Public Sector Innovation and Smart Cities Training Course

Duration 10 days 18 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Smart City Manager, Public Sector Innovation Lead 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-GPS-092

Before you join: Participants should have practical exposure to public administration, urban development, digital government, service delivery, infrastructure, policy implementation or programme management.

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

Public agencies face pressure to improve services, respond to urban growth, use data responsibly and demonstrate value from limited budgets. Smart city programmes can fail when technology procurement precedes a defined public problem, when residents are excluded from design, or when pilots cannot move into funded operations. Public sector innovation requires disciplined problem framing, service design, governance, evidence, procurement and implementation management.

This course develops the methods required to design and govern practical innovation and smart city initiatives. Participants apply public value analysis, human-centred service design, systems mapping, city data governance, interoperability planning, innovation portfolio management and benefits realisation. The course examines digital public infrastructure, urban mobility, climate resilience, citizen participation, Internet of Things deployments and data-enabled service delivery through cases relevant to municipalities, ministries, utilities and development programmes.

Teaching combines short instructor briefings, facilitated case analysis, group work, simulations and structured application to participants’ own service or city challenge. From the first week, participants build a project concept using a problem statement, stakeholder map, service journey, data requirements and pilot design. During the second week, they develop the governance, procurement, financing, measurement and scale-up elements. They leave with a reviewed Smart City Innovation Project Pack suitable for internal sponsorship, budget discussion or partner engagement.

The course is suited to public managers, urban planners, digital government teams, programme officers, utility leaders and development practitioners who contribute to service improvement or city transformation initiatives. It is particularly useful where agencies need to move from isolated pilots to accountable, resident-focused programmes with measurable public outcomes.

What you will be able to do

  • Frame public service challenges using problem statements, public value criteria and systems maps
  • Design resident-centred services using journey mapping, personas and service blueprints
  • Assess smart city use cases against feasibility, equity, privacy and public value criteria
  • Develop data governance arrangements using data inventories, classification rules and stewardship roles
  • Prepare an innovation pilot using hypotheses, minimum viable service design and evaluation measures
  • Select procurement and partnership approaches for digital, data and urban technology initiatives
  • Build a benefits realisation plan with indicators, baselines, targets and reporting ownership
  • Present a complete Smart City Innovation Project Pack for executive review and delivery planning

Benefits of attending

For you

  • Produce a credible smart city project proposal rather than a technology-led concept note
  • Lead structured conversations between policy, technology, planning and service delivery teams
  • Assess vendor claims and pilot proposals against public value and delivery evidence
  • Apply data governance decisions to resident-facing digital and urban services
  • Present innovation investments with defined benefits, risks, owners and scale-up conditions

For your organisation

  • Stronger selection of smart city initiatives linked to defined service and policy problems
  • Reduced pilot failure through clearer hypotheses, governance and operational ownership
  • Better protection of resident data through practical classification and stewardship arrangements
  • More defensible technology procurement through outcome-based requirements and evaluation criteria
  • Consistent benefits reporting across innovation projects, departments and delivery partners

Course modules

18 modules over 10 days

Participants can define an innovation mandate linked to public value, statutory duties and service outcomes.

  • Public value framework applied to outcomes, legitimacy and operational capacity
  • Distinguishing policy innovation, service innovation, process innovation and regulatory innovation
  • Innovation mandates aligned with statutory duties and political priorities
  • Theory of change connecting activities, outputs, outcomes and intended impacts
  • Problem statements separating symptoms, root causes, users and constraints
  • Failure modes in public innovation programmes and corrective governance actions

Participants can assess smart city concepts as interconnected urban service systems rather than technology projects.

  • Smart city domains spanning mobility, utilities, safety, health and public realm
  • Urban systems mapping identifies interdependencies, feedback loops and institutional boundaries
  • Digital public infrastructure distinguished from individual applications and devices
  • Place-based outcomes linked to neighbourhood conditions and resident experience
  • City operating models compared across centralised, federated and partnership arrangements
  • Technology solutionism tested against service, governance and maintenance requirements

Participants can frame a priority urban or public service problem for evidence-based intervention design.

  • Five Whys analysis traces operational symptoms to underlying service failures
  • Issue trees separate demand, supply, policy and capability constraints
  • PESTLE analysis identifies external forces affecting proposed public interventions
  • Evidence plans specify administrative data, field observation and user research
  • Problem prioritisation matrix scores scale, urgency, equity and tractability
  • Drafting decision-ready challenge statements with boundaries and measurable outcomes

Participants can map stakeholders, incentives and decision rights affecting innovation delivery.

  • Stakeholder mapping identifies affected groups, delivery actors and decision makers
  • Power-interest grids inform engagement priorities and escalation routes
  • Political economy analysis examines incentives, rents, resistance and institutional interests
  • Resident groups segmented by service use, vulnerability and digital access
  • RACI matrices assign accountable owners for cross-agency programme decisions
  • Engagement plans sequence sponsorship, consultation, co-design and feedback channels

Participants can design service improvements from resident needs, behaviours and access barriers.

  • User research plans combine interviews, observation, surveys and service data
  • Personas represent distinct needs, contexts, motivations and access constraints
  • Service journeys expose pain points, handoffs, delays and exclusion risks
  • Jobs to Be Done clarifies functional, social and emotional needs
  • Co-design methods involve residents, frontline staff and community organisations
  • Accessibility requirements address language, disability, literacy and channel choice

Participants can translate a proposed service into frontstage, backstage and support processes.

  • Service blueprints connect resident touchpoints with internal delivery processes
  • Frontstage and backstage activities reveal hidden operational dependencies
  • Failure demand identifies avoidable contacts caused by service design defects
  • Channel shift analysis tests digital, assisted digital and face-to-face options
  • Standard operating procedures define handoffs, exceptions and escalation thresholds
  • Workforce impact assessments identify new roles, skills and workload changes

Participants can manage a balanced innovation portfolio from discovery through scale-up.

  • Innovation lifecycle stages cover discovery, prototyping, piloting, scaling and adoption
  • Design thinking separates divergent exploration from convergent decision making
  • Portfolio matrices balance incremental improvements, adjacent opportunities and transformational bets
  • Stage-gate reviews set evidence thresholds for funding and continuation
  • Innovation accounting tracks learning milestones alongside conventional delivery measures
  • Stop, pivot or persevere decisions documented through explicit evidence criteria

Participants can evaluate smart city use cases using structured public value and feasibility criteria.

  • Use case canvases define users, problem, intervention, data and benefits
  • IoT applications assessed for sensing purpose, connectivity, maintenance and ownership
  • Urban mobility cases compare traffic management, parking, transit and active travel
  • Climate resilience cases address flooding, heat, waste and energy management
  • Feasibility scoring considers legal authority, capability, cost, data and infrastructure
  • Equity screening identifies unequal access, burden and potential exclusion effects

Participants can establish practical data governance for a public innovation or smart city initiative.

  • Data inventories record datasets, sources, owners, quality and permitted uses
  • Data classification distinguishes personal, sensitive, confidential and open information
  • Data stewardship roles establish accountability for quality, access and retention
  • Purpose limitation links collection and processing to defined service objectives
  • Data-sharing agreements specify roles, safeguards, permitted uses and review periods
  • Privacy impact assessments identify risks before new data processing begins

Participants can specify interoperability needs and architectural choices for connected public services.

  • Interoperability layers cover legal, organisational, semantic and technical requirements
  • Open standards reduce supplier dependency and improve system exchange
  • Application programming interfaces support controlled data exchange between public systems
  • Reference architectures distinguish shared platforms from service-specific components
  • Master data management establishes consistent identifiers for people, places and assets
  • Cybersecurity requirements address authentication, access control, monitoring and incident response

Participants can identify and mitigate ethical, inclusion and rights risks in technology-enabled services.

  • Algorithmic impact assessments examine fairness, explainability, contestability and accountability
  • Bias testing checks training data, proxy variables and differential outcomes
  • Digital inclusion assessments consider connectivity, devices, skills and trust
  • Human oversight points define decisions requiring review or intervention
  • Redress mechanisms provide accessible routes for complaints and correction
  • Rights-based design applies proportionality, necessity and least-intrusive data use

Participants can design a controlled pilot that generates credible implementation and outcome evidence.

  • Pilot charters define hypotheses, target population, scope and decision criteria
  • Minimum viable services test critical assumptions before full-scale investment
  • Logic models connect pilot inputs, activities, outputs and expected outcomes
  • Comparison groups strengthen claims about intervention effects and attribution
  • Rapid feedback loops combine frontline observations, user feedback and performance data
  • Pilot exit criteria determine scale, redesign, pause or closure decisions

Participants can select procurement and partnership models suited to innovation and smart city delivery.

  • Outcome-based specifications describe service results rather than prescribed technical solutions
  • Market engagement tests supplier capacity, risks and delivery assumptions
  • Competitive dialogue suits complex requirements requiring supplier-informed solution development
  • Innovation partnerships structure collaborative development, testing and subsequent procurement
  • Evaluation matrices weight quality, social value, lifecycle cost and data safeguards
  • Contract clauses address interoperability, data rights, exit and supplier transition

Participants can prepare a proportionate business case and financing approach for an innovation initiative.

  • Five Case Model structures strategic, economic, commercial, financial and management cases
  • Options appraisal compares do nothing, improve existing and new service options
  • Whole-life costing includes acquisition, integration, operations, maintenance and renewal
  • Cost-benefit analysis quantifies monetisable benefits and records non-monetary outcomes
  • Funding models compare municipal budgets, grants, concessional finance and partnerships
  • Sensitivity analysis tests affordability under changing demand, costs and benefit assumptions

Participants can establish governance, controls and accountability for multi-stakeholder innovation programmes.

  • Programme boards define sponsorship, decision rights, oversight and escalation procedures
  • Benefits owners accept accountability for operational outcomes after implementation
  • Risk registers assess probability, impact, controls, owners and review dates
  • Dependency mapping identifies linked projects, approvals, suppliers and infrastructure requirements
  • Delivery roadmaps sequence policy, service, technology, workforce and communications activities
  • Change control procedures manage scope, budget, timeline and requirement amendments

Participants can measure innovation results and manage benefits through implementation and scale-up.

  • Benefits maps connect interventions with outputs, outcomes and measurable value
  • Indicator dictionaries define formulae, sources, frequency, owner and disaggregation
  • Baselines establish pre-intervention service performance and user experience conditions
  • Balanced scorecards combine service, equity, financial, operational and trust measures
  • Dashboards distinguish leading indicators from lagging outcome measures
  • Benefits realisation plans assign owners, review cycles and corrective actions

Participants can plan how a successful pilot becomes an adopted and sustainable public service.

  • Scale readiness assessments test evidence, capacity, financing, legitimacy and infrastructure
  • Replication plans identify core components and context-specific adaptations
  • Change impact analysis maps effects on staff, partners, residents and procedures
  • ADKAR model addresses awareness, desire, knowledge, ability and reinforcement
  • Operating budget transitions secure funding beyond temporary project resources
  • Knowledge management captures lessons, standards, playbooks and implementation decisions

Participants can build, review and present a complete Smart City Innovation Project Pack for sponsor approval.

  • Project pack integrates challenge statement, user evidence and public value case
  • Service blueprint specifies target experience, operating processes and accountable owners
  • Data governance plan records datasets, safeguards, stewardship and sharing controls
  • Pilot design defines hypotheses, milestones, measures, budget and decision gates
  • Governance roadmap sets procurement route, risks, dependencies and scale conditions
  • Executive presentation communicates recommendation, trade-offs, benefits and immediate decisions

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

What you take back to work

  1. Public Value Challenge Statement template
  2. Resident Service Journey Map
  3. Smart City Use Case Canvas
  4. Urban Data Governance Plan
  5. Innovation Pilot Charter
  6. Smart City Innovation Project Pack

Who should attend

  • Smart City Manager — needs to turn city technology priorities into governed delivery programmes
  • Public Sector Innovation Lead — needs repeatable methods for testing and scaling service improvements
  • Urban Planner — needs to connect spatial planning, resident needs and digital service design
  • Digital Government Manager — needs to align platforms, data, service redesign and policy objectives
  • Municipal Programme Manager — needs to manage cross-agency pilots, partners and implementation risks
  • Development Programme Officer — needs to design accountable urban innovation support and measurable results

Skills and tools covered

Public value designService journey mappingUrban data governanceInnovation portfolio managementDigital procurement planningBenefits realisation

Tools and standards

OECD Observatory of Public Sector Innovation Framework, ISO 37120, ISO 37122, Five Case Model

How the course runs

Training methodology

The course uses short instructor briefings to introduce methods, followed by public sector cases, facilitated group analysis, design exercises and delivery simulations. Participants work with realistic scenarios involving city services, urban data, mobility, utilities and resident engagement. Application planning begins in the first week, allowing participants to develop a project pack throughout the programme. Peer review sessions test assumptions, governance choices, procurement routes and measurement plans before the final capstone presentation.

Requirements and prerequisites

Participants should have practical exposure to public administration, urban development, digital government, service delivery, infrastructure, policy implementation or programme management. They should be comfortable discussing a current public service challenge and interpreting basic project information such as budgets, milestones and performance indicators. Experience with smart city technology, data science, software development or formal design training is not required. The course explains relevant technical concepts in operational terms and focuses on decisions public managers and project teams must make.

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 understand how public services, urban programmes or development projects are delivered. Specialist knowledge of software, data science, urban sensors or procurement law is not required.

Participants should bring a current or proposed service, city or innovation challenge where possible. Relevant strategy papers, project notes, service data or stakeholder information can help make the application work more useful.

It is designed for managers and specialists responsible for public service improvement, urban development, digital government, municipal programmes, utilities or donor-funded city initiatives. It suits people who must coordinate policy, operations, technology and community interests.

This course focuses on public value, service design, governance, data responsibility, procurement, implementation and benefits management. It does not train participants to install sensors, write software or administer specific technology platforms.

Participants develop a project pack around a real challenge and can use its templates immediately in internal planning, sponsor discussions or partner meetings. The methods also support review of existing pilots that lack clear outcomes, ownership or scale plans.

The programme contains 20 modules delivered over 10 training days, with approximately 6.5 contact hours each day. The first week establishes problem, service and data foundations; the second week covers pilots, procurement, governance, measurement and the final capstone.

Questions about this course?

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