# Hydrostatic pressure apparatus lab report. Hydrostatic Pressure Lab Report [vlr01qxq2wlz] 2022-10-31

Hydrostatic pressure apparatus lab report Rating: 8,3/10 123 reviews

Hydrostatic pressure, or the pressure exerted by a fluid at rest, is an important concept in fluid mechanics. It is defined as the force per unit area exerted by a fluid on an object in contact with it. In a hydrostatic pressure apparatus lab, students can learn about and measure hydrostatic pressure through hands-on experimentation.

To begin the lab, students should first familiarize themselves with the hydrostatic pressure apparatus, which typically consists of a container filled with a liquid, a manometer (a device used to measure pressure), and a pressure-sensing device such as a pressure gauge or a load cell.

Next, students should set up the apparatus according to the lab instructions. This typically involves attaching the manometer and pressure-sensing device to the container and calibrating them to ensure accurate measurements.

Once the apparatus is set up and calibrated, students can begin conducting experiments to measure hydrostatic pressure. One common experiment involves measuring the hydrostatic pressure exerted by the fluid on the bottom of the container. To do this, students can use the pressure-sensing device to measure the force exerted on the bottom of the container, and use the manometer to measure the height of the fluid above the bottom of the container. From these two measurements, students can calculate the hydrostatic pressure using the formula:

Hydrostatic Pressure = Force / Area

Where "Force" is the force exerted on the bottom of the container and "Area" is the area of the bottom of the container.

Another common experiment involves measuring the hydrostatic pressure exerted by the fluid at different depths within the container. To do this, students can use the manometer to measure the height of the fluid above a pressure-sensing device at different depths within the container. From these measurements, students can calculate the hydrostatic pressure at each depth using the same formula as above.

Once students have completed their experiments and collected their data, they should analyze their results and draw conclusions about the relationship between hydrostatic pressure and fluid depth. They should also consider any sources of error that may have affected their measurements and discuss ways to improve the accuracy of their experiments in the future.

Overall, a hydrostatic pressure apparatus lab allows students to learn about and measure hydrostatic pressure through hands-on experimentation. It is an important and engaging way for students to understand the principles of fluid mechanics and apply them to real-world situations.

## hydrostatic pressure apparatus lab.. . New York: McGraw Hill, p. The buoyant force is always equal to the weight of the water displaced by the object in the water. Quadrant Material Total Depth of Quadrant, H Height of Fulcrum above Quadrant, a Height of End Surface, D Width, B Length of Balance, L : PVC : 208 mm : 110 mm : 98 mm : 68 mm : 290 mm 2. Force acting on Submerged body.

Next

## Lab report of Experiment Hydrostatic opportunities.alumdev.columbia.edu . The forces which create these moments are the weight applied to the balance arm and the hydrostatic force on the vertical surface. . Introduction: The Hydrostatic pressure can be defined as the total pressure exerted by the water on a submerged body. Equation 1 shows that pressure distribution varies linearly over any inclined surface.

Next

## opportunities.alumdev.columbia.edu . . . . Then each increment of weight is removed to note the weight and the water level until the weight have been removed.

Next

## Hydrostatic Pressure Apparatus Lab opportunities.alumdev.columbia.edu . . . . .

Next

## hydrostatic pressure lab opportunities.alumdev.columbia.edu . With the experimental setup shown below, this lab report is being conducted with the intention of comparing experimental values with the results we will have obtained from theoretical formulas. Pressure acts normal to a surface, therefore the direction of the resultant force will always be normal to the surface. Figure 3 establishes that depth of center of pressure increases as depth of immersion increases. . For example, if the same type of apparatus was used with the only difference being that the hydrostatic force was examined to be acting on a surface inclined at some certain angle.

Next

## Hydrostatic Lab experiment The center of pressure is a point on the immersed surface at which the resultant hydrostatic pressure force acts. By use of the parallel axes theorem: where is the depth of the centroid of the immersed surface, and is the 2 nd moment of area of immersed body about the centroidal axis. It should be noted here that d is a function of the water depth and mass as seen above. . The bubble should appear in the center of the spirit level.

Next

## Experiment . . . . . . .

Next

## Experiment #1: Hydrostatic Pressure The value of the depth of immersion was recorded along with the counter weight that took to balance the apparatus. . Hydrostatic force and its line of action is also required for the design of many parts of hydraulic equipment. . .

Next