Product Design L8- Ch9: Product Architecture Dr. Husam Arman 1.

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Presentation transcript:

Product Design L8- Ch9: Product Architecture Dr. Husam Arman 1

Product Design and Development Karl T. Ulrich and Steven D. Eppinger 2nd edition, Irwin McGraw-Hill, Chapter Table of Contents 1.Introduction 2.Development Processes and Organizations 3. Product Planning 4.Identifying Customer Needs 5.Product Specifications 6.Concept Generation 7.Concept Selection 8. Concept Testing 9.Product Architecture 10. Industrial Design 11.Design for Manufacturing 12.Prototyping 13.Product Development Economics 14.Managing Projects

What is Product Architecture? A product can be thought in both functional and physical terms. The functional elements are the individual operations and transformations The physical elements of a product are the parts, components, and subassemblies The physical elements of a product are typically organized into several major physical building blocks, called chunks.

Product Architecture: Definition The arrangement of functional elements into physical chunks which become the building blocks for the product or family of products. Product module

Modular or integral architecture?

Modular Product Architectures Chunks implement one or a few functions entirely. Interactions between chunks are well defined. Modular architecture has advantages in simplicity and reusability for a product family or platform. Swiss Army KnifeSony Walkman

Platform Architecture of the Sony Walkman

Integral Product Architectures Functional elements are implemented by multiple chunks, or a chunk may implement many functions. Interactions between chunks are poorly defined. Integral architecture generally increases performance and reduces costs for any specific product model. The BMW R1100RS motorcycleCompact Camera

Trailer Example: Modular Architecture box hitch fairing bed springs wheels protect cargo from weather connect to vehicle minimize air drag support cargo loads suspend trailer structure transfer loads to road

Trailer Example: Integral Architecture upper half lower half nose piece cargo hanging straps spring slot covers wheels protect cargo from weather connect to vehicle minimize air drag support cargo loads suspend trailer structure transfer loads to road

Modularity Modularity is a relative property Products are rarely strictly modular or integral.

Types of Modularity

Slot-modular architecture – Each interface between chunks in a slot-modular is of a different type from the others, so that the various chunks in the product cannot be interchanged (e.g. Automobile radio) Bus-modular architecture – Uses a common bus, or similar concept. – Uses standard chunk-to-bus interfaces (e.g. card for a PC). Sectional-modular architecture – No common bus or other single element interfacing with all other chunks. – Uses standard chunk-to-chunk interfaces (e.g. piping system ).

Choosing the Product Architecture Architecture decisions relate to product planning and concept development decisions: Product Change (copier toner, camera lenses) Product Variety (computers, automobiles) Standardization (motors, bearings, fasteners) Performance (racing bikes, fighter planes) Manufacturing Cost (disk drives, razors) Project Management (team capacity, skills) System Engineering (decomposition, integration)

Planning When is the product architecture defined? Concept Development Concept Development System-Level Design System-Level Design Detail Design Detail Design Testing and Refinement Testing and Refinement Production Ramp-Up Production Ramp-Up Product architecture is determined early in the development process. Platform decision Concept decision Decomposition decision

Product architecture affects: Product changes – Upgrades, Ex.: Changing the processor board of a computer – Add-ons, Ex.: Third-party mass storage devices – Adaptation to local conditions, Ex.: 110 or 220 Volt power supply – High-wear components, Ex.: tires on vehicles – Consumables, Ex.: film cartridges – Flexibility in use, Ex.: Lens or flash options for a camera – Reuse, Ex.:consumer electronics manufacturers

Product architecture affects: Product variety Variety refers to the range of product models the firm can produce within a particular timeframe in response to market demand. – Swatch produces hundreds of watch models. Component standardization Use the same components or chunks in various products. – Ex.: Watch movement, watch battery, etc.

Product architecture affects: Product performance How will product implement intended functions? – Ex.: Function sharing of BMW transmission chunk Manufacturability Benefits from: – Design-for-manufacturing (DFM) – Minimization of parts count through component integration. – These strategies are best applied at the chunk level. Managing the PD process Detailed design responsibility for each chunk is usually assigned to a small in-house team or outsourced to a supplier.

The concepts of integral and modular apply at several levels: system sub-system component

Product Architecture = Decomposition + Interactions Interactions within chunks Interactions across chunks

Establishing the Architecture To establish a modular architecture, 1.Create a schematic of the product, 2.Cluster the elements of the schematic to achieve the types of product variety desired 3.Create rough geometric layout 4.Identify fundamental and incidental interactions

Product Architecture Example: Hewlett-Packard DeskJet Printer

DeskJet Printer Schematic Flow of forces or energy Flow of material Flow of signals or data Store Output Store Blank Paper Enclose Printer Provide Structural Support Print Cartridge Position Cartridge In X-Axis Position Paper In Y-Axis Supply DC Power Pick Paper Control Printer Command Printer Connect to Host Communicate with Host Display Status Accept User Inputs Functional or Physical Elements

Clustering elements Key considerations when clustering elements (of schematic) into chunks include: Geometric integration and precision – Ex.: H-P clustering for ink-jet printer calls for cartridge positioning on x-axis and paper positioning on y-axis Function sharing – Ex.: Status display and user controls for H-P printer – Ex.: Transmission for BMW motorcycle Vendor capabilities – Ex.: H-P printer – Ex.: Spring and shock absorber for rear suspension of BMW motorcycle

Clustering elements (cont.) Similarity of design or production technology Location of change Accommodating variety Enabling standardization Portability of interfaces

Cluster Elements into Chunks Store Output Store Blank Paper Enclose Printer Provide Structural Support Print Cartridge Position Cartridge In X-Axis Position Paper In Y-Axis Supply DC Power Pick Paper Control Printer Command Printer Connect to Host Communicate with Host Display Status Accept User Inputs Paper Tray Print Mechanism Logic Board Chassis Enclosure User Interface Board Host Driver Software Power Cord and Brick Functional or Physical Elements Chunks

Geometric layout Key considerations when creating a rough geometric layout include: Identification of fundamental and incidental interactions – Fundamental interactions Ex.: H-P printer Sheets of paper flow from the paper tray to print mechanism. – Incidental interactions Ex.: Vibration induced by the actuators in paper tray may interfere with precision positioning of print cartridge (x-axis)

Geometric Layout

Incidental Interactions Enclosure Paper Tray Chassis Print Mechanism User Interface Board Logic Board Power Cord and Brick Host Driver Software Styling Vibration Thermal Distortion RF Interference RF Shielding

System Team Assignment Based on Product Architecture From Innovation at the Speed of Information, S. Eppinger, HBR, January 2001.

Variety and supply chain considerations

Exercise; what about your product? Do it for your product! Go through the 4 steps Is it modular? Any opportunity for postponement?

Fundamental Decisions Integral vs. modular architecture? What type of modularity? How to assign functions to chunks? How to assign chunks to teams? Which chunks to outsource?

Practical Concerns Planning is essential to achieve the desired variety and product change capability. Coordination is difficult, particularly across teams, companies, or great distances. Special attention must be paid to handle complex interactions between chunks (system engineering methods).

Product Architecture: Conclusions Architecture choices define the sub-systems and modules of the product platform or family. Architecture determines: – ease of production variety – feasibility of customer modification – system-level production costs Key Concepts: – modular vs. integral architecture – clustering into chunks – planning product families

Summary Product architecture decisions affect product change, product variety, component standardization, product performance, manufacturability, and PD management. A key characteristic of a product architecture is the degree to which it is modular or integral