Equivalent Carbon calculator
Small and simple app that help you to calculate Equivalent Carbon Content.
Iñaki Durañona · ar.com.duranona.ecc
UpdatedJul 9, 2020
PublishedJul 9, 2020
Packagear.com.duranona.ecc
MD54d7814a48250ae846620bfb58126ebac
SHA1 (signer)E6:25:21:D2:B7:CE:1D:63:E7:04:CC:A4:64:D3:22:86:E3:ED:2E:3E
Signed byCN=I?aki Dura?ona, OU=Unknown, O=Unknown, L=Unknown, ST=Unknown, C=AR
Architecturesx86, armeabi-v7a, arm64-v8a
Malware scanTRUSTED
Contact[email protected]
What's new
1.3
PCM Cracking formula
Yurioka formula (which could determine the critical time in seconds Δt8-5 for the formation of martensitic in the Heat Affected Zone (HAZ) in low-carbon alloy steels.)
Other minor changes
1.1 and 1.2
Correction on PCM name error
Correction on Short PCM formula
Small changes to preheat result
PCM Cracking formula
Yurioka formula (which could determine the critical time in seconds Δt8-5 for the formation of martensitic in the Heat Affected Zone (HAZ) in low-carbon alloy steels.)
Other minor changes
1.1 and 1.2
Correction on PCM name error
Correction on Short PCM formula
Small changes to preheat result
Description
Actual supported formulas: AWS, IIW (Dearden and O'Neill formula), PCM Cracking Parameter (Ito and Bessyo formula), PLS Pipeline Steels (Mannesmann formula) and Short Cracking Parameter for missing values.
AWS
The AWS states that for an equivalent carbon content above 0.40% there is a potential for cracking in the heat-affected zone (HAZ) on flame cut edges and welds. However, structural engineering standards rarely use CE, but rather limit the maximum percentage of certain alloying elements. This practice started before the CE concept existed, so just continues to be used. This has led to issues because certain high strength steels are now being used that have a CE higher than 0.50% that have brittle failures.
IIW
Dearden and O'Neill formula, which was adopted by IIW in 1967. This formula has been found suitable for predicting hardenability in a large range of commonly used plain carbon and carbon-manganese steels, but not to microalloyed high-strength low-alloy steels or low-alloy Cr-Mo steels.
PLS
Mannesmann formula its common used for critical metal parameter like Pcm. Most common use is for Weldabilty of Heavy Wall Seamless Line Pipe Steel.
PCM
The Japanese Welding Engineering Society adopted the critical metal parameter (Pcm) for weld cracking, which was based on the work from Ito and Bessyo.
AWS
The AWS states that for an equivalent carbon content above 0.40% there is a potential for cracking in the heat-affected zone (HAZ) on flame cut edges and welds. However, structural engineering standards rarely use CE, but rather limit the maximum percentage of certain alloying elements. This practice started before the CE concept existed, so just continues to be used. This has led to issues because certain high strength steels are now being used that have a CE higher than 0.50% that have brittle failures.
IIW
Dearden and O'Neill formula, which was adopted by IIW in 1967. This formula has been found suitable for predicting hardenability in a large range of commonly used plain carbon and carbon-manganese steels, but not to microalloyed high-strength low-alloy steels or low-alloy Cr-Mo steels.
PLS
Mannesmann formula its common used for critical metal parameter like Pcm. Most common use is for Weldabilty of Heavy Wall Seamless Line Pipe Steel.
PCM
The Japanese Welding Engineering Society adopted the critical metal parameter (Pcm) for weld cracking, which was based on the work from Ito and Bessyo.
Required features
- Faketouch android.hardware.faketouch
Permissions (2)
Equivalent Carbon calculator requests the following Android permissions:
- Access Network State android.permission.ACCESS_NETWORK_STATE
- Internet android.permission.INTERNET
