Data Science for Business Managers Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Business Managers, Product Managers and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-DS-051

Before you join: Participants should have experience making business decisions, managing projects, supervising teams, or using reports and dashboards.

Dates & prices

Two start dates a month in every city, and live online on weekdays or weekends. Fees are per participant; classroom fees include tuition, materials, lunch and refreshments, and the certificate.

Suggest a date or city

Showing the next six months. Later dates, other cities and private deliveries for your team are available on request.

Course overview

Business managers are increasingly asked to sponsor, prioritise and govern data science work without being expected to write production code. The challenge is distinguishing useful analytical opportunities from attractive but poorly framed ideas, asking data teams the right questions, and acting on model results without overstating certainty. This course addresses the manager’s role in turning operational, customer, financial and risk data into decisions that can be explained, monitored and improved.

Participants learn the data science lifecycle from problem definition through data preparation, exploratory analysis, modelling, validation, deployment and governance. They work with practical concepts including CRISP-DM, data quality assessment, SQL queries, descriptive statistics, regression, classification, clustering, forecasting, model evaluation and bias testing. The emphasis is on selecting appropriate methods, specifying business requirements, interpreting outputs, and setting decision rules rather than becoming a specialist programmer or data scientist.

Teaching combines short instructor briefings with cases from banking, public services, retail, insurance, telecommunications and NGO programmes. Participants assess data science proposals, inspect sample datasets, frame model requirements, interpret dashboards and model metrics, and plan implementation controls. Across the course, they develop a manager-ready data science initiative: a defined business problem, data inventory, analytical approach, success measures, governance controls and implementation plan. They leave with reusable templates for sponsoring data science work and communicating clearly with technical teams and senior stakeholders.

The course suits managers who own business outcomes, commission analytics, supervise digital programmes, manage risk or make decisions from dashboards. It is also appropriate for product, operations, finance and policy professionals preparing to work more effectively with data scientists, analysts, engineers and external vendors.

What you will be able to do

  • Frame business problems as measurable data science use cases
  • Assess data availability, quality, lineage and suitability for analysis
  • Interpret descriptive statistics, visualisations and exploratory data analysis outputs
  • Select regression, classification, clustering and forecasting methods for business questions
  • Evaluate model performance using confusion matrices, ROC curves and error measures
  • Specify data science requirements using CRISP-DM, acceptance criteria and decision rules
  • Identify bias, privacy, security and governance risks in analytical initiatives
  • Produce a business case and implementation plan for a data science project

Benefits of attending

For you

  • Ability to challenge vague analytics proposals before budget approval
  • Confidence interpreting model accuracy, error rates and uncertainty
  • Practical language for briefing data scientists and external suppliers
  • Reusable structure for building evidence-based business cases
  • Stronger capability to govern AI and data science initiatives

For your organisation

  • Better selection of data science initiatives tied to measurable business value
  • Fewer stalled projects caused by unclear requirements and poor data readiness
  • More consistent model governance, documentation and decision accountability
  • Improved collaboration between business leaders, analysts and technical teams
  • Earlier identification of privacy, bias, security and operational risks

Course modules

20 modules over 10 days

Participants can distinguish data science work from reporting, business intelligence and routine automation.

  • Business intelligence, analytics, machine learning and data science compared
  • Decision types suited to descriptive, predictive and prescriptive analysis
  • Value chains linking data products to operational business outcomes
  • Human judgement, automated decisions and decision-support boundaries
  • Common reasons analytical initiatives fail before model development
  • Manager responsibilities across sponsorship, prioritisation, governance and adoption

Participants can convert an operational problem into a testable data science use case.

  • Problem statements separating symptoms, causes, decisions and desired outcomes
  • SMART success measures linked to revenue, cost, risk or service
  • Decision canvases defining users, actions, timing and constraints
  • Predictive use cases for churn, fraud, demand and default
  • Prioritisation matrices scoring value, feasibility, risk and urgency
  • Hypotheses stated before data collection and model selection

Participants can identify the data assets, owners and flows needed for an analytical initiative.

  • Operational, transactional, customer, sensor and external data sources
  • Data owners, stewards, custodians and accountable business sponsors
  • Source-to-decision lineage mapped through collection, transformation and reporting
  • Master data, reference data and event data distinguished
  • Data dictionaries documenting fields, definitions, formats and permitted values
  • Data access requirements matched to legitimate business purposes

Participants can assess whether available data is fit for a proposed analytical purpose.

  • Accuracy, completeness, consistency, timeliness, validity and uniqueness assessed
  • Profiling tables reveal missing values, duplicates and invalid categories
  • Outliers investigated using domain rules, distributions and source checks
  • Missing-data mechanisms classified as MCAR, MAR and MNAR
  • Data quality scorecards assign thresholds, owners and remediation actions
  • Training data representativeness tested against intended operating populations

Participants can read and specify SQL queries used to assemble business analysis datasets.

  • SELECT statements retrieve fields needed for defined business questions
  • WHERE clauses filter records using explicit inclusion and exclusion rules
  • JOIN types combine customer, transaction and operational tables
  • GROUP BY aggregations calculate counts, sums, averages and rates
  • Date logic defines observation windows, cohorts and reporting periods
  • Query validation reconciles extracted totals with trusted control reports

Participants can interpret exploratory analysis outputs and identify questions for deeper investigation.

  • Distribution plots reveal spread, skewness, concentration and unusual values
  • Cross-tabulations compare outcomes between customer, product and regional segments
  • Correlation matrices identify relationships without claiming causation
  • Time-series charts expose trends, seasonality, breaks and volatility
  • Scatterplots test plausible relationships between predictors and target outcomes
  • Chart selection avoids misleading scales, truncated axes and visual clutter

Participants can use core statistical concepts to judge evidence, variation and uncertainty.

  • Mean, median, percentiles and standard deviation interpreted for business distributions
  • Sampling frames determine who data represents and who remains excluded
  • Confidence intervals express uncertainty around estimated rates and averages
  • Hypothesis tests compare observed differences against random variation
  • Statistical significance separated from commercial and operational significance
  • Simpson's paradox identified when aggregated results reverse segment patterns

Participants can specify preparation steps and useful features for a modelling dataset.

  • Feature engineering converts raw events into decision-relevant explanatory variables
  • Recency, frequency and monetary value calculated from transaction histories
  • Categorical variables encoded using one-hot, ordinal and target approaches
  • Numerical features scaled when model assumptions require comparable ranges
  • Train, validation and test sets separated before model tuning
  • Data leakage prevented through time-aware feature construction and controls

Participants can assess regression models for estimating continuous business measures.

  • Linear regression estimates relationships between inputs and continuous outcomes
  • Regression coefficients interpreted with units, assumptions and business context
  • Residual plots reveal nonlinearity, heteroscedasticity and influential observations
  • MAE, RMSE and MAPE compare forecast and prediction errors
  • Multicollinearity diagnosed using correlation checks and variance inflation factors
  • Scenario analysis converts regression outputs into management decision options

Participants can evaluate classification models used for binary business decisions.

  • Binary classification predicts outcomes such as default, fraud or churn
  • Confusion matrices distinguish true positives, false positives and false negatives
  • Precision, recall, specificity and F1 scores match different decision costs
  • ROC curves and AUC compare ranking performance across thresholds
  • Decision thresholds reflect capacity, risk appetite and intervention costs
  • Class imbalance handled through weighting, sampling and suitable metrics

Participants can assess whether clustering provides useful and actionable segments.

  • K-means clustering groups records with similar observed characteristics
  • Cluster variables selected from meaningful, stable and actionable attributes
  • Elbow plots and silhouette scores assess candidate cluster structures
  • Segment profiles translate numerical clusters into operational descriptions
  • Business actions tested before segments enter campaigns or service models
  • Clustering limitations include instability, arbitrary labels and hidden bias

Participants can interpret forecasts and specify their use in planning decisions.

  • Time-series forecasting estimates future demand, volume and resource requirements
  • Trend, seasonality, cycles and irregular variation separated analytically
  • Moving averages and exponential smoothing establish practical forecast baselines
  • Forecast horizons aligned with procurement, staffing and budgeting decisions
  • Prediction intervals inform contingency capacity and risk responses
  • Backtesting compares forecast methods using historical holdout periods

Participants can distinguish correlation from causal evidence when evaluating interventions.

  • Randomised controlled trials estimate intervention effects through comparable groups
  • A/B test designs define treatment, control, metrics and stopping rules
  • Randomisation checks confirm balanced groups before interpreting outcomes
  • Sample size and statistical power influence detectable treatment effects
  • Selection bias threatens conclusions from observational programme data
  • Difference-in-differences compares changes across treatment and comparison groups

Participants can specify validation and monitoring requirements for business models.

  • Cross-validation estimates model performance across repeated data partitions
  • Holdout testing protects against optimistic performance claims during development
  • Calibration checks compare predicted probabilities with observed event rates
  • Data drift detects changes in input distributions after deployment
  • Concept drift identifies changing relationships between inputs and outcomes
  • Monitoring dashboards track accuracy, exceptions, usage and business impact

Participants can identify fairness risks and define controls for responsible model use.

  • Protected characteristics identified under applicable law and organisational policy
  • Representation bias arises when training data excludes relevant populations
  • Disparate impact tests compare outcome rates across demographic groups
  • Fairness metrics involve trade-offs between competing definitions and objectives
  • Human review routes protect people affected by high-impact decisions
  • Model documentation records intended use, limitations and prohibited applications

Participants can set governance requirements for data science initiatives handling sensitive information.

  • Purpose limitation constrains data use to defined and legitimate objectives
  • Data minimisation reduces unnecessary collection, retention and model inputs
  • Access controls apply least privilege, role separation and audit logging
  • Pseudonymisation and anonymisation support different privacy risk treatments
  • Data retention schedules define deletion, archival and review requirements
  • Governance committees approve high-risk models, exceptions and accountability

Participants can present analytical findings, limitations and recommended actions to non-specialists.

  • Executive narratives connect evidence, uncertainty, decisions and expected value
  • Decision-focused dashboards highlight actions rather than excessive technical detail
  • Model limitations stated using plain language and quantified uncertainty
  • Sensitivity analysis tests recommendations against changing assumptions and conditions
  • Visual annotations explain thresholds, comparisons and material exceptions clearly
  • Recommendation memos specify owners, actions, timing and escalation triggers

Participants can sponsor and govern a data science project from discovery through adoption.

  • CRISP-DM phases structure business understanding through deployment and review
  • Product backlogs translate use cases into prioritised analytical deliverables
  • Acceptance criteria define usable outputs, performance targets and controls
  • RACI matrices clarify sponsor, product owner, analyst and risk responsibilities
  • Vendor evaluation tests methods, data handling, documentation and ownership
  • Deployment plans address workflow integration, training, support and change control

Participants can prepare an investment case and staged roadmap for an analytical initiative.

  • Benefit hypotheses quantify revenue gains, cost reductions and risk avoidance
  • Total cost estimates include data preparation, tools, people and maintenance
  • Value-realisation plans assign measures, baselines, owners and review dates
  • Roadmaps sequence discovery, pilot, validation, deployment and monitoring stages
  • Risk registers capture data, model, operational, legal and reputational exposures
  • Executive approval packs state decisions required and investment conditions

Participants can build, review and present a complete data science initiative proposal for a defined business decision.

  • Business problem framed with measurable outcomes, users and decision points
  • Data inventory assesses sources, ownership, quality and access constraints
  • Analytical method selected with assumptions, alternatives and justification
  • Success metrics define model performance, adoption and business value
  • Governance controls address privacy, fairness, security and human oversight
  • Implementation roadmap presents pilot scope, resources, risks and milestones

Exercises and examples are adapted to each cohort's sectors and roles.

What you take back to work

  1. Data science use-case canvas
  2. Data readiness assessment checklist
  3. Model selection and evaluation guide
  4. Responsible AI governance checklist
  5. Data science project charter template
  6. Business case and implementation roadmap

Who should attend

  • Business Managers — need to commission and govern analytical work confidently
  • Product Managers — need evidence-based product decisions and measurable use cases
  • Operations Managers — need to improve capacity, quality, cost and service decisions
  • Risk and Compliance Managers — need to assess model controls, bias and accountability
  • Finance Managers — need to interpret forecasts, customer analysis and performance drivers
  • Public Sector and NGO Leaders — need defensible evidence for programme and policy decisions

Skills and tools covered

Data science framingAnalytical method selectionModel performance evaluationData quality assessmentAI governanceAnalytics project sponsorship

Tools and standards

CRISP-DM, SQL, Python, Power BI

How the course runs

Training methodology

The course uses short instructor briefings to establish concepts, followed by case work using realistic business datasets and decision scenarios. Group exercises focus on framing use cases, assessing data quality, selecting methods and interpreting model outputs. Simulations place participants in sponsor, analyst, risk reviewer and executive decision-maker roles. Participants apply each topic to a chosen business problem, building an initiative pack progressively from the first week. Facilitated reviews test assumptions, metrics, governance controls and implementation choices.

Requirements and prerequisites

Participants should have experience making business decisions, managing projects, supervising teams, or using reports and dashboards. Familiarity with spreadsheets, percentages, charts and basic business measures such as revenue, cost, service levels or risk indicators is assumed. Participants should be comfortable discussing a business process they want to improve with data. Programming, advanced mathematics, database administration and prior machine learning experience are not required. The course explains technical concepts in managerial terms while retaining the detail needed to commission and review data science work.

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

Live online deliveries follow the same structure in East Africa Time, with shorter screen blocks and longer breaks.

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Refreshments and lunch on classroom deliveries
  • Certificate of completion
  • Post-course application plan

Frequently asked questions

You need experience using business information, reports or dashboards and comfort with basic numerical concepts. Programming, advanced statistics and prior machine learning study are not required.

Bring a laptop if possible and one business problem where better use of data could improve a decision. You may also bring non-sensitive examples of reports, metrics or process maps relevant to that problem.

It is designed for managers, product owners, operational leaders, finance professionals, risk specialists and programme leaders who sponsor or use analytical work. It is not a programming course for aspiring data scientists.

This course focuses on managing and applying data science rather than producing code or building production models. Participants learn enough technical detail to frame work, select methods, interpret results and govern delivery.

You can use the templates to assess proposed initiatives, write clearer requirements, review model results and establish governance controls. The capstone proposal can be based on a current business opportunity.

The first week establishes data foundations, business framing, statistics and core modelling methods. The second week covers validation, governance, communication, delivery planning and a complete capstone proposal.

Questions about this course?

Ask about dates, fees, group bookings or running it for your team. Our training team replies by email.