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ID602 VDA MLA - Maturity Level Assurance for New Parts BACKGROUND AND TOPICS Implementing the VDA standard of Maturity Level Assurance for New Parts aims to attain sustainable improvement of the quality of supplied parts. With this method, a process-accompanying assurance of product maturity is achieved at the start of production: projects are segmented, assessed early on and corrected. Furthermore, a unified concept is provided for cooperation and communication in complex product engineering projects involving many participants in the supply chain. Implementing this standard in the automotive and supplier industries requires knowledge and competence in various functions of organisations. This two-day training teaches the requisite expert knowledge. TARGET AUDIENCE QA personnel, product managers, project managers in product development, product planners, managers and spokespersons of cross-functional and cross-organisational development teams, persons responsible for components, the suppliers’ customer team and project leaders, and key account managers. OBJECTIVES This training imparts knowledge about maturity-level methods (assessment, contents, control and report systematics) that are necessary for maturity-level regulatory processes in the product engineering process. It also goes into details of the initial situation and history as well as methods and the basics of maturity level assurance. Furthermore, the measurement criteria are worked out in detail in workshop mode. Additionally, successful and negative examples from organisations are presented and studied. The roles of the participants are explained at the round table ”opportunities for cooperation”. CONCEPT AND METHODS During this training, technical lectures and group exercises alternate to support the transfer of the topics into the participants’ work environment, focusing on exchanging experiences between participants and the trainer. PREREQUISITES FOR ATTENDANCE Basic knowledge of project work, product engineering process (PEP) and/or parts/components qualification. CERTIFICATE OF QUALIFICATION After passing the test, the participants will receive a certificate of qualification. SUPPLEMENTARY MATERIAL VDA Volume Maturity Level Assurance for New Parts - not included in course fee DURATION 2 half-days CLASS SIZE Up to 12 delegates

ID417 VDA Automotive Core Tools for Auditors BACKGROUND AND TOPICS To ensure a high quality of the audit activities in the companies and the entire supply chain, auditors must have the appropriate competence with the respective methods. The IATF 16949 clearly emphasises this requirement for the competence of the auditors. The efficient approach during the audits is an important success factor. This training deals with typical audit situations along with the Automotive Core Tools. TARGET AUDIENCE This two-day training course is aimed at qualified VDA 6.3 process auditors who wish to apply for an extension, and prospective VDA 6.3 Process and IATF System auditors who are seeking qualification. OBJECTIVES The participants train on typical auditing situations in the context of Automotive Core Tools, focusing on an efficient approach. Both the assessment of the technically correct application of the respective methods and the case-specific assessment of typical situations are a central component of the training. CONCEPT AND METHODS During the training, technical lectures on the single Core Tools (RGA / APQP, VDA 2 / PPAP, FMEA, VDA 5 / MSA, Cmk / PpK / CpK / SPC and 8D) will alternate with exercises on typical examples. The focus lies on the practical application by the participants. Here, group work, individual exercises, question and answer exercises and plenary discussions are carried out. PREREQUISITES FOR ATTENDANCE Expertise in Automotive Core Tools is an advantage. CERTIFICATE OF QUALIFICATION After passing the test, the participants will receive a certificate of qualification. DURATION 4 half-days CLASS SIZE Up to 12 delegates

ID602 VDA MLA - Maturity Level Assurance for New Parts BACKGROUND AND TOPICS Implementing the VDA standard of Maturity Level Assurance for New Parts aims to attain sustainable improvement of the quality of supplied parts. With this method, a process-accompanying assurance of product maturity is achieved at the start of production: projects are segmented, assessed early on and corrected. Furthermore, a unified concept is provided for cooperation and communication in complex product engineering projects involving many participants in the supply chain. Implementing this standard in the automotive and supplier industries requires knowledge and competence in various functions of organisations. This two-day training teaches the requisite expert knowledge. TARGET AUDIENCE QA personnel, product managers, project managers in product development, product planners, managers and spokespersons of cross-functional and cross-organisational development teams, persons responsible for components, the suppliers’ customer team and project leaders, and key account managers. OBJECTIVES This training imparts knowledge about maturity-level methods (assessment, contents, control and report systematics) that are necessary for maturity-level regulatory processes in the product engineering process. It also goes into details of the initial situation and history as well as methods and the basics of maturity level assurance. Furthermore, the measurement criteria are worked out in detail in workshop mode. Additionally, successful and negative examples from organisations are presented and studied. The roles of the participants are explained at the round table ”opportunities for cooperation”. CONCEPT AND METHODS During this training, technical lectures and group exercises alternate to support the transfer of the topics into the participants’ work environment, focusing on exchanging experiences between participants and the trainer. PREREQUISITES FOR ATTENDANCE Basic knowledge of project work, product engineering process (PEP) and/or parts/components qualification. CERTIFICATE OF QUALIFICATION After passing the test, the participants will receive a certificate of qualification. SUPPLEMENTARY MATERIAL VDA Volume Maturity Level Assurance for New Parts - not included in course fee DURATION 2 half-days CLASS SIZE Up to 12 delegates

Dear Clients, Colleagues, Friends & Family In an effort to reduce confusion in the marketplace, we have updated our legal entity name.   UPDATED  Legal Entity Details : ENCONAcademy (Pty) Ltd is now Hans Trunkenpolz Associates (Pty) Ltd Registered Address: 500 Kingfisher Place, Chintsa East, 5275, Eastern Cape South Africa   All Other Details REMAIN THE SAME: Brand Name: Hans Trunkenpolz + Associates (ht+a) Postal Address: PO Box 210, Chintsa East, 5275, Eastern Cape South Africa VAT: #: 4650263686 Company Registration #: 2013 / 157012 / 07 Website: www.ht-a.solutions Email: enquiries@ht-a.solutions – all general queries accounts@ht-a.solutions – all finance matters Phone: +27 (0)43 738 5244 Banking: Bank: Nedbank Account Number: 105 696 5398 Branch Code: 198 765 Swift Code: NEDSZAJJ Bank Address: 135 Rivonia Road, Sandown, Johannesburg, South Africa   Please update your systems accordingly or provide any forms we should complete to ensure this takes place.

In today's dynamic manufacturing environment, quality and efficiency  are the cornerstones of success. As manufacturers strive to streamline production processes, minimise waste, and exceed customer expectations, the adoption and mastery of the  Core Tools  becomes essential. This post examines these critical tools, their role throughout the product lifecycle, and how structured training can help professionals acquire the knowledge and skills necessary to succeed in the competitive manufacturing sector. What are the Automotive Core Tools? The Automotive Core Tools  are a set of standardised methodologies designed to supp ort quality assurance and continuous improvement across the automotive product development and manufacturing process . Th ey were originally developed by the Automotive Industry Action Group (AIAG) and are widely recognised by OEMs and Tier suppliers worldwide. The Core Tools Include: APQP – Advanced Product Quality Planning : ensures product quality through structured planning and development phases. FMEA – Failure Mode and Effects Analysis : identifies potential product and process failures to mitigate risk. PPAP – Production Part Approval Process : verifies that parts meet engineering specifications and customer requirements. Control Plan : defines monitoring methods to ensure stable and consistent manufacturing. SPC – Statistical Process Control : uses data and statistical techniques to control and improve processes. MSA – Measurement System Analysis : evaluates the precision and accuracy of measurement systems. G8D – Global 8D Problem-Solving : a team-based method to identify root causes and implement corrective actions. 7 Quality Tools : includes flowcharts, Ishikawa diagrams, histograms, control charts, Pareto charts, check sheets, and scatter diagrams. These tools are integr al to IATF 16949  compliance and the success of automotive manufacturing initiatives and are widely used in other manufacturing indus tries as their best practice functionality is completely transferable. Why Core Tools Matter: Their Impact on the Manufacturing Lifecycle 1. Building Quality in from the Start During concept and planning stages, tools like APQP  provide a structured approach to define objectives, prevent failures, and align team efforts. Companies that leverage APQP report up to 30% reductions in rework and launch delays , enhancing both time-to-market and customer satisfaction. 2. Preventing Defects Before They Happen FMEA  is a proactive tool that identifi es and mitigates potential failures before they reach the customer. Effective FMEA implementation has been shown to r educe manufacturing-related defects by 50% , reinforcing product reliability and reducing warranty claims. 3. Driving Compliance and Customer Confidence The PPAP process , supported by Control Plans , validates that production parts meet all design requirements. Companies with robust PPAP practices experience 40% fewer non-conformance issues , boosting compliance with OEM-specific requirements (CSRs) . 4. Maintaining Process Stability SPC  enables real-time monitoring of critical processes, allowing manufacturers to detect variations and act before problems arise . SPC a doption can result in 15% lower scrap rates , enhancing productivity and cost efficiency. 5. Ensuring Measurement Accuracy Reliable data starts with dependable measurement systems. MSA  helps identify sources of variation in measurement tools, reducing quality escapes caused by inaccurate data—potentially preventing up to 20% of production errors . 6. Solving Problems Systematically Even with preventive systems, issues can occur. The G8D method , when used alongside the 7 Quality Tools , offers a structured framework to investigate root causes and implement lasting corrective actions - fostering a culture of continuous improvement . Expert Training: Empowering Teams Through Education Mastering the automotive core tools requires more than theoretical understanding - it demands practical application and alignment with real-world automotive processes. That’s where industry leaders like ht+a come into play. ht+a's Core Tools Training Programs ht+a offers structured instructor-led programs developed by industry experts. These courses can be delivered in-person or online and are aligned with IATF 16949 , VDA , and OEM-specific requirements . Core Tools I – APQP, FMEA, PPAP & Control Plan (CT100C) 3 full days in-person or 5 half-days online Covers early-phase planning and quality strategy, including: APQP Phases (aligned with latest AIAG v3 manual) CSRs (Customer Specific Requirements) during APQP Control Plan Integration (aligned with new AIAG manual) Process FMEA PPAP Documentation Core Tools II – SPC, MSA, Lean Six Sigma Basics (CT200C) 3 full days in-person or 5 half-days online Focuses on in-production phase quality control: Histogram and Process Capability (Cp, Cpk, Pp, Ppk) Control Charts (Xbar/R, Xbar/S) Attribute Charts and Gage R&R Introduction to Lean Six Sigma and the DMAIC Methodology Core Tools III – G8D and 7 Quality Tools (CT300C) 3 full days in-person or 5 half-days online Ideal for managers and quality professionals: Structured 8D Problem-Solving Mastery of Quality Tools such as Pareto, Ishikawa, Control Charts, and more We offer modular training, allowing you to select only the elements of the courses listed above that you need. NOTE: If you're new to manufacturing, consider starting with our  Manufacturing Excellence (Lean Methodologies) course , which provides a systematic approach to eliminating waste and forms the basis for production system assessment. VDA QMC Standards and Modules AIAG + VDA Harmonized FMEA (ID442) : 2 full days in-person or 4 half-days online VDA Maturity Level Assurance (ID602) : 1 full day in-person or 2 half-days online (the German equivalent to AIAG's APQP) VDA 2 PPA - Production Process and Product Approval (ID410) : 2 full days in-person or 4 half-days online (the German equivalent to AIAG's PPAP) VDA Automotive Core Tools Professional (ID415) : a comprehensive 5-day program (instead of taking Core Tools I, II + III) VDA Automotive Core Tools for Auditors (ID417) : a prerequisite required for VDA 6.3 auditor applicants NOTE: If you're pursuing VDA 6.3 Process Auditor qualification or certification , whilst not a formal prerequisite, you should ensure you complete either ID415 or Core Tools I, II, + III, as you will need an excellent background on the tools themselves to pass the Automotive Core Tools Quiz or ID417 which are based on auditing the tools, not using the tools. Why Choose ht+a ? Global Reach : online and in-person sessions Expert Instructors : all courses taught by active industry practitioners Real-World Relevance : training blends theory with practical case studies Relevant Certificates of Qualification : courses align with AIAG / IATF and VDA requirements Proud a ccredited license partner of the VDA QMC . Final Thoughts: Stay Competitive with Automotive Core Tools Mastery In a time of rapidly evolving technology and rising quality expectations, proficiency in the Automotive Core Tools  is not just beneficial - it's essential. By integrating these tools across all stages of the manufacturing lifecycle and empowering teams through targeted training, organisations can: Improve product quality Reduce operational risks Meet and exceed customer and regulatory requirements Foster a culture of continuous improvement Whether you're preparing for IATF 16949 audits, launching new products, or solving persistent production issues, mastering these tools can transform your operations and set your team on the path to manufacturing excellence . Start Your Training Journey Today Ready to enhance your automotive quality toolkit? Explore our upcoming training sessions or contact us for customised and in-house training needs .

The PDCA cycle, also known as the Plan-Do-Check-Act cycle, is a vital tool in continuous improvement, especially within the manufacturing sector. This approach emphasises iterative testing and refinement, allowing organisations to optimise processes, reduce waste, and improve overall product quality. The Origins of the PDCA Cycle The Plan-Do-Check-Act cycle traces its origins to the 1920s, stemming from the work of American engineer and physicist Walter Shewhart, who developed Statistical Process Control (SPC) . Shewhart's initial cycle, which pertained to manufacturing under statistical control, involved a three-step process of specification, production, and inspection, which he likened to the scientific method of hypothesis-experiment-evaluation. W. Edwards Deming extensively discussed this cycle, referring to it as the "Shewhart Cycle" while teaching in Japan after World War II. Deming believed that Shewhart's envisioned cycle could be applied to any continuous improvement process, not just limited to the manufacturing and engineering sectors as originally intended by Shewhart. As a professor in Japan, he taught a variation of Shewhart's cycle, known as Plan-Do-Study-Act (PDSA). It was his students who simplified it to "Plan-Do-Check-Act," a version that gained popularity and later became known as "The Deming Wheel". Understanding the PDCA Cycle The PDCA cycle can be used by individuals and organisations to continually innovate, improve, or stay ahead of market competition. It is designed as a four-stage system which can be utilised to go from the unproductive " a problem-faced " to the productive " a problem-solved ". The PDCA cycle consists of four key phases: Plan : Identify an opportunity for improvement and develop a plan to achieve it. This phase involves data collection and analysis to ensure informed decision-making. Do : Implement the plan on a small scale. The purpose here is to test the feasibility of the proposed solution without committing extensive resources. Check : Monitor and assess the results of the implementation. Compare the outcomes with the expected results to evaluate the effectiveness of the solution. Act : Based on the findings, either adopt the solution as a standard procedure or make necessary adjustments and re-test. This cycle encourages continuous feedback, ensuring that processes and outcomes are always evolving. The most important facet of the PDCA cycle is that it is iterative - it can, and should be repeated until the problem is solved . It can, therefore, facilitate both major innovative jumps and small, incremental improvements. The Importance of PDCA in Manufacturing Continuous improvement is paramount in the fast-paced manufacturing environment. The PDCA cycle promotes a culture of ongoing enhancement through its systematic approach. Companies that adopt a continuous improvement strategy can reduce production costs and defects. By using the PDCA cycle, manufacturers can anticipate challenges before they arise, stabilise their production processes, and enhance the overall quality of their products. Practical Application of PDCA in the Manufacturing Sector Case Study: Streamlining Production Processes A manufacturing company noticed a significant amount of downtime due to inefficient machine setups. This problem resulted in lost productivity and increased operational costs. To address this, they employed the PDCA cycle: Plan : The quality control team gathered data on machine setup times and identified specific processes that were causing delays. Do : They implemented a new setup procedure involving standardised tools and a pre-meeting by the team to strategise. Check : After implementing the changes on two machines in a test phase, they observed a 25% decrease in setup time. Act : The new procedure was adopted across all machines after verifying consistent improvements. By applying the PDCA cycle, this manufacturer streamlined operations and enhanced productivity without significant initial investment. Example: Quality Control Improvement Another manufacturing firm faced consistently high defect rates in its produced goods. They chose to utilise the PDCA cycle to enhance their quality control measures: Plan : They analysed the defect data to determine the most common types of defects and identified a need for better training for operators. Do : A targeted training program was developed and implemented, focusing on common defects identified in the analysis. Check : Over the next month, defect rates were monitored closely. A notable decrease of 30% in defects was recorded. Act : The training program was formalised, and refresher courses were scheduled quarterly, ensuring ongoing improvements. This approach not only enhanced product quality but also fostered a sense of ownership among operators, further encouraging a culture of quality. Risk Management Using PDCA In addition to improving processes and products, the PDCA cycle can help manufacturers manage risk effectively. The manufacturing sector faces various risks, from equipment failure to supply chain disruptions. Here’s how the PDCA cycle can assist: Plan : Identify potential risks and analyse their impact and likelihood. Develop mitigation strategies. Do : Implement a risk management plan on a small scale to test its effectiveness. Check : Assess the outcomes of the risk management strategies. Were the risks successfully mitigated? Act : Based on the evaluation, either incorporate the risk strategies into regular practice or refine them and test again. By integrating risk management into the PDCA cycle, organisations can create a responsive and resilient manufacturing environment. Implementing PDCA Across Teams For PDCA to be truly effective, it must be a company-wide initiative. Involve various teams in the PDCA processes - from production to quality to management. Here’s how to incorporate it: Education and Training : Ensure all employees understand the PDCA cycle's importance and how to apply it in their roles. Cross-Functional Workshops : Facilitate workshops where teams can share PDCA success stories, challenges, and best practices. Regular Reviews : Establish regular review meetings to discuss ongoing PDCA initiatives and their results, and find further opportunities for improvement. Recognition and Rewards : Encourage active participation by recognising teams that successfully implement PDCA cycles that yield measurable enhancements. Key Takeaways for Manufacturing Leaders Embrace the Process : Adopt the PDCA cycle as a standard practice for all continuous improvement initiatives. Data-Driven Decisions : Utilise data to inform the planning phase, ensuring that decisions are based on evidence rather than guesswork. Iterate and Adapt : Be open to modifications of the process based on feedback and outcomes. Continuous learning is central to the PDCA cycle. Engage Employees : Foster a culture that empowers all employees to participate in the PDCA cycle, creating a shared sense of ownership for improvements. By following these guidelines and integrating the PDCA cycle into their operations, manufacturing businesses can enhance efficiency, quality, and overall performance. The Future of PDCA in Manufacturing As technology rapidly evolves within the manufacturing landscape, so too does the potential for the PDCA cycle. With the integration of advanced data analytics, manufacturers can dynamically adjust their methods, making the PDCA cycle even more impactful. Incorporating tools such as real-time data monitoring and predictive analytics can allow manufacturers to move from reactive to proactive strategies. This evolution ensures that the PDCA cycle remains relevant and effective in addressing future challenges in the industry. In conclusion, the PDCA cycle is not just a theoretical concept - it's a practical methodology that drives improvement in the manufacturing industry . By fostering a culture of continuous improvement through the effective application of the PDCA cycle, manufacturers can achieve greater efficiencies, enhanced quality, and sustained competitive advantages in the marketplace. Practical Applications of the PDCA Cycle in the Manufacturing Industry