This preliminary examination tests your ability to apply the Global Burden of Disease (GBD) framework, climate-health analysis, and program evaluation methods to a real-world WASH intervention in Kenya's arid and semi-arid lands. The exam is designed around your doctoral research on the DRIP FUNDI program and requires you to synthesize evidence from global health datasets, climate science, and programmatic data.
Use the GBD Results Tool to analyze Kenya's diarrheal disease burden, disaggregated by age, sex, and risk factor attribution.
Analyze climate variability and waterborne disease linkages in northern Kenya, including IPCC projections for East Africa.
Design a DALYs-based evaluation of DRIP FUNDI with cost-effectiveness estimation using real program parameters.
Write a policy brief for Kenya's Ministry of Water synthesizing burden, climate, and effectiveness findings.
Your exam submission must be a single HTML page deployed to Cloudflare Pages using Claude Code. This is itself a test of your ability to use AI tools for professional knowledge communication.
pages.dev URLYou are explicitly permitted and encouraged to use Claude (or other AI assistants) as a research and analytical tool throughout this exam. The ability to effectively use AI tools is itself a competency being assessed.
Uses AI to accelerate data extraction and literature review; independently verifies all statistics against GBD or primary sources; applies domain expertise to contextualize AI outputs for ASAL settings; AI Use Statement clearly describes what was delegated vs. what was the candidate's own analysis.
Copies AI-generated text without critical evaluation; accepts fabricated statistics or citations; fails to contextualize generic AI outputs for the specific Kenya ASAL context; AI Use Statement is vague or absent; analytical reasoning is shallow or entirely AI-derived.
The following data sources are central to this exam. You should use them directly to extract and verify data for your analyses.
IHME Global Burden of Disease results for DALYs, deaths, incidence, prevalence by cause, location, age, sex, and year.
vizhub.healthdata.org/gbd-results →Interactive visualization tool for comparing burden of disease across locations, causes, and risk factors.
vizhub.healthdata.org/gbd-compare →Climate Hazards Group InfraRed Precipitation with Station data. High-resolution rainfall estimates for Africa.
chc.ucsb.edu/data/chirps →Chapter 9: Africa. Climate change impacts, adaptation, and vulnerability projections for the continent.
ipcc.ch/report/ar6/wg2/chapter/chapter-9 →Joint Monitoring Programme for Water Supply, Sanitation and Hygiene. WASH coverage data by country.
washdata.org →Demographic and Health Survey data for Kenya. Subnational indicators for water, sanitation, health outcomes.
dhsprogram.com/Kenya →Using the IHME Global Burden of Disease Results Tool and related resources, conduct a comprehensive analysis of Kenya's diarrheal disease burden. Your analysis should contextualize the national picture within the ASAL counties where DRIP FUNDI operates.
Analyze the relationship between climate variability and waterborne disease in northern Kenya, drawing on historical climate data and future projections. Your analysis should connect directly to the operational context of borehole-dependent communities in ASAL counties.
Design a DALYs-averted evaluation framework for the DRIP FUNDI program. This part requires you to combine GBD methodology with real program parameters to estimate the potential health impact of improved borehole uptime.
Drawing on your analyses from Parts I–III, write a policy brief addressed to Kenya's Ministry of Water, Sanitation and Irrigation. The brief should be actionable, evidence-based, and grounded in the specific context of ASAL counties.
Your exam will be evaluated on the following weighted criteria. Each part is scored out of 100 points, then weighted according to the table below.
| Component | Weight | Evaluation Criteria |
|---|---|---|
| Part I — Burden of Disease | 20% | Accuracy of GBD data extraction; appropriate use of metrics (DALYs, rates vs. counts); quality of risk factor attribution analysis; strength of subnational contextualization for ASAL counties |
| Part II — Climate-Health Nexus | 20% | Quality of climate data synthesis; rigor of causal framework; integration of multiple data sources; appropriate use of IPCC projections; connection to borehole infrastructure |
| Part III — Effectiveness Framework | 30% | Soundness of DALY methodology review; logical coherence of causal pathway; transparency and accuracy of calculations; quality of sensitivity analysis; appropriate cost-effectiveness comparison |
| Part IV — Policy Synthesis | 20% | Quality of evidence synthesis; specificity and feasibility of recommendations; thoughtful generalizability assessment; identification of meaningful research gaps; appropriate tone for ministerial audience |
| AI Use & Site Delivery | 10% | Transparency of AI use documentation; critical evaluation of AI outputs; evidence of independent verification; appropriate delegation vs. own analysis; successful deployment of a well-structured pages.dev site using Claude Code |
Demonstrates mastery of GBD methodology and climate-health analysis. Calculations are accurate with well-reasoned assumptions. Policy recommendations are specific, feasible, and strongly grounded in evidence. AI use is transparent, critical, and value-adding.
Shows solid command of methods and data sources. Analysis is generally sound with minor gaps. Recommendations are evidence-based but may lack specificity. AI use is documented and mostly well-integrated.
Demonstrates adequate understanding of core concepts. Some analytical weaknesses or unsupported assumptions. Recommendations are reasonable but generic. AI use documentation is present but limited.
Significant gaps in methodology or data use. Calculations contain major errors. Recommendations lack evidence basis. AI outputs accepted uncritically or use is undocumented.