The object was to set up a point to point radio link to a spot on
the west face of
Jordan Peak
This is step 1 of a feasibility study to see if an internet signal
could be sent from a local residence to another that is located away
from the normal cable network.
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Heading up to the top for the initial site survey
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910 ft above ground level, the view to the west is phenomenal |
We mounted this solar yard floodlight in a tree to get an idea of
the location from below
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It really showed at night
Note the tiny dot of light, left center near top of mountain.
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Here's the light at dusk proving that the line of sight radio link will work.
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One of two Ubiquity NanoBridge antenna units set up for initial testing.
These are available on the surplus market for about $40 each.
This unit has a range of 20-40 miles. Line of sight only. |
Initial testing using a deep cycle marine battery, a Linksys router
configured as an access point and DC-DC converter to provide 24 Volt
power the remote NanoBridge Dish
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Building up the plastic tote mountaintop kit with Marine battery and Linksys
router.
Solar panel and charge controller will be added after initial
testing.
Each parabolic antenna connects to one of the router antenna
terminals |
Mountain top kit ready to go in the woodshop.
Nanobridge Dish on left will be aimed at the ground station |
Another view of the remote relay station.
The two parabolic antennas point to two houses unable to obtain
normal internet service.
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Here's the tote and two parabolic antennas positioned and ready for
the initial testing. Flags aid in the proper alignment of
the ground station dish
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Shot from the rear showing one coverage area just right of center |
Nanobridge dish pointed at the ground station 1/2 mile away.
Solar yard light shows location at night for fun
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Hi-gain WiFi antennas relay hi-speed internet signal.
These antennas are highly directional and are pointed at two houses
below the mountain
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Nanobridge "dish"
Ground station
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Final alignment of WiFi antennas
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Addition of a Ubiquiti Nanostation (upper L) to direct data
to a duplicate station on the ground. These units work well as
pairs.
Final mountain relay test configuration:
-one nanobridge dish connecting the relay station to the ground station
- one wifi parabolic connected to the router antenna plug (serves coverage
area 1)
- one nanostation connected to the router LAN jack (serves coverage area
2)
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20W Solar panel charges the marine battery in the tote.
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Nanostation unit pointed toward the target coverage area "2"
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80ft cable connects the Nanostation to the relay tote |
Remote Nanostation: area of coverage 2
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Mountain Relay Project
Each step had to deliver a "yes" to move to the next step
Step 1 Is it feasible to send a signal to the mountain from a ground
station.
Step 2 Build a weatherproof totebox containing a
battery power supply and router.
Step 3 Receive a high speed signal at the mountain
Step 4 Receive a "relayed" WiFi signal from the totebox router parabolic
antenna in the area below the mountain.
Step 4 Receive a "relayed" signal from the mountain
Nanostation in the area below the mountain.
Step 5 Reposition the Nanostation ~100
ft to the SE so as to send a signal to a second coverage area.
Step 6 Receive a "relayed" high speed connection at the second coverage area
using a second Nanostation. |
More Wi-Fi stuff
Tree Farm Home
10/22/16 |