Here is a study I found online:
http://pubs.acs.org/doi/10.1021/acsomega.7b01130
http://pubs.acs.org/doi/suppl/10.1021/acsomega.7b01130/suppl_file/ao7b01130_si_001.pdf
"Because dabbing topography has not been previously investigated, we chose an inhalation volume of 338 mL and a 10s duration to assure a more complete collection of vapor. The concentrations of MC in ppb per dab in this regime are 185 ± 11 ppb at Tm = 526°C, 157 ± 2 ppb atTm = 455°C, 131 ± 9 ppb at Tm = 403°C, and undetectable at Tm = 322°C.
Benzene was not detected below the highest TR. Using the same rationale as above for MC emission, one dab of BHO delivers 17 ng of benzene. Represented as a concentration in the draw volume, this value is 15 ± 1.8 ppb."
Sounds like staying around 610°F yields no Benzene or Methacrolein (MC) according to this study.
http://pubs.acs.org/doi/10.1021/acsomega.7b01130
http://pubs.acs.org/doi/suppl/10.1021/acsomega.7b01130/suppl_file/ao7b01130_si_001.pdf
"Because dabbing topography has not been previously investigated, we chose an inhalation volume of 338 mL and a 10s duration to assure a more complete collection of vapor. The concentrations of MC in ppb per dab in this regime are 185 ± 11 ppb at Tm = 526°C, 157 ± 2 ppb atTm = 455°C, 131 ± 9 ppb at Tm = 403°C, and undetectable at Tm = 322°C.
Benzene was not detected below the highest TR. Using the same rationale as above for MC emission, one dab of BHO delivers 17 ng of benzene. Represented as a concentration in the draw volume, this value is 15 ± 1.8 ppb."
Sounds like staying around 610°F yields no Benzene or Methacrolein (MC) according to this study.
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