WELCOME TO PIPING TECHNOLOGY !!!

Head Pressure Calculator

 

Head Pressure Calculator

Density (kg/m³):

Height of Fluid Column (m):

 

 

Head Pressure Calculator Equation

To create a head pressure calculator, we first need to clarify a few details. Head pressure in fluid mechanics usually refers to the pressure exerted by a fluid due to its elevation. The calculation typically depends on the density of the fluid, the gravitational constant, and the height of the fluid column.

Here’s a simple formula to calculate head pressure:

?=?×?×ℎ

Where:

? is the head pressure,
? is the fluid density (in kg/m³),
? is the acceleration due to gravity (approximately 9.81 m/s² on Earth),
ℎ is the height of the fluid column (in meters).

Do you want to create an interactive tool where you can input values for ?, ?, and ℎ and get the head pressure? If yes, would you like to specify the units, or shall I use the standard ones?

example

Let’s go through an example to see how the head pressure calculator would work with specific values.

Suppose we have a column of water (water density ? is approximately 1000 kg/m³) that is 10 meters high. We want to find out the pressure at the bottom of this water column. We’ll use the standard acceleration due to gravity, which is approximately 9.81 m/s².

Using the formula: ?=?×?×ℎ

Substituting the values: ?=1000 kg/m3×9.81 m/s2×10 m

Now, let’s calculate this:

?=1000×9.81×10=98100 Pascals

This result means the pressure at the bottom of the water column due to the weight of the water above it is 98100 Pascals, which can also be expressed as approximately 0.98 bar (since 1 bar = 100000 Pascals).

What is 20 feet of head pressure?

To calculate the head pressure for a column of water that is 20 feet high, we can use the standard formula:

?=?×?×ℎ

Where:

  • ? is the density of the water (approximately 1000 kg/m³),
  • ? is the acceleration due to gravity (9.81 m/s²),
  •  is the height of the fluid column.

However, since the height is given in feet, we need to convert feet to meters (1 foot = 0.3048 meters).

Calculation:

  • Height in meters: 20 feet×0.3048 m/foot=6.096 meters

Now substituting the values: ?=1000 kg/m3×9.81 m/s2×6.096 m

Let’s calculate this: ?=1000×9.81×6.096=59759.136 Pascals

Thus, the head pressure at 20 feet of water height is approximately 59759 Pascals, or about 0.597 bar (since 1 bar = 100000 Pascals).

 

Related posts
What is a power plant ?
What is a power plant ?

Contents0.0.1  1 I. What is a power plant ?1.1 Key Functions of a Power Plant:1.2 Importance of Power Plants:2 II. Types of Power Plants2.1 1. Thermal Power Plants2.2 2. Hydroelectric Power Plants2.2.1 2.3 3. Nuclear Power Plants2.3.1 2.4 4. Solar Power Plants2.4.1 2.4.2 5. Wind Power Plants2.4.3 6. Biomass Power Plants3 III. How Power Plants […]

Read more
Does Stainless Steel Rust?
Does Stainless Steel Rust?

Contents0.1 1 1. Does Stainless Steel Rust?2 2. Composition of Stainless Steel3 3. How Stainless Steel Resists Rust4 4. Conditions That Can Cause Stainless Steel to Rust5 5. Types of Stainless Steel and Their Corrosion Resistance6 6. How to Prevent Rust on Stainless Steel7 7. What to Do If Stainless Steel Rusts8 8. Conclusion9 9. […]

Read more
How to Convert Between Fahrenheit to Celsius
How to Convert Between Fahrenheit to Celsius

Contents0.1 How to Convert Between Fahrenheit and Celsius1 Fahrenheit to Celsius Converter1.1 2 Understanding the Fahrenheit Scale3 Understanding the Celsius Scale4 Conversion Formulas Fahrenheit to Celsius and Celsius to Fahrenheit4.0.1 1. Fahrenheit to Celsius Conversion4.0.2 2. Celsius to Fahrenheit Conversion4.1 Common Conversion Examples4.1.1 1. Freezing Point of Water4.1.2 2. Boiling Point of Water4.1.3 3. Comfortable […]

Read more
What is Laminar Flow ?
What is Laminar Flow ?

Contents1 I. What is Laminar Flow ?1.0.1  Importance of Laminar Flow2 II. Fundamentals of Laminar Flow2.0.1 A. Fluid Dynamics Overview2.0.2 B. Characteristics of Laminar Flow2.0.3 C. Comparison with Turbulent Flow2.0.4 D. Reynolds Number3 III. Applications of Laminar Flow3.1 A. Aviation3.2 B. Engineering and Industrial Applications3.3 C. Medical Field4 IV. Benefits of Laminar Flow4.0.1 A. Reduced […]

Read more
is copper compatible with hydrogen ?
is copper compatible with hydrogen ?

Contents1 Introduction2 Physical and Chemical Properties of Copper2.0.1 Physical Properties2.0.2 Chemical Properties3 Hydrogen: The Element and Its Properties3.0.1 Physical Properties3.0.2 Chemical Properties4 Compatibility of Copper with Hydrogen4.0.1 General Compatibility4.0.2 Hydrogen Embrittlement4.0.3 Chemical Reactions with Hydrogen5 Industrial Applications and Considerations5.0.1 Hydrogen Production and Storage5.0.2 Hydrogen Fuel Cells5.0.3 Heat Exchangers and Piping5.1 Scientific Research and Advances5.1.1 Hydrogen […]

Read more
Orifice pressure drop calculator
Orifice pressure drop calculator

Contents1 Orifice Pressure Drop Calculator1.1 Orifice pressure drop Equation1.2 example of orifice pressure drop calculation1.2.1 Given Data1.2.2 Conclusion1.3 What is an Orifice Pressure Drop?1.3.1 How It Occurs1.3.2 Practical Applications1.4 Effects of Orifice Pressure Drop1.4.1 1. Flow Measurement Accuracy1.4.2 2. Energy Loss1.4.3 3. System Pressure Requirements1.4.4 4. Fluid Dynamics1.4.5 5. Wear and Tear1.4.6 6. Cavitation and […]

Read more
Is 304 stainless steel magnetic?
Is 304 stainless steel magnetic?

Contents1 Is 304 stainless steel magnetic ?2 What is is 304 stainless steel ?3 304 stainless steel specifications3.1 Chemical Composition3.2 Mechanical Properties3.3 Physical Properties3.4 Corrosion Resistance3.5 Formability and Weldability4 Comparing 304 stainless steel with others material4.1 1. 304 Stainless Steel vs. Carbon Steel4.2 2. 304 Stainless Steel vs. Aluminum4.3 3. 304 Stainless Steel vs. 316 […]

Read more
Is stainless steel magnetic ?
Is stainless steel magnetic ?

Contents1 Is stainless steel magnetic ?2 Types of stainless steel and stainless steel magnetic3 What is Stainless Steel?4 Stainless Steel Chemical Composition4.1 1. Austenitic Stainless Steels4.2 2. Ferritic Stainless Steels4.3 3. Martensitic Stainless Steels4.4 4. Duplex Stainless Steels4.5 5. Precipitation-Hardening Stainless Steels5 Properties of Stainless Steel6 Stainless Steel Standards and Specifications7 Application of Stainless Steel […]

Read more
PSI vs PSIG conversion : What is the difference between psi and psig?
PSI vs PSIG conversion : What is the difference between psi and psig?

Contents1 Psi vs Psig Conversion2 What is psi ?3 What is psig ?4 PSI vs PSIG: What’s their Difference5 What is the difference between the units psi and psig?6 Application of psi and psig6.1 PSI (Pounds per Square Inch)6.2 PSIG (Pounds per Square Inch Gauge) Psi vs Psig Conversion Converting between PSI (pounds per square […]

Read more
What is the difference between LNG and CNG?
What is the difference between LNG and CNG?

Contents1 What is the difference between LNG and CNG?2 Table compare the difference between LNG and CNG3 The difference between LNG and CNG in production3.1 LNG Production:3.2 CNG Production:3.3 Key Differences in Production:4 The difference between LNG and CNG in applications4.1 LNG Applications:4.2 CNG Applications:4.3 Key Differences in Applications:5 The difference between LNG and CNG […]

Read more