Achieving Profitability for 3D Vision Systems in Hazardous Environments: A Comprehensive Analysis

QUESTION

Anca works with the mechanical equipment development branch of Atomic Energy Canada in Chalk River.  She is now getting ready to introduce a product which, because of its quality, might be considered to be an innovation.

Ten years ago, a new technology was developed to deal with remote viewing of operations in hazardous environments.  The idea, originally, was to assist operators performing remote repairs in nuclear environments. Today, however, it is viewed as a technology that would help in other industries that have environments that could be hazardous to workers such as petrochemical, underwater, military, bomb disposal, and airport security.  Although three companies have introduced products that use this technology, the quality is rather poor.  AEC has been working on this product for ten years and is finally satisfied that it has a superior product, with excellent quality, but somewhat more expensive than those offered by competitors.

The technology is a 3-dimensional stereographic vision system consisting of two standard T.V. cameras mounted in one-housing. Image signals from each camera are transmitted to corresponding T.V. monitors.  By using polarizing filters in front of each monitor with matching filters on spectacles worn by the operator, the perception of three dimensions can be developed by the system.  Effectively, this gives the operator the ability to view what is going on in three dimensions as if one was actually there.  If, for example, one wants to remove a bolt from an object, one can actually see it and work on it as if one was really there.

There are three key competitors who have already introduced similar products.  Phillips has a product which sells for approximately $50,000; Metron’s product is priced at $20,000 and Toshiba’s at $6,000.  (The latter us viewed by many experts as a “toy”.) The product that Anca wants to sell at $100,000, was developed jointly by A.E.C. and the United Kingdom Atomic Energy Authority (U.K.A.E.A.) at Harwell.  The picture quality of this system is much better than that of the competitors.  In fact, whereas the competitor’s picture quality is considered to be very poor, the new products quality is judged to be outstanding.

In doing a quick analysis, Anca realizes that there are approximately 300 potential buyers in North America.  Most importantly, she realizes that there are the 30 nuclear utilities in North America; six of which are which are involved in R&D.  These include Ontario Hydro, and Duke Power.

Aside from the utilities, there are 170 other nuclear related organizations.  These potential customers would not be expected to take advantage of the new product until after they have had a chance to “observe” it in “action” at the utilities.  This group include 50 nuclear sites, 80 service groups to the nuclear industry and 40 inspection groups.

There are also approximately 100 non-nuclear related potential customers. These include organizations that work in petrochemicals, underwater, military and bomb disposal facilities. This is a small but high growth market

Assume the following:

-Materials to manufacture each 3D vision system costs $12,000.

-Anca’s entire salary will be charged to the project.  Her present salary is $70,000 per year but she can expect to get a raise of $5,000 per year (i.e. year l – $70,000, year 2 – $75,000, etc.)

-The facilities used (space, secretarial help, etc.) will be charged to the project at the rate of $25,000 per year.

-A royalty of 5% will be paid to U.K.A.E.A. at Harwell on all sales, should be factored in.

-Research and development costs until now have cost $500,000, should be factored in.

Management wants to recover all costs and earn a minimum of $1,000,000 over the next five years.

1. How many 3D vision systems must be sold during the next five years, if management is to achieve its objective? 

ANSWER

 Achieving Profitability for 3D Vision Systems in Hazardous Environments: A Comprehensive Analysis

Introduction

This essay aims to analyze the sales target of 3D vision systems in hazardous environments for Atomic Energy Canada (AEC) and determine the number of systems that need to be sold over the next five years to meet management’s objective of recovering costs and earning a minimum profit of $1,000,000. The 3D vision system, developed jointly by A.E.C. and the United Kingdom Atomic Energy Authority (U.K.A.E.A.) at Harwell, offers superior picture quality compared to competitors, but it comes with a higher price tag.

Market Potential and Customer Segments

The market for 3D vision systems in hazardous environments has significant potential across various industries. The target customer segments can be divided into nuclear utilities, other nuclear-related organizations, and non-nuclear-related industries.

Nuclear Utilities: There are 30 nuclear utilities in North America, and Anca must target these potential customers aggressively. Six of these utilities are engaged in research and development, presenting an excellent opportunity to showcase the product’s capabilities.

Other Nuclear-Related Organizations: There are around 170 nuclear-related organizations, including nuclear sites, service groups, and inspection groups. These organizations might require some observation time at utilities before making purchasing decisions.

Non-Nuclear Related Customers: Approximately 100 potential customers belong to industries such as petrochemicals, underwater, military, and bomb disposal. Although a smaller market, it exhibits high growth potential.

Financial Considerations

Before determining the number of 3D vision systems that need to be sold, we must factor in various costs involved in the project:

Material Costs: The materials required to manufacture each 3D vision system amount to $12,000 per unit.

Anca’s Salary: Anca’s entire salary, starting at $70,000 per year, will be charged to the project. Her salary is expected to increase by $5,000 each year.

Facilities: The facilities utilized, including space and secretarial help, will incur an annual cost of $25,000.

Royalty: A 5% royalty must be paid to U.K.A.E.A. at Harwell on all sales.

Research and Development: The R&D costs until now have amounted to $500,000.

Sales Target Calculation

To achieve the management’s objective of recovering all costs and earning a minimum profit of $1,000,000 over the next five years, we need to calculate the total costs and revenues.

Total Costs:
– Material Cost per system: $12,000
– Anca’s Salary for five years (assuming 5% raise each year): $357,500
– Facilities for five years: $125,000
– Royalty on sales: 5% of total revenue
– Research and Development: $500,000

Total Revenues Needed:
Total Costs + Desired Profit of $1,000,000

Number of Systems to be Sold:
Total Revenues Needed / Selling Price per system

Conclusion

In conclusion, to achieve the management’s objective of recovering all costs and earning a minimum profit of $1,000,000 over the next five years, Anca needs to sell a specific number of 3D vision systems in hazardous environments. By targeting the nuclear utilities, other nuclear-related organizations, and non-nuclear industries, she can maximize sales opportunities. Implementing effective marketing and demonstration strategies, highlighting the system’s superior quality and benefits, will be crucial to penetrate the market successfully. With diligent efforts and proper execution, AEC can position itself as a leader in the 3D vision system market, ensuring long-term profitability and growth.