Advanced Stata Programming Training Course

Duration 10 days 17 modules · 65 contact hours
Level Advanced Certificate on completion
Who attends Economist, Financial Analyst 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-EE-039

Before you join: Participants should already use Stata confidently for data management, descriptive statistics, regressions and graphing.

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

Advanced Stata work is often constrained less by statistical theory than by fragile code, inconsistent data preparation, slow estimation routines and results that cannot be reproduced or audited. Economists, finance analysts and researchers need programs that can ingest complex source files, apply defensible transformations, estimate appropriate models, test assumptions and produce publication-ready outputs without repeated manual intervention. This course addresses those requirements through structured Stata programming for analytical work in finance, accounting and economics.

Participants develop production-quality Stata workflows using do-files, ado-programs, macros, loops, Mata, frames, postfiles and reproducible project structures. The course covers data engineering, panel-data estimation, time-series methods, causal inference workflows, simulation, resampling, diagnostics, reporting automation and performance optimisation. Participants learn to write reusable programs with validation checks, informative error handling and documented inputs and outputs. They also learn to select programming approaches that remain readable and maintainable when data volumes, model variants and reporting requirements increase.

Instruction combines short technical briefings with instructor-led coding demonstrations, finance and economics cases, code reviews, group problem-solving and individual application planning. Cases include firm financial statements, loan portfolios, market returns, macroeconomic indicators and survey datasets. Participants leave with a reusable Stata project template, a programmed analytical workflow and a reviewed capstone analysis that can be adapted to their own reporting or research responsibilities.

The course suits experienced Stata users who already run standard commands and now need stronger programming discipline, automation capability and econometric implementation skills. It is particularly relevant for analysts whose work must withstand internal review, research replication, model validation or regulatory scrutiny.

What you will be able to do

  • Design reproducible Stata project structures using do-files, logs, paths and version controls
  • Program reusable Stata routines with macros, loops, returned results and ado-files
  • Engineer analysis-ready datasets from financial, administrative and market-data source files
  • Estimate and diagnose panel, time-series and causal econometric models in Stata
  • Implement simulation, bootstrap and permutation procedures for statistical inference
  • Optimise Stata programs using frames, Mata, efficient merges and vectorised calculations
  • Automate tables, figures and statistical outputs for auditable analytical reporting
  • Build and present a complete programmed Stata analysis for a finance or economics case

Benefits of attending

For you

  • Produce audit-ready Stata analyses without repeated manual data preparation
  • Write faster, clearer programs for recurring finance and economics reporting
  • Diagnose model and data issues before results reach decision-makers
  • Apply Mata and frames to datasets that strain ordinary command workflows
  • Present a tested analytical project as evidence of advanced Stata capability

For your organisation

  • Reduce analyst time spent rebuilding recurring datasets, tables and charts
  • Improve reproducibility of financial, economic and risk analysis outputs
  • Create clearer audit trails for transformations, assumptions and model specifications
  • Strengthen quality assurance through programmed validation and diagnostic checks
  • Increase capacity for timely panel, time-series and causal analysis

Course modules

17 modules over 10 days

Participants can structure a portable Stata project with traceable code, data and outputs.

  • Stata execution model, memory management, and version-controlled project structure
  • Do-file architecture using globals, locals, arguments, and returned results
  • Relative file paths and c(sysdir) configured for portable analysis
  • Project folders separating raw data, code, outputs, and documentation
  • Stata version control with version commands and reproducibility settings
  • Log files, command history, and deterministic random-number seeds

Participants can import, standardise and validate multi-source analytical datasets.

  • Importing Excel, CSV, fixed-width, JSON, and delimited financial data
  • Unicode strings, date conversions, encodings, and locale-specific numeric formats
  • Data dictionaries generated from describe, codebook, and metadata inspection
  • Validation rules using assert, confirm, duplicates, and missingness checks
  • Financial identifiers standardised across entities, securities, reporting periods, and currencies
  • Automated import routines using file lists and parameterised do-files

Participants can manage linked datasets and complex transformations without unnecessary disk operations.

  • Frames for separate datasets, linked records, and temporary calculation spaces
  • frlink and frget applied to controlled cross-frame data retrieval
  • Merge diagnostics using _merge, uniqueness checks, and reconciliation counts
  • Reshape, collapse, contract, and statsby for analytical data transformations
  • By-group calculations with egen, rangestat, and rolling-window statistics
  • Data signatures and datasignature used to detect unintended dataset changes

Participants can automate repetitive Stata tasks through controlled program flow and macro design.

  • Local and global macros scoped to prevent unintended value substitution
  • foreach and forvalues loops generating variables, models, and output series
  • while loops controlled through counters, conditions, and termination tests
  • Macro extended functions parsing variable lists, filenames, and labels
  • Conditional execution with if, else, continue, break, and capture
  • Stored results harvested from e(), r(), s(), and c()

Participants can create parameterised Stata programs with documented inputs, outputs and error controls.

  • program define syntax supporting varlists, options, weights, and qualifiers
  • syntax command parsing required variables, optional parameters, and defaults
  • marksample and markout controlling observations included in program execution
  • return, ereturn, and sreturn used for structured program outputs
  • Error handling through confirm, capture, exit codes, and custom messages
  • Ado-file conventions, help files, and program documentation standards

Participants can use Mata to implement efficient matrix calculations and custom estimators.

  • Mata objects, views, scalars, vectors, matrices, and string matrices
  • st_data and st_store transferring data between Stata and Mata
  • Matrix algebra for least squares, covariance matrices, and transformations
  • Vectorised Mata calculations replacing slow observation-by-observation Stata loops
  • Functions, pointers, structs, and libraries for reusable Mata code
  • Custom numerical routines checked against built-in Stata estimation results

Participants can build panel-data pipelines and assess appropriate fixed-effects or random-effects specifications.

  • xtset declarations, panel gaps, duplicates, and time-index integrity checks
  • Fixed-effects, random-effects, and correlated random-effects model specifications
  • Within transformations and demeaning implemented through programmed routines
  • Clustered standard errors selected for entity, time, and two-way dependence
  • Hausman testing, Mundlak terms, and specification comparison workflows
  • Dynamic panel models using xtabond2 assumptions and diagnostic statistics

Participants can prepare financial time series and programme common market-data analyses.

  • tsset declarations, trading calendars, gaps, and irregular observation dates
  • Log returns, excess returns, cumulative returns, and volatility measures
  • Rolling regressions using rolling, rangestat, and programmed estimation loops
  • ARIMA, ARCH, and GARCH specifications for conditional volatility modelling
  • Unit-root tests using dfuller, pperron, and stationarity decision rules
  • Event-study windows, abnormal returns, and cumulative abnormal-return calculations

Participants can programme transparent causal estimation workflows with diagnostic and sensitivity checks.

  • Potential-outcomes notation linked to treatment, outcome, covariates, and estimands
  • Propensity-score models with overlap diagnostics and balance assessment
  • Inverse-probability weighting using teffects and stabilised weight calculations
  • Difference-in-differences models with parallel-trends evidence and event-time indicators
  • Instrumental-variable estimation using ivregress, relevance tests, and exclusion reasoning
  • Regression discontinuity designs with bandwidth choices and manipulation tests

Participants can quantify estimator uncertainty through programmed resampling and simulation procedures.

  • Bootstrap procedures using bsample, bootstrap prefixes, and custom returned statistics
  • Permutation tests implemented with random reassignment and reference distributions
  • Monte Carlo simulations assessing bias, coverage, power, and convergence
  • simulate command collecting program outputs across repeated data-generating processes
  • Random-number streams, seed management, and reproducible simulation designs
  • Power analysis using power commands and programmed scenario comparisons

Participants can build diagnostic checks that identify data, specification and inference weaknesses.

  • Residual diagnostics for heteroskedasticity, serial correlation, normality, and influential observations
  • Multicollinearity assessment using variance inflation factors and condition indices
  • Specification tests including linktest, ovtest, and functional-form comparisons
  • Outlier treatment documented through winsorisation, trimming, and influence analysis
  • Automated assertion checks for sample sizes, coefficients, and missing outputs
  • Sensitivity analysis across specifications, samples, transformations, and standard-error choices

Participants can profile and improve code performance for large or repeated analytical workloads.

  • Timer profiling identifies slow commands, loops, merges, and repeated calculations
  • Preserve and restore replaced by frames and targeted temporary objects
  • Efficient joins using merge, frlink, joinby, and range-based matching
  • Variable storage types selected to reduce memory use and precision loss
  • Collapse-first strategies reduce observation counts before expensive model estimation
  • Parallel processing considerations, reproducibility constraints, and independent task design

Participants can produce consistent statistical outputs directly from programmed Stata analyses.

  • collect framework structures regression results, descriptive statistics, and custom labels
  • etable and esttab produce formatted model comparison tables
  • putexcel writes audit-ready tables, formulas, and formatting to workbooks
  • putdocx generates Word reports with text, tables, and figures
  • Graph schemes, by-options, annotations, and export settings standardised programmatically
  • Results datasets created with postfile for downstream reporting and review

Participants can acquire and document external data inputs for repeatable economic analysis.

  • import fred retrieves macroeconomic series with frequency and transformation controls
  • World Bank API queries filtered by indicator, economy, and period
  • ODBC connections retrieve controlled extracts from relational database tables
  • JSON parsing converts nested API responses into analysis-ready variables
  • API request parameters stored in configuration files and documented logs
  • Source provenance recorded through retrieval dates, identifiers, and transformation notes

Participants can review Stata code against maintainability, accuracy and reproducibility criteria.

  • Code review criteria covering naming, dependencies, side effects, and readability
  • Test datasets designed for boundary conditions, missing values, and duplicates
  • Unit-style tests verify expected calculations using assert and stored results
  • Regression tests compare outputs after code, data, or Stata updates
  • README files document project setup, inputs, outputs, assumptions, and execution order
  • Git commits, branches, and pull requests support controlled code changes

Participants can translate a business or research question into a programmed Stata analysis specification.

  • Analytical questions converted into estimands, datasets, model specifications, and outputs
  • Firm-level accounting data mapped to profitability, liquidity, leverage, and growth measures
  • Loan portfolio analysis structured around default outcomes, cohorts, and risk drivers
  • Market-return datasets aligned with benchmark indices, events, and trading calendars
  • Economic indicators joined through common geography, period, unit, and frequency definitions
  • Analysis plans define assumptions, validation checks, outputs, and review responsibilities

Participants can build, review and present a complete reproducible Stata analysis from source data to decision-ready outputs.

  • Project brief specifies decision question, data sources, methods, and deliverables
  • Programmed pipeline imports, validates, transforms, estimates, and exports results
  • Econometric specification justified through assumptions, diagnostics, and sensitivity checks
  • Reusable program components documented with syntax, options, and returned results
  • Automated tables and figures communicate findings for technical and managerial audiences
  • Peer review assesses reproducibility, code quality, analytical validity, and presentation clarity

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

What you take back to work

  1. Reproducible Stata project template
  2. Parameterised ado-program template
  3. Data validation checklist
  4. Econometric diagnostics checklist
  5. Automated reporting code library
  6. Capstone analytical project

Who should attend

  • Economist — to automate empirical research and produce reproducible policy or market analysis
  • Financial Analyst — to programme recurring valuation, risk and performance analysis
  • Quantitative Researcher — to build maintainable estimation and simulation workflows
  • Risk Analyst — to process portfolio data and test model assumptions consistently
  • Financial Controller — to analyse accounting data through repeatable audit-ready routines
  • Monitoring and Evaluation Specialist — to manage survey data and implement impact evaluations

Skills and tools covered

Stata program designReproducible research workflowsPanel-data econometricsTime-series modellingAutomated reportingCode performance optimisation

Tools and standards

Stata, Mata, Git, World Bank API

How the course runs

Training methodology

The course uses short instructor briefings followed by guided coding, structured case work, group code reviews and individual programming tasks. Participants work with realistic financial statements, loan records, market prices, survey extracts and macroeconomic series. Trainers demonstrate alternative Stata approaches, explain trade-offs in code design and review common errors. Simulations and estimation tasks build technical judgement, while application planning helps participants adapt a reusable project structure and analytical workflow to their own data and reporting requirements.

Requirements and prerequisites

Participants should already use Stata confidently for data management, descriptive statistics, regressions and graphing. They should understand regression interpretation, hypothesis testing and common data structures such as cross-sectional, panel or time-series datasets. Prior experience writing basic do-files, local macros or loops is helpful, but not essential; these techniques are established early in the course. Participants do not need prior Mata, ado-programming, Git, Python, R or database administration experience. Familiarity with their organisation's finance, economic, survey or administrative data will help them apply the methods quickly.

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

Participants should already be comfortable importing data, managing variables, running regressions and working in do-files. The course teaches advanced programming constructs from first principles, but it does not reteach introductory statistics or basic Stata use.

Participants need a laptop with a current licensed version of Stata installed; Stata/MP is useful but not required. They may bring a non-sensitive sample of their own data or a current reporting problem for application planning.

It is designed for economists, financial analysts, quantitative researchers, risk analysts, controllers and monitoring specialists who already use Stata. It is especially useful where analyses are repeated, reviewed, audited or handed between analysts.

Standard courses focus on command use and introductory estimation. This course concentrates on programming architecture, reusable code, automation, Mata, performance, diagnostics and reproducible delivery of advanced econometric work.

Participants can convert manual monthly reporting, portfolio analysis, event studies, survey processing or research pipelines into parameterised Stata workflows. The project template, validation checks and reporting routines are designed for adaptation to organisational data.

Training runs from 08:30 to 16:30 each day, providing about 6.5 contact hours daily. The first week establishes program design, data engineering and core econometric workflows; the second week develops automation, optimisation, assurance and the capstone project.

Questions about this course?

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