Question: Wildcat Engineering Case Study (A) Higher than expected production costs. Once products were developed, there was a tendency for them to be thrown over the

Wildcat Engineering Case Study (A) Higher than expected production costs. Once products were developed, there was a tendency for them to be "thrown over the walls to manufacturing to produce. Very little design for manufacturability was done, and the production ramp was complicated, inefficient, and stressful to the people in the plant. Quality concerns. Increased competition had raised customer expectations with regard to quality. Customers expected fewer defects and longer replacement schedules. Wildcat Engineering had a tendency to deal with quality issues after the fact, initiating quality improvements after the production process was set up. Not enough attention was devoted to incorporating quality considerations into the original design of products. Problems with customer support. User manuals and technical documentation sometimes failed to address all of a customer's concerns, and the follow-up training was not always adequately prepared. These problems contributed to increased costs in customer service and a decline in customer satisfaction. Lack of strong project ownership. While everyone accepted that a matrix arrangement was the only way to accommodate all the projects at Wildcat Engineering, the shifting back and forth of personnel across multiple projects took its toll on the progress of individual projects. Members often failed to identify with individual projects and develop the sense of excitement that contributed to superior performance. The shuffling of personnel slowed down progress because additional time had to be devoted to bringing returning members up to speed on current developments. Scope creep. Wildcat Engineering was renowned for its engineering prowess. However, there was a tendency for design engineers to get so absorbed with the science of the project that they lost focus on the practical considerations. These led to costly delays and sometimes design modifications that were inconsistent with customer requirements The office erupted into cheers when it was announced over the PA system that Wildcat Engineering had just been awarded the government contract to build the next generation of high-speed, light-rail trains. Everyone came over to shake Mike White's hand and congratulate him. It was well known that White would be the project manager for this important project, which would be code named Jaguar. Once the celebration subsided, Mike White gazed out the window and thought about what he had just gotten himself into. The Jaguar project would be a high-profile project that would affect procurement of future contracts with the government. Increased competition had raised performance expectations regarding completion time, quality, reliability, and cost. He knew that major changes in how Wildcat Engineering organized and managed projects would be necessary to meet the expectations of the Jaguar project. Wildcat Engineering was a division of a large aerospace company with 7,000 employees. Wildcat Engineering evolved from a project organization into a matrix structure to conserve costs and better utilize limited resources. At any point in time, Wildcat Engineering could be working on three to five large projects such as the Jaguar project and 30 to 50 smaller projects. Project managers negotiated personnel assignments with the VP of operations, who ultimately decided project assignments. It was not uncommon for an engineer to be working on two to three projects during a week. Figure 1 portrays how new-product development projects were organized at Wildcat Engineering. Project management was limited only to the design and development of the new product. Once the final design and prototype were completed, they were turned over to manufacturing for production and delivery to the customer. A four person management team oversaw the completion of the project and their responsibilities are briefly described here: Project manager-responsible for all aspects of design and development of the product. Planning and control manager responsible for building an overall project network, scheduling, managing the budget, controlling and evaluating the design and development program, and preparing status reports. Electronics system engineer-responsible for providing technical expertise on electronic systems issues Mechanics system engineer-responsible for providing technical expertise on mechanical system issues. The core work was completed by 12 to 20 design teams. Each team had a leader, who was responsible for designing, developing, building, and testing a specific subsystem of the product. The size of individual teams varied from 5 to 15 engineers, depending on the scope of their work. These engineers split time across multiple projects. Design engineers ran the show at Wildcat Engineering, and manufacturing, marketing, and other groups were expected to follow their lead. The special status of the design engineers was reinforced by the fact that they were actually paid on higher pay curves than the manufacturing engineers. The overall product development and manufacturing process is captured in the master plan chart (Figure 2). New-product design and development evolves around five major reviews: system design review (SDR), preliminary design review (PDR), critical design review (CDR) test readiness review (TRR), and production readiness review (PRR). Design and development work begins within the laboratory and progresses to field tests of specific subsystems and ultimately final product prototypes. Once completed, the design and prototype are turned over to manufacturing, which begins building the production line for the new product. Manufacturing also develops the necessary test equipment to confirm that manufactured components perform correctly. During this time, integrated logistical support (ILS) teams prepare product documentation, users' manuals, maintenance programs, and training programs for the customers who will be using the product. It typically takes Wildcat Engineering six to seven years to develop and manufacture a product such as the Jaguar. Wildcat Engineering just completed a major assessment of how projects are managed. Below is a brief description of some of the major problems that were identified: Project manager Deputy planning and control management Toam leader Electronics system engineer Mechanics system enginoor Team leader 1000 Team Leader Team leader Figure 1. Organization of Product Development at Wildcat Engineering 5-7 years Activities time Design reviews Design and development SDR POR COR TRA PRR Laboratory teste Production and delivery Environmentals Badproduction line Production and fosteguiment and delivery Documentation and Training training program ILS Figure 2. Traditional Master Project Plan at Wildeat Engineering, Mike White was aware of these and other concems as he sat down with his staff to figure out the best way to organize the new Jaguar project. Please answer this question as thoroughly as possible 1. What recommendations would you make to Mike White about organizing the Jaguar project, and why