Off-world Power Generation Lab 1: Free Space 1W Transmission: Difference between revisions
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* Use a full-sized solar panel to power a large battery | * Use a full-sized solar panel to power a large battery | ||
* Use the large battery to power a raspberry pi | * Use the large battery to power a raspberry pi. | ||
* Use the large battery to power a small laser. | * Use the large battery to power a small laser through a voltage regulator that reports available power. | ||
* Add an on/off switch to the laser circuit that is controlled by the pi. | * Add an on/off switch to the laser circuit that is controlled by the pi. | ||
* Point the laser at a small solar panel. | * Point the laser at a diffraction lens that illuminates a small solar panel. | ||
* Power a small battery with the small solar panel. | * Power a small battery with the small solar panel. | ||
* Use the small battery to power an arduino through a voltage regulator that reports the available power. | * Use the small battery to power an arduino through a voltage regulator that reports the available power. | ||
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* [https://www.survivallaserusa.com/Safety_Goggles/cat1667093_1527285.aspx laser goggles] | * [https://www.survivallaserusa.com/Safety_Goggles/cat1667093_1527285.aspx laser goggles] | ||
* [https://www.amazon.com/Renogy-Watts-Volts-Monocrystalline-Solar/dp/B07GF5JY35/ref=sr_1_11_acs_osp_osp20-b1f7e63e-74_1?s=lawn-garden&ie=UTF8&qid=1541474151&sr=1-11-acs&keywords=solar%2Bpanel&tag=bestcont06-20&ascsubtag=b1f7e63e-74a2-4f22-9bde-a2a7192c7ebf&linkCode=oas&cv_ct_id=amzn1.osp.b1f7e63e-74a2-4f22-9bde-a2a7192c7ebf&cv_ct_pg=search&cv_ct_wn=osp-search&pf_rd_i=solar%2Bpanel&pf_rd_s=desktop-sx-inline&pf_rd_m=ATVPDKIKX0DER&pd_rd_r=65ac5c62-9821-43ee-bb09-10cee0f24e90&pd_rd_wg=PdGS4&pf_rd_t=301&pf_rd_r=5S3S6A8QRAKX5GP9B8ZR&pd_rd_w=uHYVU&pf_rd_p=53b688eb-671a-4acd-886f-dc89fa36d3d2&creativeASIN=B009Z6CW7O&pd_rd_i=B009Z6CW7O&th=1 100W solar panel] | * [https://www.amazon.com/Renogy-Watts-Volts-Monocrystalline-Solar/dp/B07GF5JY35/ref=sr_1_11_acs_osp_osp20-b1f7e63e-74_1?s=lawn-garden&ie=UTF8&qid=1541474151&sr=1-11-acs&keywords=solar%2Bpanel&tag=bestcont06-20&ascsubtag=b1f7e63e-74a2-4f22-9bde-a2a7192c7ebf&linkCode=oas&cv_ct_id=amzn1.osp.b1f7e63e-74a2-4f22-9bde-a2a7192c7ebf&cv_ct_pg=search&cv_ct_wn=osp-search&pf_rd_i=solar%2Bpanel&pf_rd_s=desktop-sx-inline&pf_rd_m=ATVPDKIKX0DER&pd_rd_r=65ac5c62-9821-43ee-bb09-10cee0f24e90&pd_rd_wg=PdGS4&pf_rd_t=301&pf_rd_r=5S3S6A8QRAKX5GP9B8ZR&pd_rd_w=uHYVU&pf_rd_p=53b688eb-671a-4acd-886f-dc89fa36d3d2&creativeASIN=B009Z6CW7O&pd_rd_i=B009Z6CW7O&th=1 100W solar panel] | ||
* | * [https://www.ebay.com/itm/272920046807 solar power regulator] - I have no idea if this will do the job yet... but it's on the way! | ||
* Raspberry Pi 3 | * Raspberry Pi 3 | ||
* [https://www.banggood.com/300mW-405nm-Focusable-Blue-Violet-Laser-Module-for-DIY-Laser-Printer-Engraving-Machine-Engraver-p-1225514.html?utm_campaign=BestToolLocker_October&utm_content=2635&p=KR28032004379201507P&cur_warehouse=CN $45 300mW laser] | * [https://www.banggood.com/300mW-405nm-Focusable-Blue-Violet-Laser-Module-for-DIY-Laser-Printer-Engraving-Machine-Engraver-p-1225514.html?utm_campaign=BestToolLocker_October&utm_content=2635&p=KR28032004379201507P&cur_warehouse=CN $45 300mW laser] | ||
* Arduino Uno | |||
* Breadboards | |||
* Multimeters (two hand-held, two usb inline) | |||
=== More gear that we may not need === | |||
* [https://smile.amazon.com/gp/product/B075T8ZWSN/ref=oh_aui_detailpage_o00_s00?ie=UTF8&psc=1 cheap <$1 5mW laser] | * [https://smile.amazon.com/gp/product/B075T8ZWSN/ref=oh_aui_detailpage_o00_s00?ie=UTF8&psc=1 cheap <$1 5mW laser] | ||
* Raspberry Pi 3 | |||
* Arduino Uno |
Revision as of 22:52, 2 December 2018
- Use a full-sized solar panel to power a large battery
- Use the large battery to power a raspberry pi.
- Use the large battery to power a small laser through a voltage regulator that reports available power.
- Add an on/off switch to the laser circuit that is controlled by the pi.
- Point the laser at a diffraction lens that illuminates a small solar panel.
- Power a small battery with the small solar panel.
- Use the small battery to power an arduino through a voltage regulator that reports the available power.
Remember: we regulate the voltage, everywhere. Only voltage can force current where it is not wanted.
Can we keep the arduino powered 24/7?
[large panel] > [regulator] > [battery] > [pi] SPACE > [regulator] > [laser] =====> [small panel] > [regulator] > [battery] > [arduino]
Gear
- laser goggles
- 100W solar panel
- solar power regulator - I have no idea if this will do the job yet... but it's on the way!
- Raspberry Pi 3
- $45 300mW laser
- Arduino Uno
- Breadboards
- Multimeters (two hand-held, two usb inline)
More gear that we may not need
- cheap <$1 5mW laser
- Raspberry Pi 3
- Arduino Uno