Problem 2
Question
The mechanical advantage of a hydraulic press is \(25 .\) What applied force is necessary to produce a pressing force of \(2400 \mathrm{~N}\) ?
Step-by-Step Solution
Verified Answer
The applied force needed is 96 N.
1Step 1: Identify Given Values
We are given the mechanical advantage (MA) of the hydraulic press, which is 25, and the desired pressing force, which is 2400 N. The question asks for the applied force.
2Step 2: Use the Formula for Mechanical Advantage
The formula for mechanical advantage in terms of force is: \[\text{Mechanical Advantage} (MA) = \frac{\text{Output Force}}{\text{Input Force}}\] where the output force is the pressing force and the input force is the applied force.
3Step 3: Rearrange the Formula
Rearrange the formula to solve for the applied force (Input Force): \[\text{Input Force} = \frac{\text{Output Force}}{\text{Mechanical Advantage}}\].
4Step 4: Calculate Applied Force
Substitute the known values into the formula: \[\text{Input Force} = \frac{2400 \text{ N}}{25}\]. Calculate the result to find the applied force.
5Step 5: Compute Final Result
Carry out the division: \[\frac{2400}{25} = 96\]. Therefore, the applied force is 96 N.
Key Concepts
Mechanical AdvantageApplied Force CalculationOutput ForcePhysics Problems
Mechanical Advantage
Mechanical advantage is a concept that helps us understand how machines like the hydraulic press make work easier. It shows how much a machine multiplies the force put into it. Here, the mechanical advantage tells us that for every unit of applied force, the machine produces an amplified output force.
In the context of the hydraulic press, a mechanical advantage of 25 means that the output force is 25 times the input force. This significant increase allows the press to perform heavy tasks with less effort. By leveraging such a tool, we can efficiently achieve a stronger pressing force without directly applying large quantities of force ourselves.
In the context of the hydraulic press, a mechanical advantage of 25 means that the output force is 25 times the input force. This significant increase allows the press to perform heavy tasks with less effort. By leveraging such a tool, we can efficiently achieve a stronger pressing force without directly applying large quantities of force ourselves.
Applied Force Calculation
Calculating the applied force is crucial in determining how much effort is required to achieve the desired output with the hydraulic press. From the formula for mechanical advantage:
- Mechanical Advantage (MA) = Output Force / Input Force
- Input Force = Output Force / Mechanical Advantage
Output Force
Output force refers to the force produced by the machine after applying the input force. In hydraulic presses, the output force is the main force we want to achieve, such as the pressing force. The press takes the input (applied) force and multiplies it by the mechanical advantage to result in a much larger output force.
By analyzing the output force, we can comprehend the efficiency and power of the hydraulic press. For instance, in this exercise, the output force is 2400 N, which is the force needed for the pressing task. Knowing the output force is essential to ensure the machine can be utilized effectively for the required application.
By analyzing the output force, we can comprehend the efficiency and power of the hydraulic press. For instance, in this exercise, the output force is 2400 N, which is the force needed for the pressing task. Knowing the output force is essential to ensure the machine can be utilized effectively for the required application.
Physics Problems
Solving physics problems like the one involving a hydraulic press involves understanding and applying basic principles accurately. You often start by identifying the given values and what you need to find.
Then, you select and use the appropriate formulas that relate to the concept at hand, such as mechanical advantage in this scenario. Simplifying and rearranging the formula, based on available data, allows you to derive the desired quantity, in this case, the applied force.
Breaking down the steps into manageable parts helps avoid confusion and errors. The key is to methodically apply known physics principles and perform calculations precisely, ensuring a practical understanding of the machinery and concepts involved.
Then, you select and use the appropriate formulas that relate to the concept at hand, such as mechanical advantage in this scenario. Simplifying and rearranging the formula, based on available data, allows you to derive the desired quantity, in this case, the applied force.
Breaking down the steps into manageable parts helps avoid confusion and errors. The key is to methodically apply known physics principles and perform calculations precisely, ensuring a practical understanding of the machinery and concepts involved.
Other exercises in this chapter
Problem 2
A piece of metal weighs \(67.0 \mathrm{~N}\) in air and \(62.0 \mathrm{~N}\) in water. Find the buoyant force of the water.
View solution Problem 2
Change \(64.3 \mathrm{lb} / \mathrm{in}^{2}\) to \(\mathrm{kPa}\).
View solution Problem 2
Find the height of a column of water where the pressure at the bottom of the column is \(20.0 \mathrm{lb} / \mathrm{in}^{2}\).
View solution Problem 3
Water flows from a pipe at \(650 \mathrm{~L} / \mathrm{min} .\) (a) What is the diameter (in \(\mathrm{cm}\) ) of the pipe if the velocity of the water is \(1.5
View solution