CUET UG Business Studies Booster Test 3 Techniques of Scientific Management

�� The passage explicitly states that a foreman should possess a wide range of qualities including intelligence, education, tact, grit, judgment, special knowledge, manual dexterity, and energy. However, the text notes that "since all these qualities could not be found in a single person," Taylor proposed the use of eight specialists. This is the core logical foundation of Functional Foremanship—delegating complex supervision to specialized experts rather than a single, "all-rounder" foreman.

�� The very first sentence of the passage defines Functional Foremanship as an "extension of the principle of division of work and specialisation to the shop floor." While Henri Fayol proposed division of work for the whole organization, Taylor focused specifically on the supervisory level. By splitting one foreman's job into eight distinct roles (like Route Clerk, Speed Boss, etc.), he ensured that each task was handled by a specialist, increasing overall efficiency.

• The process begins with (3) analysing the methods already being used under the traditional rule-of-thumb approach. After understanding existing practices, management identifies and retains the most efficient methods: (4) keep and refine best practices. → Once the best practices are identified, scientific tools such as time study, motion study, and fatigue study are applied: (1) conduct work-study techniques. These studies help validate and improve efficiency scientifically. → Finally, the scientifically tested and refined method is formalised across the organisation: (2) develop a standard process to be followed throughout the organisation. → Thus, the logical flow becomes: Analyse existing methods → Keep/refine best practices → Conduct scientific studies → Develop standard process Hence, the correct sequence is: 3 → 4 → 1 → 2

�� Assertion (A) is false because modern management techniques like Kaizen (continuous improvement) and Benchmarking actually utilize and enhance standardization; they do not "counteract" it. Reason (R) is true because the definition of standardization includes setting benchmarks for materials, processes, and parts to ensure interchangeability and consistent quality.

�� 1-B: Simplification focuses on cutting out superfluous (unnecessary) variety and sizes to reduce costs. 2-A: Standardisation involves devising new varieties (standards) that must be strictly followed. 3-C: Method Study is aimed at the process flow to find the "one best way." 4-D: Time Study uses a stopwatch to find the standard time taken for a task.

�� By reducing shades from 50 to 5, the company is practicing Simplification. According to Taylor, eliminating unnecessary diversity leads to savings in the cost of labour, machines, and tools. This is because machines do not need to be frequently reset for different dimensions, workers become more specialized in the core shades, and inventory management becomes streamlined.

�� The objective of Method Study is to find the "one best way" to minimize costs (A), maximize quality (B), and maximize customer satisfaction (D). Increasing variety (C) is generally seen as a move away from scientific efficiency unless it is a specific market requirement. In fact, Taylor's "Simplification" explicitly seeks to reduce unnecessary variety to ensure the "one best way" is more effective.

�� Statement I is true; Taylor and modern managers use visual and mathematical tools like process charts and operations research to find the best method. Statement II is false because NCERT specifically notes that Method Study applies "right from procurement of raw materials till the final product is delivered to the customer." It is a holistic look at the entire value chain.

�� 1-D: Productive motions are direct actions (like hitting a nail). 2-A: Incidental motions are necessary but non-productive (like going to get tools). 3-B: Unproductive motions are pure waste (like unnecessary lifting). 4-C: Motion reduction is exemplified by the Gilbreth bricklaying study where motions were cut from 18 to 5.

�� Motion Study (B) is the technique used to analyze physical movements (lifting, putting, walking). By reducing the number of steps (15 steps down to arm's reach), the analyst has eliminated an unproductive or incidental motion. This allows the worker to spend more time on productive tasks, directly increasing output.

�� Assertion (A) is true; Time Study is not just about the clock; it's a labor-planning tool. Reason (R) is true and explains (A). If a worker takes 1 hour to make 1 unit and the goal is 100 units a day, the math (Standard Time x Target) tells you that you need 100 man-hours, or roughly 12-13 workers. Without the standard time (R), you cannot calculate the number of workers (A) scientifically.

�� To find the "actual task time" available, a manager takes an 8-hour shift and subtracts non-working periods like lunch (A), rest intervals (B), and fatigue pauses (D). Productive motions (C) are the actual time spent making the product. You do not deduct the productive work time from the shift; rather, you want to maximize the ratio of productive time to total shift time.

�� Statement I is true; Taylor recognized that workers are human and get tired. Frequent, small breaks allow them to regain stamina. Statement II is false; avoiding rest intervals actually decreases productivity in the long run because a tired worker is slow and prone to errors. Scientific management uses rest to increase overall daily capacity.

�� When a worker's performance declines due to physical strain or environmental factors (like poor ventilation), it is a case of Fatigue (C). Taylor's Fatigue Study seeks to eliminate these efficiency drops by determining the amount and frequency of rest intervals. By introducing breaks and fixing the environment, the operator can regain stamina and eliminate that 30% drop.

�� You must start with (1) Work-study to know what a "fair" output is. Then, you measure the worker's performance: (4) Calculate actual output. By comparing actual output to the standard, you can then (3) Classify workers as efficient (above standard) or inefficient (below standard). Finally, you apply the (2) Different wage rates to reward the efficient and penalize the inefficient.

�� 1-D: If you hit the target exactly, you are considered efficient and get the higher rate. 2-A: If you are below the target, you get the lower rate per unit. 3-C: If you are above standard, you are clearly efficient and get the higher rate. 4-B: Taylor's famous worker, Schmidt, earned 60% more wages by using this system for pig iron loading.

�� Assertion (A) is true; the core of Functional Foremanship is splitting the "thinking" (planning) from the "doing" (execution). Reason (R) is false because the factory manager does not do everything themselves. Instead, they delegate to a Planning Incharge (who drafts instructions) and a Production Incharge (who oversees machine repairs via the Repair Boss). The Reason contradicts the very principle of division of labor that Taylor proposed.

�� Under Taylor's Functional Foremanship, each boss has a specific role. Option C is incorrect because checking the quality of work is the responsibility of the Inspector. The Route Clerk is responsible for specifying the "route" or the sequence of production (which step comes first, second, etc.).

�� Statement I is true; Taylor's "Science, Not Rule of Thumb" aims to remove the "arbitrary" (random) element from management. Statement II is true; while Taylor didn't always talk about "Accounting," his techniques (Motion Study, Standardisation, Simplification) all focus on reducing waste. Reducing waste is the primary way to achieve cost control in a factory setting.

�� Modern techniques like Lean and Six Sigma focus on efficiency and precision. These are the same goals Taylor had with Method Study and Standardisation. By reducing quality variations and time waste, a firm increases productivity (more output for less input) and controls costs (less waste). This is the direct modern application of the "Science, Not Rule of Thumb" principle.