The result of converting 1.30 atm to kpa is approximately 131.9 kpa. This conversion helps in understanding pressure measurements across different units used in science and engineering.
Atm (atmosphere) and kpa (kilopascal) are units used to express pressure. 1 atm equals exactly 101.325 kpa. To convert 1.30 atm to kpa, multiply 1.30 by 101.325, resulting in 131.7225 kpa, which rounds to 131.9 kpa for simplicity.
Conversion Result and Explanation
If you convert 1.30 atm into kpa, you get about 131.9 kpa. This is because 1 atm is defined as 101.325 kpa, so multiplying the atm value by this constant gives the equivalent pressure in kpa. This conversion is useful when working with pressure measurements in different contexts or systems.
Conversion Tool
Result in kpa:
Conversion Formula
The formula to convert atm to kpa is: Pressure in kpa = Pressure in atm * 101.325. This works because 1 atm is precisely defined as 101.325 kpa. For example, if you have 2 atm, multiply 2 by 101.325, giving 202.65 kpa. The multiplication adjusts the units from atm to kpa, preserving the pressure value in a different measurement system.
Conversion Example
Suppose you want to convert 3 atm to kpa:
– Step 1: Write down the conversion factor, which is 101.325.
– Step 2: Multiply 3 by 101.325: 3 * 101.325 = 303.975.
– Step 3: The result is 303.975 kpa.
– Step 4: Round to desired precision, e.g., 304.0 kpa if needed.
– Step 5: Confirm that the pressure in kpa reflects the original atm value, just expressed differently.
Conversion Chart
atm | kpa |
---|---|
-23.7 | -2,404.73 |
-20.0 | -2,026.50 |
-15.0 | -1,519.88 |
-10.0 | -1,013.25 |
-5.0 | -506.63 |
0.0 | 0.00 |
5.0 | 506.63 |
10.0 | 1,013.25 |
15.0 | 1,519.88 |
20.0 | 2,026.50 |
26.3 | 2,664.24 |
This chart shows a range of atm values from negative to positive, with their converted kpa equivalents. Use it to quickly reference pressure values without calculation or to verify your conversions.
Related Conversion Questions
- How many kpa is 1.30 atm in pressure measurements for tire inflation?
- What is the kpa equivalent of 1.30 atmospheres in a scuba diving tank?
- Can I convert 1.30 atm to kpa for a weather pressure reading?
- What pressure in kpa corresponds to 1.30 atm in a laboratory experiment?
- How do I convert 1.30 atm to kpa if I need to set a pressure gauge?
- Is 1.30 atm the same as a certain kpa in industrial processes?
- What is the pressure in kpa for 1.30 atmospheres in a vacuum system?
Conversion Definitions
atm
An atm (atmosphere) is a pressure unit based on Earth’s average sea level atmospheric pressure, precisely defined as 101,325 pascals, used in science and engineering to measure gas pressures, with 1 atm equaling this standard atmospheric pressure at sea level.
kpa
A kilopascal (kpa) is a metric pressure unit where 1 kpa equals 1,000 pascals; it measures force per unit area, often used in weather reporting, engineering, and scientific contexts to express pressure levels, with 101.325 kpa representing standard atmospheric pressure.
Conversion FAQs
Why is 101.325 kpa considered standard atmospheric pressure?
Standard atmospheric pressure is established as 101.325 kpa because it represents the average pressure exerted by Earth’s atmosphere at sea level at a temperature of 15°C. This value serves as a baseline for pressure measurements across scientific disciplines.
How precise is the conversion from atm to kpa?
The conversion from atm to kpa is highly precise because 1 atm is defined exactly as 101.325 kpa. Therefore, multiplying the atm value by this constant provides an accurate measurement without approximation errors, making it reliable for scientific calculations.
Can I use this conversion for high-altitude conditions?
While the conversion factor remains the same, the actual atmospheric pressure at high altitude differs from standard sea level pressure. So, although mathematically correct, converting 1.30 atm to kpa at high altitude reflects the local air pressure, which may differ from the standard value.
Last Updated : 21 June, 2025


Sandeep Bhandari holds a Bachelor of Engineering in Computers from Thapar University (2006). He has 20 years of experience in the technology field. He has a keen interest in various technical fields, including database systems, computer networks, and programming. You can read more about him on his bio page.