
Explore the five pillars of maintenance and reliability, including business and management, manufacturing process reliability, equipment reliability, organization leadership, and work management, and how they support a reliable maintenance organization.
Explore how leadership and change management distinguish managers from leaders, align vision, mission, and strategic plans with leading and lagging indicators, KPIs, and continuous improvement to drive execution and governance.
Explore how a mission statement defines who the target audience is, what the company aims to achieve, and how leadership and frontline employees collaborate through two-way communication to captivate customers.
Align the vision statement with present tense, inspirational goals and objectives, differentiating it from the mission, and ground strategy in team reflection, swot insights, and long-term success.
Explore how key performance indicators drive change by distinguishing KPIs from metrics, setting targets, and cascading leading and lagging indicators for frontline teams, with visual management and continuous improvement.
Translate high-level strategy into operational action and align the organization through the four perspectives of the balanced scorecard—financial, customer, internal processes, and learning and growth—driving maintenance reliability and continuous improvement.
Benchmarking measures your company's performance against competitors to identify gaps and guide continuous improvement through goals and metrics. It emphasizes monitoring performance, ownership, and continuous improvement to gain competitive advantage.
Learn how cascading objectives translate strategic goals from senior leadership down to individual roles, aligning teams and prioritizing projects to optimize operations.
Identify and analyze strengths, weaknesses, opportunities, and threats with SWOT as a framework for early strategic planning, aligning internal capabilities with external opportunities to guide change and develop strategies.
Identify known, predictable, and unknown risks early in planning; use a risk matrix to map seven project risks—stressed resources, scope creep, time crunch—across four knowledge quadrants.
Compute return on investment by comparing initial investments to discounted future benefits, illustrated with a $100,000 equipment purchase and $35,000 annual savings, considering inflation and hurdle rates.
Understand how cash flow and cash equivalents reflect a company’s ability to meet debt, pay expenses, and fund operations, using the balance sheet, income statement, and cash flow statement.
Create a process map or flowchart to visualize end-to-end steps, decisions, and data flows from start to finish, and learn symbol conventions such as oval, rectangle, and diamond.
Explore how to plan, implement, and monitor organizational change with clear risk assessment, stakeholder collaboration, OSHA-aligned procedures, training, and KPIs to ensure safe, beneficial transitions.
Set clear, specific, measurable, achievable, and time-bound goals using the smart framework to align with priorities, answer five why questions, and track progress toward meaningful outcomes.
Explore manufacturing process reliability as the CMP's second pillar, analyzing methods, iso integration, analytical technologies to reduce equipment and labor failures through oee, six sigma, lean, and total productive maintenance.
Examine ISO standards such as ISO 14224 and ISO 55000, focusing on standardized data collection for reliability and maintenance, cross‑industry terminology, and data exchange shaping operational and financial decisions.
This ISO 55000 overview outlines four fundamentals: value, alignment, leadership, and assurance, driving asset management from leadership through lifecycle stages with data-driven decisions and continual improvement.
Learn how ISO standards, including ISO 45001, support organizational health by integrating processes, pursuing continual improvement, and fulfilling the legal requirement.
Master overall equipment effectiveness by analyzing availability, performance, and quality to monitor and improve manufacturing efficiency, using runtime, downtime, setup time, and good pieces.
Explore lean manufacturing principles that pursue zero defects, waste minimization, continuous improvement, pull production from the customer end, and supplier collaboration to deliver right things at right time and quantity.
Explore lean manufacturing and the eight wastes—transportation, inventory, motion, waiting, processing, overproduction, defects, and non utilized talent—and apply kanban, single piece flow, standardized work, and pokey yoke to reduce loss.
Explore pull systems that replace forecasted production with just-in-time flow. Identify pull signals, limit work in progress, and address bottlenecks to reduce waste and accelerate delivery.
Learn how takt time, cycle time, and lead time synchronize production with customer demand, calculate process capacity, and support Kaizen, value stream mapping, and SMED improvements.
Explore value stream map to visualize end-to-end activities, information and material flow from raw materials to the customer, identifying value-added steps and waste.
Use value stream mapping to distinguish value added from waste across material and information flows, and develop current, ideal, and future state maps.
Explore smed, the single-minute exchange of die, to reduce changeover time by separating internal and external tasks. Use process maps and spaghetti diagrams to plan, measure, and sustain improvements.
Identify risks and prevent failures early with design and process FMEA to reduce costs and defects in product design and manufacturing.
Six Sigma is a quality philosophy that aims for fewer than 3.4 defects per million opportunities by ensuring process control limits fall within customer specification limits.
Six sigma dmaic provides a disciplined, data-driven approach to improve processes and meet customer expectations by defining, measuring, analyzing, improving, and controlling quality.
Apply the Pareto principle to identify the top factors driving 80% of complaints, and use a Pareto chart to focus improvement efforts.
Explore TPMB and its three pillars: total employee involvement, knowledgeable workers, and equipment maintenance excellence. See how TPMB reduces downtime through preventive maintenance, five s, and visual controls empowering operators.
Master mistake proofing with poka-yoke by analyzing process steps, identifying where human error may occur, and applying prevent, pause, or notify mechanisms to make errors impossible or obvious.
Five s creates an organized, clean, and safe workplace to reduce waste and boost lean performance. It uses sorting, straightening, shining, standardizing, and sustaining, with everyone involved to support kaizen.
Explore how factories assess equipment reliability through predictive metrics like time, heat, and pressure; use tools to detect and monitor equipment and apply metrics to improve performance, efficiency, and profits.
Develop a strategic plan for maintenance and liability to guide resource allocation for equipment and process reliability, including budgeting, downtime estimates, risk assessment, and scheduling.
Explore eight predominant analytic techniques, including descriptive, diagnostic, predictive, prescriptive, statistical, qualitative, quantitative, and textual analytics, and how they guide reliability programs and maintenance decisions.
Explore the P-F curve, linking potential failures to functional failure using time and condition data to guide maintenance planning and inspection intervals.
Examine the bathtub curve, illustrating the infant mortality, normal life, and wear-out phases of a component’s lifetime and the impact on warranty expenses.
Explore five categories of breakdowns—out of operation, forced deterioration, natural deterioration, inadequate design, and improper operation—and learn how root cause analysis guides category-specific countermeasures to prevent recurrences.
Apply reliability-based evaluation and FMR SCA guidance to identify critical spares and optimize inventory. Use usage rates and ABC categorization to balance stock, reduce obsolescence, and support preventive maintenance.
Examine major organizational theories—Maslow's hierarchy of needs, Herzberg's two-factor theory, McGregor's X and Y, Theory Z, and McLachlan's three needs—to reveal different perspectives on managing resources and guiding change.
Explore the distinction between management and leadership, and examine traits, skills, styles, situational and transformational approaches that influence groups and add value to the customer.
Develop goals by defining the as-is and to-be states, assessing gaps between current performance and the desired process, and setting a specific, measurable, attainable, realistic, time-bound action plan with commitments.
Develop a plan to exchange information with internal and external stakeholders using written or verbal, formal or informal methods, considering hierarchy and push, pull, and interactive communications.
Manage maintenance work orders as the core scheduling artery, ensuring order number, priority, skill code, and equipment criticality drive flow; review uncompleted orders weekly to maintain a four-to-five-week backlog.
Preventive maintenance uses a time-based approach to replace fluids and wear parts, with predefined inspections that detect wear and guide replacements at end of useful life.
Master predictive maintenance through continuous real-time monitoring with ultrasonic leak detection, infrared thermal imaging, oil analysis, and vibration analysis to detect defects early and plan cost-effective repairs.
Apply a five-step work management process—notification, planning, scheduling, execution, and closure—using KPIs to ensure timely, quality electronic notifications and effective prioritization.
Analyze the backlog of maintenance work orders, including planned or unplanned activities, calculated by the sum of estimated hours, to forecast 12 weeks of workload and guide weekly rescheduling.
Learn to prioritize maintenance and operations using a prioritization matrix or decision tree, aligning safety, reliability, and utilization while reducing downtime and backlog.
Plan and schedule assets within asset management by translating job scope, complexity, and risks into an integrated cost-time schedule and work packages for monitoring, control, and continuous improvement.
Master storeroom management and spare parts control to improve reliability by optimizing parts availability, inventory levels, requisitions, supplier performance, and rebuilt component options.
Improve maintenance productivity by mastering wrench time through disciplined planning, standard norms, and KPI-driven scheduling that separate preparation from direct, value-added work.
The Certified Maintenance and Reliability Professional (CMRP) is the most respected leadership certification in Maintenance and Reliability. Having a CMRP shows your ability to understand the industry's concepts and demonstrates to others your ability to grasp maintenance and reliability processes. After completing the exam, you will have the advantage of understanding the maintenance and manufacturing leadership and reliability.
You need to pass the CMRP exam, and you need quality training that'll help you in your role. You also want to learn from an authority in maintenance and reliability in an online environment with plenty of simulations, videos, and concise explanations. This course provides over 3 hours taught by maintenance and reliability author and expert AW Schultz. AW is the author of several maintenance and reliability management books sold on Amazon, including the CMRP Exam, The Toolbox for Maintenance and Reliability, and Maintenance Planning Scheduling and Control. He is certified as a CMRP, PMP, and Lean Six Sigma Master Black Belt.
This course will include the following:
Over 3 hours of Course Training
More than 50+ lectures
Two Mock Exams
Training on the 5 Pillars of CMRP
Access to advice and help from CMRP Trainer
The CMRP Course is designed to create an affordable training and time alternative for those that don't have time to attend a training seminar or pay an extreme amount to pay for an exam that discusses many theories that are common in the industry. Please allow us to help you become a Certified Maintenance and Reliability Professional.