dopefiend420
New Member
A solar powered grow room with 3 tents/cabinets; one for veg, one for bloom, one for mother and clones:
If we used one 600W HID for each area, the energy requirements would be around 1800W*h not including power conversion losses. Factoring conversion losses (Around 59%) would near 3042W*h. Okay, now let h=18; energy requirement is 32.4-54.8kW a day. Wow!
Now by those modest estimates, to run a system using HID off of solar power starts to seem ridiculous.
There is a way to grow solar without the 59% energy conversion loss!
Okay, where does all the loss come from? The answer seems to be mostly the battery charger efficiency (~70% efficient) and the inverter efficiency (~70% efficient).
To use our system when the sun is not shining, we need to store power. Alot of the time, people will use a battery to store and provide electrical power in a process of electro-chemical potential conversion. This is quite lossy, inherently. Another way to store charge is by using a capacitor. Capacitors are unlike batteries; The power is stored electro-statically, as opposed to electro-chemically. As such, they are quite efficient, and also last many orders of magnitude longer than (any?) batteries. So use capacitor banks to store the power to get the most out of your system!
We also need to convert the 12-14.4vdc to 120-240vac (using inverter) for use in our system; Wrong! The reason why AC electric power is preferred for power distribution lines is because HVAC has splended line transmission qualities (Less lossy, less heat, potentially less dangerous) and Nikola Tesla is a badass (He invented the AC power transmission, AC motor/generator, wireless power/radio, fluorescent tube, particle accelerator, etc... [free energy?]) Anyways, to have DC power source with an AC power consumption requirement, a power conversion has to occur, which has losses. One of the main culprits in this power conversion loss is an electronic component known as an inductor. (It is worth mentioning that by doing away with the inverter, we do not get to have AC power, which means no AC electronics, such as balast lighting... )
So we should instead use "pure" DC (inductor-less) if we want to achieve respectable efficiencies. Zener diodes can be used to drop voltages to required 12v, 5v, etc... Capacitor charge pumps can be used to increase voltages.
When working with a power supply, try to keep your load consistent with the supply, or else pay the energy cost!
Here is an idea:
Run an indoor all LED grow-op using solar panels and super-capacitor charge bank, all made of organic graphene technology I dare say!
Have the circulating fans be electrostatic (As opposed to inductive) and CO^2 generators that are yeast bio-digesters! Heaters/Coolers?; Run them off of methane from another bio-digester! BONUS: By using bio-digesters, you are left with excellent compost to feed your plants!
I am interested in a three tent system: Veg, flower, and mother with clones. The idea here would not be maximum yield for space, but rather minimize kilowatt hour consumption per gram (kWh/g), with some decent size colas for cheifin'!
Other ideas are to incorporate skylights with mirrors and some type of solar tracking to increase light density to plants; use thermal sinking with water conduction to regulate temperature; set up aquaponics; rainwater collection for watering; bio-plastic pots.
Instead of the obscene energy requirement of a traditional indoor grow setup which would make off-grid power infeasible, this type of system could yield itself as a viable option for the poor man off-grid indoor grow.
Let me know what you think would work good for cost effective off-grid energy ganja gardening!
If we used one 600W HID for each area, the energy requirements would be around 1800W*h not including power conversion losses. Factoring conversion losses (Around 59%) would near 3042W*h. Okay, now let h=18; energy requirement is 32.4-54.8kW a day. Wow!
Now by those modest estimates, to run a system using HID off of solar power starts to seem ridiculous.
There is a way to grow solar without the 59% energy conversion loss!
Okay, where does all the loss come from? The answer seems to be mostly the battery charger efficiency (~70% efficient) and the inverter efficiency (~70% efficient).
To use our system when the sun is not shining, we need to store power. Alot of the time, people will use a battery to store and provide electrical power in a process of electro-chemical potential conversion. This is quite lossy, inherently. Another way to store charge is by using a capacitor. Capacitors are unlike batteries; The power is stored electro-statically, as opposed to electro-chemically. As such, they are quite efficient, and also last many orders of magnitude longer than (any?) batteries. So use capacitor banks to store the power to get the most out of your system!
We also need to convert the 12-14.4vdc to 120-240vac (using inverter) for use in our system; Wrong! The reason why AC electric power is preferred for power distribution lines is because HVAC has splended line transmission qualities (Less lossy, less heat, potentially less dangerous) and Nikola Tesla is a badass (He invented the AC power transmission, AC motor/generator, wireless power/radio, fluorescent tube, particle accelerator, etc... [free energy?]) Anyways, to have DC power source with an AC power consumption requirement, a power conversion has to occur, which has losses. One of the main culprits in this power conversion loss is an electronic component known as an inductor. (It is worth mentioning that by doing away with the inverter, we do not get to have AC power, which means no AC electronics, such as balast lighting... )
So we should instead use "pure" DC (inductor-less) if we want to achieve respectable efficiencies. Zener diodes can be used to drop voltages to required 12v, 5v, etc... Capacitor charge pumps can be used to increase voltages.
When working with a power supply, try to keep your load consistent with the supply, or else pay the energy cost!
Here is an idea:
Run an indoor all LED grow-op using solar panels and super-capacitor charge bank, all made of organic graphene technology I dare say!
Have the circulating fans be electrostatic (As opposed to inductive) and CO^2 generators that are yeast bio-digesters! Heaters/Coolers?; Run them off of methane from another bio-digester! BONUS: By using bio-digesters, you are left with excellent compost to feed your plants!
I am interested in a three tent system: Veg, flower, and mother with clones. The idea here would not be maximum yield for space, but rather minimize kilowatt hour consumption per gram (kWh/g), with some decent size colas for cheifin'!
Other ideas are to incorporate skylights with mirrors and some type of solar tracking to increase light density to plants; use thermal sinking with water conduction to regulate temperature; set up aquaponics; rainwater collection for watering; bio-plastic pots.
Instead of the obscene energy requirement of a traditional indoor grow setup which would make off-grid power infeasible, this type of system could yield itself as a viable option for the poor man off-grid indoor grow.
Let me know what you think would work good for cost effective off-grid energy ganja gardening!