Hydrogen-fired cremation heating cuts CO2 emissions while sustaining higher chamber temperatures, shorter cycles, and lower heat loss.
A reticulated ceramic filter with catalyst treatment targets particles and NOx while limiting filtration complexity and space.
A pre-heated, pressurized cremation chamber uses body fluids as a supercritical solvent to reduce emissions and commingling.
Sand insulation between double walls extends lining service life by absorbing thermal stress, while a secondary burner reduces harmful emissions.
Embedded radiant tube reduces energy loss and emissions by separating combustion from the cremation process.
Nano-emissive thermal enhancement layer applied to crematory surfaces creates uniform heat distribution across the chamber.
Microwave radiation directly heats biological material to ignite combustion, reducing energy consumption and harmful emissions from traditional cremation.