Phillip Balding v0.1  20200624     Large thermal energy users should store thermal energy and export electricity on-demand.​    modelling whether large thermal industry consumers (eg santos) could: 	-electrify heating processes.  	-source all energy from cheapest RE at cheapest time.   	-build therm
Phillip Balding v0.1 
20200624

Large thermal energy users should store thermal energy and export electricity on-demand.​

modelling whether large thermal industry consumers (eg santos) could:
-electrify heating processes.
-source all energy from cheapest RE at cheapest time.
-build thermal storage on-site, to double the energy requirements.
-install electricity generators on thermal storage units, export electricity to grid on-demand.
-eradicate coal generation, compete with gas

Thermal energy storage can be 95% efficiency in recovery, when heat is the desired energy output. Therefore our large heat consumers should electrify and store their heat, and be paid by AEMO for demand shedding services.
Further, thermal industry could SELL electricity to the grid. By storing heat in excess of their operational requirements, energy recovery systems could generate electricity at morning and evening peaks. 
The inefficiency of thermal energy recovery systems are redundant when on-site with a thermal energy consumer. The heat waste by-product is desired!
AEMO could also pay industry exporting electricity on demand at large quantities for stabilising the grid with FCAS services.

Expensive batteries are redundant if there is a revolution of thermal energy users to store thermal energy and export electricity on-demand, stabilising the grid to go 100% renewable generation, PLUS transitioning the large dirty gas users to electrification and RE.
Two households with PV systems and Electric Vehicles, sharing a battery and connected to the grid. What are the advantages?
Two households with PV systems and Electric Vehicles, sharing a battery and connected to the grid. What are the advantages?


Jevons Paradox says that energy
efficiency measures lead to an increase in energy use and not, as expected, to
a reduction. The same paradox applies to efforts to conserve energy. Those that
 try to conserve energy by walking to
work or line-dry their clothes  may feel satisfaction,
but their effort
Jevons Paradox says that energy efficiency measures lead to an increase in energy use and not, as expected, to a reduction. The same paradox applies to efforts to conserve energy. Those that  try to conserve energy by walking to work or line-dry their clothes  may feel satisfaction, but their efforts are probably in vain:  the energy saved will promptly be used  by others, especially as saving energy causes it to become cheaper.  This CLD tries to illustrate the dynamic that operates behind the paradox.

Please note that Tim Garrett, an atmospheric scientist, recently confirmed the validity of the Jevons Paradox which had already been proposed in 1865.

       This model should estimate how many days it takes to get burned out while having big
workload. And also how long it will take to recover.

      This model should estimate how many days it takes to get burned out while having big workload. And also how long it will take to recover.

Feasibility study and payback time of SWAC system; heat exchange with sea water instead of air, with higher initial investment and lower running costs.
Feasibility study and payback time of SWAC system; heat exchange with sea water instead of air, with higher initial investment and lower running costs.