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- 공학 >산업 >산업공학
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- 강의학기
- 2016년 2학기
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- 강의계획서
- 강의계획서
생산 및 서비스시스템 분석에 있어 확률적 요소 (예를 들어, 확률적인 수요)를 고려하는 것은 매우 중요하다. 본 과목에서는 확률적 요소가 내재된 시스템을 정량적으로 분석/설계/운영하는 방법을 주로 다루며, 대상 시스템은 생산/물류/서비스 시스템을 다룬다.
차시별 강의
| 1. | ![]() |
Newsvendor Problem 1 | Design, analyze, and manage a manufacturing or service system with uncertainty. Solve a single period decision problem containing uncertainty or randomness. | ![]() |
| 2. | ![]() |
Newsvendor Problem 2 | Design, analyze, and manage a manufacturing or service system with uncertainty. Solve a single period decision problem containing uncertainty or randomness. | ![]() |
| 3. | ![]() |
Newsvendor Problem 3 | Design, analyze, and manage a manufacturing or service system with uncertainty. Solve a single period decision problem containing uncertainty or randomness. | ![]() |
| 4. | ![]() |
Discrete Time Markov Chain 1 | How to manage uncertainty when you are selling perishable items. How should we Model di erently if we are running a business dealing with durable or non-perishable goods? | ![]() |
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Discrete Time Markov Chain 1 | How to manage uncertainty when you are selling perishable items. How should we Model di erently if we are running a business dealing with durable or non-perishable goods? | ![]() |
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Discrete Time Markov Chain 1 | How to manage uncertainty when you are selling perishable items. How should we Model di erently if we are running a business dealing with durable or non-perishable goods? | ![]() |
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| 5. | ![]() |
Discrete Time Markov Chain 2 | How to manage uncertainty when you are selling perishable items. How should we Model di erently if we are running a business dealing with durable or non-perishable goods? | ![]() |
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Discrete Time Markov Chain 2 | How to manage uncertainty when you are selling perishable items. How should we Model di erently if we are running a business dealing with durable or non-perishable goods? | ![]() |
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| 6. | ![]() |
Discrete Time Markov Chain 2 | How to manage uncertainty when you are selling perishable items. How should we Model di erently if we are running a business dealing with durable or non-perishable goods? | ![]() |
![]() |
Discrete Time Markov Chain 2 | How to manage uncertainty when you are selling perishable items. How should we Model di erently if we are running a business dealing with durable or non-perishable goods? | ![]() |
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Discrete Time Markov Chain 2 | How to manage uncertainty when you are selling perishable items. How should we Model di erently if we are running a business dealing with durable or non-perishable goods? | ![]() |
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| 7. | ![]() |
Discrete Time Markov Chain 3 | How to manage uncertainty when you are selling perishable items. How should we Model di erently if we are running a business dealing with durable or non-perishable goods? | ![]() |
| 8. | ![]() |
Poisson Process 1 | The way we modeled was to denote the inter-arrival times between customers by a random variable and assumed that the random variable has a exponential distribution. | ![]() |
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Poisson Process 1 | The way we modeled was to denote the inter-arrival times between customers by a random variable and assumed that the random variable has a exponential distribution. | ![]() |
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| 9. | ![]() |
Poisson Process 2 | a special case: the case where the inter-arrival times follow iid exponential distribution. We will learn how it is different from other distributions. | ![]() |
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Poisson Process 2 | a special case: the case where the inter-arrival times follow iid exponential distribution. We will learn how it is different from other distributions. | ![]() |
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| 10. | ![]() |
Continuous Time Markov Chain 1 | The time period is discretized so that time is denoted by integers. Consider discrete‐time stochastic process having discrete state space | ![]() |
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Continuous Time Markov Chain 1 | The time period is discretized so that time is denoted by integers. Consider discrete‐time stochastic process having discrete state space | ![]() |
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Continuous Time Markov Chain 1 | The time period is discretized so that time is denoted by integers. Consider discrete‐time stochastic process having discrete state space | ![]() |
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Continuous Time Markov Chain 1 | The time period is discretized so that time is denoted by integers. Consider discrete‐time stochastic process having discrete state space | ![]() |
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| 11. | ![]() |
Continuous Time Markov Chain 2 | A stochastic process is a continuous time Markov chain with state space | ![]() |
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Continuous Time Markov Chain 2 | A stochastic process is a continuous time Markov chain with state space | ![]() |
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| 12. | ![]() |
Queueing basics 1 | Queueing theory deals with a set of systems having waiting space. Analyzing a simple queue, a set of queues connected with each other will be covered as well in the end. | ![]() |
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Queueing basics 2 | Design the system. How can we determine the number of server and customer, size of waiting capacity? | ![]() |
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Queueing basics 2 | Design the system. How can we determine the number of server and customer, size of waiting capacity? | ![]() |
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Queueing basics 2 | Design the system. How can we determine the number of server and customer, size of waiting capacity? | ![]() |
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| 14. | ![]() |
Queueing basics 3 | How does the system perform? For example that Utilization of servers, Average waiting time in queue, Average staying time in the system | ![]() |
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Queueing basics 4 | Case study | ![]() |
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Queueing basics 4 | Case study | ![]() |
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