Western Kentucky University Global Oil Company Paper

User Generated

Sngrrz

Business Finance

Western Kentucky University

Description

Formulate a linear program which can be used to generate a comprehensive plan for the whole Far Eastern Operations. Clearly define every variable used in your formulation, and clearly write the objective and constraints in algebraic form. Then you need to use EXCEL SOLVER (or ANALYTICAL SOLVER PLATFORM) to find the optimal decision and value. Your entire report should be at most 4 pages long (Times New Roman, 12pt, double spaced).

Unformatted Attachment Preview

The Global Oil Company The Global Oil Company is an international producer, refiner, transporter and distributor of oil, gasoline and petrochemicals. Global Oil is a holding company with subsidiary operating companies that are wholly or partially owned. A major problem for Global Oil is to coordinate the actions of these various subsidiaries into an overall corporate plan, while at the same time maintaining a reasonable amount of operating autonomy for the subsidiary companies. To deal with this dilemma, Global Oil Headquarters develops an annual corporate-wide plan that provides the pattern of shipments among the various subsidiaries. The plan sets annual targets for each of the subsidiaries. It does not detail their day-to-day operations. Within the framework of this annual plan, the operating companies can make their own decisions and plans. This corporate-wide plan is presently done on a trial and error basis and, unfortunately, this has several drawbacks. First, the management of the subsidiaries often complains that the plan does not reflect properly the operating conditions under which the subsidiary operates. The plan sometimes calls for operations or distribution plans that are impossible to accomplish. Second, Global Oil’s CEO Pedro Kemikol is concerned that the plan does not optimize for the total company. In fact, Pedro Kemikol has made it his top priority to optimize the entire supply chain, from the procurement of crude oil to the distribution of gasoline at the pump. Global Oil has hired recently some young graduates from the Northwestern. They have hinted to Pedro that linear programming can be used to optimize the flow of raw materials and finished products by averaging over a year. This way, they argued, a corporate-wide annual plan would be generated based on a sound quantitative approach. Although Pedro is somewhat skeptical, he is open minded and willing to give it a try. Before embarking on the development of a world-wide model, Pedro Kemikol asks you to build a model of the Far Eastern Operations. The details of the Year 2006 planning model for the Far Eastern Operations are now described. 1     Far Eastern Operations There are two sources of crude oil, Saudi Arabia and Borneo. The Saudi crude is relatively heavier (24 API), and the Far Eastern sector could obtain as much as 80,000 barrels per day (b/d) at a cost of $62 per barrel during Year 2006. A second source of crude is from the Brunei fields in Borneo. This is a light crude oil (36 API). Under the terms of an agreement with the Netherlands Petroleum Company in Borneo, a fixed quantity of 30,000 b/d of Brunei crude, at a cost of $67 per barrel is to be supplied during Year 2006. There are two subsidiaries that have refining operations. The first is in Australia, operating a refinery in Sydney with the capacity of processing 30,000 b/d of crude. The Australian subsidiary markets its refined products throughout Australia, as well as having a surplus available for shipment to other subsidiaries. The Australian subsidiary does not import refined products. The second subsidiary is in Japan, which operates a 50,000 b/d capacity refinery. Refined products are marketed in Japan, and excess production is available for shipment to other Far Eastern subsidiaries. The Japanese subsidiary does not import refined products. In addition, there are two marketing subsidiaries without refining capacity of their own. One of these is in New Zealand and the other is in the Philippines. Their needs can be supplied by shipments from Australia, Japan, or the Global Oil subsidiary in the United States. The latter is not a regular part of the Far Eastern Operations, but may be used as a source of refined products. Finally, the company has a fleet of tankers that move the crude oil and refined products among the subsidiaries. Refinery Operations The operation of a refinery is a complex process. The characteristics of the crudes available, the desired output, the specific technology of the refinery, etc., make it difficult to use a simple model to describe the process. In fact, management at both Australia and Japan have complex linear programming models involving approximately 300 variables and 100 constraints for making detailed decisions on a daily or weekly basis. 2     For annual planning purposes the refinery model is greatly simplified. The two crudes (Saudi and Brunei) are input. Two general products are output – (a) gasoline products and (b) other products such as distillate, fuel oil, etc. In addition, although the refinery has processing flexibility that permits a wide range of yields, for planning purposes it was decided to include only the values at highest and lowest conversion rates (process intensity). Each refinery could use any combination of the two extreme intensities. These yields are shown in Table 1. The costs of operating the refinery depend somewhat upon the type of crude and process intensity. These costs are shown in Table 1. Also shown are the transportation costs from either Borneo or Saudi Arabia. Table 1: Refinery Operations Australia Japan Capacity (b/d of input) 30000 50000 Saudi Crude Transportation Cost ($/b) 0.75 0.8 High Process Intensity ($/b) 1.19 1.26 Yield of Gasoline 0.31 0.3 Yield of Distillate 0.61 0.62 Low Process Intensity ($/b) 0.89 0.88 Yield of Gasoline 0.19 0.18 Yield of Distillate 0.76 0.77 Brunei Crude Transportation Cost ($/b) 0.35 0.35 High Process Intensity ($/b) 0.93 0.91 Yield of Gasoline 0.36 0.35 Yield of Distillate 0.58 0.59 Low Process Intensity ($/b) 0.61 0.55 Yield of Gasoline 0.26 0.25 Yield of Distillate 0.72 0.73 Marketing Operations Marketing is conducted in two home areas (Australia and Japan) as well as in New Zealand and the Philippines. Demand for gasoline and distillate in all areas has been estimated for Year 2006. 3     Area Australia Japan New Zealand Philippines TOTAL Year 2006 Demand (thous. of b/d) Gasoline Distillate 6 15 8 21 5.4 14 3 8 22.4 58 The variable costs of supplying refined products to New Zealand and the Philippines are as follows: Variable costs of shipment of gasoline/distillate in $/b To: New Zealand Philippines From: Australia 0.2 0.2 Japan 0.45 0.25 Tanker Operations Tankers are used to bring crude from Saudi Arabia and Borneo to Australia and Japan and to transport refined products from Australia and Japan to New Zealand and the Philippines. The variable costs of these operations are included above. However, there is a limited capacity of tankers available. The fleet has a capacity of 6.5 equivalent (standard sized) tankers. The amount of capacity needed to deliver one barrel from one destination to another depends upon the distance traveled, port time, and other factors. The table below lists the fraction of one standard sized tanker needed to deliver 1,000 b/d over the indicated routes. Tanker Usage Factors (Fraction of Standard Sized Tanker Needed to Deliver 1000 b/d) Between and Australia Japan Saudi Arabia 0.11 0.14 Borneo 0.05 0.05 New Zealand 0.04 0.08 Philippines 0.05 0.04 4     It is also possible to charter independent tankers. The rate for this is $8,500 per day for a standard sized tanker. United States Supply United States operations on the West Coast expect a surplus of 12,000 b/d of distillate during Year 2006. The cost of distillate at the loading port of Los Angeles is $74 per barrel. There is no excess gasoline capacity. The estimated variable shipping costs and tanker requirements of distillate shipments from the United States are: New Zealand Philippines Variable costs of shipments Tanker requirements 1.3 1.2 0.15 0.13 Your Job Formulate a linear program which can be used to generate a comprehensive plan for the whole Far Eastern Operations. Clearly define every variable used in your formulation, and clearly write the objective and constraints in algebraic form. Then you need to use EXCEL SOLVER (or ANALYTICAL SOLVER PLATFORM) to find the optimal decision and value. Your entire report should be at most 4 pages long (Times New Roman, 12pt, double spaced). Please submit your report and Excel file digitally via Blackboard link. 5    
Purchase answer to see full attachment
Explanation & Answer:
9 Pages
User generated content is uploaded by users for the purposes of learning and should be used following Studypool's honor code & terms of service.

Explanation & Answer

View attached explanation and answer. Let me know if you have any questions.

Outline Reflection the Global Oil Company
I.

Introduction

II.

Formulation of the Linear Program Equation

III.

Constraints

IV.

Objective Function

V.

Conclusion

VI.

Reference.


1

The Global Oil Company
Student’s Name:
Institution:
Course Name: Course Code:
Instructor:
Date:

2

Introduction
Linear programming is a mathematical technique often used in optimization operations
under specific constraints. The overall purpose of including a linear programming technique is to
either maximize or minimize a specific numerical value in the equation (BYJU’S, 2022). Ideally,
it often comprises linear functions subjected to a specific set of constraints presented either in
linear equations or in the form of inequalities. Linear programming has been identified as one of
the methods that can facilitate the process of optimum resource utilization. Besides, linear often
focuses on defining the relationship between multiple variables.

In this case, the point of focus will be on one global oil company that often outsources its
crude oil from both Saudi Arabia and Borneo. The far eastern operations of the company often
rely on close to over 80000 units of the barrel from Saudi Arabia. In comparison, it outsources
close to 30000 units of barrels from the Borneo region. Subsequently, the cost of a barrel of oil
from Saudi Arabia is $62, while the cost of crude oil from Borneo is $67. Additionally, the point
of focus will also be on the transportation expenses per barrel from Saudi Arabia and Borneo.
The company has two subsidiaries that are often responsible for the refinement process, and they
are situated in both Australia and Japan.
Formulation of the Linear Program Equation
Australia produces 30000 barrels in the refinery operations while Japan can produce
50000 barrels. Before the refinery operations, there is a need to transport the barrels of oil from
Saudi and Brunei. However, there are transportation expenses and high process intensity costs.
The transportation expense per barrel from Saudi Arabia to Australia and Japan is $0.75 and
$0.8, respectively, while the high process intensity cost per barrel will be $1.19 and $1.26. There

3

is a need to note that the refinery facilities have processing flexibilities that allow for a wide
range of yields. However, we will only include the high process intensity values to simplify the
overall process.
Since the capacity of the two refineries is known, the supplying capacity of the countries
is determined. The point of focus will be on determining the unit selling price of the refinery
products that will maximize the overall outcome for the firm. Ideally, the Global oil company
often sources its crude oil from Saudi Arabia and Borneo, and the set acquisition price often
stands at $62 and $67 per barrel, respectively.
Then, the transportation expenses stand at $0.75 and $0.8 per barrel from Saudi to
Australia and Japan, respectively. Moreover, the high process intensity costs stand at $1.19 and
$1.26, respectively, and this is for the two countries. The other case will also be on the
transportation co...


Anonymous
Excellent resource! Really helped me get the gist of things.

Studypool
4.7
Trustpilot
4.5
Sitejabber
4.4

Related Tags