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Technology decisions involve large sums of money and have a tremendous impact on the cost, speed, quality, and flexibility of operations. |
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More importantly, they define the future capabilities of a firm and set the stage for competitive interactions. |
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Thus, it is dangerous to delegate technology decisions to technical experts or financial analysts. |
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A manager's ability to ask questions and understand the basic thrust of proposed technology is invaluable in making wise technology choices. |
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In this section we discuss the financial justification of new technology, followed by a brief technology primer. |
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After it is decided that a part will be produced or service produced in-house, specific technology decisions can be made. |
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Alternatives include using, replacing, or upgrading existing equipment, adding additional capacity, or purchasing new equipment. |
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Any alternative that involves an outlay of funds is considered a capital investment. |
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Capital investment involves the commitment of funds in the present with an expectation of returns over some future time period. |
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The expenditures are usually large and can have a significant effect on the profitability of a firm. |
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These decisions are analyzed carefully and typically require top management approval. |
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The most effective quantitative techniques for capital investment consider the time value of money as well as the risks associated with benefits that will not accrue until the future. |
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These techniques, known collectively as capital budgeting techniques, include payback period, net present value, and internal rate of return. |
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Detailed description can be found in any basic finance text. |
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Although capital budgeting techniques are beyond the scope of this topic, we do need to comment on several factors that are often overlooked in the financial analysis of technology. |
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Purchase cost: |
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The initial investment in equipment consists of more than its basic purchase price. | |
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The cost of special tools and fixtures, installation, training, maintenance, and engineering or programming adjustments can represent an significant investment. | |
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Operating costs are often underestimated as well. |
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Operating costs: |
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To assess more accurately the requirements of the new technology, it is useful to consider, step-by-step, how the equipment will be operated, started, stopped, loaded, unloaded, changed over, upgraded, networked, maintained, repaired, cleaned up, and slowed down. |
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Annual savings: |
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Most new technology is justified based on direct labor savings. | |
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However, other savings can actually be more important. | |
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For example, a more efficient process may be able to use less material and required less machine time or fewer repairs, so the downtime is reduced. | |
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A process that produces a better-quality product can result in fewer inspections and less scrap and rework. | |
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New processes (especially those that are automated) may significantly reduce safety costs, in terms of compliance with required regulations, as well as fines or compensation for safety violations. |
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Revenue enhancement: |
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Increases in revenue due to technology upgrades or new-equipment purchases are often ignored in financial analysis because they are difficult to predict. | |
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Improvements in product quality, price reductions due to decreased costs, and more rapid or dependable delivery can increase market share and, thus, revenue. | |
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Flexibility of equipment can also be important to the changing needs of the customer. |
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Replacement analysis: |
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As existing equipments ages, it may become slower, less reliable, and obsolete. | |
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The decision to replace old equipment with state-of-the-art equipment depends in large measure on the competitive environment. | |
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If a major competitor upgrades to a newer technology that improve quality, cost, or flexibility and you do not, your ability to compete will be severely damaged. | |
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In some industries, technology changes so rapidly that a replacement decision also involves determining whether this generation of equipment should be purchased or if it would be better to wait for the next generation. |
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Replacement analysis maps out different schedules for equipment purchases over a two to five year period and selects a replacement cycle that will minimize cost. |
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Risk and uncertainty: |
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Investment in new technology can be risky. | |
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Estimates of equipment capabilities, length of life, and operating cost may be uncertain. | |
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Because of the risk involved, financial analysts tend to assign higher hurdle rates (i.e. required rates of return) to technology investments, making it difficult to gain approval for them. |
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Placement analysis: |
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Investment in equipment and new technology is also expensive. | |
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This has led to the proposal and evaluation of equipment purchases in a piecemeal fashion, resulting in pieces of technology that don't fit into existing system and fail to deliver returns. |
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Technology is important in both manufacturing and service operations. |
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Cars now have hundreds of embedded systems performing thousands of computerized functions. |
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Pacemakers, vending machines, Xerox copiers, and store shelves notify the manufacturer when repairs or restocking are needed. |
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Coming soon are clothes that measure the wearer's vital statistics and notify a physician or change medication regimes when necessary, and refrigerators that pre-order ingredients to match weekly menus or order milk when the supply is low. |
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In this section, we present a brief overview of technology advances in manufacturing systems. |
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Technology in manufacturing includes computer aided design, robots, automated guided vehicles, computer numerically controlled machines, automated storage and retrieval systems, and flexible manufacturing systems. |
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Automated manufacturing systems integrated through computer technology are aptly called computer-integrated manufacturing (CIM). |
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With the advent of the Internet and the increased globalization of both markets and production, CIM has evolved into a Web-centric collaborative venture known as e-manufacturing (eM). |
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E-manufacturing involves sharing real-time data with trading partners and customers and making collaborative decisions about production based on that data. |
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In order to collaborate, information must be converted onto electronic form, protocols for communication must be established, and infrastructure must be in place for connectivity with customers, suppliers, and partners. |
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Rather than making huge volumes of standard products in anticipation of demand, e-manufacturing uses real [time information on customer orders and productive capacity across the supply chain to speed customized products directly to the consumer. |
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Figure 5.13 shows the components of e-manufacturing categorized by product, process, manufacturing, and information technologies. |
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Table 5.5 serves as a technology primer, briefly defining the terms listed in the figure. |