The Amalgamation – Product Design Aspects for the Development of Immersive Virtual Environ
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manufacturing practiceManufacturing practice is the process of producing products with a planned approach for quality, efficiency, and sustainability. It encompasses all aspects of production, from the design stage to the delivery of final products to customers. The following are the steps involved in manufacturing practice.Step 1: DesignThe design of a product is the first step in the manufacturing process. The design stage involves creating a blueprint of the product and determining the materials needed to manufacture it. In this stage, manufacturers also consider how the product will function, how it will be used and what features it needs to meet the needs of customers. The design stage also includes testing and prototyping to ensure that the product meets the required quality standards.Step 2: SchedulingOnce the product design is complete, the next step in the manufacturing process is scheduling. Scheduling involves planning the production process, determining the resources required, and assigning tasks to workers. The manufacturers have to ensure that they have enough raw materials, as well as the necessary human resources to complete the project within the required timeframe.Step 3: ManufacturingManufacturing is the actual production of the product. At this stage, raw materials are turned into finished products through various processes such as cutting, drilling,molding, painting and so on. The manufacturing should be done in a way that meets quality and safety standards. During this phase, the manufacturers should monitor the progress to ensure that the project is on track.Step 4: Quality ControlQuality control is an essential step in manufacturing practice. This step involves inspecting and validating the products at various stages of the manufacturing process. The manufacturers must test the products to ensure that they meet the quality standards set by customers and regulators. High-quality products will ensure customer satisfaction and lead to repeat business.Step 5: Packaging and ShippingOnce the products are manufactured, they need to be packaged and shipped to the intended destination. Good packaging ensures that the products arrive in good condition. The shipping process should be efficient and on-time to ensure customer satisfaction.In conclusion, manufacturing practice is an essential process that requires meticulous planning and execution. It involves designing the product, scheduling, manufacturing, quality control, packaging, and shipping. If done correctly, manufacturing practice can lead to high-quality products, customer satisfaction, and profitability. With modern technology, manufacturers can optimize their processes and respond to market demand quickly. Therefore, manufacturers must continuously improve their manufacturing practice to stay competitive in the ever-changing manufacturing environment.。
International Supplier Advanced Product Quality Planning(APQP) Manual4201 Winfield RoadP.O. Box 1488Warrenville, IL 60555Questions should be directed to:Jan McElmeel630-753-6402Revision Level: 4Date: 1/20/01Table of ContentsTable of Contents i Foreword ii Phase 1 – Plan and Define Program 11.1 Planning and Program DefinitionPhase 2 – Product Design and Development 4Drawings2.1 Engineering2.2 Design Failure Mode and Effects AnalysisPhase 3 – Process Design and Development 8 Flow-ProcessMap3.1 Process3.2 Process Failure Mode and Effects Analysis3.3 Identify Process Key Control Characteristics3.4 Packaging and Logistics FlowInstructions3.5 Process3.6 Develop Preventative/Predictive Maintenance and Critical Spare Parts ListPlan3.7 ControlPhase 4 – Product and Process Validation 164.1 Final Drawing Release4.2 Gage Review and Measurement System Analysis4.3 Process Capability Verification4.4 Final Control Plans Reviewed4.5 Production Process Prove-Out Program4.6 Production Part Approval ProcessPhase 5 - Feedback, Corrective Action and Continuous Improvement 23and Continuous ImprovementManagement5.1 ProcessReviewiForewordThe Supplier Advanced Product Quality Planning Requirements Manual was developed to assistI NTERNATIONAL suppliers in understanding the requirements and outputs of the APQP activity surrounding new product development. The intent is to standardize the approach among suppliers and provide consistent requirements and documentation. This manual provides guidelines designed to assist the supplier in developing a detailed product quality plan that will assist in the development of products that will meet I NTERNATIONAL’s standards.The completion of all requirements and documents listed as outputs in this manual are the responsibility of the supplier. Each supplier will be asked to show documents to verify that all required tasks have been successfully completed. Many documents generated in the APQP process are considered dynamic and should be updated as changes occur that will affect the content of those documents. The supplier must make documentation available to I NTERNATIONAL representatives as required.A Supplier Development Manager (SDM) will be assigned to each supplier. The role of the SDM is to verify the completion of the required tasks and assess production readiness by evaluating the supplier’s product quality plan. The SDM will alert I NTERNATIONAL management if a program is at risk due to issues that occur at a supplier location. The SDM will also assist in facilitating resolution for issues that jeopardize the supplier’s ability to meet I NTERNATIONAL program requirements.The I NTERNATIONAL Supplier Advanced Product Quality Planning (Supplier APQP) Manual identifies several different publications as reference documents. The AIAG manuals are available for purchase directly from the Automotive Industry Action Group (AIAG) at (248) 358 – 3570 or by visiting their website at. There Supplier APQP manuals also identifies I NTERNATIONAL manuals and documents. These documents are available from your I NTERNATIONAL Supplier Development Manager or Buyer. All documents are being updated to be included on the I NTERNATIONAL Supplier Information website, which can be accessed at .iiPhase 1 -Plan and Define ProgramDuring this phase, I NTERNATIONAL and the supplier work together to plan and define the program. The supplier learns the goals of the program and builds detailed plans on how they will meet those program goals. The supplier updates the plans throughout the program.The extent of the planning varies with the circumstances of the program. Listed below are some possible inputs and outputs of this phase.Inputs:• Voice of the Customer – obtain market research to reflect the voice of the customer Customer interviews, questionnaires, surveysCustomer letters and suggestionsQFDsDealer commentsFleet operator commentsField service reports• Historical warranty and quality data – assess customer wants and the potential for recurrence Warranty reportsCapability indicatorsInternational plant internal quality reportsInternational supplier ratingsSubcontractor supplier ratingsProblem resolution reportsInternational plant returns and rejectionsSimilar dFMEA and pFMEA and control plans• Business Plan/Marketing Strategy – form the basis of the product quality plan Business Plan defines timing, cost, investment, product positioning, research and developmentMarketing Strategy defines target customers, key sales points, key competitors• Product/Process benchmark data – helps to establish performance targets Identify appropriate benchmarksReview past benchmarking and determine new studies neededUnderstand the gap between current status and the benchmark and formulate strategy • Product/Process assumptions – presumes the product has certain features, design or process conceptsTechnical innovations, advanced materials, reliability assessments, new technologies• Product reliability studies – assess product enduranceCompare component repair or replacementCompare the results of long-term reliability/durability tests• I NTERNATIONAL and other inputsMedia commentaryManagement comments or directionProblems and issues reported from internal customersGovernment requirements and regulationsContract reviewHistory / Lessons LearnedOutputs:• Design goals and targets – initial measurable objectives, design feasibility study• Reliability and quality goals – measurable reliability, warranty and incoming quality targetsCapability studies on similar partsSix Sigma implementation (PPM reduction plans)• Product Assurance Plan – plan for assuring product and process meets program goalsProgram timing – lists tasks, events and assignments on Gantt chart, with periodic updatesTarget costs – plan for achieving target cost (i.e., VA/VE, DFA, DFM, DFS, etc.)Capacity Plan – plan for meeting volumes, including personnel, machinery and facilitiesForm team – cross-functional, customer-focused team members listedKey contact personnel list – includes names, titles, street address, phone, fax and email addressAssess any factors that may put the program at risk, including potential subcontractorsSafety goals – plan for achieving safety and environmental complianceQS9000 Plan – plan to maintain certificationPoke-yoke implementation opportunities identifiedOngoing product assurance testing needs identified• Preliminary Bill of Material – includes early subcontractor list, design and process assumptions• Preliminary process flow chart – describes initial manufacturing processes, including inspection/reworkLean Manufacturing Plan – describes how lean principles are implemented• Preliminary list of special product and process characteristics• Management support –organization chart, begin open issues log, keep meeting minutes • APQP Team Feasibility Commitment Letter – formally communicates issues about the manufacturability of the proposed design. The manufacturing plant manager must sign this letter.Task:1.1 Planning and Program DefinitionObjective:To plan and define APQP for the program. To ensure that the supplier clearly understandsI NTERNATIONAL needs and expectations in order to plan and define a quality program. The supplier is responsible for completing, using and updating the planning documents throughout the program. The supplier provides updates to the SDM as required by I NTERNATIONAL.Inputs:• I NTERNATIONAL program goals for timing, design, reliability and quality• Supplier lessons learned, quality history, warranty data and output of Phase 5 from prior similar programs• I NTERNATIONAL and supplier’s previous program data, including plant product deficiencies, warranty information and design change history, as availableOutputs:• Detailed program timing chart with task assignments• Key contacts personnel list• Organizational chart• Program risk assessment with risk mitigation plans• Open issues logSuggested Team Members:• Supplier program manager and cross-functional team• Senior management commitmentReferences:• AIAG Advanced Product Quality Planning and Control Plan Manual• AIAG QS9000 – Quality System Requirements Manual• I NTERNATIONAL Supplier Quality Requirements (ISQR) ManualResources:• I NTERNATIONAL Supplier Development Manager• I NTERNATIONAL Buyer and PPM• I NTERNATIONAL Engineering• I NTERNATIONAL Marketing• I NTERNATIONAL Manufacturing• I NTERNATIONAL Program Management• I NTERNATIONAL Reliability and QualityPhase 2 -Product Design and DevelopmentDuring this phase, I NTERNATIONAL and the supplier work together to design and develop the product. The goal of this phase is to ensure that I NTERNATIONAL’s products and components meet or exceed their customer’s needs, are delivered and launched as scheduled and that they are developed in a structured and analytical manner.The extent of the design and development activities varies with the circumstances of the program. Listed below are some possible inputs and outputs of this phase.Inputs:• Design goals and targets – initial measurable objectives, design feasibility study• Reliability and quality goals – measurable reliability, warranty and incoming quality targets Capability studies on similar partsSix Sigma implementation (PPM reduction plans)• Product assurance plan – plan for ensuring product and process meet program goals Program timing – lists tasks, events, and assignments on Gantt chart, with periodic updatesTarget costs – plan for achieving target cost (i.e., VA/VE, DFA, DFM, DFS, etc.)Capacity Plan – plan for meeting volumes; including personnel, machinery and facilities Form team – cross-functional, customer-focused team members listedKey contact personnel list – includes names, titles, street address, phone, fax and e-mail addressAssess any factors that may put the program at risk, including potential subcontractors Safety goals – plan for achieving safety and environmental complianceQS9000 Plan – plan to maintain certificationPoke-yoke implementation opportunities identifiedOngoing product assurance testing needs identified• Preliminary Bill of Material – includes early subcontractor list, design and process assumptions• Preliminary Process Flow Chart – describes initial manufacturing process, including inspection/reworkLean Manufacturing Plan – describes how lean principles are implemented• Preliminary list of special product and process characteristics• Management support – organizational chart, begin open issues log, keep meeting minutes APQP Team Feasibility Commitment Letter – formally communicate issues about the manufacturability of the proposed design. The manufacturing plant manager must signthis letter.Outputs:• Design Failure Mode and Effects AnalysisDFMEA formDFMEA checklist• Design for manufacturability and assembly• Design verificationMeeting minutes• Design reviewsFormal reliability and quality goalsComputer simulation and test bench resultsDuty cycle evaluationDFMA analysis reviewDOE and assembly build variation resultsTest failure analysis• Prototype Build – Control PlansPrototype Control Plan (does not need to be a separate control plan) Control Plan Checklists• Engineering DrawingsControlled drawingsMath data• Engineering specifications• Material specifications• Drawing specification changesProper documentation of changes• New equipment, tooling and facilities requirements• Special product and process characteristics (KCCs)• Gages/testing equipment requirements• Team feasibility commitment and management supportTeam feasibility commitment documentationManagement review minutes2.1 Engineering DrawingsObjective:Document and communicate the product’s design and specifications• Complete the engineering drawings as scheduled• Use the engineering drawings throughout the program• Regularly update the engineering drawings as the program progresses• Provide updates to the SDM, as required• Alert the SDM if the engineering drawings are not being completed as scheduled • Express manufacturability and cost improvement concerns to the SDM Inputs:• Design intent• Customer requirements• Manufacturing/assembly requirements• Lessons learned• Design goals• Reliability & quality goals• Preliminary list of KCCs• QFD• DFMEAOutputs:• Controlled engineering drawings• Engineering specifications• Material specifications• Drawing change documentation• KCCsSuggested Team Members:• Supplier design engineers• Supplier quality engineers• Supplier manufacturing engineersReferences:• AIAG QS9000 – Quality System Requirements Manual• Global Engineering (1-800-854-7179)• UG Standards CD (I NTERNATIONAL’s Unigraphics standards for drawings) Resources:• I NTERNATIONAL Design Engineering• I NTERNATIONAL SDM2.2 Design Failure Mode and Effects Analysis (DFMEA)Objective:Identify the product’s potential failure modes, assess the probability of the failure modes occurring, review the effects of such failures and formulate action plans to improve the product designs to prevent or counteract the failures and their effects.• Complete the DFMEA• Use the DFMEA throughout the program• Regularly update the DFMEA as the program progresses• Provide updates to the SDM, as required• Act on product improvement opportunitiesInputs:• Design intent• Customer requirements• Manufacturing/assembly requirements• Lessons learned• Design goals• Reliability & quality goals• Preliminary list of KCCs• QFD• Similar product DFMEAsOutputs:• DFMEA which has lead to product improvementsSuggested Team Members:• Supplier design engineers• Supplier quality engineers• Supplier manufacturing engineersReferences:• AIAG QS9000 – Quality System Requirements Manual• AIAG FMEA ManualResources:• I NTERNATIONAL SDM• I NTERNATIONAL PPM• I NTERNATIONAL Buyer• I NTERNATIONAL EngineeringPhase 3 -Process Design and DevelopmentDuring this phase, a collaborative relationship must be forged between the supplier andI NTERNATIONAL to develop a manufacturing process that will produce quality parts. To accomplish this task, the input from phases one and two are critical. Creating and developing a highly capable and productive process takes input from numerous resources and significant tenacity. The supplier will be interfacing with different departments, teams and facilities withinI NTERNATIONAL and the output from this phase will be equally diversified.Inputs:• Design Failure Mode and Effects Analysis (DFMEA)• Engineering drawings• Design verification/reviews• Engineering specifications• Quality Department input (Quality Manual and Procedures)• Manufacturing Department input• Third party, suppliers and equipment vendors to the Tier One supplier• Technical support advisory• Reliability & warranty data• I NTERNATIONAL standards and manuals• I NTERNATIONAL inputOutputs:• Control Plan• Process Failure Mode and Effects Analysis (PFMEA)• Preventative and Predictive Maintenance Program• Critical Spare Parts List• Maintenance records and schedules• Key Control Characteristics of the Product and Process• EDI Plan including System Tests Results• Packaging Plan• Logistics Plan• Process instructions• Accountabilities3.1 Process Flow – Process MapObjective:• Develop a Process Flow Diagram and/or Process Map of physical layout of the process area • Process Flow of the material is also required• Process Map shall include, but is not limited to, incoming material, storage areas and shipping & receiving• Required for new facilities, new processes, new products and any additions or deletions of equipment• Process Flow should be in agreement with the control plan and PFMEA when complete and currentInputs:• Capital equipment inventory list• Industrial Engineering Plant Layout and Study• Manufacturing/Production preliminary planOutputs:• Process Map and Process Flow Diagram and latest revision thereofSuggested Team Members:• Manufacturing/Production• Industrial Engineering• Quality EngineeringReferences:• AIAG-QS9000 Manual• I NTERNATIONAL Supplier Quality Requirements Manual (ISQR)Resources:• I NTERNATIONAL representative3.2 PFMEAObjective:• Develop a PFMEA that addresses possible failure modes, as well as the effect of such failures (including those of the DFMEA). Corrective actions and preventative measures should be put into place to minimize or prevent such occurrences. Worst case scenarios should beconsidered when making these evaluations.Inputs:• A Process Flow/Process Map that includes the physical layout of the process area, including process flow. The process map includes incoming material, storage areas, shipping andholding areas. This is required for new facilities, new processes, new products or major new equipment additions.• DFMEA, engineering drawings, design verification/reviews, specifications, historical problems with similar manufactured parts and expert knowledge from process operators.Outputs:• PFMEA, latest revisions and updates, assigned accountabilitySuggested Team Members:• Manufacturing/Production• Process Operators• Tier 2 Suppliers• Quality• Material Control• Engineering• Purchasing• Service/AftermarketReferences:• AIAG QS9000 – Quality System Requirements Manual• AIAG FMEA Manual• I NTERNATIONAL Supplier Quality Requirements (ISQR) ManualResources:• I NTERNATIONAL representative3.3 Identify Process KCCsObjective:• Identify the Key Control Characteristics of the product or process that have a significant impact on form, fit and function of the product for process monitoring purposes. KCCs will be monitored in accordance with NQR.Inputs:• PFMEA• DFMEA• Reliability & warranty data• Engineering drawings• Design verification/reviews• SpecificationsOutputs:• Key Control CharacteristicsSuggested Team Members:• Manufacturing/Production• Process operators• Quality• Engineering• Material Control• I NTERNATIONALReferences:• AIAG QS9000 – Quality System Requirements Manual• I NTERNATIONAL Supplier Quality Requirements (ISQR) and other AIAG Manuals, as necessaryResources:• I NTERNATIONAL representative3.4 Packaging and Logistics FlowObjective:• Review the existing packaging standards with all possible I NTERNATIONAL destinations, both domestic and I NTERNATIONAL, and FTL/LTL differences• Develop packaging that meets D13 standards• Develop/review the transporting of goods from supplier to I NTERNATIONAL facilities and the system for exchange of information between both parties• ValidationEDI data downloadShip Schedule per Plant RequirementsPackaging Requirements (wire racks, returnable racks, dedicated containers)ASN RequirementLine Set Specific InformationTransportation Logistics RequirementsInputs:• Control Plan• D13 Standards• Customer Input (I NTERNATIONAL Facilities)• TransportationOutputs:• EDI Plan, including system tests, as required.• Packaging Plan, including Specifics of Returnable Containers, dedicated racks, plant-specific requirements• Logistics Plan including LTL/FTL constraints, routingSuggested Team Members:• Manufacturing/Production• Process operators (shipping & handling)• Quality• Material Control• Supplier shipping department• ExpeditorsReferences:• AIAG QS9000 – Quality System Requirements Manual• I NTERNATIONAL D13 Standards• I NTERNATIONAL Supplier Quality Requirements (ISQR) ManualResources:• I NTERNATIONAL representative• Each I NTERNATIONAL facility involved3.5 Process InstructionsObjective:• Design and develop process work instructions with visual aids, as per QS9000 requirements • Work Instructions should be clear and understandable, relevant to the operation with current revisionInputs:• Quality Manual & Procedures• Control Plan• D13 Standards• Packaging and Logistics• SpecificationsOutputs:• Work Instructions• Visual aidsSuggested Team Members:• All department managers• Supervisors• OperatorsReferences:• AIAG QS9000 – Quality System Requirements ManualResources:• I NTERNATIONAL representative3.6 Develop Preventative/Predictive Maintenance Program and Critical Spare Parts ListObjective:• Develop and implement a preventative/predictive maintenance program that will be capable of, and have capacity to, fulfill I NTERNATIONAL requirements and support production of quality products at production volumes• Develop an inventory or have timely access to major “critical” spare parts for maintenance issues (Note: The intent of the PM is to ensure no material shortages to I NTERNATIONAL’splants in the event of equipment breakdown)• Ensure that all maintenance schedules are followed and that trained and competent maintenance personnel are available.• Develop a contingency plan to protect I NTERNATIONAL plants from parts shortages in the eventa catastrophic failure occurs to a key piece of equipment• Initiate a technical support agreement with equipment vendors, where necessary, to ensure prompt equipment repair and spare parts availabilityInputs:• Quality• Manufacturing• Parts listOutputs:• Preventative Maintenance Schedule• Maintenance records• Technical Support information• Critical Spares inventory• Vendor Recommended Spare Parts List• Vendor Recommended Maintenance ItemsSuggested Team Members:• Maintenance• Quality• Material Control• ExpeditorsReferences:• AIAG QS9000 – Quality System Requirements Manual• I NTERNATIONAL Supplier Quality Requirements (ISQR) ManualResources:• I NTERNATIONAL representative3.7 Control PlanObjective:• Develop a control plan that reinforces and concurs with the PFMEA, Process Map, Quality Plan and Procedures and Work Instructions• The supplier is responsible for writing a control plan that is clear and understandable Inputs:• DFMEA, Engineering drawings• Design verification/reviews• Specifications• PFMEA• Process Flow Chart• Latest revisions• UpdatesOutputs:• Control PlanSuggested Team Members:• Manufacturing/Production• Process operators• Quality• Material ControlReferences:• AIAG QS9000 – Quality System Requirements Manual• APQP Manual• I NTERNATIONAL Supplier Quality Requirements (ISQR) ManualResources:• I NTERNATIONAL representativePhase 4 -Product and Process Validation OverviewThis section deals with the necessary requirements for validating themanufacturing process and product design. Manufacturing instructions and tooling/gages are completed in preparation for the production trial run. Apreliminary production run (Production Process Prove-Out Program – 4P) is performed to validate that the production process (equipment and personnel) is capable of manufacturing product that meets I NTERNATIONAL production requirements and design intent. Any open issues that are identified during this phase must have action items defined with corrective action generated. The goal is to have processes that are capable, meet I NTERNATIONAL’s production capacity requirements, parts that are manufactured to I NTERNATIONAL’s design intent and be able to generate an approved PPAP warrant.Inputs:• Potential Failure Mode and Effects Analysis• Design Failure Mode and Effects Analysis• Process Flow Charts and Process Flow Map• Initial design drawings and specifications• Work instructions and visual aids• Special characteristics (KCCs)• Federal Motor Vehicle Safety Standards (FMVSS)• Canadian Motor Vehicle Safety Standards (CMVSS)• Packaging specification (D13)Outputs:• Final design drawings and specifications• Gages, Check Fixtures, tooling, equipment• Measurement system analysis data• Statistical process control data• Initial capability data• Initial capacity data (overall equipment effectiveness)• Final control plans• Production Process Prove-Out Program report and parts• Production Part Approval Process documentationTask:4.1 Final Drawing ReleaseObjective:Final Design drawing and specifications are updated to address engineering, manufacturing and reliability improvements. Final drawings should be reviewed and acceptable to bothI NTERNATIONAL and supplier engineering and manufacturing organizations. The supplier must check with the I NTERNATIONAL Design Engineer to verify that they have the latest design release and to report any part design changes that need to be made to ensure the manufacturability of the product.Inputs:• Design Failure Mode & Effects Analysis• Potential Failure Mode & Effects Analysis• Preliminary design drawing and specification• Preliminary Control PlansOutputs:• Released I NTERNATIONAL drawings and specification• Final Drawings and specifications are released on or before I NTERNATIONAL Master timing schedule requirementSuggested Team Members:• Supplier Engineering• Supplier Manufacturing• Supplier QualityReferences:• AIAG QS9000 – Quality System Requirements Manual• Global Engineering (1-800-854-7179)• UG Standards CD (I NTERNATIONAL’s Unigraphics Standards for drawings)• Geometric Dimensioning & Tolerancing ANSI Y14.5Resources:• I NTERNATIONAL SDM• I NTERNATIONAL Design Engineer• I NTERNATIONAL Tooling Manager4.2 Gage Review and Measure System Analysis (MSA)Objective:A review of the Gage and/or Check Fixture (used to accept product) is performed to ensure that they are designed correctly, built as designed, function correctly for intended use and accurately measure the desired part characteristic. An MSA analysis is performed to document the gage’s ability to measure the desired featured accurately and reliably. The supplier is responsible for coordinating and performing the MSA study according to AIAG guidelines.Inputs:• Part drawing• KCC features• Gage drawing• Tooling drawing• Customer specification and/or requirementsOutputs:• Completed GR&R reports and gages/Check Fixtures meeting a GR&R result of a maximum of 30% (a result of less than 10% is desirable)• If results (data, design, functionality, etc.) are unacceptable to the customer, develop action items and corrective actionsSuggested Team Members:• Supplier Quality Engineer• Supplier Manufacturing EngineerReferences:• AIAG QS9000 – Quality System Requirements Manual• I NTERNATIONAL Supplier Quality Requirements (ISQR) Manual• AIAG Measurement System Analysis Manual• AIAG Statistical Process Control Manual• AIAG Quality System Requirement Tooling & Equipment SupplementResources:• I NTERNATIONAL SDM• I NTERNATIONAL Tooling Manager。
一切为了产品成功作文英语In the competitive landscape of the modern market, the success of a product is paramount. It is the culmination of innovation, strategy, and hard work that defines the triumph of a product in the hands of consumers. This essay will delve into the various aspects that contribute to the success of a product and why every effort must be directed towards this goal.Firstly, the design and development phase is crucial. A product must be meticulously crafted to meet the needs and desires of the target audience. This involves extensive market research, user experience (UX) design, and a deep understanding of the market trends. The product's design should not only be aesthetically pleasing but also functional and user-friendly.Secondly, the quality of the product is non-negotiable. Consumers are discerning and will quickly identify and reject products that do not meet their expectations in terms of quality. Therefore, every stage of production, from sourcing materials to the final assembly, must adhere to the highest quality standards.Thirdly, effective marketing and promotion are key to a product's success. A well-crafted marketing strategy can elevate a product from obscurity to prominence. Utilizing various channels such as social media, print, and digitaladvertising, along with public relations efforts, can create awareness and generate interest in the product.Moreover, customer service plays a vital role in theproduct's journey to success. A company that values its customers and provides excellent after-sales service canbuild a loyal customer base. This not only ensures repeat business but also encourages word-of-mouth referrals, which are incredibly powerful.In addition, continuous innovation is essential. Even after a product has been launched, the company must stay ahead of the curve by constantly improving and updating the product to keep up with technological advancements and changing consumer preferences.Finally, the pricing strategy must be competitive yet profitable. A product that is priced too high may deter potential customers, while a product that is priced too low may not generate the necessary revenue to sustain the business.In conclusion, the success of a product is a multifaceted endeavor that requires attention to detail, strategic planning, and a commitment to excellence. From design to customer service, every aspect must be carefully considered and executed to ensure that the product not only succeeds but thrives in the market.。
Design for Manufacturing and Assembly Design for Manufacturing and Assembly (DFMA) is a process that involves designing a product with the aim of ensuring that it can be manufactured and assembled easily, efficiently, and cost-effectively. The DFMA process is critical to the success of any product development project. It is essential to consider DFMA early in the design process to minimize the cost of production and ensurethat the product meets the required quality standards. This article will explore the importance of DFMA and how it can be implemented in product design.DFMA is essential in product design because it helps to reduce the cost of production. By designing a product that is easy to manufacture and assemble, the cost of production is significantly reduced. When a product is designed with manufacturing and assembly in mind, it is easier to identify potential issues that could increase the cost of production. For instance, if a product has complex parts that are difficult to manufacture, it will take more time and effort to produce, which will increase the cost of production. By designing a product that is easy to manufacture and assemble, the cost of production is minimized, and the product becomes more affordable to consumers.Another important aspect of DFMA is that it helps to improve product quality. When a product is designed with manufacturing and assembly in mind, it is easier to identify potential quality issues. For instance, if a product has parts that are difficult to assemble, there is a higher likelihood that the product will have defects. By designing a product that is easy to assemble, the likelihood of defects is reduced, and the product quality is improved. This, in turn, enhances customer satisfaction and loyalty.DFMA also helps to reduce the time it takes to bring a product to market. When a product is designed with manufacturing and assembly in mind, the time it takes to produce the product is significantly reduced. This is because the product is designed in a way that makes it easy to manufacture and assemble. As a result, the product can be produced quickly, and it can be brought to market faster. This is critical in today's fast-paced business environment, where time-to-market is a critical success factor.Incorporating DFMA into product design requires a collaborative effort between the design team and the manufacturing team. The design team needs to work closely with the manufacturing team to ensure that the product is designed in a way that makes it easy to manufacture and assemble. The manufacturing team, on the other hand, needs to provide feedback to the design team on the manufacturability and assembly of the product. This feedback is critical in identifying potential issues and making necessary design changes.In conclusion, DFMA is an essential process in product design. It helps to reduce the cost of production, improve product quality, and reduce time-to-market. Incorporating DFMA into product design requires a collaborative effort between the design team and the manufacturing team. By designing a product that is easy to manufacture and assemble, the product becomes more affordable to consumers, and customer satisfaction and loyalty are enhanced. Therefore, it is critical to consider DFMA early in the design process to ensure that the product meets the required quality standards and is cost-effective to produce.。
商品设计理念英语Product Design ConceptThe main goal of our product design concept is to create innovative and user-friendly products that can improve people's lives. We believe that the best designs are those that seamlessly blend functionality, aesthetics, and sustainability.Functionality is a key aspect of our design concept. We aim to create products that serve a purpose and solve problems for our customers. We thoroughly research and analyze the needs and wants of our target market before starting the design process. By understanding the challenges and pain points of our customers, we can develop products that truly enhance their lives.Aesthetics is also an important consideration in our design philosophy. We believe that beauty and functionality can go hand in hand. Our products are designed to be visually appealing and create positive emotional connections with the users. We pay attention to every detail, from the shape and color to the materials and finishes, to ensure that our products stand out and bring joy to the users.Sustainability is at the core of our design concept. We understand the importance of designing products that minimize their impact on the environment. Our team strives to incorporate eco-friendly materials and manufacturing processes into our designs. We also focus on creating products that are durable, long-lasting, and easy to repair or recycle. By designing sustainable products, we aim to contribute to a better and greener future.In addition to these core principles, we also prioritize user-centered design. We believe that the users' experience should be at the forefront of our design process. We conduct extensive user research to understand their needs, behaviors, and preferences. This information guides our design decisions, ensuring that our products are intuitive, easy to use, and provide a delightful experience to the users.Collaboration is another key aspect of our design philosophy. We believe that the best ideas come from collaboration and interdisciplinary teamwork. Our designers work closely with engineers, marketers, and other professionals to bring innovative and well-rounded products to the market. By fostering a collaborative environment, we encourage creativity, innovation, and continuous improvement.In conclusion, our product design concept revolves around functionality, aesthetics, sustainability, user-centered design, and collaboration. We are committed to creating products that make a difference in people's lives, while also being environmentally conscious. By adhering to these principles, we strive to deliver innovative and user-friendly products that bring joy and convenience to our customers.。
电子商务英语试题及答案一、选择题(每题2分,共20分)1. What does "B2B" stand for in the context of e-commerce?A. Business to BusinessB. Business to ConsumerC. Consumer to ConsumerD. Business to Government答案:A2. Which of the following is NOT an advantage of online shopping?A. ConvenienceB. Cost-effectivenessC. Limited product selectionD. Time-saving答案:C3. The term "e-wallet" refers to:A. An electronic device used for making paymentsB. A physical wallet for carrying cashC. A software application for managing digital currenciesD. A secure online account for storing payment information答案:D4. What is the primary function of a shopping cart on an e-commerce website?A. To store products for future purchaseB. To display advertisementsC. To allow customers to add and remove items before checkoutD. To provide customer support答案:C5. Which of the following is a type of digital marketing strategy?A. Direct mailB. Social media marketingC. Print advertisingD. Radio commercials答案:B6. What does "SEO" stand for?A. Social Engine OptimizationB. Search Engine OptimizationC. Secure Electronic OrderingD. Systematic Electronic Organization答案:B7. In e-commerce, what is the purpose of a "cookie"?A. To store user preferences and track browsing behaviorB. To enhance the website's securityC. To provide customer service through chatbotsD. To encrypt sensitive data答案:A8. Which of the following is a common e-commerce payment gateway?A. PayPalB. FedExC. UPSD. DHL答案:A9. What is the acronym "API" used for in the context of e-commerce?A. Application Programming InterfaceB. Advanced Payment InterfaceC. Automated Product IntegrationD. Advanced Product Application答案:A10. What is the meaning of "EDI" in e-commerce?A. Electronic Data InterchangeB. Electronic Document InterfaceC. Electronic Device InterfaceD. Electronic Display Interface答案:A二、填空题(每空2分,共20分)11. The process of transferring funds from a buyer's bankaccount to a seller's bank account is known as ___________.答案:funds transfer12. A(n) ___________ is a document that provides proof of a transaction between a buyer and a seller.答案:invoice13. The term ___________ refers to the practice of collecting and analyzing data to understand and predict user behavior.答案:analytics14. When a customer places an order online, the process is often referred to as ___________.答案:checkout15. In e-commerce, ___________ is the process of verifying the identity of a user or system.答案:authentication16. ___________ is a method of payment that involves transferring money from a buyer's bank account directly to the seller's bank account.答案:Direct Debit17. The acronym "SSL" stands for ___________.答案:Secure Sockets Layer18. A(n) ___________ is a type of software that helps businesses manage their customer relationships.答案:CRM (Customer Relationship Management)19. ___________ is a type of e-commerce fraud where a customer provides false information to obtain goods or services.答案:chargeback20. The process of returning a product to a seller is known as ___________.答案:returns processing三、简答题(每题10分,共20分)21. What are the key components of an effective e-commerce website?答案:An effective e-commerce website typically includes user-friendly navigation, a clear and concise layout, secure payment options, a responsive design for mobile devices, product descriptions and images, customer reviews, and a reliable customer service system.22. Describe the role of customer service in e-commerce.答案:Customer service plays a crucial role in e-commerce by addressing customer inquiries, resolving issues, and providing support throughout the purchasing process. It helps build trust, improve customer satisfaction, and can influence repeat business and customer loyalty.四、论述题(每题15分,共30分)23. Discuss the importance of security in e-commerce and the measures that can be taken to protect customer data.答案:Security is paramount in e-commerce as it safeguards sensitive customer information and financial data. Measures to protect customer data include using encryptionfor data transmission, implementing secure payment gateways, employing firewalls and intrusion。
Product Lifecycle Management Product Lifecycle Management (PLM) is a crucial concept in the field of product development and management. It encompasses the entire lifecycle of a product, from its initial conception and design to its production, distribution, and eventual disposal. PLM involves the coordination of various departments within a company, such as engineering, marketing, and manufacturing, to ensure that a product meets the needs of both customers and the organization itself. One of the key benefits of implementing PLM is the ability to streamline the product development process. By centralizing all product-related information and documentation in a single system, companies can reduce the risk of errors and miscommunication between different departments. This not only speeds up the time-to-market for new products but also helps to ensure that they meet quality standards and regulatory requirements. Another important aspect of PLM is its impact on product innovation. By providing a platform for collaboration and knowledge sharing among different teams, PLM can help companies bring new and innovative products to market more quickly. This is especially important intoday's fast-paced business environment, where companies need to stay ahead of the competition by constantly introducing new and improved products to meet changing customer demands. In addition to improving product development and innovation, PLM can also have a positive impact on a company's bottom line. By optimizing the use of resources and reducing waste throughout the product lifecycle, companies can lower production costs and improve profitability. This is especially important in industries with tight profit margins, where even small improvements in efficiency can have a significant impact on overall financial performance. From a customer perspective, PLM can lead to better products that more closely align with their needs and preferences. By involving customers in the product development process through feedback and testing, companies can ensure that their products meet or exceed customer expectations. This can lead to increased customer satisfaction and loyalty, as well as a competitive advantage in the marketplace. Overall, Product Lifecycle Management is a critical tool for companies looking to improve their product development processes, drive innovation, and enhance customer satisfaction. By implementing PLM systems and practices, companies canstreamline their operations, reduce costs, and bring better products to market more quickly. In today's highly competitive business environment, PLM is no longer just a nice-to-have but a necessity for companies looking to stay ahead of the curve and succeed in the long run.。
技术部面试试题(工程师)姓名:日期:应聘职务:分数:阅卷人:一.填空题(每题2分)01,尺寸公差是指:02,可以进行切削加工、锻造、焊接、热处理的硬质合金是:03,含碳量小于为碳钢,大于为铸铁04,带表卡尺读数时,先读尺身上部分,再读表盘上,最后两数相加。
05,外径千分尺读数时,应先读固定套管上,再读微分筒上;还应注意0.5 毫米刻度线是否出现,如果出现要加mm。
06,普通卡尺精度为mm。
07,常用的外径千分尺精度每格读数为㎜。
08,百分表小表针的1格是大表针10格代表。
09,PPM是指。
10,不易夹紧的平板类工件最好的加工方式。
11,请画出图纸、工艺中形位公差基本符号:01). 平面度:() 02)直径:() 03)全跳动:()04). 粗糙度:()05)同轴度:()06)垂直度:()07). 定位夹紧:() 08)圆跳动:()09)圆柱度:()10). 线轮廓度:() 11)面轮廓度:() 12)位置度:()二、判断题(你认为对的打“√”,错的打“×”;每题1分,共30分)01. 卡尺不能测正在转动的工件,也不能将工件在量爪间同一处旋转着测量。
()02. 百分表测量时不用关注转数指针(小表针),只要长表针位置正确就行。
()03. 千分尺、卡尺使用完后,要将它擦干净,放在量具盒里。
()04. 百分表、卡尺在使用中如果有卡住现象,可以强行推拉,只要指针能动就行了。
()05. 带表卡尺在测量时,只要将量爪与产品接触就行,推力的大小无关紧要。
()06. 外径千分尺在测量时,不需要测力装置,只要将微分筒拧紧就行。
()07. M12×1.5和M12是一样的,只是表示方法不同。
()08. 产品加工过程中如出现不合格品,其不合格原因没有消除,检验员有权劝阻继续加工. ()09. 生产随工单上检验员没有签字或盖章的,工序之间可以进行产品流转加工. ()10. 卡规的过端是按被测工件的最大极限尺寸来做的。
英文:Product Design MajorProduct Design is a creative field that involves the development of new physical products, from concept to final production. It encompasses various aspects of design, engineering, and marketing to create innovative and functional products that meet the needs and preferences of consumers.In a Product Design major, students learn about the principles of design, such as functionality, aesthetics, and ergonomics. They also acquire skills in CAD (Computer-Aided Design) software, prototyping, and testing to bring their designs to life. Additionally, they study market research, user-centered design, and branding to ensure that their products are marketable and competitive.The field of Product Design is constantly evolving, with new technologies and materials constantly emerging. Therefore, students in this major must stay updated with the latest trends and developments in the industry.Graduates of Product Design programs are prepared to work in various industries, such as consumer electronics, furniture, toys, automotive, and medical devices. They can pursue careers as product designers, industrial designers, or as part of a design team in a larger company.中文:产品设计专业产品设计是一个创意领域,涉及从概念到最终生产的新物理产品的开发。
突破性产品策划方案英语Groundbreaking Product Planning Framework for Disruptive Innovation.Introduction.In today's rapidly evolving technological landscape, the ability to conceive, develop, and launch groundbreaking products is paramount for businesses seeking to stay competitive and drive growth. A meticulous product planning process is the backbone of successful product innovation, providing a structured approach to transform innovative ideas into tangible, market-leading solutions. This comprehensive framework outlines a step-by-step guide to developing a robust product plan that sets the stage for disruptive innovation and market dominance.Phase 1: Discovery and Idea Generation.The initial phase of product planning involves a deepdive into market research, customer needs analysis, and technological advancements. By conducting thorough market research, businesses can gain invaluable insights into market trends, competitive dynamics, and customer pain points. This understanding forms the foundation for identifying unmet customer needs and pinpointing opportunities for product innovation.Simultaneously, exploring technological advancements becomes essential. By keeping abreast of emerging technologies and disruptive trends, businesses can leverage cutting-edge capabilities to create products that push the boundaries of what is possible.Phase 2: Problem Definition and Solution Design.Based on the insights gathered during the discovery phase, businesses can clearly define the problem that the new product aims to solve. This step involves prioritizing customer pain points, understanding their root causes, and articulating a precise problem statement that guides the product design process.With the problem well-defined, businesses can embark on solution design. This stage requires brainstorming innovative solutions, exploring various design concepts, and evaluating their feasibility. The focus should be on developing unique, compelling solutions that differentiate the product from competitors and address customer needs effectively.Phase 3: Validation and Refinement.The validation phase plays a crucial role in ensuring the product's market fit and viability. It involves testing solution concepts with potential customers through methods such as user interviews, focus groups, and prototype testing. This feedback loop allows businesses to validate their assumptions, refine the product design, and gather critical insights into customer preferences and usage patterns.Based on the validation findings, the product plan undergoes iterative refinement to optimize the product'sfeatures, functionality, and overall user experience. This ensures the final product aligns seamlessly with customer expectations and delivers maximum value.Phase 4: Product Development and Launch.Once the product plan is finalized, the focus shifts to product development. This stage involves meticulous planning of engineering milestones, resource allocation, and quality control measures. Agile development methodologies can streamline the development process, enabling businesses to adapt quickly to changing market dynamics and customer feedback.The product launch strategy is equally important. Businesses should carefully plan marketing and communication campaigns, distribution channels, and customer support infrastructure to maximize the product's visibility and impact. A well-executed launch ensures the product reaches its target audience effectively and generates early traction.Phase 5: Post-Launch Evaluation and Iteration.Product planning is an ongoing process that extends beyond product launch. Continuous evaluation of product performance, customer feedback, and market trends is essential to identify areas for improvement and drive ongoing innovation. Regular product updates and enhancements ensure the product remains competitive and responsive to evolving customer needs.By fostering a culture of continuous iteration, businesses can refine their product over time, enhancingits value proposition, improving customer satisfaction, and maintaining a competitive edge in the ever-changing technological landscape.Conclusion.The groundbreaking product planning framework presented here provides a comprehensive roadmap for businesses to develop and launch innovative products that disrupt markets and drive growth. By following a structured and iterativeapproach that encompasses market research, problem definition, solution design, validation, development, launch, and ongoing evaluation, businesses can create products that exceed customer expectations, transform industries, and achieve long-term success. Embracing this framework empowers businesses to stay at the forefront of innovation and position themselves as leaders in the digital era.。
The Amalgamation – Product Design Aspects for the Development of Immersive Virtual EnvironmentsMario Doulis, Andreas SimonUniversity of Applied Sciences Aargau, SchweizAbstract:Interacting in an immersive virtual environment we refer to the real world. The user gets to expect real world behaviour from virtual objects and functions. We explore the idea of bringing aspects of product design to the development of input devices and interaction techniques for virtual environments. We use ergonomics and product language to design the physical input device, the vir-tual representation and the connection between real and virtual parts. This connection, which we call amalgamation, is the most important element of the design, since it defines, if the user rather inter-acts with virtual objects as “virtual products” (via an input device), or rather interacts with an input device as a “real product” controlling virtual content.1. IntroductionThe more we use multimodal input and output systems as virtual environ-ments which enable the user draw from real world experiences in order to in-teract with a computer system, the more the user reflects his behaviour to the use of real world things. Nevertheless he still uses a computer system, even if he is less aware of it.Designing input devices for interaction with computer systems of any kind is quite different from designing a “real product”. The main difference is, that the practical function of an interaction is not necessarily determined or limited by technical or mechanical restrictions. In a virtual environment, there is no in-trinsic connection between a function and its use.The result of this is that on one hand it is possible to implement any type of functionality and behaviour. On the other hand the user cannot rely on his un-derstanding and common use of real world things to guess what the behaviour or function of a virtual object might be.2M. Doulis, A. Simon2. The tool aspectIn the real world, a tool is not only made to perform a specific task, but it also makes its own function “legible” to a user. With a good tool, a user, equip-ped with common world knowledge, can read the purpose and the way of use into the device, enabling him to apply it properly. Also, a tool “naturally” refers to objects it can be applied to and used with.Although we don’t have to respect physical constraints and necessities when designing virtual tools and functions, we have to create and establish this link between a tool and its affordance.A tool for virtual environments consists of two interdependent parts: a physical input device and a virtual representation with a functional behaviour. Physical and virtual part work together and amalgamate to form a single tool. We use ergonomics and product language to design the physical device, the virtual representation and the connection of both parts. This enables us to control the effect of the amalgamation.3. The product design aspectProduct design deals with the development of artefacts and their “connec-tion” to the user, the interface. Although there are main differences between the design of real tools and input devices for computer systems, it is helpful to see, how product design theory describes the relationship between a user and an ar-tefact. This relationship is called the product function.The product function consists of the practical function of a product and the product language. [1]The practical function takes emphasis of the technical function and ergo-nomic aspects of the use of the product.The product language is concerned with the users understanding of the practical function of a product and its semantic notion.The semantic notion describes the inferred “meaning” of a product. It re-flects circumstances and the individual and cultural background and forms a kind of “behavioural function”.3 The Amalgamation – Product Design Aspects for the Development ...User Product Function ProductPractical Function Product LanguageFigure 1: Product functionExample:The practical function of a wristwatch is to keep the correct time, to be wea-rable and legible and to allow adjustments. While a Rolex is a wristwatch when its practical function is concerned, part of its semantic notion is its role as a status symbol and its reflection on the owners “style”.If we only look at the practical function of a product, we neglect that things in the world are not just experienced in their practical function but also in the context and relationships in which they appear.Product language or product semantics as part of the design theory occur-red in the 1970s in Europe and nowadays is established in the design process.Methods like Lannoch’s “semantic transfer”, that transforms linguistic ex-pressions (i.e. soft, beautiful, breakable, comfortable, etc.) into spatial forms [2], define “legible” shapes without a certain practical function assigned. Ho-wever these semantic forms can be better representations for information and software functions than naturalistic ones, because they don’t evoke a concrete real world experience.4. AmalgamationDesigning input devices and interaction for virtual environments means to merge the real and the virtual world to a hybrid interaction space. The design has to take care of a well-balanced product function, which is anchored in both worlds simultaneously. This causes a new kind of “tool”, consisting of a phy-sical and a virtual part, connected to what we call amalgamation.The “look and feel” of the amalgamation depends on where the main definition and weight of the product function lies, in the virtual or in the phy-sical part.4M. Doulis, A. SimonAn emphasis on the virtual part requires, that the main practical function has to be defined in the virtual representation of the software functionality.The virtual objects and their functional behaviour have to be designed very precisely in order to enable the user to build a good mental model of the way he can interact with the objects. In this case, the physical device should be de-signed to be rather neutral and indeterminate, to allow the user to focus on the interaction indicated by the virtual object.An emphasis of the product function on the physical part requires, that the shape of the input device has to inform the user about the possible input ac-tions.Although no additional representation in the form of a virtual object is nee-ded to augment to the input device, the software implementation of the func-tional behaviour has great influence on the user’s perception and handling of the device. It “determines” the devices options as they are experienced by the user. Therefore the implementation of the functional behaviour should be de-signed together with the input device and vice versa.5. The ergonomics aspectErgonomics are closely connected to product design. They have great in-fluence on the usability and the shape and form of a product.The operating devices of a product predetermine the users actions. They de-pend on the technical construction, which is necessary for the products main practical function.The Design of physical and virtual artefacts for virtual environments, can use such ergonomic aspects in two different ways:•In the common way, to design ergonomically optimized artefacts for better practical use.•To give the user a hint, how to interact – as a kind of metaphor or “intuiti-ve instruction manual” without any technical necessity.The interpretation of ergonomics as part of product semantics brings a new quality to the design of input devices and interaction.The Amalgamation – Product Design Aspects for the Development ...6. ExamplesThe following examples illustrate how product design aspects were applied to the authors´ work on input devices and interaction techniques for virtual en-vironments.6.1. “Mike” and “Boule”The input device “Mike” and the virtual system menu “Boule” were designed as part of the interface of an immersive design review application for the auto-motive industry. The design review application “Boule” has won the “TOP3 IF interaction design award 2000” of the Industrie Forum Design Hannover e.V . [3].The “Mike” is a stylus-type input device with a 6DOF tracking sensor and two buttons. It is a generic, 12 cm long, 2.8 cm diameter cylinder with a poin-ted tip. Its indeterminate shape allows three different grasps and symmetric ro-tation along the principal axis. The practical function of “Mike” is pointing along the principal axis, pressing of the two buttons and to facilitate different grasps.The neutral cylinder shape evokes very little “meaning”.Figure 1:The “Mike” input deviceThe “Boule” system menu is a virtual model of a ball. It pops up by pres-sing a button and snaps into position according to the spatial rotation of the tracked input device [4], [5]. Its practical function is the selection of five posi-tions: centre, left, right, up, and down. The modelling is quite detailed and to-gether with the snapping behaviour is designed to suggest a certain “weight”of the ball.5M. Doulis, A. SimonFigure 2:“Boule” system menuIn the case of “Mike” and “Boule” the product function of the amalgama-tion lies in the virtual part of the combined tool. The input device is relatively indeterminate, whereas the virtual representation and behaviour of the virtual object is as detailed and defined as possible. In the design review allocation “Boule” the user is encouraged to concentrate on and trust the virtual objects,enabling us to embed rich functionality.6.2. The “NoYo”The “NoYo” was designed and developed as a dedicated input device for free and precise 6DOF navigation and object manipulation in large-scale im-mersive virtual environments.Figure 3:The “NoYo” input device67 The Amalgamation – Product Design Aspects for the Development ...The “NoYo” is a joystick-type input device with a 3DOF orientation tracker and a 6DOF elastic force sensor. It is a slight conic grip, 10 cm long, 4 cm dia-meter, with a distinct, elastically attached controller cap on top. “NoYo” allo-ws the analogue control of a total of 9DOF. The controller of the 6DOF force sensor gives elastic feedback to the user, with a counterforce proportional to the small motion of the cap. This allows the user to have precise control of the input force acting to the cap, giving him direct feedback through the “feel” of the device. The elastic controller’s output values of the device are proportional to the acting force [6].The virtual part of the tool has no explicit visual representation and exists only in the functional behaviour of the rate-controlled motion model, transla-ting the force applied on the cap into speed and direction.In the case of the “NoYo”, the main product function lies in the physical de-vice. The device delivers intrinsic feedback to the user, allowing him to use the device for precise navigation without even looking in the direction of motion.7. ConclusionThe more interaction with computers becomes an interaction in space, the more we can refer to the competence of product designers. Their work tradi-tionally is a work with three dimensional objects and space.Although developing input devices and interaction techniques for virtual en-vironments is not exactly the same as developing real world artefacts, the theo-retical and practical background of designers is increasingly necessary to win user acceptance.The aim of product design is not primarily concerned with making things look better, although this is part of a designer’s job too, but to help users to un-derstand a product and its use.The product design aspects illustrated in the article show how design can be effectively involved in the development of input devices and interactions in vir-tual environments.8M. Doulis, A. Simon8. References[1] B.E. Bürdek, “Design: Geschichte, Theorie und Praxis der Produktgestaltung”, DuMont, Köln,1991,pp. 181-182[2] Helga Lannoch, and Hans-Jürgen Lannoch, “Toward a Semantic Notion of Space”, Design Is-sues Vol. 5, Nr.2, MIT Press, Cambridge, USA, 1989, pp. 40-50[3] “IF Design Award 2000, Vol. 3”, Industrie Forum Design Hannover e.V., Hannover, 2000, pp.110-113[4] Häfner, U.; Simon, A.; Doulis, M.: "Unencumbered Interaction in Display Environments withExtended Working Volume" in Stereoscopic Displays and Virtual Reality Systems VII, John O. Merritt, Stephen A. Benton, Andrew J. Woods, Mark T. Bolas Editors, Proceedings of SPIE Vol 3957, page 473 - 480 (2000)[5] Project description …Boule“: http://vr.iao.fhg.de/boule/index.en.php[6] Simon, A., Doulis, M., NOYO: 6DOF Elastic Rate Control for Virtual Environments. Proc.ACM VRST 2004, ACM. (2004) pp. 103-106。