This physics problem tests your understanding of fundamental physical laws and their applications. The step-by-step solution below breaks down the problem using relevant equations and physical reasoning.
ScanSolve AI Answer
Step 1: Read and record the weights from the diagrams. The weight of the stone in air (W_1) is read from the first spring balance. The weight of the stone in water (W_2) is read from the second spring balance. a) i) Weight (W_1) of the stone in air: W_1 = 80 N a) ii) Weight (W_2) of the stone in water: W_2 = 50 N Step 2: Calculate the apparent loss of weight. The apparent loss of weight is the difference between the weight in air and the weight in water. Apparent loss of weight = W_1 - W_2 Apparent loss of weight = 80\, N - 50\, N b) i) Apparent loss of weight of stone in water: Apparent loss of weight = 30 N Step 3: Calculate the relative density. Relative density is the ratio of the weight of the substance in air to the apparent loss of weight in water (which is equal to the weight of the displaced water). Relative density = Weight in airApparent loss of weight in water Relative density = (W_1)/(W_1 - W_2) Relative density = 80\, N30\, N Relative density = (8)/(3) Relative density ≈ 2.67 b) ii) Relative density: Relative density = 2.67 Step 4: Explain the apparent loss of weight. c) The apparent loss of weight of the stone when submerged in water is due to the upthrust (or buoyant force) exerted by the water. According to Archimedes' principle, this upthrust is equal to the weight of the water displaced by the stone. Send me the next one 📸