Time Series Econometric Forecasting Training Course

Duration 10 days 20 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Financial Planning and Analysis Manager, Economist 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-037

Before you join: Participants should be comfortable with basic statistics, including averages, variance, correlation, regression interpretation and hypothesis tests.

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

Forecasts inform liquidity planning, credit risk, pricing, capital allocation, demand planning and regulatory reporting. Yet many forecasting processes rely on spreadsheets with unclear data definitions, untested assumptions and no reliable evidence that one model performs better than another. Analysts need to select methods that fit the data, test whether relationships are stable, measure forecast error honestly and explain uncertainty to decision-makers.

This course develops practical time-series econometric forecasting skills using EViews. Participants work from raw economic, financial or operational data through data preparation, visual diagnosis, regression forecasting, ARIMA, exponential smoothing, seasonal models, distributed lags, cointegration, vector autoregressions and GARCH volatility models. They learn to test stationarity, identify structural breaks, choose lag lengths, assess residual diagnostics, compare models through rolling-origin backtesting and construct prediction intervals. The course also addresses forecast combinations, scenario analysis, forecast governance and model documentation.

Instruction combines concise technical briefings with guided work in EViews, case analysis, group interpretation of model outputs and structured review of forecasting decisions. Participants build reusable model components from the first week, including workfiles, transformation logs, benchmark forecasts, diagnostic records and model comparison scorecards. By the end of the course, each participant completes a forecast package containing an EViews model, documented assumptions, backtest results, forecast scenarios, uncertainty analysis and a management-ready presentation.

The course suits professionals who produce, review or use forecasts in banks, finance functions, central banks, ministries, corporates, development institutions and regulated industries. It is particularly relevant where forecast quality, traceability and timely explanation of deviations matter as much as the numerical forecast itself.

What you will be able to do

  • Build reproducible EViews workfiles from raw economic, financial and operational time-series data
  • Diagnose trend, seasonality, stationarity, outliers and structural breaks using graphical and statistical tests
  • Estimate regression, ARIMA, exponential smoothing and seasonal forecasting models in EViews
  • Specify distributed-lag, error-correction, VAR and GARCH models for relevant forecasting problems
  • Evaluate competing forecasts through rolling-origin backtesting, bias analysis and Diebold-Mariano tests
  • Construct point forecasts, prediction intervals, scenarios and forecast combinations for management decisions
  • Document model assumptions, data lineage, diagnostics and approval controls for forecast governance
  • Present a complete forecasting package with model evidence, limitations and recommended actions

Benefits of attending

For you

  • Produce forecast models that can be explained and defended to senior reviewers
  • Replace ad hoc spreadsheet extrapolation with tested EViews forecasting workflows
  • Identify when forecast errors arise from data, model specification or structural change
  • Apply ARIMA, VAR and GARCH methods to real economic and financial series
  • Create a documented forecast portfolio for professional performance reviews

For your organisation

  • Improve forecast accuracy through formal benchmark testing and backtesting
  • Reduce planning surprises by reporting prediction intervals and scenario ranges
  • Create repeatable EViews workflows with documented data sources and transformations
  • Strengthen model review through diagnostics, validation records and approval controls
  • Support better liquidity, budgeting, risk and operational planning decisions

Course modules

20 modules over 10 days

Participants can define a forecast problem, select suitable horizons and measure forecast performance.

  • Forecasting decisions linked to budgeting, liquidity, pricing and risk management
  • Time-series data structures: frequency, stock-flow conventions, revisions and publication lags
  • Forecast horizon selection from decision cadence, data availability and loss costs
  • Point forecasts, intervals and scenario ranges for management reporting
  • Forecast-error measures: MAE, RMSE, MAPE, sMAPE and bias
  • Baseline benchmarks using naive, seasonal naive and drift methods

Participants can prepare traceable EViews workfiles for repeatable forecasting analysis.

  • Importing Excel, CSV and database extracts into EViews workfiles
  • Workfile frequency and dated-page settings for monthly and quarterly series
  • Series transformations: logarithms, differences, growth rates and annualisation rules
  • Missing-value codes, outliers and breaks documented before estimation
  • Aligning release calendars and avoiding future-information contamination
  • Building reproducible EViews programs, named objects and audit notes

Participants can diagnose data patterns and formulate initial model choices from visual evidence.

  • Time plots, seasonal plots and correlograms used for initial diagnosis
  • Distribution checks using histograms, quantiles, skewness and kurtosis
  • Structural-break candidates identified through plots, event dates and residual patterns
  • Trend-cycle separation with moving averages and Hodrick-Prescott filtering
  • Seasonal decomposition by additive and multiplicative component structures
  • Data-definition logs recording units, sources, transformations and revisions

Participants can estimate and interpret regression-based forecasts with trend and seasonal effects.

  • Ordinary least squares forecasts with deterministic trend and seasonal dummies
  • Intercept, slope and dummy coefficients interpreted in forecasting terms
  • Creating forecast equations and dynamic versus static forecast paths
  • Prediction intervals derived from coefficient and disturbance uncertainty
  • Forecast tables exported from EViews equations and graph objects
  • Benchmark comparisons against naive forecasts using common evaluation windows

Participants can test regression assumptions and decide whether model revision is required.

  • Residual autocorrelation diagnosed with correlograms, Durbin-Watson and Breusch-Godfrey tests
  • Conditional heteroskedasticity tested using ARCH LM procedures
  • Normality checks using Jarque-Bera statistics and quantile plots
  • Functional-form errors assessed with Ramsey RESET and residual plots
  • Influential observations examined through hat values, Cook's distance and residuals
  • Diagnostic findings translated into model revision decisions

Participants can test for unit roots and apply justified transformations before forecasting.

  • Unit roots explained through stochastic trends and forecast consequences
  • Augmented Dickey-Fuller tests specified with intercept, trend and lags
  • KPSS stationarity tests interpreted alongside unit-root evidence
  • Phillips-Perron tests compared where serial correlation remains uncertain
  • First differences, log differences and seasonal differences selected appropriately
  • Transformation decisions recorded with economic rationale and test results

Participants can identify, estimate and forecast autoregressive moving-average models in EViews.

  • Autoregressive and moving-average processes represented with lag-operator notation
  • ACF and PACF patterns used to propose ARMA orders
  • Stationarity and invertibility conditions checked before model acceptance
  • ARMA equations estimated in EViews using maximum likelihood
  • Information criteria compared: AIC, BIC and Hannan-Quinn
  • One-step and multi-step forecasts generated from fitted equations

Participants can specify seasonal forecasting models and account for calendar-driven variation.

  • Seasonal ARIMA notation specified using nonseasonal and seasonal orders
  • Seasonal unit roots identified through seasonal correlograms and tests
  • Calendar regressors built for trading days, holidays and moving events
  • X-13ARIMA-SEATS adjustment options reviewed for official-style series
  • Seasonal forecast profiles checked against operational demand patterns
  • Monthly and quarterly models compared using matched holdout periods

Participants can apply the Box-Jenkins process to select parsimonious ARIMA specifications.

  • Box-Jenkins identification follows plots, correlograms, tests and parsimonious specifications
  • Candidate ARIMA models estimated with consistent sample windows
  • Residual white-noise tests determine whether serial structure remains
  • Parameter significance assessed without relying solely on p-values
  • Parsimony balanced against forecast accuracy and economic plausibility
  • Model-selection records capture rejected alternatives and decision criteria

Participants can compare models using out-of-sample evidence and formal forecast accuracy tests.

  • Rolling-origin evaluation reproduces repeated forecasts available at each decision date
  • Fixed-origin holdouts distinguish development samples from final test samples
  • Diebold-Mariano tests compare forecast accuracy between competing models
  • Error metrics selected according to scale, zeros and decision costs
  • Forecast bias assessed by horizon, season and business regime
  • Champion-challenger scorecards rank models using pre-agreed criteria

Participants can estimate exponential smoothing models and compare them with ARIMA forecasts.

  • Simple exponential smoothing estimated for level-only demand series
  • Holt's linear trend method fitted with damped trend options
  • Holt-Winters seasonal methods specified for additive and multiplicative patterns
  • Smoothing parameters optimised using in-sample or holdout error
  • ETS forecasts compared with ARIMA under identical evaluation designs
  • Method choice aligned with data behaviour and maintenance capacity

Participants can model exceptional events and assess their effect on forecast reliability.

  • Intervention variables model policy changes, strikes, promotions and one-off shocks
  • Pulse, step and ramp dummies specified with clear event timing
  • Outlier detection distinguishes additive outliers from level shifts
  • Chow tests assess known breaks at defined dates
  • Rolling coefficients reveal parameter instability over successive estimation windows
  • Scenario assumptions separate temporary disruptions from persistent structural changes

Participants can model forecast drivers with distributed lags and appropriate timing controls.

  • Distributed-lag regressions connect forecasts to economic and operational drivers
  • Contemporaneous, lagged and leading variables screened for information timing
  • Almon polynomial lags reduce parameter proliferation in long lag structures
  • Autoregressive distributed lag models capture persistence and driver effects
  • Multicollinearity diagnosed using correlation matrices and variance inflation factors
  • Driver forecasts documented separately from the dependent-variable model

Participants can estimate long-run relationships and short-run adjustment models for nonstationary series.

  • Cointegration distinguishes stable long-run relationships from spurious regressions
  • Engle-Granger two-step testing estimates residual-based cointegration evidence
  • Error-correction models combine short-run changes with equilibrium adjustment
  • Johansen tests identify cointegration rank within multivariate systems
  • Long-run coefficients interpreted with units, elasticities and restrictions
  • Macroeconomic relationships tested for breaks before forecasting deployment

Participants can estimate VAR models and interpret multivariate forecast dynamics.

  • Vector autoregressions model feedback among rates, inflation, output and credit
  • Lag length selected with information criteria and residual diagnostics
  • Granger-causality tests assess incremental predictive content, not structural causation
  • Impulse-response functions trace shocks through jointly estimated variables
  • Forecast error variance decomposition identifies principal forecast uncertainty sources
  • VAR forecasts produced conditionally under stated paths for exogenous variables

Participants can estimate conditional volatility models for financial return series.

  • ARCH effects identified from squared-residual correlograms and LM tests
  • GARCH models estimate time-varying conditional variance for financial returns
  • Mean equations paired with variance equations and distribution choices
  • Asymmetric volatility modelled using EGARCH and threshold GARCH specifications
  • Volatility forecasts converted into risk limits and interval assumptions
  • Value-at-Risk inputs distinguished from full market-risk governance requirements

Participants can combine model outputs and document scenario or judgement-based forecast adjustments.

  • Forecast combinations use equal weights, inverse-error weights and regression weights
  • Ensemble candidates compared against individual-model benchmark performance
  • Judgmental adjustments documented with source, rationale, magnitude and approval
  • Scenario forecasts condition models on interest-rate, exchange-rate and volume paths
  • Prediction intervals communicated separately from scenario ranges and stress cases
  • Override governance prevents unsupported management adjustments to published forecasts

Participants can communicate forecast evidence clearly and establish an effective production process.

  • Forecast packs present assumptions, accuracy, intervals and decisions required
  • Fan charts show uncertainty widening across longer forecast horizons
  • Actual-versus-forecast dashboards distinguish data revisions from model errors
  • Forecast commentary explains driver movements without overstating statistical certainty
  • Model inventory fields record owner, purpose, frequency and approval status
  • Production calendars assign data cut-offs, reruns, reviews and release dates

Participants can establish controls that support reliable, reviewable and maintainable forecasting models.

  • Model-risk controls cover versioning, access, review and change approval
  • Reproducible EViews programs separate raw data, transformations and outputs
  • Backtesting schedules define triggers for recalibration, replacement and retirement
  • Independent review checks data lineage, assumptions, diagnostics and reporting
  • Documentation meets internal audit needs for material planning models
  • Forecast operating procedures assign accountable owners and escalation routes

Participants can build, review and present a complete forecasting package for a defined business or policy decision.

  • Business question framed with target series, horizon, users and decisions
  • Source data imported, documented and transformed within an EViews workfile
  • Benchmark and candidate models estimated using justified specifications
  • Rolling-origin backtests compare accuracy, bias and interval performance
  • Diagnostics, assumptions and model limitations recorded for reviewer challenge
  • Forecast package presents baseline, scenarios, uncertainty and implementation controls
  • Peer review tests reproducibility, decision relevance and governance readiness

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

What you take back to work

  1. EViews forecasting workfile template
  2. Time-series data transformation log
  3. Forecast model selection scorecard
  4. Rolling-origin backtesting template
  5. Forecast governance checklist
  6. Management forecast presentation pack

Who should attend

  • Financial Planning and Analysis Manager — needs defensible revenue, cost and cash forecasts
  • Economist — requires tested macroeconomic and sector forecasting models
  • Risk Analyst — uses forecast distributions for credit, market or liquidity risk decisions
  • Treasury Analyst — forecasts rates, cash positions and funding requirements
  • Data Analyst — converts recurring time-series data into reliable forecast outputs
  • Policy Analyst — assesses economic indicators and policy scenarios using econometric evidence

Skills and tools covered

EViews modellingARIMA forecastingForecast validationTime-series diagnosticsScenario forecastingModel governance

Tools and standards

EViews, Box-Jenkins methodology, X-13ARIMA-SEATS, Diebold-Mariano test

How the course runs

Training methodology

The course uses short technical briefings followed by instructor-led EViews demonstrations and guided analysis of economic, financial and operational datasets. Participants interpret output, compare alternative specifications, diagnose model failures and discuss forecast choices in small groups. Cases cover recurring professional questions such as revenue planning, inflation projections, exchange-rate exposure and credit growth. Simulations test how forecast processes respond to data revisions, shocks and changing assumptions. Application planning helps participants adapt the methods, documentation and governance controls to their own forecast cycle.

Requirements and prerequisites

Participants should be comfortable with basic statistics, including averages, variance, correlation, regression interpretation and hypothesis tests. Experience using Excel or another spreadsheet tool for data analysis is expected. Familiarity with economic, financial, sales, demand or operational data will help participants connect methods to their work. Prior use of EViews is helpful but not required; the course introduces the EViews workfile, commands, objects and output interpretation. Participants do not need prior programming experience, advanced calculus, prior ARIMA modelling experience or a degree in economics.

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 need basic familiarity with statistics, regression interpretation and spreadsheet-based data handling. Prior EViews, programming, ARIMA or advanced mathematics experience is not required.

Participants should bring a laptop capable of running EViews if attending in person, together with any approved sample data or forecasting questions from their role. Training datasets and course materials are provided.

The course is designed for analysts, economists, planners, treasury staff, risk professionals and managers who produce or review recurring forecasts. It suits professionals working with monthly, quarterly, weekly or daily economic, financial and operational data.

The course concentrates on forecast construction, validation and maintenance rather than cross-sectional econometrics or spreadsheet valuation models. Participants use EViews to assess forecast accuracy, uncertainty, data revisions and model governance.

Participants can adapt the workfile structure, transformation log, diagnostic checklist and backtesting process to an existing forecast cycle. The methods apply to revenues, costs, inflation, exchange rates, credit, demand, liquidity and other recurring series.

Each training day runs from 08:30 to 16:30 and provides about 6.5 contact hours. The first week establishes data preparation, diagnostics and core forecasting models; the second week covers multivariate methods, volatility, validation, governance and the capstone forecast package.

Questions about this course?

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