CUET UG Business Studies Booster Test 2 Techniques of Scientific Management

�� In Taylor's Functional Foremanship, authority flows from the top executive down to the execution level. The Factory Manager (1) is at the top. Below the manager are two functional heads: the Planning Incharge and the Production Incharge (2). Under the Production Incharge, there are four specialists, including the Gang Boss (3), who is responsible for keeping machines and tools ready. Finally, at the base of the pyramid is the Workman (4), who follows the orders of the specialist bosses.

�� 1-C: The Instruction card clerk drafts instructions for the workers. 2-A: The Route clerk specifies the sequence (route) of production. 3-B: The Gang boss is responsible for keeping machines and tools ready for immediate operation. 4-D: The Repair boss ensures that machines and tools are in proper working condition through maintenance.

�� Scientific management is based on the principle of Science, Not Rule of Thumb. Relying on personal judgment or trial-and-error (A) is the exact opposite of a scientific approach. Standardisation requires the use of work-study (C) to analyze methods and the setting of benchmarks (D). While Standardisation can lead to devising standards (B), it specifically rejects the non-analytical nature of personal judgment.

�� One of the key objectives of Standardisation is to ensure that manufactured parts (C) are interchangeable. In the example provided, making chargers compatible across all phone models means the "part" (charger) is standardized to a specific interface. This allows for easier replacements and reduces the need for producing unique accessories for every single model.

�� Statement I is true; Simplification is specifically about removing superfluous variety to save costs. Statement II is also true; while it may sound counter-intuitive, Standardisation often involves devising new, standardized varieties (benchmarks) to replace the unorganized, non-standard existing ones. By creating a new "standard" variety, the organization ensures quality and interchangeability.

�� Assertion (A) is true; when a company simplifies its product line, it doesn't need to keep stocks for 50 different variations, thus reducing inventory. Machines can run longer on a single setting, ensuring fuller utilization. Reason (R) is true and provides the underlying logic: the savings in labor, machines, and tools occur because the company is no longer distracted by "superfluous" diversity. This economic efficiency is the reason why A is possible.

�� Method Study aims to find the "one best way" of doing a job. The most famous industrial application of this is the assembly line (B). Henry Ford utilized method study to determine the sequence of operations that would allow a car to be built with maximum speed and minimum waste. This transformed the manufacturing process and is the textbook example of method study in action.

�� Designing an assembly line is a Method Study task because it requires finding the optimal sequence (A). This includes deciding where men and machines should be positioned and how raw materials should flow through the factory. The goal is to ensure that every activity adds value and minimizes movement, which is the core of process analysis.

�� As per the passage and Taylor's Motion Study, motions are categorized into three types. Incidental motions (B) are those that are necessary to support the work but are not the actual work themselves. Going to the stores to get materials or tools is the classic example provided in the text for an incidental motion. While necessary, management tries to minimize these to increase time spent on productive motions.

�� The passage specifically mentions that Taylor identified and analyzed motions using stopwatches, various symbols, and colours (C). These tools allowed for a high degree of precision in Motion Study. By color-coding or using symbols (like Gilbreth's 'Therbligs'), managers could visually see where unproductive time was being spent and eliminate it.

�� By calculating that a worker should produce a certain number of boxes per day (the standard task), management creates a benchmark. This benchmark is essential for framing incentive schemes (A), such as the Differential Piece Wage System, because you cannot reward an "efficient" worker if you haven't defined what "standard" is. It also allows for determining labor costs because the manager knows how much production an 8-hour wage should buy.

�� Statement I is true; if a task is done 1,000 times a day (high volume), saving even one second is valuable, requiring a more detailed time study. Statement II is false because time measurement costs and cycle time are critical factors. You wouldn't spend $1,000 to study a task that only happens once a year. Similarly, very short cycle times require different measurement techniques than long, complex cycles.

�� Fatigue Study is the scientific management technique used to determine the amount and frequency of rest intervals required to complete a task. In heavy manual labor, workers naturally lose stamina. By providing small, frequent pauses (B), the management ensures that workers do not reach a point of total exhaustion, thereby maintaining a consistent level of efficiency throughout the eight-hour shift.

�� Assertion (A) is true; human biology dictates that physical and mental exertion without breaks leads to a decline in performance. Reason (R) is true and perfectly explains why A is a problem that needs solving. The purpose of a rest interval is precisely to allow for the regain of stamina. Because (R) explains the biological necessity and the organizational benefit of the rest mentioned in (A), it is the correct explanation.

�� Taylor's system is specifically called Differential because it rejects uniform rates (A). In a uniform system, the efficient worker gets no extra benefit for working harder. Taylor's system classifies workers (B) and uses different rates (C) to ensure that efficient workers are rewarded significantly more, which serves to motivate (D) those who are currently underperforming to reach the standard.

�� The story of Schmidt loading pig iron is the textbook example used to illustrate the Differential Piece Wage System (C). By scientifically determining the "one best way" and setting a high target (47 tons), Taylor offered Schmidt a significantly higher rate of pay for reaching that target. This financial incentive led to a massive increase in both productivity for the company and wages for the worker.

�� Statement I is true; the Planning Incharge manages clerks like the Instruction Card Clerk and Route Clerk. Statement II is also true; the Production Incharge manages "bosses" who handle the physical floor work, such as the Speed Boss (timely completion) and the Repair Boss (machine maintenance). This dual-department structure ensures specialized expertise in both the mental and physical phases of production.

�� 1-C: The Speed boss is responsible for the timely and accurate completion of the job. 2-D: The Gang boss is responsible for keeping machines and tools ready for the workers (setting the stage). 3-B: The Repair boss ensures machines are in proper working condition. 4-A: The Inspector is the quality expert who checks the quality of the final work.

�� Assertion (A) is true; Taylor's first principle is to replace personal judgment with scientific inquiry. Reason (R) is true and provides the evidence for (A). By showing that scientific planning (like in the pig iron loading study) actually leads to savings in energy and waste, Taylor provides the justification for why the organization should stop using the Rule of Thumb. Therefore, (R) is the evidence-based explanation for (A).

�� Scientific Management (B) is the foundation of industrial engineering. Taylor's focus on using "Science, Not Rule of Thumb" to find the most efficient method of production is perfectly realized today through robotics and computer-aided manufacturing. These technologies are simply advanced tools to achieve Taylor's goals: precision, standardization, and the elimination of unproductive movements.