitoring (BMC Nursing) | Citations | 17 |
| Remote continuous monitoring (BMC Nursing) | Altmetric | 2 |
Administrative automation: scheduling, billing and claims review
(Up)Administrative automation - covering scheduling, billing and claims review - can unlock immediate gains for Lebanon's clinics and insurers by removing manual chokepoints at registration, speeding reimbursements and cutting denial rework: studies show denial rates are rising (38% of organizations report >10% claims denied) and nearly half of denials stem from missing or inaccurate data, so front‑end validation and automated eligibility checks pay for themselves fast.
Practical deployments combine smart scheduling and bilingual patient intake with an automated claims engine that flags at‑risk submissions, runs rule‑based edits and triages denials for high‑value appeals; predictive triage and workflow automation have been shown to reduce rework and accelerate payment cycles in provider pilots.
Start small - automate registration and prior‑auth checks, measure clean‑claim rates, then expand to denial‑triage and automated follow‑ups - while following proven rollout steps (build a sound AI business case, manage expectations, and phase deployments) to ensure sustainable results.
For implementation guidance and industry best practices see the Experian claims modernization overview and Expert.ai's five best practices for automating claims.
| Metric | Reported value (source) |
|---|---|
| Providers reporting >10% claims denied | 38% (Experian Health) |
| Common cause: missing or inaccurate data | 46% (Experian Health) |
| Denials reviewed manually | 48% (Experian Health) |
| Providers planning near‑term investment in claims tech | 45% planning investment (Experian Health) |
“You know when the Patient Access Curator went live because you can see it in our stock price. It helped us drive a $100 million bottom-line improvement within two quarters.” - Ken Kubisty (Experian case study)
Clinical trial matching and registry automation
(Up)Clinical trial matching and registry automation depend on privacy-first record linkage: studies show deterministic, privacy‑preserving record linkage (PPRL) using homomorphic encryption can match cohort and administrative data at very high accuracy without sharing raw identifiers - one large validation linked 8,117 of 8,128 records (99.9% success) and reached 99.8% indirect‑identifier validity after auditing, a process that involved 26 billion encrypted comparisons and took 36 days in early implementation (IJPDS validation of deterministic privacy‑preserving record linkage (PPRL)).
Federal projects and guidance are explicitly evaluating PPRL to expand hospital and Medicaid research linkages while protecting privacy (CDC/ASPE evaluation of privacy‑preserving record linkage methodology for national hospital data linkage), and de‑identification best practices remain essential for sharing trial data responsibly (BMC Medical Research Methodology guidance on patient‑level data sharing and de‑identification).
For Lebanon, the practical takeaway is clear: registry‑embedded trials and automated matching can be enabled with PPRL, but require governance for a neutral third‑party decryptor, substantial compute capacity, and careful de‑identification workflows so trial matching and national registries deliver research value without compromising patient privacy.
| Metric | Value / Source |
|---|---|
| Successful deterministic matches | 99.9% (IJPDS validation) |
| Indirect‑identifier validity after audit | 99.8% (IJPDS validation) |
| Comparison workload | ~26 billion encrypted comparisons (IJPDS validation) |
| Processing time (pilot) | 36 days with manual steps (IJPDS validation) |
NAR drone-assisted logistics and remote facility inspection
(Up)NAR‑style drone logistics and remote facility inspection offer a pragmatic, fast‑win layer for health systems that need to move small, time‑sensitive items across difficult terrain: African pilots show drones can cut delivery times from hours to minutes (one Zipline hub slashed some hospital deliveries from two hours to ~15 minutes and today serves roughly 75% of a nation's outside‑capital blood supply), while trials in the US and UK demonstrate long‑range BVLOS potential and strict regulatory work‑flows to enable safe flights.
Practical lessons for Lebanon's health planners include matching realistic payloads (most medical drones carry ~1.8–4 lb / ~1.75 kg payloads with ranges up to ~60–96 miles), protecting cold‑chain integrity for blood and vaccines, and building public‑private partnerships and corridor approvals before scaling.
Start with single‑use pilots (emergency blood, lab sample shuttles, or on‑demand supply drops to hard‑to‑reach clinics), measure turnaround and stockout reductions, and design neutral governance so data, safety and community trust grow together - approaches already documented in Rwanda, Malawi and recent US BVLOS trials (see pilot insights and case studies linked below).
| Metric | Reported value / source |
|---|---|
| Typical drone payload | ~1.8–4 lb (~1.75 kg) (Zipline / case studies) - Think Global Health article on drones delivering humanitarian aid in Africa |
| Typical range | ~60–96 km (case reports) |
| Example delivery time cut | From ~2 hours to ~15 minutes (Rwinkwavu hospital, Zipline) - Reach Alliance case study on Zipline's impact in Rwanda |
| Demonstrated BVLOS trial | 80‑mile delivery in North Dakota (Project Rural Reach) - UND Center for Innovation landmark medical drone delivery trial (North Dakota) |
“There is a shift of trust in the health system.” - Olivier Defawe (commenting on how reliable drone delivery changes clinic behavior)
Conclusion: Getting started with AI in Lebanese healthcare - practical next steps
(Up)Practical next steps for Lebanese health leaders are clear: pick a high‑impact pilot (imaging triage, bilingual triage bots or EHR scribing), pair it with strong governance and clinician‑in‑the‑loop review, and use national surveillance pilots to scale - projects like the AI4PEP Lebanon platform show how lab feeds, FHIR/HL7 integration and expert‑validated alerts can lift pandemic surveillance from paper to a real‑time dashboard (AI4PEP Lebanon pandemic surveillance platform).
Start where capacity bottlenecks hurt most - Al Hamshari Hospital's Rhazes AI pilot, for example, supports clinicians in an 80‑bed facility that treats roughly 4,000 refugees each month and demonstrates how automation can free time for care (ComputerWeekly coverage of the Al Hamshari Rhazes AI pilot).
Pair technical pilots with workforce training - short, practical courses in prompt design and AI operations such as the AI Essentials for Work bootcamp help clinicians and admins become effective AI supervisors - and measure everything (throughput, outcomes, documentation quality) so small wins justify broader rollout (AI Essentials for Work bootcamp registration).
| Bootcamp | Length | Early bird cost | Register |
|---|---|---|---|
| AI Essentials for Work | 15 Weeks | $3,582 | Register for AI Essentials for Work bootcamp |
“For every hour a doctor spends with a patient, they spend two hours doing paperwork.” - Zaid Al‑Fagih, Rhazes AI
Frequently Asked Questions
(Up)Which AI prompts and use cases are highest priority for the healthcare industry in Lebanon?
The article highlights 10 high‑priority prompts/use cases for Lebanon: 1) medical imaging diagnostics (radiology triage & detection), 2) personalized treatment planning (precision oncology & chronic care), 3) predictive analytics for disease prevention and population risk stratification, 4) 24/7 bilingual triage chatbot (Fig chatbot), 5) social‑listening for public‑health surveillance (Cloudfish), 6) EHR documentation automation (audio‑to‑SOAP notes, summarization), 7) remote patient monitoring with multimodal agent alerts, 8) administrative automation (scheduling, billing, claims review), 9) clinical trial matching and registry automation using privacy‑preserving linkage, and 10) drone‑assisted logistics and remote facility inspection for time‑sensitive deliveries.
What measurable benefits and performance metrics have been reported for these AI use cases in Lebanon and comparable pilots?
Reported benefits and metrics include: faster imaging turnaround (examples cut chest X‑ray turnaround from 11.2 to 2.7 days), high algorithm performance in large datasets (e.g., lung nodule detection ≈94.4% and breast cancer detection ≈89.6%), faster genomic report turnaround locally at AUBMC (5–7 days vs ~6 weeks overseas), CKD model AUCs ≈0.63–0.91 with some >0.80 and one sex‑specific model ≈0.95, dementia single‑score ranges −34 to 72, diabetes linked to ~53–73% higher dementia risk, chatbot/automation operational gains (e.g., one deployment saved 4,000+ calls per month), social‑listening captured 95.8% of COVID signals in WHO EMRO analysis and Arabic tweet classifiers achieved F1 up to ~94%, EHR scribe tools reporting charting time reductions up to ~70% and provider time savings up to ~2 hours/day, claims denial context showing 38% of providers report >10% claims denied and 46% of denials due to missing/inaccurate data, PPRL matching success ≈99.9%, and drone pilots showing payloads ~1.8–4 lb (~0.8–1.75 kg), ranges ~60–96 km, and delivery time cuts from ~2 hours to ~15 minutes in some cases.
What are the main barriers, safety and privacy concerns for deploying AI in Lebanese healthcare, and how should organizations mitigate them?
Key barriers are workforce training gaps, uneven data quality, privacy and de‑identification risks, fairness/bias concerns, and governance/compute constraints. Mitigation strategies recommended in the article include: adopt human‑in‑the‑loop workflows and clinician review for safety and auditability; apply privacy‑preserving record linkage (PPRL) and strong de‑identification for research and trial matching; invest in staff upskilling (short courses in prompt design and AI ops); build bilingual UX and escalation rules for patient‑facing tools; establish clear governance, neutral third‑party decryptors where needed, and phased pilots with measurable evaluation criteria; and validate models locally to check calibration and fairness before production rollouts.
Where should hospitals and clinics in Lebanon start, and what practical next steps does the article recommend for pilots and scaling?
Start with high‑impact, technically mature pilots that reduce frontline burden: imaging triage (chest X‑rays, mammography support), bilingual triage/chatbots, and EHR scribing are recommended first pilots. The article cites Al Hamshari Hospital's Rhazes AI pilot as an example of an imaging/triage deployment in an 80‑bed facility serving ~4,000 refugees/month and AUBMC's in‑house genomic profiling (NGS) program as an example for precision‑care workflows. Practical steps: choose a single use case with measurable outcomes, pair it with clinician‑in‑the‑loop review and bilingual UX where relevant, secure governance and privacy safeguards, run a time‑boxed pilot, measure throughput/outcomes/documentation quality, upskill staff (e.g., AI Essentials for Work bootcamp), and expand from demonstrable wins.
Which evaluation metrics should Lebanese health systems track to judge AI pilot success?
Track operational, clinical and user metrics: number of patients seen (throughput), patient outcomes (admissions, deaths, clinically meaningful endpoints), record‑keeping quality (note completeness, coding accuracy), staff and patient satisfaction (acceptability), domain‑specific performance metrics (AUCs for predictive models, sensitivity/specificity for imaging tools), turnaround times (imaging reads, genomic reports), claims/administration metrics (clean‑claim rate, denial rates), adoption/time‑saved (charting time reduction, provider hours saved), and public‑health signals (social‑listening coverage or classifier F1). Use these measures to decide scale‑up and to monitor safety, fairness and ROI during rollouts.
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Ludo Fourrage
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Ludovic (Ludo) Fourrage is an education industry veteran, named in 2017 as a Learning Technology Leader by Training Magazine. Before founding Nucamp, Ludo spent 18 years at Microsoft where he led innovation in the learning space. As the Senior Director of Digital Learning at this same company, Ludo led the development of the first of its kind 'YouTube for the Enterprise'. More recently, he delivered one of the most successful Corporate MOOC programs in partnership with top business schools and consulting organizations, i.e. INSEAD, Wharton, London Business School, and Accenture, to name a few. With the belief that the right education for everyone is an achievable goal, Ludo leads the nucamp team in the quest to make quality education accessible

