Theory of Constraints Throughput Improvement Training Course
| Course code | SD-QP-009 |
|---|---|
| Duration | 5 days |
| Level | Foundation to Intermediate |
| Category | Quality & Productivity |
| Delivery | Classroom or live online |
| Language | English |
| Certificate | Certificate of completion |
Course overview
Operations and project teams often work harder without increasing completed output. Work queues build before a constrained machine, specialist, approval step or test environment; local utilisation targets encourage excess work-in-progress; and urgent jobs disrupt schedules without improving delivery reliability. This course addresses the practical problem of finding the system constraint, protecting it from avoidable loss, and aligning upstream and downstream work so the organisation delivers more finished products, services or projects with less expediting and inventory.
Participants learn to apply the Theory of Constraints (TOC) Five Focusing Steps to production, service and project environments. They distinguish a physical capacity constraint from a policy constraint, map flow using a current-state process map, calculate throughput, inventory and operating expense using Throughput Accounting, and quantify the financial effect of constraint improvements. The course develops working skill in Drum-Buffer-Rope scheduling, buffer management, bottleneck capacity analysis, batch-size decisions, and TOC Thinking Processes for resolving recurring operational conflicts.
Instruction combines short faculty-led briefings with operational cases, spreadsheet analysis, scheduling simulations and facilitated team workshops. Participants work through a realistic multi-stage operation and a project delivery scenario, using constraint data to make release, prioritisation and improvement decisions. Each participant leaves with a completed Throughput Improvement Action Pack: a constraint analysis, current-state flow map, buffer design, throughput measures, improvement experiment plan, and a 90-day implementation roadmap suitable for discussion with an operations manager or project sponsor.
The course is suited to professionals responsible for output, delivery performance, process improvement or project flow. It is particularly valuable where Lean, Six Sigma or project controls activity has identified waste or variation but has not yet established which improvement will increase system throughput first.
Course objectives
By the end of this course, participants will be able to:
- Identify system constraints using the TOC Five Focusing Steps and operational flow data
- Construct a current-state flow map showing queues, handoffs, rework loops and constraint points
- Calculate throughput, inventory and operating expense using Throughput Accounting measures
- Design a Drum-Buffer-Rope release schedule for a constrained production or service process
- Set buffer profiles and escalation rules using buffer management signals
- Analyse constraint capacity losses from downtime, setup time, quality failures and policy restrictions
- Apply TOC Thinking Processes to resolve a core conflict limiting throughput improvement
- Produce a 90-day throughput improvement action plan with measures, owners and review cadence
Benefits of attending
For you
- Gain a defensible method for explaining why the busiest department is not always the true system constraint
- Build the ability to present throughput improvement cases in financial terms using Throughput Accounting
- Learn to replace ad hoc expediting with visible buffer-based prioritisation rules
- Create a practical improvement roadmap that can be applied to the participant’s own operation or project portfolio
- Strengthen credibility for operations, project controls and continuous improvement roles through TOC-based analysis
For your organisation
- Increase completed output by concentrating improvement resources on the constraint rather than isolated local efficiencies
- Reduce work-in-progress, queues and avoidable expediting through controlled release and buffer management
- Improve delivery reliability by protecting constraint capacity from starvation, blockage and quality losses
- Make capital, staffing and process-change decisions using throughput impact rather than utilisation alone
- Establish a repeatable 90-day cadence for measuring constraint performance and sustaining gains
Target competencies
Who should attend
- Operations Managers — who must increase completed output while controlling work-in-progress and expediting
- Production Managers — who need to schedule constrained resources and improve on-time delivery
- Project Managers — who manage multi-tasking, critical resource conflicts and delayed project flow
- Continuous Improvement Leaders — who must prioritise improvement work by system-wide throughput impact
- Supply Chain Managers — who need to align material release, buffers and replenishment with actual constraints
- Quality Managers — who need to reduce defect-related capacity loss at critical process steps
Requirements and prerequisites
This is a foundation-to-intermediate course. Participants should be comfortable reading simple operational data such as daily output, cycle time, queue size, downtime and defect counts, and should have basic spreadsheet confidence for entering formulas and interpreting charts. Experience in operations, service delivery, manufacturing, supply chain or project work is helpful because exercises use real flow decisions. No prior Theory of Constraints, Lean, Six Sigma, accounting qualification, statistical software or programming knowledge is required. A complete beginner can attend and should expect to learn the core terminology before applying it to progressively more detailed cases.
Training methodology
The five-day programme uses instructor-led explanation to introduce each TOC method, followed immediately by applied work with production, service and project-flow cases. Participants map a process, analyse queue and capacity data in Microsoft Excel, build a Drum-Buffer-Rope schedule, and interpret buffer status to make release and recovery decisions. Small groups challenge assumptions behind local efficiency measures and test alternative improvement choices using throughput calculations. The final day is an application-planning workshop in which each participant develops a constraint-focused intervention for their own workplace.
Course outline
Day 1: System Flow and Constraint Identification
- Theory of Constraints principles and the goal of the system
- The Five Focusing Steps for ongoing improvement
- Physical constraints, market constraints and policy constraints
- Current-state process mapping for material, information and work flow
- Work-in-progress, queue time and flow-time relationships
- Constraint indicators in output, backlog, utilisation and waiting-time data
- Local optimisation versus system-wide throughput decisions
Workshop: Participants map a multi-stage service operation and produce a constraint hypothesis supported by queue, capacity and flow evidence.
Day 2: Throughput Measures and Constraint Economics
- Throughput Accounting definitions of throughput, inventory and operating expense
- Throughput contribution per constrained resource minute
- Product and service mix decisions at a capacity constraint
- Cost-world measures versus throughput-world decisions
- Calculating the financial impact of downtime at the constraint
- Quality losses, rework and yield effects on constraint capacity
- Microsoft Excel models for throughput and capacity scenarios
Workshop: Participants build an Excel throughput model and produce a ranked product-mix recommendation for a constrained operation.
Day 3: Exploiting and Subordinating the Constraint
- Exploiting the constraint without major capital expenditure
- Constraint time protection through maintenance, materials and quality readiness
- Drum-Buffer-Rope scheduling logic
- Drum design and pace-setting for constrained resources
- Time buffers, stock buffers and capacity buffers
- Release control and work-in-progress limits
- Subordination rules for upstream and downstream functions
Workshop: Participants create a Drum-Buffer-Rope release plan and define buffer locations and operating rules for a manufacturing case.
Day 4: Buffer Management and Project Flow
- Buffer penetration zones and management-by-exception
- Buffer status reporting and recovery priorities
- Root-cause analysis of recurring buffer consumption
- Elevating the constraint through staffing, outsourcing, technology and redesign
- Constraint migration after improvement
- Critical Chain project management principles
- Project buffers, resource buffers and multi-tasking control
Workshop: Participants analyse a delayed project portfolio and produce buffer-based recovery priorities and a critical-resource protection plan.
Day 5: TOC Thinking Processes and Implementation Planning
- The Current Reality Tree for identifying cause-and-effect patterns
- Undesirable effects and core problem definition
- Evaporating Cloud conflict resolution method
- Future Reality Tree for testing proposed improvements
- Prerequisite Tree for implementation obstacles
- Transition Tree actions, owners and sequencing
- Ninety-day throughput improvement scorecards and governance reviews
Workshop: Participants complete a Throughput Improvement Action Pack containing a constraint analysis, buffer design, improvement experiment and 90-day roadmap.
Tools & standards covered
Microsoft Excel, Microsoft Project, Jira Software, Smartsheet
A typical training day
| 08:30 – 10:30 | First session |
| 10:30 – 10:45 | Refreshment break |
| 10:45 – 12:30 | Second session |
| 12:30 – 13:30 | Lunch and networking |
| 13:30 – 15:00 | Third session |
| 15:00 – 15:15 | Refreshment break |
| 15:15 – 16:30 | Workshop and daily review |
Live online deliveries follow the same structure in the East Africa Time zone, 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
- Certificate of completion
- Refreshments and lunch (classroom deliveries)
- Post-course application plan
- Facilitator follow-up on request
- Group rates from five participants
How you can take this course
Classroom
Scheduled sessions in Nairobi, Mombasa, Kigali, Dar es Salaam, Dubai and Cape Town.
Live online
The same facilitator and materials, delivered live for distributed teams and individuals.
In-house
Delivered privately for your team, at your offices or a venue of your choice, tailored to your context. Request a proposal.
Certification
Participants who complete the full five days receive the Skillset Development Certificate of Completion, stating the course title, course code, dates and delivery format — suitable for professional-development records and employer reimbursement.
Frequently asked questions
Upcoming sessions
-
28 Sep – 02 Oct 2026Book
Nairobi · USD 3,000 -
28 Sep – 02 Oct 2026Book
Live Online · USD 1,500 -
28 Sep – 02 Oct 2026Book
Dubai · USD 4,500 -
12 – 16 Oct 2026Book
Dubai · USD 4,500 -
19 – 23 Oct 2026Book
Nairobi · USD 3,000 -
09 – 13 Nov 2026Book
Live Online · USD 1,500 -
09 – 13 Nov 2026Book
Cape Town · USD 4,200 -
16 – 20 Nov 2026Book
Nairobi · USD 3,000
49 more dates — ask us.
Group of 5+?
Request in-house delivery or group rates →Related courses in Quality & Productivity
Supplier Quality and Productivity for Procurement Professionals Training Course
Procurement professionals are increasingly expected to protect supply continuity, reduce total cost and improve supplier performance at the …
Root Cause Analysis for Quality Defect Reduction Training Course
Recurring defects consume capacity, increase scrap and rework, disrupt delivery commitments, and weaken customer confidence. Many teams resp…
Healthcare Quality Improvement and Productivity Planning Training Course
Healthcare organisations are expected to improve patient safety, access, experience and clinical outcomes while managing workforce constrain…
JMP Statistical Process Control and Quality Improvement Training Course
Production, service, and transactional teams often collect defect, cycle-time, yield, and customer-quality data without separating normal pr…