Boltek LD-250 Relay Interface

boltek

 

 

 

 

The LD-250 Lighting Detector from Boltek has an internal output for a relay interface, the manufactures units are quite expensive, so I decided to make my own.

relay
RLO-10 Boltek Relay Interface

Inside the LD-250 is a 14 way header which connects via ribbon cable to the RLO-10, off eBay I bought the 14 way ribbon cable and IDC cable mount socket for £5.00.

Opening the LD-250 the header JP1 is immediately obvious:

inside

 

 

 

 

 

 

 

 

 

 

 

 

Using my multimeter, the header output pins linked to the front panel LED’s and the operating voltage was quickly found.

diagram

Using a spare strip of veroboard I mounted a magnetically shielded reed relay 5v, with flywheel diode across the coil, and the switched Normally Open reed output to a 2.54mm x 2 pitch connector, I also put veropins in the board so I can select which function I want the relay to operate on, should it be needed in the future.

The reed switch is used to switch 24v DC to an indicating LED and a a PLC input, the total load was measured at 21.49mA, well within the 500mA rating of the reed switch.

The module was placed in a small enclosure:enclosure

 

 

 

 

 

 

 

The ribbon cable was then plugged into JP1 inside the LD-250:

ribbon

 

 

 

 

 

 

 

 

 

 

 

Switching on the Boltek performs a self test of the front LED’s and internal buzzer, as I have used the output from the ‘Close’ LED, the reed relay operated and the mast which was raised, automatically retracted.

All in all the project performs as expected and cost me £7 (enclosure was £2) saving me £58.95 on a factory unit.

Virgin Cable coming to Chatteris

virgin

 

 

 

 

As part of Connecting Cambridgeshire Virgin Media and BT are rolling out super fast broadband.compare

 

 

 

I currently use TalkTalk via a copper pair for my broadband and phone with a maximum speed of 56.54Mbps download, 17.46Mbps Upload and a Ping time of 10ms which is proberbly the best I can get.

When I saw that the Virgin Media cable enabling works was scheduled for installation on the road I live on via Roadworks.org, I thought I’d start this blog.

map

 

 

 

 

 

 

 

The works is due to satrt on 4 August, expecting to last until the 14 August and I registered my interest HERE,  as the works progress I’ll try and get pictures and journal my cable installation.

Voltage Control Relay

Link back to Radio Mast Automation – HERE where the EASY RL-V23 unit can just be seen attached to the lid of the mast controller.

Voltage Unit
EASY Voltage Unit

The above module was from eBay and advertised as a ’12V Voltage Control /Delay Switch /OverVoltage /Under Voltage Protection Module’ for £4.92.

This unit is incredibly versatile, and I’ve included the operating instructions in the blog.

I have used this module to monitor the charging voltage of a battery, once the voltage has reached a pre-set value, an output will trigger to stop the charger.

voltage relay

 

Operating modes:
P-1: Timer ( 1-999 S / 1-999 Min)
P-2: Delay timer ( 1-999 S / 1-999 Min)
P-3: Voltage control relay ( control the load on/off)
P-4: Voltage control Timer- A (release first)
P-5: Voltage control Timer- B (close first)
P-6: Voltage range control relay
P-7: Voltage range control Timer
P-8: Set display off
Timing Range: 0-999 seconds or 0-999 minutes (0.1s-999s optional)
Voltmeter display range: DC 0-99.9 V
Voltage detection error: ± 0.1V
Operating Power: DC10~16V (5V,24V optional)
Relay parameters:
Coil Voltage: DC 12V (5V,24V optional)
A set of conversion (normally open and normally closed)
Contact load: 10A/277V AC or 10A/30V DC
Contact resistance: ≤ 100mΩ (1A 6VDC)
Mechanical durability: 10 millions
Electricity durability: > 100,000 (10A-250VAC)
Operating Temperature: -40 ~ 85℃
External signal input: (5~ 12V) or passive switch (9 levels delay time can be set)
Timer mode can set the relay contact close and release time, the implementation of a single timing loop
In voltage control mode, can preset upper and lower voltage values limits
Set display shut, the minimum current values are 6mA/12V (delay released)
The pre-set parameters can be saved after power off.
2 Operating modes:

Connect to power, LED digital tube displays words “E-A-Z-Y-t” in turn, system enter into the selection state, the initial mode selection is displayed as “P-0”, press the “SET” button to select “P-1~P-8” mode, press “ENTER” to enter the corresponding mode.while any mode running, press the “ENTER” button for 3 seconds, system will return to the mode selection state.

Press the “SET” and “ENTER” button to connect the power, the controller will be restored to factory settings.

2.1 Timer mode (P-1)

Press the “SET” button to select “P-1”, controller system will enter into the timer mode.

“P-1”/ “P-2”: 1-999 seconds /minute can be set.

Cyclic run:

In the timer mode, the user can set the relay’s close time T1 and the release time T2,such as setting T1 for 3 seconds, T2 for 7 seconds, the relay will be closed for three seconds then release for 7 seconds, cyclic run.

User also can set cyclic times.

When you have set the values of the T1 and T2 , the system saved the settings, the next time system will be loaded automatically T1 time to wait running.

Timer:

If you set T1 with a specified time, set T2 (release time) with 0, the relay will stop after the timer run T1 time, no longer running, it can be used as a timer, with running time end, the normally open contact of relay release, then press the “ENTER” button, the system re-start the timer for T1 time.

In timer state, you can use external switch or pulse signal input Interface on controller to start the timer (trigger).

Timer setting steps:
1) For the first time of set , select “P-1” time relay mode, LED digital tube display” 000 “;

2) Press the “SET” button, system will enter into the T1 time values settings first, the digital LED that wait for set flashing with 1Hz frequency, press “ENTER” to select the number of values, press the “SET” button for three times to enter the T2 time values settings, and cyclic times, press the “SET” button to exit the set state, the system waits to press “ENTER” button to start running.
3) In the time setting state ,time values’ unit can be switched to minutes unit or second unit, press the “SET” button to enter the time set by state (set LED digital tube flashing) ,at this time Press the “SET” button for 3 seconds to release ,the LED digital tube will light the right decimal points, it means that timing values with minutes unit, if the decimal point dose not light, it means that timing values with seconds unit.
4) After setting is completed, press the “SET” button to exit the setting state, press “ENTER” to start timing, if timing values is set with second unit, seconds values will display with countdown form. If timing values is set with minute unit, the right decimal point flashing with 1Hz frequency, means the countdown is running. While timer is running, the normally open contact of relay connected, the normally closed contact of relay disconnect, press the “ENTER” to halt run, press the “ENTER” for three seconds to return mode selection state “P-0”.
2.2 Delay timer (P-2)

The Setting method of “P- 2” is the same as “P- 1”, in the mode of “P-2”, the relay will first execute release of T1 time then closed with T2 time.

2.3 Voltage control relay mode (P-3)

In mode selection state(“P-0”), press the “SET” button to select “P-3”, then press the “ENTER” to enter the voltage comparison control mode, the controller will detect voltage from “VOL” Interface and display values (DC 0-99.9V),it also can be used as a DC voltmeter ,the default initial run state relay contact is closed (normally closed contact is disconnected, normally open switch on), press the “SET “button to set the three bit values, the LED digital tube is set to flashing with1Hz frequency, first to be set upper limit voltage values , press the “SET” button three times, lower limit values of voltage to be set,press the “ENTER” button to increase the number of values, the lower limit voltage can not exceeds the upper limit, press the “SET” button to make digital tube is no longer flashing, this time system enter into voltage control mode , the controller detects DC voltage from external input Interface , when voltage detection exceed the upper limit of the pre-set, the relay close (normally open contact connect ,normally closed disconnect), until the voltage drops below the lower limit pre-set, the relay will release (normally closed contact connect , normally open contact disconnect).

In voltage control condition, press the “SET” button for three seconds then release the button, the contact of relay state will be reversed. such as: the relay close when detect voltage below the lower limit voltage.

If the pre-set voltage upper and lower limits set to the same, such as 12.0V, when controller detect volts at 12.0 fluctuations may cause the relay contact frequent action, we recommend to set the voltage to maintain the difference between the upper and lower limits.

Note: The detection voltage terminal must connected reliable, have not loose wiring around the circuit board insulation ,may lead to the induced voltage detection values is not accurate.

2.4 Voltage control Timer mode (P-4 / P-5)

“P-4” or “P-5” mode is composed of “P-1” and “P-3” or “P-2” and “P-3”.When the system switched to “P-4” from “P-1”or“P-2”,it will enter the voltage control timer mode, the controller will detect voltage from “VOL” Interface ,when detect voltage exceed the upper limit of the pre-set voltage, the timer will start , until the volts drops below the lower limit pre-set , the timer stop.

If you set time in “P-1” mode previous, then enter the “P-4” mode , the relay will close with timer first ,then release, If you set time in “P-2” mode previous, then enter the “P-4” mode ,the relay release with timing then closed.

The difference between “P-4” and “P-5” is the relay’s Initial state, “P-4” mode relay release first, but “P-5” mode relay close first.

Press the button of “SET” last for 3 seconds, the timer will start in the case of the voltage is below the lower limit. the setting method of limit pre-set voltage, please refer to section 2.3.

For example:

(1) In P-2 mode , set T1 005, T2 000, then enter P-4 mode , voltage detection exceed the upper limit of the pre-set the relay will close after 5 seconds, voltage drops below the lower limit pre-set the relay release Immediately.
(2) In P-1 mode , set T1 005, T2 000, then enter P-5 mode, voltage below the lower limit pre-set the relay close immediately, voltage detection exceed the upper limit of the pre-set the relay will release after delay 5 seconds.
Voltage control logic can be reversed with press SET key for 3 seconds.

2.5 Voltage range control relay (P-6)

If the voltage controller detects exceed the upper limit of the pre-set voltage, or the voltage drops below the lower limit pre-set voltage, the relay will close, otherwise the relay release between upper limit and lower limit range. Press the button of “SET” last for 3 seconds, the relay reversed. The relay will close between upper limit and lower limit.

2.6 Voltage range control Timer (P-7)

If the voltage controller detects exceed the upper limit of the pre-set voltage, or the voltage drops below the lower limit pre-set voltage, the relay will run follow time relay mode that has been set in P-1 or P-1 mode previous.

When voltage values between the upper limit and lower limit range, press SET key for 3 seconds, relay reversed between close and release (ON/OFF).

For example:

In P-1 mode, set T1 005, T2 000, then enter P-7 mode, set relay close between upper limit and lower limit range. When voltage below lower limit or exceed upper limit, the relay will release after 5 seconds.

2.7 Set display shut (P-8)
The display shows “d-0” means keep bright, you can press the button of “SET” set 0-9 minutes for display shut.

graphGraph showing operation of raise and lower including the automatic charging cycle.

Radio Mast wire rope protection & lubrication system

I wanted a quick and easy way of applying protective lubricant to the wire rope which raises and lowers my mast, my first effort involved a paint brush and a tin of grease and I thought then that their must be a better method, both in terms of speed and effective application.

The option I chose was to use a spray wire rope and chain lube in conjuction with a home brew applicator.

applicator

The FORCE spray lube costs £6.25 for 400ml from eBay, the details of product are:

  • A long lasting highly tenacious spray grease which reduces wear and increases chain life.
  • High grip, anti fling properties provide long lasting, high depth lubrication and protection.
  • Penetrates inner rollers and resists the highest shock loads.
  • Ideal for chains, cables, wire ropes, fork lift chains, open gears and tail lift assemblies.
  • Reistant to weather and salt, provides high resistance to wash off.
  • ‘O’ Ring Safe unlike other greases!

Parts

  1. 1 off 10mm copper pipe 150mm in length
  2. 1 off 15mm copper pipe 135mm in length
  3. 1 off 4mm copper pipe 60mm in length
  4. 1 off 12mm panel grommet

Construction

The 10mm pipe had a 5mm slot cut down the complete length to allow the pipe to fit over the wire rope, at the base of the 10mm pipe I ‘flared’ this to 14mm.

The 15mm pipe was cut at one end with a roller type pipe cutter (pipe slice) and this formed a nice curved lip, at the other end I used a hacksaw, this pipe also had a 5mm slot cut down its length, for the cutting of the slots I used a dremel with a mini abrasive disc.

As the spray gease doesn’t come with extension tubes, I decided to use 4mm copper pipe (the 2mm inside pipe bore is perfect to slide over the spray cap nozzle), this was soldered half way up the 15mm pipe, this pipe enters directly opposite the cut slot. To act as a ‘key-way’ it protudes into the pipe by 1mm.

A 12mm panel grommet is cut to fit inside the 10mm pipe.

Operation

The 10mm pipe is slid over the cable with the flared section at the bottom:

10mm pipe

The grommet is installed at the top:

cut grommet ready to fit in pipe

grommet in 10mm pipe

The 15mm pipe is now slid over the cable above the 10mm pipe and rotated so the grease inlet is inline with the slot in the 10mm pipe:

4mm inletNoting the alignment, the 10mm pipe is pushed inside the 15mm pipe, the 4mm pipe protuding inside the 15mm pipe ensures the 10mm pipe can only fully slide in if the slot aligns, The lip on the 15mm pipe holds the grommet in place:

grommetThe finished product works quite well and gives an even coating to the wire rope, the length of the 4mm pipe was to allow the spray can to rest on a bracket, so I simply raise the mast and hold the spray button down 🙂

applicator

 

Radio Mast Automation – Part 5: Control Modification

Since my last blog on Mast Automation when I thought I’d finished the project, I have made some changes to my weather station which means I no longer have an output to the mast controller, this output used to trigger the mast to lower when the wind speed hits 30 mph.

I decided to update the discontinued version of my Programmable Logic Controller (PLC) with a Rievtech PR-18DC-DA-R from Audon Ltd, this unit is a direct replacement for my old PLC and has 12 Inputs and 6 relay Outputs.

Rievtech PLC

The PLC accepts a number of input types, in my application I’m simply switching a voltage state with the exception of one of the inputs which is configured as an Analogue input, to which I have connected my mast mounted Anemometer as a means to trigger mast lowering during unsafe wind conditions.

1733

Adafruit 1733

TECHNICAL DETAILS

Dimensions:

  • Height (base to center): 105mm / 4.1″
  • Center out to Cup: 102mm / 4″
  • Arm Length: 70mm / 2.8″
  • Weight: 111.8g

Wire Dimensions:

  • Wire Length: 99cm / 39″
  • Plug Length: 30mm / 1.2″
  • Diameter (thickness): 4.8mm / 0.2″

Specifications

  • Output: 0.4V to 2V
  • Testing Range: 0.5m/s to 50m/s (111.8 mph)
  • Start wind speed: 0.2 m/s
  • Resolution: 0.1m/s
  • Accuracy: Worst case 1 meter/s
  • Max Wind Speed: 70m/s (156.5 mph)
  • Connector details: Pin 1 – Power (brown wire), Pin 2 – Ground (black wire), Pin 3 – Signal (blue wire), Pin 4 not connected

I tested the output  with help from my better half by driving at steady speed and monitoring the output from the anemometer:

  • 0 mph = 0.40  mV
  • 25 mph = 0.78 – 80 mV
  • 28 mph = 88 mV
  • 30 mph = 96 – 100 mV
Anemometer
Anemometer mounted on 2m/70cm H/V relay switch box

I mounted the anemometer to the top of my mast to get a representative wind speed, the next job was to strip out the old PLC from the control cabinet.

Mods
Starting mods, (hand held winch controller on top of cabinet)

I needed to make several changes from the original design in order to free up one of the PLC’s inputs, also out of the 16 Inputs only the first 6 allow analogue inputs, so some moving of inputs was needed along with some minor works to the LED voltages and override/luffing switch.

PLC
Completed Cabinet

All went back together quite nicely but an intermittent problem remained after the PLC replacement in that when the mast completed the mast raise cycle, the motor would immediately reverse and the mast would lower.

Hooking up the laptop to to the PLC, I selected ‘live monitoring’, this displayed the input and output condition, this showed that after operating the ‘raise’ toggle switch (centre bias On – Off – On centre off), the ‘lower’ switch input also went and remained high. This output to the PLC caused the motor to immediately  change direction and lower the moment the mast raised sensor was triggered.

To reduce the chance of a repeat problem occurring, I modified the replacement DPDT switch wiring so that both poles need to switch in order for a signal to pass.

switch wiring

Prior to starting the upgrade works I had the programmed PLC on the bench and I thoroughly tested all control permutations by simulation using the software from Audon Ltd to ensure correct operation.

v3
PLC Modified block diagram (Program File for use with xLogicsoft)

As you can see, the logic has grown with the project, I’m sure this could be significantly simplified, however, it works for me.

Mast Control Logic

Pressing the Emergency Stop button will inhibit any operation and reset any timers which are running.

Raising the Mast

Conditions –

  • E Stop not pressed. (Input 1004)
  • Top Securing mast pin IN. (Input 1008)
  • Mast in the lowered position. (Input 1006)

Trigger –          Switch input momentary high. (Input 1003)

Action –

  • Lower switch inhibited.
  • Switch input via wiping relay with a 1 second ON timer to ensure momentary trigger to the next stage.
  • 36 second up timer start to operate Up relay (fail mechanism in case the ‘raised’ sensor fails).
  • Up relay closes to energize motor drive. (Q002)
  • After expiry of Up timer or on activation of the Up sensor, Up relay opens.
  • Mast raised output relay energizes. (Q003)

Lowering the Mast

Conditions –

  • E Stop not pressed. (Input 1004)
  • Top Securing mast pin IN. (Input 1008)
  • Mast in the raised position. (Input 100C)

Trigger –          Switch input momentary high. (Input 1005)

Action –

  • Raise switch inhibited.
  •  Switch input via wiping relay with a 1 second ON timer to ensure.momentary trigger to the next stage.
  • 39 second down timer starts to operate Down relay (fail mechanism in case the ‘lowered’ sensor fails).
  • Down relay closes to energize motor drive. (Q001)
  • After expiry of Down timer or on activation of the Down sensor, run on timer operates for 0.15 seconds to take slack off winch cable.
  •  After expiry of run-on timer, Down relay opens.
  • Mast lowered output relay energizes. (Q004)

Wind Speed Triggered Auto Lower

Conditions –

  • E Stop not pressed. (Input 1004)
  • Top Securing mast pin IN. (Input 1008)
  • Mast in the raised position. (Input 100C)

Trigger –           Wind measured via Anemometer at 28 mph for 1 minute. (Input A1001)

Action –

  • 0.4 – 2v Anemometer to Analogue Threshold Trigger output set go high at 90 mV and off at 76mV, these values equate to ~28 mph and ~24 mph respectively.
  •  ‘On Delay’ timer from analogue threshold trigger set for a sustained output of 1 minute duration before the next stage is enabled in order to reject gusts.
  •  ‘Off Delay’ timer set to 10 minutes, if no input from the ‘On Delay’,  ‘Off Delay’ resets.
  • Whilst the ‘Off Delay’ timer is running, the WX Amber LED is lit. (Q005)
  • Output from ‘Off Delay’ to wiping relay timer set to 1 second to ensure a momentary output to the next stage.
  • 39 second down timer starts to operate Down relay (fail mechanism in case ‘lowered’ sensor fails).
  • Down relay closes to energize motor drive. (Q001)
  • After expiry of Down timer or on activation of the Down sensor, run on timer operates for 0.15 seconds to take slack off winch cable.
  •  After expiry of run-on timer, Down relay opens.
  • Mast lowered output relay energizes. (Q004)

Battery Charging Process

The winch has 3000lb capacity from Winch-It and is powered by a 12v car battery with a capacity of 45Ah – 360cca.

Normal Operation –    4.5w solar panel connected to the battery via CMP Solar Charge Controller.

Automatic Operation –

Trigger –       After 4 operations of the motors (raise & lower twice) or Weekly – Sunday 01.00

Action –

  • Multi-pole relay energizes after a 2 second delay via Q006, this:
  • Disconnects the solar panel.
  • Applies mains to a 4A output battery charger (charger sized for Ah of battery).
  • Connects the battery charger output to the battery.

Charging ceases when:

  • Battery terminal voltage reaches 14.14v (Over-voltage detection module to Input 100A).
  • 8-hour battery run timer expires.

Manual Operation –

Charging Start – Push button in control cabinet (Input 100B)

Charging Stop – Cursor key on PLC (C3)

Note –

If the battery charging cycle has started and the motor (either up or down) is operated, charging will cease and resume after a delay of 2 seconds after the motor has stopped.

Luffing the Mast

Conditions –

  • E Stop not pressed. (Input 1004)
  • Top Securing mast pin Out. (Input 1008)
  • Bottom Securing mast pin In (Input 1002)
  • Mast in the lowered position. (Input 1006)
  • Luffing switch set to On (Input 1007)

Trigger –           Momentary switch (raise or lower) (Inputs 1003 or 1005)

Action –            Operating the Luffing switch supplies power to the wireless receiver and manual switch which came with the Winch-It kit via a relay , the supply for this is taken from the Luffing/Override indicator LED, (the Luffing switch is a Double Pole Double Throw On – Off – On, the LED is fed from one side of the switch).

A further change to the control is to from latching to momentary switch operation allowing the motor to be ‘inched’ via the wireless handset or panel switches in the control cabinet.

Using the handset allows the mast to be walked down whilst lowering or the reverse when reinstating the mast to the vertical.

Override

Operating the Override switch bypass all limit switches and enables momentary manual control.

 

UK Weather Network & Meteobridge Pro

Chatteris Weather has been publishing weather data to UK Weather Network (UKWX) for a number of years when Martin from UKWX Admin mailed to let me know my data was no longer being shown.

Originaly Weather Display was configured to send data to UKWX and during the changeover to Meteobridge Pro this got missed, fortunatly in Martins mail alerting me to the problem was a link on how to configure Meteobridge.

MB instructions

I followed the above steps but couln’t get it to work, Martin kindly gave me the details of Bob Montgomery owner of Bishop Sutton Weather Station who also uses a Meteobridge, and he was very willing to offer advice in order to help me get the data created in a format which UKWX can injest.

This is what I learned with help from Bob:

  1. Open MB_stickertags-template.txt
  2. Copy the contents of the text file and past it into Notepad (I use Notepad ++)
  3. Save this file as MB_stickertags-template.txt
  4. Upload this file to your server, for ease I placed it in the root directory
  5. Set the file permission to 666
  6. In Notepad create a blank file and save it as MB_stickertags.txt
  7. Upload this file to your server, for ease I placed it in the root directory
  8. Set the file permission to 604
  9. Open Meteobridge Pro and select the Services tab
  10. Create an FTP and select periodical upload
  11. Enter your site details and update frequency as per the example below  (don’t forget to use yoursite) and press SAVE
  12. .Press TEST
  13. Using your browser enter www.yoursite/MB_stickertags.txt and you should be able to see your data
  14. Using the UKWX Contact Form, let admin know of your details
Example MB
Example MB Pro Services Setup

 

 

 

All done and time for a coffee!

Weather Station for WordPress added

Weather Station LogoAdded Weather Station for WordPress to my blog pages, the application needs the following to work:

  • PHP 5.4 or greater;
  • cURL extension;
  • JSON extension;
  • Internationalization support.

My native setup 4.6 provided by GoDaddy had 3 out of the 4, with Internationalization support missing, and thefore the app would not run.

Talking to GoDaddy techincial support, this was resolved very easily.

  1. Use cPanel to access your site.
  2. Click on ‘Select PHP version’.PHP page
  3. Click on the ‘PHP Version’ drop down box and select 5.6 and click ‘Set as current’, by default ‘inil’ is checked.
  4. Click ‘Save’ and all is done.

php version

 

Chatteris.biz SSL secured

secure

My main domain name is Chatteris. biz, Chatteris Weather and M0HTA.uk are  linked to this domain name.

In order to give users confidence that the site they are linking to is secure, I have upgraded to SSL.

SSL (Secure Sockets Layer) is the standard security technology for establishing an encrypted link between a web server and a browser. This link ensures that all data passed between the web server and browsers remain private and integral.

During the transition it was found that some of the existing information displayed broke the security integrity of SSL, and therefore, I have either changed the menu to the remote link directly or removed the link completely, this has been unavoidable.

Stopping MM0CUG Mast Rattle

With the latest round of high winds, my wall mounted 12m mast makes a loud rattling noise which transfers into the house as the mast marginally moves within the top bracket and was getting to be a nusance.

A simple solution was to make a plastic shim to take up the small slack bewteen the mast and bracket, this is visible in the picture to the left of the pin sensor (I put a 90 degree bend in the shim so I can put it out easily).

Top mast retaining pin

For the shim I used the a section of lid from 16 x 16 trunking lid from Screwfix.

Trunking lid

Grinding the lid lip took only a few seconds.

Trunking lid grinding down

Finished shim, I used two, one between the fron pin and mast, the other to the side of the top bracket and mast, nice, cheap and easy solution which has solved the noise problem.

Finished lid for cutting

Meteobridge Pro

Tidied up the installation of my Meteobridge Pro as originally it was inside a metal patch cabinet and I wanted to try using it on wi-fi.

The unit has been on test since it was returned from repair and has performed really well with no issues requireing a reboot, dropped uploads have been attributed to network problems, hence moving it outside of ther cabinet and off the wired LAN.

I monitor uptime from the Status Page of my weather web site, cumulative downtime is recorded in a rolling 7 day period within the MORE setting HERE.

The front USB port has a micro 16Gb thumb drive for saving scheduled backups.

SOHO cabinet

Power for the Meteobridge Pro and the Davis Vantage 2 Pro are both  fed from a UPS in order to filter the mains to the adapters and to keep the units active during short duration ‘blips’ in power.

The screenshot below shows all the services the MB Pro is running perfectly with the bonus of significantly reduced power consumption.

Meteobridge live data

Power Data: 5.47V 413mA 2.26W  (Box Climate: 51.5°C 11%)

General information and status updates.