VIPSolutions logo ✨ VIPSolutions

The M - N plant manufactures two different products: M and N . Selling prices and weekly market demands are shown in the following diagram. Each product uses raw materials with costs as shown. The plant has three different machines: A , B , and C . Each performs different tasks and can work on only one unit of material at a time. Resources: A , B , C ( one each ) Availability: 2 , 4 0 0 min. / week Operating expense: $ 1 2 , 0 0 0 / week Product M $ 1 9 0 / unit 1 0 0 units / week Product N $ 2 0 0 / unit 8 0 units / week 1 5 min. / unit с 1 5 min. / unit А 2 0 min. / unit B 5 min. / unit B 5 min. / unit RM - 1 $ 6 0 / unit RM - 2 $ 4 0 / unit RM - 3 $ 5 5 / unit Process times for each task are shown in the diagram. Each machine is available 2 , 4 0 0 minutes per week. There are no "Murphys" ( major opportunities for the system to foul up ) . Setup and transfer times are zero. Demand is constant. Operating expenses ( including labor ) total a constant $ 1 2 , 0 0 0 per week. Raw materials are not included in weekly operating expenses. a . Which machine is the constraint in this plant? Machine A О О О Machine C Machine B b . Which product mix provides the highest gross profit? ( Hint: consider raw material cost but not operating expense ) Product mix Product M units Product N units c . What is the maximum weekly net profit this plant can earn using the product mix from Part b ? ( Hint: consider operating expense and raw material cost ) Weekly net profit give correct answer and final summary

Question:

The M - N plant manufactures two different products: M and N . Selling prices and weekly market demands are shown in the following diagram. Each product uses raw materials with costs as shown. The plant has three different machines: A , B , and C . Each performs different tasks and can work on only one unit of material at a time. Resources: A , B , C ( one each ) Availability: 2 , 4 0 0 min. / week Operating expense: $ 1 2 , 0 0 0 / week Product M $ 1 9 0 / unit 1 0 0 units / week Product N $ 2 0 0 / unit 8 0 units / week 1 5 min. / unit с 1 5 min. / unit А 2 0 min. / unit B 5 min. / unit B 5 min. / unit RM - 1 $ 6 0 / unit RM - 2 $ 4 0 / unit RM - 3 $ 5 5 / unit Process times for each task are shown in the diagram. Each machine is available 2 , 4 0 0 minutes per week. There are no "Murphys" ( major opportunities for the system to foul up ) . Setup and transfer times are zero. Demand is constant. Operating expenses ( including labor ) total a constant $ 1 2 , 0 0 0 per week. Raw materials are not included in weekly operating expenses. a . Which machine is the constraint in this plant? Machine A О О О Machine C Machine B b . Which product mix provides the highest gross profit? ( Hint: consider raw material cost but not operating expense ) Product mix Product M units Product N units c . What is the maximum weekly net profit this plant can earn using the product mix from Part b ? ( Hint: consider operating expense and raw material cost ) Weekly net profit give correct answer and final summary

This is AI generated Response.
Asked by: sreegeeth
Created at: 2025-09-03 11:41:33

Final Answer:

Rendered Raw Text
Did you like this answer?
Let's solve the problem step by step. --- ### **Given Data** #### **Products** - Product M: - Selling Price = $190/unit - Max Demand = 100 units/week - Product N: - Selling Price = $200/unit - Max Demand = 80 units/week #### **Raw Materials (RM) Costs** - Product M: - RM-1 = $60/unit - RM-2 = $55/unit - Product N: - RM-1 = $60/unit - RM-3 = $40/unit #### **Machine Times per Unit** | Machine | Product M | Product N | |---------|-----------|-----------| | A | 15 min | 15 min | | B | 20 min | 5 min | | C | --- | 5 min | #### **Resources** - Each machine available: 2,400 min/week - Operating expenses: $12,000/week (fixed, not included in RM costs) - Ignore setup and transfer times --- ## **a. Which machine is the constraint?** Let's calculate the total machine time required for each machine if we produce the maximum demand for both products. #### **Machine A** - Product M: 15 min/unit × 100 units = 1,500 min - Product N: 15 min/unit × 80 units = 1,200 min - **Total: 1,500 + 1,200 = 2,700 min** (Exceeds 2,400 min available) #### **Machine B** - Product M: 20 min/unit × 100 units = 2,000 min - Product N: 5 min/unit × 80 units = 400 min - **Total: 2,000 + 400 = 2,400 min** (Exactly at capacity) #### **Machine C** - Product M: 0 min - Product N: 5 min/unit × 80 units = 400 min - **Total: 400 min** (Much less than 2,400 min) **Conclusion:** - **Machine A requires 2,700 min** (over capacity, so this is the constraint). - Machine B requires 2,400 min (at capacity, but not over). - Machine C requires only 400 min. > **Machine A is the constraint.** --- ## **b. Which product mix provides the highest gross profit?** ### **Step 1: Calculate Unit Contribution Margin (Gross Profit per Unit)** #### **Product M** - Revenue: $190 - RM-1: $60 - RM-2: $55 - **Total RM cost:** $115 - **Gross Profit per unit:** $190 - $115 = **$75** #### **Product N** - Revenue: $200 - RM-1: $60 - RM-3: $40 - **Total RM cost:** $100 - **Gross Profit per unit:** $200 - $100 = **$100** --- ### **Step 2: Gross Profit per minute ON THE CONSTRAINT (Machine A)** Both products use 15 min per unit on Machine A. - Product M: $75 / 15 min = **$5.00 per min** - Product N: $100 / 15 min = **$6.67 per min** **Product N generates more gross profit per minute on the constraint.** --- ### **Step 3: Find the Best Product Mix** - **Maximize Product N:** - Max demand = 80 units - Minutes required on Machine A = 80 × 15 = 1,200 min - **Minutes left for Product M:** - Machine A capacity = 2,400 min - Used for N = 1,200 min - Remaining = 1,200 min - **Product M units possible:** - 1,200 min ÷ 15 min/unit = 80 units - **But Product M max demand is 100 units, so 80 units is ok.** **Optimal Product Mix:** - **Product N:** 80 units/week (full demand) - **Product M:** 80 units/week (limited by machine A) --- ## **c. What is the maximum weekly net profit using the above mix?** ### **Step 1: Calculate Gross Profit** - **Product N:** 80 units × $100 = $8,000 - **Product M:** 80 units × $75 = $6,000 - **Total Gross Profit:** $8,000 + $6,000 = $14,000 ### **Step 2: Net Profit (after operating expenses)** - Operating Expenses: $12,000/week - **Net Profit = Gross Profit - Operating Expenses** - **Net Profit = $14,000 - $12,000 = $2,000** --- ## **Final Summary Table** | Question | Answer | |----------|--------| | a. Which machine is the constraint? | **Machine A** | | b. Which product mix provides the highest gross profit? | **80 units of M, 80 units of N per week** | | c. What is the maximum weekly net profit using this mix? | **$2,000 per week** | --- ## **Final Answers** ### a. Which machine is the constraint in this plant? > **Machine A** ### b. Which product mix provides the highest gross profit? > **Product Mix:** > Product M: **80 units** > Product N: **80 units** ### c. What is the maximum weekly net profit this plant can earn using the product mix from Part b? > **Weekly net profit:** **$2,000**

Question:

try again

This is AI generated Response.
Asked by: sreegeeth
Created at: 2025-09-03 11:47:13

Final Answer:

Rendered Raw Text
Did you like this answer?
Let's analyze the problem step by step carefully to identify the correct answers. --- ### **Given Data Recap** **Products:** - **Product M:** - Selling Price = $190/unit - Demand = 100 units/week - **Product N:** - Selling Price = $200/unit - Demand = 80 units/week **Raw Materials and Costs:** - **Product M:** - RM-1 = $60/unit - RM-2 = $55/unit - **Product N:** - RM-1 = $60/unit - RM-3 = $40/unit **Machine Times per Unit:** | Machine | Product M | Product N | |---------|--------------|--------------| | A | 15 min | 15 min | | B | 20 min | 5 min | | C | --- | 5 min | **Resources and Costs:** - Each machine available: 2,400 min/week - Operating expenses: $12,000/week (fixed, excludes raw materials) - No setup/transfer times --- ## **a. Which machine is the constraint?** ### Step 1: Calculate total time required if producing maximum demand for both products: - **Machine A:** - Product M: 15 min × 100 units = 1,500 min - Product N: 15 min × 80 units = 1,200 min - **Total:** 1,500 + 1,200 = **2,700 min** (> 2,400 min capacity) - **Machine B:** - Product M: 20 min × 100 units = 2,000 min - Product N: 5 min × 80 units = 400 min - **Total:** 2,000 + 400 = **2,400 min** (equals capacity) - **Machine C:** - Product N only: 5 min × 80 units = 400 min ### **Conclusion:** - **Machine A** requires **2,700 min**, which exceeds capacity → **Machine A is the bottleneck.** --- ## **b. Which product mix provides the highest gross profit?** ### Step 1: Calculate **gross profit per unit** (ignoring operating costs): - **Product M:** - Revenue = $190 - Raw material costs = $60 + $55 = $115 - **Gross profit per unit:** $190 - $115 = **$75** - **Product N:** - Revenue = $200 - Raw material costs = $60 + $40 = $100 - **Gross profit per unit:** $200 - $100 = **$100** ### Step 2: Calculate **gross profit per minute** on the **constraint machine (Machine A)**: - Both products take 15 min per unit on Machine A. | Product | Gross profit per unit | Profit per minute (on Machine A) | |---------|-----------------------|-----------------------------------| | M | $75 | $75 / 15 min = **$5.00/min** | | N | $100 | $100 / 15 min = **$6.67/min** | **Product N** yields a higher gross profit per minute on the constraint. ### Step 3: Maximize profit on the constraint (Machine A): - To get maximum profit, prioritize **Product N** (profit per minute = $6.67). - **Maximum units of N on Machine A:** - Capacity = 2,400 min/week - Units = 2,400 min / 15 min per unit = **160 units** - But demand for Product N = 80 units (max demand), so produce **80 units** of N. - **Remaining time on Machine A:** - Used for N: 80 × 15 = 1,200 min - Remaining capacity: 2,400 - 1,200 = 1,200 min - **Produce Product M with remaining time:** - Units of M = 1,200 min / 15 min per unit = **80 units** - **Check demands:** - Demand for M: 100 units, but produce only 80 units (limited by capacity) - Demand for N: 80 units, fully met ### **Optimal product mix:** - **Product N:** 80 units - **Product M:** 80 units --- ## **c. What is the maximum weekly net profit?** ### Step 1: Calculate gross profit for this mix: - **Product N:** 80 units × $100 = **$8,000** - **Product M:** 80 units × $75 = **$6,000** - **Total gross profit:** **$8,000 + $6,000 = $14,000** ### Step 2: Subtract operating expenses: - Operating expenses = $12,000 - **Net profit = $14,000 - $12,000 = $2,000** --- ## **Final Summary** | Question | Answer | |----------|--------| | a. Which machine is the constraint? | **Machine A** | | b. Which product mix provides the highest gross profit? | **80 units of N, 80 units of M** | | c. What is the maximum weekly net profit? | **$2,000** | --- ## **Final statements:** **a.** Machine A is the constraint because producing the maximum demand for both products exceeds its capacity. **b.** To maximize gross profit, produce **80 units of Product N** (highest profit per minute) and **80 units of Product M** within the constraint. **c.** The maximum weekly net profit achievable with this mix is **$2,000**. --- **Note:** If demand or capacity were different, the optimal mix might change, but based on the analysis, this is the best solution.

📢 Instructions:

  • Ask anything relatd to above question only.
  • For new Question goto :

Study Help, Fast Answers

VIPSolutions focuses on clear, step‑by‑step explanations so you can learn quickly. Whether you need an AI‑generated walkthrough or a short hint to get unstuck, each solution is organized for fast reading and easy review later.

Search similar questions, compare approaches, and bookmark the best answers for revision. Our goal is simple: quick, reliable study help that feels natural—not noisy.