A bill of material specifies all of the following except a. Lot size and lead time of each component b. When a component is needed in the assembly process c. How many of each component is needed d. A brief description of each component in the product

A bill of material specifies all of the following except a. Lot size and lead time of each component b. When a component is needed in the assembly process c. How many of each component is needed d. A brief description of each component in the product

Name: A bill of material specifies all of the following excepta. Lot size an
Uploaded: 2024-03-20T06:57:05.000Z
Channel: Bartleby
Description: A bill of material specifies all of the following excepta. Lot size and lead time of each componentb. When a component is needed in the assembly processc. How many of each component is neededd. A brief description of each component in the product

Practical Management Science

6th Edition

ISBN:9781337406659

Author:WINSTON, Wayne L.

Publisher:WINSTON, Wayne L.

Chapter4: Linear Programming Models

Section: Chapter Questions

Problem 111P

See similar textbooks

Similar questions

A machine makes two components; call them types A and B. It takes 250 seconds to switch production between the component types. During that time, no production occurs. When in production, each unit of A or B requires 0.5 second to be completed. The two components, A and B, are combined in an assembly process to make a final product; call it C. The assembly step can combine the two components into 1 unit every 2 seconds, or 30 units per minute. Assume there is ample demand. If the production schedule could be adjusted with the goal of minimizing inventory in the process, how many units of A should be produced before switching to component B? In other words, calculate the optimal batch size for component A. Assume the same number of units of B would be produced as well. answer:_______units
The bill of materials shows all the parts required to make Select one: a work-in process inventory b. the MPR c.raw materials inventory d.one item
Suppose a final assembly is produced by assembling two components. THE The first component, A, is produced internally and goes through three process steps, which are stamping, forging and machining, with scrap estimates of 10%, 15% and 25%, respectively. For every three produced units of component A, two are used in the final assembly and one is separate to meet spare parts needs. The second component, B, which is used exclusively in final assembly, is purchased from a supplier external and inspected on arrival; 2% do not pass inspection. A unit of the component purchased is required for each final assembly. The final assembly process produces 5% of scraps. Spare parts demands for component A and final Su assembly match to 1,000 and 5,000 units, respectively. How many input units are needed for produce component A, and how many units of component B should the firm buy?
These four elements make up what is often known as a machine cycle or process loop. Which parts of a machine's cycle are the most crucial? Do you have to worry about the various parts of a machine cycle needing replacement? Is there a way to solve the problem of switching between modules by adding another one to the system?
Discrete-item processing or assembly has become a dilemma and then the industrial robots have become a need. State the reason(s) for the need?
These four steps make up what is called a machine cycle but is more often known as a process loop. When it comes to machine cycles, what factors do most people prioritise? Should I be concerned that I may have to replace machine cycle parts when they wear out? Is it feasible that doubling the number of modules available would make toggling between them easier?
The following diagram represents a process where two components are made at stations A1 and A2 (one component is made at A1 and the other at A2). These components are then assembled at station B and moved through the rest of the process, where some additional work is completed at stations C, D, and E. Assume that one and only one person is allowed at each station. Assume that the times given for each station represent the amount of work that needs to be done at that station by that person, with no processing time variation. Assume that inventory is not allowed to build in the system. What is the average hourly output of the process when it is in normal operation?
The assembly time of a certain mechanism is a v.a. uniform in the range of 30 to 60 seconds. Determine:a. The expected time (in hours) to assemble 9000 parts
These four stages make up a process loop, or machine cycle. Which machine cycle parts are most appreciated? Should machine cycle components be replaced? Does adding another module help switch between them?
These four elements make up what is often known as a machine cycle or process loop. I was wondering what others thought were the most important parts of machine cycles. Do you have to worry about changing various parts of a machine cycle? Is there a way to solve the problem of switching modules by adding another module?
What is the advantage of a simple segmentation that does not require loading all of the segments of a process by including the nonresident segments automatically when needed?
This part will require you to use an indexed BOM to Create the correct MPS from the provided information create the MRP for the unit and all of its assemblies/components Bruce’s Fans has just released an order for 500 50-cm fans due week 5 and 800 50-cm fans due week 7. Each fan consists of a housing assembly, 2 grills, a fan assembly, and an electrical unit. The breakdown of the assemblies and components is shown below. Quantities are numbers within (x). Using the information from the following table and the blank MRP sheets, construct the MRP Plan for the 50-cm Fan Component Lead Time On hand Inventory Lot Size Safety Stock Scheduled Receipts 50-cm Fan 1 100 LFL Housing 1 100 LFL Frame 2 0 LFL Supports (2) 1 50 100 Handle 1 400 500 Grills (2) 2 200 500 Fan Assembly 3 150 LFL…