Q1.Whitson Co. is looking for ways to shorten its cash conversion cycle. It has annual sales of $45,625,000, or $125,000 a day on a 365-day basis. The firm's cost of goods sold is 80% of sales. On average, the company has $7,500,000 in inventory, $5,750,000 in accounts receivable, and $2,750,000 in accounts payable. Its CFO has proposed new policies that would result in a 25% reduction in both average inventories and accounts receivable, and a 10% increase in average accounts payable. She also anticipates that these policies would reduce sales by 5%. What effect would these policies have on the company's cash conversion cycle?
Q2.Newsome Inc. buys on terms of 4/10, net 45. It does not take the discount, and it generally pays after 65 days. What is the effective (not nominal) annual percentage cost of its non-free trade credit, based on a 365-day year?
In: Finance
You are considering buying a vehicle to use in your daily errands. A used vehicle will cost EGP85,000 and have a EGP20,000 market (salvage) value after a 5 years useful life, and consumes 2 liters of fuel per 10 km travelled. A new vehicle will cost EGP130,000 and have a EGP40,000 market value after a 6 years useful life. The new vehicle is expected to reduce fuel consumption compared with the used vehicle. You expect to drive the vehicle 18,000 km per year. Fuel costs EGP8/liter and the interest rate is 15% per year.
a) If the new vehicle is expected to reduce fuel consumption by 10% compared with
the used vehicle, which vehicle should you buy?
b) What is the percent reduction in the fuel consumption by the new vehicle that
would reverse the decision you made in part (a)?
c) Determine the percentage change in the salvage value of the new vehicle that
would reverse the decision made in part(a)?
In: Civil Engineering
Consolidated Inc. uses a weighted average cost of capital of 12% to evaluate average-risk projects and adds/subtracts two percentage points to evaluate projects of greater/lesser risk. Currently, two mutually exclusive projects are under consideration. Both have a cost of $200,000 and last four years. Project A, which is riskier than average, will produce annual after-tax cash flows of $71,000. Project B, which has less-than-average risk, will produce after-tax cash flows of $146,000 in Years 3 and 4 only. What should Consolidated do?
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In: Finance
I need the NPV of this project. Tax Rate is 40% and the WACC is 11.49%
This project requires an initial investment of $2,000,000 in
equipment which will cost an additional $250,000 to install. The
firm will use the attached MACRS depreciation schedule to expense
this equipment. Once the equipment is installed, the company will
need to increase net working capital by $100,000. The project will
last 6 years at which time the market value for the equipment will
be $30,000.
The project will project a product with a sales price of $120.00
per unit and the variable cost per unit will be $65.00. The fixed
costs would be $500,000 per year. Because this project is very
different to current products sold by the business, management has
imposed a 2 percentage point premium above its current WACC as the
valuation hurdle it must meet or surpass.
Years 2014 2015 2016 2017 2018 2019 Forecasted Units Sold 21,000
55,000 44,000 28,000 25,000 11,000
In: Finance
Approximately Relevant ABC
Reducir, Inc., produces two different types of hydraulic cylinders. Reducir produces a major subassembly for the cylinders in the Cutting and Welding Department. Other parts and the subassembly are then assembled in the Assembly Department. The activities, expected costs, and drivers associated with these two manufacturing processes are given below.
| Process | Activity | Cost | Activity Driver | Expected Quantity |
| Cutting and Welding | Welding | $ 776,000 | Welding hours | 4,000 |
| Machining | 450,000 | Machine hours | 10,000 | |
| Inspecting | 448,250 | No. of inspections | 1,000 | |
| Materials handling | 300,000 | No. of batches | 12,000 | |
| Setups | 240,000 | No. of setups | 100 | |
| $2,214,250 | ||||
| Assembly | Changeover | $ 180,000 | Changeover hours | 1,000 |
| Rework | 61,750 | Rework orders | 50 | |
| Testing | 300,000 | No. of tests | 750 | |
| Materials handling | 380,000 | No. of parts | 50,000 | |
| Engineering support | 130,000 | Engineering hours | 2,000 | |
| $1,051,750 |
Other overhead activities, their costs, and drivers are listed below.
| Activity | Cost | Activity Driver | Quantity |
| Purchasing | $ 135,000 | Purchase requisitions | 500 |
| Receiving | 274,000 | Receiving orders | 2,000 |
| Paying suppliers | 225,000 | No. of invoices | 1,000 |
| Providing space and utilities | 100,000 | Machine hours | 10,000 |
| Total | $ 734,000 |
Other production information concerning the two hydraulic cylinders is also provided:
| Cylinder A | Cylinder B | ||||
| Units produced | 1,500 | 3,000 | |||
| Welding hours | 1,600 | 2,400 | |||
| Machine hours | 3,000 | 7,000 | |||
| Inspections | 500 | 500 | |||
| Moves | 7,200 | 4,800 | |||
| Batches | 45 | 55 | |||
| Changeover hours | 540 | 460 | |||
| Rework orders | 5 | 45 | |||
| No. of tests | 500 | 250 | |||
| Parts | 40,000 | 10,000 | |||
| Engineering hours | 1,500 | 500 | |||
| Requisitions | 425 | 75 | |||
| Receiving orders | 1,800 | 200 | |||
| Invoices | 650 | 350 |
| Process | Activity | Cost |
| Cutting and Welding | Welding | $ 2,000,000 |
| Machining | 1,000,000 | |
| Inspecting | 50,000 | |
| Materials handling | 72,000 | |
| Setups | 400,000 | |
| $3,522,000 | ||
| Assembly | Changeover | $ 28,000 |
| Rework | 50,000 | |
| Testing | 40,000 | |
| Materials handling | 60,000 | |
| Engineering support | 70,000 | |
| $248,000 |
Other overhead activities:.
| Activity | Cost |
| Purchasing | $ 50,000 |
| Receiving | 70,000 |
| Paying suppliers | 80,000 |
| Providing space and utilities | 30,000 |
| $230,000 |
The per unit overhead cost using the 14 activity-based drivers is $1,108 and $779 for Cylinder A and Cylinder B, respectively.
Required:
1. Determine the percentage of total costs represented by the three most expensive activities.
85%
2. If required, round your interim calculations
and final answers to the nearest dollar.
Allocate the costs of all other activities to the three activities
identified in Requirement 1 in proportion to their individual
activity costs.
| Allocation | |
| Welding | $352,941 |
| Machining | $176,471 |
| Setups | $70,588 |
Calculate the total activity costs of all the three activities.
| Cost pools | |
| Welding | $2,352,941 |
| Machining | $1,176,471 |
| Setups | $470,588 |
| Activity Rates | ||
| Welding | $588 | per welding hour |
| Machining | $118 | per machine hour |
| Setups | $4706 | per batch |
Now assign these total costs to the products using the drivers of the three chosen activities.
| Cylinder A | Cylinder B | |||
| Rate 1 (welding) | $ | $ | ||
| Rate 2 (machining) | $ | $ | ||
| Rate 3 (setups) | $ | $ | ||
| Total overhead costs | $ | $ | ||
| Unit overhead costs | $ | $ | ||
3. Using the costs assigned in Requirement 2, calculate the percentage error using the ABC costs as a benchmark. Round your answers to one decimal place. If an item is negative, use a minus (-) sign to indicate.
| Percentage error | |
| Cylinder A | % |
| Cylinder B | % |
In: Accounting
Approximately Relevant ABC
Reducir, Inc., produces two different types of hydraulic cylinders. Reducir produces a major subassembly for the cylinders in the Cutting and Welding Department. Other parts and the subassembly are then assembled in the Assembly Department. The activities, expected costs, and drivers associated with these two manufacturing processes are given below.
| Process | Activity | Cost | Activity Driver | Expected Quantity |
| Cutting and Welding | Welding | $ 776,000 | Welding hours | 4,000 |
| Machining | 450,000 | Machine hours | 10,000 | |
| Inspecting | 448,250 | No. of inspections | 1,000 | |
| Materials handling | 300,000 | No. of batches | 12,000 | |
| Setups | 240,000 | No. of setups | 100 | |
| $2,214,250 | ||||
| Assembly | Changeover | $ 180,000 | Changeover hours | 1,000 |
| Rework | 61,750 | Rework orders | 50 | |
| Testing | 300,000 | No. of tests | 750 | |
| Materials handling | 380,000 | No. of parts | 50,000 | |
| Engineering support | 130,000 | Engineering hours | 2,000 | |
| $1,051,750 |
Other overhead activities, their costs, and drivers are listed below.
| Activity | Cost | Activity Driver | Quantity |
| Purchasing | $ 135,000 | Purchase requisitions | 500 |
| Receiving | 274,000 | Receiving orders | 2,000 |
| Paying suppliers | 225,000 | No. of invoices | 1,000 |
| Providing space and utilities | 100,000 | Machine hours | 10,000 |
| Total | $ 734,000 |
Other production information concerning the two hydraulic cylinders is also provided:
| Cylinder A | Cylinder B | ||||
| Units produced | 1,500 | 3,000 | |||
| Welding hours | 1,600 | 2,400 | |||
| Machine hours | 3,000 | 7,000 | |||
| Inspections | 500 | 500 | |||
| Moves | 7,200 | 4,800 | |||
| Batches | 45 | 55 | |||
| Changeover hours | 540 | 460 | |||
| Rework orders | 5 | 45 | |||
| No. of tests | 500 | 250 | |||
| Parts | 40,000 | 10,000 | |||
| Engineering hours | 1,500 | 500 | |||
| Requisitions | 425 | 75 | |||
| Receiving orders | 1,800 | 200 | |||
| Invoices | 650 | 350 |
| Process | Activity | Cost |
| Cutting and Welding | Welding | $ 2,000,000 |
| Machining | 1,000,000 | |
| Inspecting | 50,000 | |
| Materials handling | 72,000 | |
| Setups | 400,000 | |
| $3,522,000 | ||
| Assembly | Changeover | $ 28,000 |
| Rework | 50,000 | |
| Testing | 40,000 | |
| Materials handling | 60,000 | |
| Engineering support | 70,000 | |
| $248,000 |
Other overhead activities:.
| Activity | Cost |
| Purchasing | $ 50,000 |
| Receiving | 70,000 |
| Paying suppliers | 80,000 |
| Providing space and utilities | 30,000 |
| $230,000 |
The per unit overhead cost using the 14 activity-based drivers is $1,108 and $779 for Cylinder A and Cylinder B, respectively.
Required:
1. Determine the percentage of total costs represented by the three most expensive activities.
%
2. If required, round your interim calculations
and final answers to the nearest dollar.
Allocate the costs of all other activities to the three activities
identified in Requirement 1 in proportion to their individual
activity costs.
| Allocation | |
| Welding | $ |
| Machining | $ |
| Setups | $ |
Calculate the total activity costs of all the three activities.
| Cost pools | |
| Welding | $ |
| Machining | $ |
| Setups | $ |
| Activity Rates | ||
| Welding | $ | per welding hour |
| Machining | $ | per machine hour |
| Setups | $ | per batch |
Now assign these total costs to the products using the drivers of the three chosen activities.
| Cylinder A | Cylinder B | |||
| Rate 1 (welding) | $ | $ | ||
| Rate 2 (machining) | $ | $ | ||
| Rate 3 (setups) | $ | $ | ||
| Total overhead costs | $ | $ | ||
| Unit overhead costs | $ | $ | ||
3. Using the costs assigned in Requirement 2, calculate the percentage error using the ABC costs as a benchmark. Round your answers to one decimal place. If an item is negative, use a minus (-) sign to indicate.
| Percentage error | |
| Cylinder A | % |
| Cylinder B | % |
In: Accounting
Approximately Relevant ABC
Reducir, Inc., produces two different types of hydraulic cylinders. Reducir produces a major subassembly for the cylinders in the Cutting and Welding Department. Other parts and the subassembly are then assembled in the Assembly Department. The activities, expected costs, and drivers associated with these two manufacturing processes are given below.
| Process | Activity | Cost | Activity Driver | Expected Quantity |
| Cutting and Welding | Welding | $ 776,000 | Welding hours | 4,000 |
| Machining | 450,000 | Machine hours | 10,000 | |
| Inspecting | 448,250 | No. of inspections | 1,000 | |
| Materials handling | 300,000 | No. of batches | 12,000 | |
| Setups | 240,000 | No. of setups | 100 | |
| $2,214,250 | ||||
| Assembly | Changeover | $ 180,000 | Changeover hours | 1,000 |
| Rework | 61,750 | Rework orders | 50 | |
| Testing | 300,000 | No. of tests | 750 | |
| Materials handling | 380,000 | No. of parts | 50,000 | |
| Engineering support | 130,000 | Engineering hours | 2,000 | |
| $1,051,750 |
Other overhead activities, their costs, and drivers are listed below.
| Activity | Cost | Activity Driver | Quantity |
| Purchasing | $ 135,000 | Purchase requisitions | 500 |
| Receiving | 274,000 | Receiving orders | 2,000 |
| Paying suppliers | 225,000 | No. of invoices | 1,000 |
| Providing space and utilities | 100,000 | Machine hours | 10,000 |
| Total | $ 734,000 |
Other production information concerning the two hydraulic cylinders is also provided:
| Cylinder A | Cylinder B | ||||
| Units produced | 1,500 | 3,000 | |||
| Welding hours | 1,600 | 2,400 | |||
| Machine hours | 3,000 | 7,000 | |||
| Inspections | 500 | 500 | |||
| Moves | 7,200 | 4,800 | |||
| Batches | 45 | 55 | |||
| Changeover hours | 540 | 460 | |||
| Rework orders | 5 | 45 | |||
| No. of tests | 500 | 250 | |||
| Parts | 40,000 | 10,000 | |||
| Engineering hours | 1,500 | 500 | |||
| Requisitions | 425 | 75 | |||
| Receiving orders | 1,800 | 200 | |||
| Invoices | 650 | 350 |
| Process | Activity | Cost |
| Cutting and Welding | Welding | $ 2,000,000 |
| Machining | 1,000,000 | |
| Inspecting | 50,000 | |
| Materials handling | 72,000 | |
| Setups | 400,000 | |
| $3,522,000 | ||
| Assembly | Changeover | $ 28,000 |
| Rework | 50,000 | |
| Testing | 40,000 | |
| Materials handling | 60,000 | |
| Engineering support | 70,000 | |
| $248,000 |
Other overhead activities:.
| Activity | Cost |
| Purchasing | $ 50,000 |
| Receiving | 70,000 |
| Paying suppliers | 80,000 |
| Providing space and utilities | 30,000 |
| $230,000 |
The per unit overhead cost using the 14 activity-based drivers is $1,108 and $779 for Cylinder A and Cylinder B, respectively.
Required:
1. Determine the percentage of total costs represented by the three most expensive activities.
%
2. If required, round your interim calculations
and final answers to the nearest dollar.
Allocate the costs of all other activities to the three activities
identified in Requirement 1 in proportion to their individual
activity costs.
| Allocation | |
| Welding | $ |
| Machining | $ |
| Setups | $ |
Calculate the total activity costs of all the three activities.
| Cost pools | |
| Welding | $ |
| Machining | $ |
| Setups | $ |
| Activity Rates | ||
| Welding | $ | per welding hour |
| Machining | $ | per machine hour |
| Setups | $ | per batch |
Now assign these total costs to the products using the drivers of the three chosen activities.
| Cylinder A | Cylinder B | |||
| Rate 1 (welding) | $ | $ | ||
| Rate 2 (machining) | $ | $ | ||
| Rate 3 (setups) | $ | $ | ||
| Total overhead costs | $ | $ | ||
| Unit overhead costs | $ | $ | ||
3. Using the costs assigned in Requirement 2, calculate the percentage error using the ABC costs as a benchmark. Round your answers to one decimal place. If an item is negative, use a minus (-) sign to indicate.
| Percentage error | |
| Cylinder A | % |
| Cylinder B | % |
In: Accounting
A Question of Ethics—Breach of Contract.King County, Washington, hired Frank Coluccio Construction Co. (FCCC) to act as general contractor for a public works project involving the construction of a small utility tunnel under the Duwamish Waterway. FCCC hired Donald B. Murphy Contractors, Inc. (DBM), as a subcontractor. DBM was responsible for constructing an access shaft at the eastern end of the tunnel. Problems arose during construction, including a “blow-in” of the access shaft that caused it to fill with water, soil, and debris. FCCC and DBM incurred substantial expenses from the repairs and delays. Under the project contract, King County was supposed to buy an insurance policy to “insure against physical loss or damage by perils included under an ‘All Risk’ Builder’s Risk policy.” Any claim under this policy was to be filed through the insured. King County, which had general property damage insurance, did not obtain an all-risk builder’s risk policy. For the losses attributable to the blow-in, FCCC and DBM submitted builder’s risk claims, which the county denied. FCCC filed a suit in a Washington state court against King County, alleging, among other claims, breach of contract.
1.When FCCC and DBM file their claims, the county secretly colluded with its property damage insurer to deny payment. What do these facts indicate about the county's ethics and legal liability in this situation?
2.All-risk insurance is a promise to pay on the “fortuitous” happening of a loss or damage from any cause except those that are specifically excluded. Payment usually is not made on a loss that, at the time the insurance was obtained, the claimant subjectively knew would occur. If a loss results from faulty workmanship on the part of a contractor, should the obligation to pay under an all-risk policy be discharged? Explain.
In: Accounting
I need to determine the legal issue for the following... I am focusing on consideration, capacity and disafiemance but am confused on the termonolgy
Stacey Smith owns a lot in the hills of Pennsylvania and wants to build a house according to a particular set of plans and specifications. She solicits bids from bidding contractors and receives 3 bids: one from Carlton for $260,000 and one from Feldberg for $258,000 and one from Siegel for $253,000. She accepts Siegel’s bid, paying him in advance of his work. One month after beginning construction of the house, Siegel contacts Smith and tells her that because of inflation and a recent price hike for materials, he will not complete the construction unless Smith agrees to pay an extra $13,000. Smith reluctantly agrees to pay the additional sum. 4 months later Smith has an unfortunate accident resulting in her death. Tom, her sole survivor and her very mature and intelligent 17 year old son, who graduated from high school early and is a Senior in College, where he has completed his business law class, wants to continue live in the new home under construction, but wants to turn the property into a horse breeding ranch and build a 16 unit stable. He contacts Siegel who learns that Tom is about to graduate from college. As Siegel prepares the contract for Tom, he asks, “You are old enough to do this right?” Tom agrees he is a senior in college and signs an additional contract for the completion of a 16 unit stable for $65,000. A year later both projects are completed and Siegel asks for his final payment of $78,000. When Tom pays only $2,000, Siegel sues Tom and Stacey’s estate for the remaining $76,000.
In: Operations Management
A home owner has a utility function of U (m) =
√m, where m is income. The home owner is
considering buying flood insurance because they live near a river
that has flooded in the past. If it is a dry year, she will have an
income of $60,000 to spend on other things. If it is a rainy year
and there is a flood, then she has to pay for repairs to her house.
Then her income will only be $20,000 to spend on non-flood costs.
The probability of a flood based on historical data is 4%.
(a) (a) If the home owner can buy insurance for a premium of $0.04
per dollar of coverage, how large of an insurance policy
should the homeowner buy? Set up the expected utility
maximization problem and solve for K, the optimal
insurance policy size.
(b) Now suppose we do not know the cost of the insurance policy.
But you now know that in the event of a flood, that the insurance
policy will pay you 75% of damages. What is the maximum
amount the homeowner would be willing to pay for such an insurance
policy?
(c) Explain in words how to generally calculate expected utility. What information do you need? What terms do you multiply versus add? Be clear in your explanation.
In: Economics