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Induction Pipe Temperature

Fuel

Temperature Change In Induction Pipe due to Evaporation

Fall in Temperature (calculated) of Air / Fuel  Mixture Due to Latent Heat Of Evaporation

Type

Deg F

Deg C

Deg F

Deg C

Aromatic Free Petrol

+18

+10.18

32.4

18.01

Petrol

+19.8

+11.01

36.0

20.02

Heavy Fuels

Heavy Aromatics

+50.5

+28.08

35.7

19.85

Kerosene

+56

+31.14

26.1

14.51

Paraffin Series

 

 

 

 

Pentane (Normal)

 

37.8

21.02

Hexane (80% pure)

0

37.8

21.02

Heptane (97% pure)

+10

+5.56

32.4

18.02

Aromatic Series

Benzene (pure)

-13.1

-7.28

46.8

26.02

Toluene (99% pure)

+14.4

+8.01

40.5

22.52

Xylene (91% pure)

+32.4

+18.01

38.7

21.52

Naphthene Series

 

 

 

 

Cyclohexane (93% pure)

-5.4

-3.00

38.7

21.52

Hexahydrotoluene (80%)

+5.4

+3.00

34.2

19.02

Hexahydroxylene (60%)

+24.3

+13.51

32.4

18.02

Olefines

Cracked Spirit (53% unsat)

+19

+10.56

37.5

20.85

Alcohol Group, &c.

 

 

 

 

Ethyl Alcohol (98%)

+2.7

+1.5

153.0

85.07

Ethyl Alcohol (95 vol. %)

-3.6

-2.00

176.0

97.86

Methyl Alcohol

-15.3

-8.51

252.0

140.1

Methylated Spirits

-1.8

-1.00

198.0

110.1

Butyl Alcohol

+18

+10.00

 

Ether (50% in Petrol)

+1.8

+1.00

39.6

22.02

Carbon Disulph (50%)

-12.6

-7.00

48.6

27.02

Note - This table of data is used to set the Induction Temperature by adding the indicated change to the Ambient Temperature so that the Volumetric Efficiency of Induction is approximately correct for the applied Fuel.

 

 

Copyright ©2008 Gordon Cornell