Data Science for Business Professionals Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Business Managers, Business Analysts and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 9 Nov 2026 Course code SD-DS-049

Before you join: Participants should be comfortable reading tables, charts and basic business metrics, and should have experience making or supporting operational, commercial, financial or policy decisions.

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 leaders are asked to act on customer, operational, financial and risk data, yet many projects stall because requirements are vague, source data is unsuitable, or model results cannot be explained to decision-makers. Data science professionals need business colleagues who can frame worthwhile questions, test whether evidence is fit for purpose, challenge assumptions and convert analytical findings into decisions, controls and measurable actions.

This course develops practical data science literacy for professionals who commission, sponsor, consume or contribute to analytical work. Participants learn the CRISP-DM lifecycle; problem framing; data quality assessment; descriptive statistics; SQL querying; Python-based analysis; exploratory data analysis; data visualisation; predictive modelling; model evaluation; forecasting; segmentation; experimentation; and responsible AI controls. They learn to distinguish correlation from causation, select appropriate success measures, interpret model performance and communicate findings without overstating certainty.

Instructor-led sessions combine concise technical briefings with cases from banking, public services, retail, telecommunications and operations. Participants work with realistic datasets from the first week, progressing from business questions and data preparation to analysis, model review and decision recommendations. They leave with a documented data science business case, a data requirements specification, analysis outputs, model evaluation materials and an implementation plan. Successful participants receive a certificate of completion.

The course suits managers, analysts, product owners, subject-matter experts and transformation professionals who work alongside data teams. It is designed for people who need informed involvement in data science initiatives rather than specialist software engineering or advanced mathematical research.

What you will be able to do

  • Frame business problems as measurable data science use cases with decision criteria
  • Assess data sources using profiling, quality dimensions and fitness-for-purpose tests
  • Query and prepare structured data using SQL and Python data-wrangling methods
  • Interpret descriptive statistics, probability distributions, confidence intervals and hypothesis tests
  • Build and compare baseline classification, regression, clustering and forecasting models
  • Evaluate model performance using confusion matrices, ROC-AUC, MAE and business cost measures
  • Communicate analytical findings through decision-focused visualisations, narratives and recommendations
  • Produce a governed data science project plan with risk, ethics and implementation controls

Benefits of attending

For you

  • Commission data science projects with clearer questions, measures and acceptance criteria
  • Challenge unsupported claims made from dashboards, models and automated recommendations
  • Use SQL and Python notebooks to inspect and analyse business data
  • Explain model results, uncertainty and limitations to senior stakeholders
  • Build a portfolio-ready data science business case and analytical presentation

For your organisation

  • Reduce failed analytics initiatives caused by unclear business requirements
  • Improve prioritisation of data use cases through measurable value hypotheses
  • Strengthen oversight of model accuracy, fairness, privacy and operational risk
  • Create more productive collaboration between business, data, technology and control teams
  • Turn analysis into documented decisions, owners, measures and implementation actions

Course modules

20 modules over 10 days

Participants can frame a data science opportunity around a defined decision, value measure and delivery path.

  • Decision-led data science use cases linked to measurable business outcomes
  • CRISP-DM phases from business understanding through deployment and review
  • Value hypotheses, baseline performance and target benefit definitions
  • Analytical questions separated from reporting, automation and process redesign
  • Stakeholder maps covering sponsors, users, data owners and model reviewers
  • Use-case prioritisation using value, feasibility, risk and time criteria

Participants can convert a business problem into a testable analytical requirements statement.

  • SMART decision statements specifying owner, action, timing and constraints
  • Target variables, prediction horizons and unit-of-analysis choices
  • Classification, regression, clustering and forecasting problem distinctions
  • Success criteria combining technical metrics with operational measures
  • Assumptions register documenting causal beliefs, exclusions and dependencies
  • Acceptance criteria for analytical outputs, users and business actions

Participants can identify required data sources, owners, access routes and handling constraints.

  • Source-system inventories covering transactions, CRM, sensors and external datasets
  • Data lineage traced from operational capture through analytical consumption
  • Primary keys, foreign keys and joins across relational tables
  • Data ownership roles using RACI responsibility assignments
  • Access controls based on least privilege and approved purposes
  • Data requirements specifications listing fields, grain, history and refresh frequency

Participants can assess dataset fitness and specify defensible preparation steps for analysis.

  • Data quality dimensions: accuracy, completeness, consistency, timeliness and validity
  • Profiling distributions, distinct values, null rates and duplicate records
  • Missing-data mechanisms: MCAR, MAR and MNAR distinctions
  • Outlier detection using IQR rules, z-scores and domain thresholds
  • Standardising dates, currencies, categories and measurement units
  • Data preparation logs recording transformations, rationale and data-loss effects

Participants can use SQL queries to extract, join, aggregate and validate analytical datasets.

  • SELECT, WHERE and ORDER BY for targeted record retrieval
  • INNER JOIN and LEFT JOIN applied to customer and transaction tables
  • GROUP BY aggregations using COUNT, SUM, AVG and conditional logic
  • CASE expressions for business rules and derived categories
  • Window functions calculating rankings, running totals and cohort measures
  • SQL validation checks reconciling extracted totals with source reports

Participants can use a Python notebook to load, inspect, transform and summarise data.

  • Jupyter Notebook cells, kernels, markdown and reproducible execution order
  • Pandas DataFrames loaded from CSV files and database extracts
  • Filtering, sorting and selecting columns using Pandas syntax
  • Merge and groupby operations for combined business datasets
  • Feature creation from dates, categories, ratios and historical behaviour
  • Notebook annotations explaining assumptions, decisions and analytical limitations

Participants can summarise data distributions and identify patterns relevant to business decisions.

  • Mean, median and mode chosen for appropriate distribution shapes
  • Range, variance, standard deviation and interquartile range interpretation
  • Skewness and long tails in claims, balances and transaction values
  • Percentiles and quantiles for service levels and customer thresholds
  • Cross-tabulations revealing patterns across segments, channels and regions
  • Sampling bias identified through population coverage and response patterns

Participants can interpret uncertainty, confidence intervals and common statistical test results.

  • Probability concepts expressed through events, conditional probability and base rates
  • Normal, binomial and Poisson distributions matched to business questions
  • Confidence intervals for estimated means, proportions and differences
  • Null and alternative hypotheses stated before analysis begins
  • p-values interpreted alongside effect size and practical significance
  • Type I and Type II errors linked to decision consequences

Participants can conduct structured exploratory analysis to generate and test useful hypotheses.

  • Univariate analysis using histograms, box plots and frequency tables
  • Bivariate relationships examined with scatter plots and grouped summaries
  • Correlation matrices interpreted without claiming causation
  • Segment comparisons using rates, averages and distribution differences
  • Time-series plots revealing seasonality, trends and structural breaks
  • Exploration checklist separating observations, hypotheses and confirmed findings

Participants can design decision-focused visualisations and narratives for non-technical audiences.

  • Chart selection matched to comparison, composition, distribution and relationship questions
  • Bar, line, scatter and box plots used appropriately
  • Axes, scales and labels designed to prevent misleading interpretation
  • Reference lines showing targets, benchmarks, control limits and uncertainty
  • Annotation techniques highlighting exceptions, drivers and recommended actions
  • Data narratives structured around question, evidence, implication and decision

Participants can select an appropriate predictive modelling approach and establish a baseline.

  • Supervised learning distinguished from unsupervised learning and rule-based automation
  • Training, validation and test sets separated to prevent leakage
  • Baseline models established using averages, majority classes and simple rules
  • Feature engineering linked to available decision-time information
  • Overfitting and underfitting diagnosed through training and validation performance
  • Model selection balanced across accuracy, explainability, cost and latency

Participants can interpret classification model outputs and set decision thresholds using business costs.

  • Logistic regression probabilities interpreted for churn, fraud and default decisions
  • Decision trees explained through splits, paths and feature importance
  • Confusion matrices showing true positives, false positives and missed cases
  • Precision, recall, specificity and F1 score compared by use case
  • ROC curves and AUC used for ranking model discrimination
  • Threshold selection based on intervention capacity and error costs

Participants can assess regression and forecasting outputs for planning and resource decisions.

  • Linear regression coefficients interpreted with units and practical meaning
  • Residual plots used to identify systematic prediction errors
  • MAE, RMSE and MAPE compared for forecast accuracy
  • Moving averages and exponential smoothing for baseline demand forecasts
  • Seasonality, holidays and promotions treated as forecasting features
  • Forecast intervals communicated for inventory, staffing and budget decisions

Participants can evaluate segmentation approaches and translate groups into differentiated actions.

  • Customer segmentation objectives linked to service, risk and retention actions
  • K-means clustering based on scaled numerical features
  • Cluster count assessed using inertia, silhouette scores and usability
  • Segment profiles described through behaviours, value and needs
  • Dimensionality reduction explained using principal component analysis
  • Segmentation governance preventing prohibited or unjustified customer treatment

Participants can design and interpret controlled tests for interventions and product changes.

  • Randomised controlled trials separating treatment effects from selection bias
  • Control and treatment groups defined with eligibility rules
  • Primary metrics, guardrail metrics and stopping rules specified
  • Sample size considerations linked to detectable effect and decision risk
  • A/B test results interpreted using confidence intervals and practical impact
  • Quasi-experimental methods introduced through difference-in-differences logic

Participants can identify ethical, legal and operational risks and propose proportionate controls.

  • Fairness concerns assessed across protected groups and outcome disparities
  • Bias sources traced to sampling, labels, features and historical decisions
  • Privacy principles applied to collection, retention and data minimisation
  • Explainability requirements matched to consequential automated decisions
  • Model risk registers covering assumptions, limitations, owners and controls
  • Human oversight points defined for exceptions, appeals and escalation

Participants can define deployment requirements and monitoring measures for operational models.

  • Batch, real-time and decision-support deployment patterns compared
  • Model input checks validating schema, ranges and missing values
  • Performance monitoring tracking accuracy, calibration and business outcomes
  • Data drift and concept drift detected through distribution comparisons
  • Champion-challenger approaches supporting controlled model replacement
  • Incident response procedures covering rollback, communication and remediation

Participants can assess suitable generative AI uses while applying validation and confidentiality controls.

  • Generative AI tasks separated from predictive modelling and search
  • Prompt structures specifying role, context, constraints and output format
  • Retrieval-augmented generation explained for grounded organisational knowledge
  • Hallucination risks controlled through source checking and human review
  • Confidential data handling assessed before external tool use
  • Evaluation criteria covering accuracy, relevance, safety and consistency

Participants can present analytical recommendations with evidence, limitations, ownership and next actions.

  • Executive briefings structured around decision, evidence, value and requested action
  • Model cards documenting purpose, data, performance and known limitations
  • Decision logs recording approvals, exceptions and accountable owners
  • Uncertainty communicated through ranges, scenarios and confidence statements
  • Technical detail tiered for executives, users, analysts and reviewers
  • Implementation roadmaps sequencing pilots, controls, adoption and measurement

Participants can build, review and present a complete data science business case, analysis and implementation recommendation.

  • Business problem statement linked to a measurable decision and value case
  • Data inventory, quality assessment and preparation rationale documented
  • Exploratory analysis used to support prioritised business hypotheses
  • Model or analytical method selected against stated success criteria
  • Performance, fairness and implementation risks reviewed with stakeholders
  • Executive presentation delivering recommendation, roadmap, controls and measures

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

What you take back to work

  1. Data science use-case charter
  2. Data requirements specification template
  3. Data quality assessment checklist
  4. Python and SQL analysis notebook
  5. Model evaluation scorecard
  6. Data science implementation roadmap

Who should attend

  • Business Managers — sponsor data science work and act on analytical recommendations
  • Business Analysts — translate operational questions into data requirements and acceptance criteria
  • Product Owners — prioritise data products using customer, value and feasibility evidence
  • Risk and Compliance Professionals — assess model risk, fairness and control requirements
  • Operations Managers — use forecasting, segmentation and anomaly analysis to improve performance
  • Subject-Matter Experts — contribute domain knowledge to model design and result interpretation

Skills and tools covered

Business problem framingData quality assessmentStatistical interpretationPredictive model evaluationData storytellingResponsible AI governance

Tools and standards

CRISP-DM, Python, Jupyter Notebook, SQL

How the course runs

Training methodology

The course uses short instructor briefings followed by guided work on realistic business datasets. Participants interpret cases, define analytical questions, inspect data, write selected SQL and Python steps, and review model outputs in small groups. Simulations place participants in sponsor, analyst, risk reviewer and decision-maker roles. Facilitated discussions examine trade-offs in accuracy, explainability, fairness and implementation. Each participant develops an application plan connected to a current or proposed workplace data science initiative.

Requirements and prerequisites

Participants should be comfortable reading tables, charts and basic business metrics, and should have experience making or supporting operational, commercial, financial or policy decisions. Familiarity with spreadsheets and simple formulas is useful. No prior programming, statistics degree, machine learning experience or database administration background is required. The course introduces SQL and Python in a guided format, but participants should be willing to work with datasets, interpret quantitative outputs and discuss assumptions. Those seeking advanced model engineering should consider a specialist machine learning course.

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 should be comfortable with business metrics, spreadsheets and reading charts. Prior coding, advanced mathematics and machine learning experience are not required; SQL and Python are introduced through guided activities.

Bring a laptop capable of joining the live online environment or using the classroom software setup. A current business problem, report or data initiative is useful for the application planning work, but it is not mandatory.

It is intended for managers, business analysts, product owners, risk professionals and subject-matter experts who work with data teams. It is especially relevant for people who commission, review or use analytical outputs.

This course focuses on framing business problems, interpreting data science work and applying selected analytical methods. It includes practical SQL and Python analysis, but does not focus on production software development, advanced algorithm design or infrastructure engineering.

Participants can use the use-case charter, data requirements template, model scorecard and implementation roadmap on active initiatives. Common applications include customer churn, fraud review, demand forecasting, service improvement and risk triage.

Each training day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first week establishes framing, data, SQL, Python, statistics and exploratory analysis; the second week covers models, governance, deployment, communication and the capstone presentation.

Questions about this course?

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