Overview of Fortune Sacco Football Team
Fortune Sacco, a prominent football team based in Uganda, competes in the Ugandan Premier League. Established in 1989, the club has developed a reputation for its competitive spirit and strategic gameplay. The team is currently managed by their dedicated coach, who focuses on fostering both talent and teamwork.
Team History and Achievements
Fortune Sacco has a rich history marked by several notable achievements. The club has won multiple league titles and cup competitions, solidifying its status as one of Uganda’s top football teams. Key seasons include their championship-winning campaigns and memorable cup finals that have etched their name in the annals of Ugandan football.
Current Squad and Key Players
The current squad boasts a mix of experienced veterans and promising young talents. Key players include:
- John Doe – Striker known for his goal-scoring prowess.
- Jane Smith – Midfielder with exceptional playmaking abilities.
- Mark Johnson – Defender renowned for his tactical awareness.
Team Playing Style and Tactics
Fortune Sacco typically employs a 4-3-3 formation, emphasizing possession-based play and quick transitions. Their strengths lie in strategic ball control and effective counter-attacks, while their weaknesses include occasional lapses in defensive organization.
Interesting Facts and Unique Traits
The team is affectionately known as “The Fortunate Ones,” with a passionate fanbase that supports them through thick and thin. They have historic rivalries with other top teams, adding excitement to league matches. Traditional pre-match rituals are cherished by fans, enhancing the team’s unique identity.
Lists & Rankings of Players, Stats, or Performance Metrics
- ✅ John Doe – Top scorer this season with 15 goals.
- ❌ Defensive errors – A noted area for improvement.
- 🎰 Jane Smith – Key player in midfield dynamics.
- 💡 Mark Johnson – Consistent performer in defense.
Comparisons with Other Teams in the League or Division
Fortune Sacco is often compared to other top-tier teams like KCCA FC and Vipers SC. While they share similar ambitions for league dominance, Fortune Sacco distinguishes itself through its dynamic attacking play and resilient defense.
Case Studies or Notable Matches
A standout match was their thrilling victory against KCCA FC last season, where strategic substitutions turned the game around. This match remains a highlight in their recent history due to its dramatic finish and tactical brilliance.
| Statistic |
Data |
| Total Goals Scored This Season |
45 |
| Total Points Accumulated This Season |
38 points (12 wins) |
| Last Five Match Results (W/L/D) |
W-W-D-L-W |
Tips & Recommendations for Analyzing the Team or Betting Insights 💡 Advice Blocks
To effectively analyze Fortune Sacco for betting purposes:
- Analyze recent form trends to gauge momentum shifts.
- Evaluate head-to-head records against upcoming opponents.
- Maintain awareness of key player performances and potential injuries.
Frequently Asked Questions About Betting on Fortune Sacco 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block 🤔 FAQs Block
What are Fortune Sacco’s chances of winning their next match?
Favorable odds suggest they have strong potential if key players perform well.
Are there any injury concerns within the squad?
No major injuries reported recently; full squad expected to be available.
How does Fortune Sacco fare against top teams?
Their record shows competitive performances but mixed results against top-tier teams.
Betting Expert Opinion 💬 Quote block 💬 Quote block 💬 Quote block 💬 Quote block 💬 Quote block 💬 Quote block 💬 Quote block 💬 Quote block
“Fortune Sacco’s dynamic attack makes them a formidable opponent. Their ability to adapt tactically gives them an edge over many rivals.” – Sports Analyst Jane Doe
Pros & Cons of the Team’s Current Form or Performance ✅❌ Lists ✅❌ Lists ✅❌ Lists ✅❌ Lists ✅❌ Lists ✅❌ Lists ✅❌ Lists ✅❌ Lists ✅❌ Lists
Pros:
– Strong attacking lineup capable of scoring multiple goals.
– High morale following recent victories.
– Effective tactical flexibility under pressure.
– Robust support from passionate fans boosting team spirit.
– Consistent performance at home games provides an advantage.
– Cons:
– Defensive vulnerabilities occasionally exploited by opponents.
– Dependence on star players can be risky if they’re unavailable.
– Inconsistent away performance affecting overall standings.
– Lack of depth in squad leading to fatigue issues mid-season.
– Recent injuries could disrupt team chemistry if not managed well.jamesadell/llm-catalog/prompts/output/html/2023/07/08_00_09_22_56_output.html
Growing Wildflowers for Pollinators | Homegrown Happiness Blog | Growing Wildflowers for Pollinators | Homegrown Happiness Blog | Growing Wildflowers for Pollinators | Homegrown Happiness Blog | Growing Wildflowers for Pollinators | Homegrown Happiness Blog | Growing Wildflowers for Pollinators | Homegrown Happiness Blog | Growing Wildflowers for Pollinators | Homegrown Happiness Blog’
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saschaleppert/microservice-demo<|file_sep|RFM9000 Data Collection Example
This example demonstrates how to use the RFM90x LoRa radio module from HopeRF.
It is intended as a simple example which shows how to connect to two devices via Bluetooth LE using Nordic Semiconductor's nRF Connect app.
One device will act as an RFM90x transmitter sending temperature data every second.
The other device will act as an RFM90x receiver receiving data from any transmitter.
Both devices run on nRF52840 SoCs.
For more information about this project please refer to https://github.com/saschaleppert/microservice-demo/tree/master/rfm9000
This example requires:
nRF Connect App (https://play.google.com/store/apps/details?id=no.nordicsemi.android.mcp&hl=en_GB)
Nordic Development Kit DK4106 (https://www.nordicsemi.com/products/nrf-development-kit-dk4106)
You can find documentation about how to flash these devices here:
https://github.com/saschaleppert/microservice-demo/tree/master/rfm9000/transmitter
https://github.com/saschaleppert/microservice-demo/tree/master/rfm9000/receiver
Once you have flashed both devices you should see something like this when scanning your Bluetooth LE devices:

To see how this works we will first look at what happens on the transmitter side:

First we connect via Bluetooth LE using nRF Connect App.
Then we send our temperature data every second.
We set up our RFM90x module so that it uses channel 10 with spreading factor 12.
On the receiver side we see something similar:

Again we connect via Bluetooth LE using nRF Connect App.
We also set up our RFM90x module so that it uses channel 10 with spreading factor 12.
When data arrives we display it on screen.
Here is an example output when running both examples:

saschaleppert/microservice-demo10us */
nrf_gpio_pin_clear(RF_RST_PIN);
nrf_delay_us(20); /* Wait >10us */
nrf_gpio_pin_set(RF_RST_PIN);
}
/**
* @brief Initialize radio module.
*/
void init_radio(void)
{
uint32_t err_code;
/* Set up SPI interface */
spi_master_init();
/* Reset radio */
reset_radio();
/* Configure registers */
err_code = rf95_configure(frequency);
APP_ERROR_CHECK(err_code);
err_code = rf95_set_modem(MODEM_LORA);
APP_ERROR_CHECK(err_code);
err_code = rf95_set_freq(frequency);
APP_ERROR_CHECK(err_code);
err_code = rf95_set_spreading_factor(SF_12);
APP_ERROR_CHECK(err_code);
err_code = rf95_set_packet_mode(PACKET_MODE_ON);
APP_ERROR_CHECK(err_code);
radio_on();
}
/**
* @brief Send message via LoRa radio module.
*
* @param msg Message buffer pointer.
* @param len Length of message buffer.
*
* @return NRF_SUCCESS if message was sent successfully,
* NRF_ERROR_INVALID_STATE if radio was not initialized correctly,
* NRF_ERROR_INVALID_LENGTH if message length was too large,
* NRF_ERROR_INTERNAL if no ACK was received after max retries,
*/
uint32_t send_msg(uint8_t const msg[], uint8_t len)
{
uint32_t err_code;
if(len > RADIO_PLOAD_MAX_LEN)
return NRF_ERROR_INVALID_LENGTH;
if(!is_transmitting())
return NRF_ERROR_INVALID_STATE;
if(!is_transmitting())
return NRF_ERROR_INTERNAL;
radio_off();
memcpy(payload,payload,len);
err_code = rf95_send(payload,len);
APP_ERROR_CHECK(err_code);
radio_on();
return NRF_SUCCESS;
}
<|file_sepanialeppert.github.io<|file_sep ### Microservices Demo Project
This project contains examples demonstrating different ways microservices can be used together.
#### How To Run Examples
For each example there is documentation explaining how you can run it locally.
#### List Of Examples
##### [LoRa Gateway Server](lora-gateway-server)
A server application running on Linux which collects data from LoRa transmitters.
##### [LoRa Transmitter](lora-transmitter)
A microcontroller based device which transmits sensor data using LoRa technology.
##### [RFM9000 Data Collection Example](rfm9000)
An example demonstrating how two devices can communicate over LoRa using Nordic Semiconductor's nRF52 series SoCs.
##### [Zigbee Gateway Server](zigbee-gateway-server)
A server application running on Linux which collects data from Zigbee transmitters.
##### [Zigbee Transmitter](zigbee-transmitter)
A microcontroller based device which transmits sensor data using Zigbee technology.
#### Documentation
More detailed documentation about each individual example can be found below:
##### [LoRa Gateway Server Documentation](lora-gateway-server/README.md)
Documentation describing how you can run a LoRa Gateway Server locally.
##### [LoRa Transmitter Documentation](lora-transmitter/README.md)
Documentation describing how you can build firmware images locally which work with your LoRa Transmitter hardware platform.
##### [RFM9000 Data Collection Example Documentation](rfm9000/README.md)
Documentation describing how you can run both transmitter and receiver examples locally.
#### License
All examples are licensed under MIT license unless otherwise stated inside individual examples.
#### Contributing
If you would like contribute improvements please open pull requests against master branch.
#### Author Information
Sascha Leppert
saschaleppert/microservice-demo<|file_sep:: Title : Running The Zigbee Transmitter Locally
:: Description : Documentation explaining how you can build firmware images locally which work with your Zigbee Transmitter hardware platform
## Overview
This document describes how you can build firmware images locally which work with your Zigbee Transmitter hardware platform.
## Prerequisites
In order to build firmware images locally make sure all software prerequisites are installed properly:
### Windows Users Using WSL Ubuntu Shell With Visual Studio Code Extension
Install Visual Studio Code extension 'Remote Development'.
Open Visual Studio Code editor inside Ubuntu shell inside Windows Subsystem For Linux shell window opened inside PowerShell window opened inside Windows Explorer folder containing `zigbee-transmitter` directory cloned from Github repository located at https://github.com/saschaleppert/microservice-demo/tree/master/zigbee-transmitter .
### Windows Users Using WSL Ubuntu Shell Without Visual Studio Code Extension Or Other IDE With C/C++ Support Installed Inside WSL Environment
Open terminal window opened inside Windows Explorer folder containing `zigbee-transmitter` directory cloned from Github repository located at https://github.com/saschaleppert/microservice-demo/tree/master/zigbee-transmitter .
### Linux Users Using Any IDE With C/C++ Support Installed Inside Native Environment
Open terminal window opened inside file manager window containing `zigbee-transmitter` directory cloned from Github repository located at https://github.com/saschaleppert/microservice-demo/tree/master/zigbee-transmitter .
### macOS Users Using Any IDE With C/C++ Support Installed Inside Native Environment
Open terminal window opened inside file manager window containing `zigbee-transmitter` directory cloned from Github repository located at https://github.com/saschaleppert/microservice-demo/tree/master/zigbee-transmitter .
### All Users Which Have Installed Software Prerequisites Properly And Have Opened Terminal Window Containing zigbee-transitter Directory Cloned From Github Repository Located At https://github.com/saschaleppert/microservice-demo/tree/master/zigbee-transitter In Their Preferred Editor Or Integrated Development Environment Supporting C/C++ Programming Language
Install required packages:
sudo apt update && sudo apt install gcc-arm-none-eabi cmake libnewlib-arm-none-eabi libncurses-dev git python python-pip libusb-dev udev flex bison gperf texinfo wget dfu-util libtool autoconf automake texinfo help2man libtool-bin uuid-dev pkg-config ninja-build git-lfs libarchive-dev libudev-dev –yes && pip install cffi future future-fstrings meson ninja pyelftools mako pyserial pycryptodomex crcmod tabulate pyserial-compat scapy pcapy pyelftools cffi cryptography flake8 meson pycryptodomex crcmod tabulate pyserial-compat scapy pcapy pyelftools cffi cryptography flake8 pytest pytest-cov pytest-xdist pytest-random pytest-repeat virtualenv virtualenvwrapper pylint python-dateutil flake8-docstrings flake8-import-order pep8-naming pytest-timeout pep257 setuptools pylint-flask sphinx sphinx-rtd-theme sphinxcontrib-fulltoc sphinxcontrib-blockdiag sphinxcontrib-seqdiag sphinxcontrib-nwdiag sphinxcontrib-goapi docsutils lxml six jinja2 ipython ipython-genutils jedi parso pexpect decorator traitlets pickleshare jedi==0.* prompt-toolkit==1.* traitlets==4.* && sudo pip install Adafruit-Blinka Adafruit-Blinka-AVR adafruit-circuitpython-displayio adafruit-circuitpython-framebuf adafruit-circuitpython-neopixel adafruit-circuitpython-lis3dh adafruit-circuitpython-mma845x adafruit-circuitpython-seesaw adafruit-circuitpython-bitbangio adafruit-circuitpython-register busio circuitpython-build-tools circuitpython-msgeq7 circuitpython-sgp30 circuitpython-simpleio circuitpython-ulab CircuitPython_Community_Bundle circuit-python&& sudo usermod -aG dialout $USER && sudo reboot && sudo chmod +rwx /dev/bus/usb && sudo chmod +rwx /dev/ttyUSB*
Clone zigpy repository into subdirectory called zigpy:
git clone –depth=1 https://github.com/zigpy/zigpy.git ./zigpy –recursive && cd zigpy && git submodule update –init –recursive && cd ../
Clone zha-device-handlers repository into subdirectory called zha-device-handlers:
git clone –depth=1 https://github.com/zigpy/zha-device-handlers.git ./zha-device-handlers && cd zha-device-handlers && git submodule update –init –recursive && cd ../
## Building Firmware Image Locally
Build firmware image:
cd zigbeetransitter/src/libraries/zigpy/build_aot.sh ./buildroot/lib/
## Flashing Firmware Image To Device
Connect your device via USB cable connected directly into computer without USB hub between device and computer.
Flashing firmware image onto device:
cd zigbeetransitter/src/libraries/zigpy/build_aot.sh ./buildroot/lib/
## Verifying Firmware Was Flashed Successfully
Verify LED light starts blinking indicating that firmware was flashed successfully:
## Additional Notes
## License Information
—
Copyright © Sascha Leppert
Permission is hereby granted, free of charge, to any person obtaining a copy
of this software and associated documentation files (the “Software”),
to deal in the Software without restriction, including without limitation
the rights to use, copy, modify, merge, publish, distribute,sublicense,and/or sell copies
of the Software,and to permit persons to whomthe Softwareis furnishedto do so subjectto
the following conditions:The above copyright noticeand this permission notice shall be included
in all copies or substantial portions of the Software.The Software is provided “AS IS”,without warrantyof any kind,either expressor implied,forsuchdamagesincluding,butnot limitedto,direct,direct,damages,failureof
performance,inabilitytouse,and/orlossofdata.This product includessoftwaredevelopedbyothers
and licensed underMITlicense.For further informationseeLICENSE.txtincludedwiththisproduct.
—
saschaleppert/microservice-demo/dev/null 2>&1 && pwd )”
cd ${DIR}
echo “Building library…”
make clean
make BOARD=nano33ble LIB_DIR=${DIR}/../libraries/ZHA/ZHA_Dongle_nano33BLE/ZHA_Dongle_nano33BLE.a TARGET=zephyr CONFIG_ZEPHYR_TOOLCHAIN_VARIANT=gcc11 BOARD=nano33ble
echo “”
echo “”
if [[ $? == ‘true’ ]]; then
echo ‘Library built successfully!’
else
echo ‘Error building library’
fi
exit $?
saschaleppert/microservice-demo<|file_sep<
Sending Sensor Data Over MQTT Via ZHA Dongle nano33BLE Over BLE Bridge To Loxone Miniserver Via Mosquitto MQTT Broker On Raspberry Pi Zero W Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring Using ZIGBEE Light Bulbs As Actuators And Temperature Sensors As Sensors Connected Via Raspberry Pi Zero W To Loxone Miniserver Via Ethernet Cable Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring On Raspberry Pi Zero W Running Raspbian OS With Loxone Miniserver Addon For Home Automation Control And Monitoring Over Wi-Fi Connected To Same Network As Raspberry Pi Zero W Running Raspbian OS With Mosquitto MQTT Broker Addon For Sending Sensor Data Over MQTT Via ZHA Dongle nano33BLE Over BLE Bridge To Loxone Miniserver Via Mosquitto MQTT Broker On Raspberry Pi Zero W Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring Using ZIGBEE Light Bulbs As Actuators And Temperature Sensors As Sensors Connected Via Raspberry Pi Zero W To Loxone Miniserver Via Ethernet Cable Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring On Raspberry Pi Zero W Running Raspbian OS With Loxone Miniserver Addon For Home Automation Control And Monitoring Over Wi-Fi Connected To Same Network As Raspberry Pi Zero W Running Raspbian OS With Mosquitto MQTT Broker Addon For Sending Sensor Data Over MQTT Via ZHA Dongle nano33BLE Over BLE Bridge To Loxone Miniserver Via Mosquitto MQTT Broker On Raspberry Pi Zero W Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring Using ZIGBEE Light Bulbs As Actuators And Temperature Sensors As Sensors Connected Via Raspberry Pi Zero W To Loxone Miniserver Via Ethernet Cable Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring On Raspberry Pi Zero W Running Raspbian OS With Loxone Miniserver Addon For Home Automation Control And Monitoring Over Wi-Fi Connected To Same Network As Raspberry Pi Zero W Running Raspbian OS”>
Sending Sensor Data Over MQTT Via ZHA Dongle nano33BLE Over BLE Bridge To Loxone Miniserver Via Mosquitto MQTT Broker On Raspberry Pi Zero W Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring Using ZIGBEE Light Bulbs As Actuators And Temperature Sensors As Sensors Connected Via Raspberry Pi Zero W To Loxone Miniserver Via Ethernet Cable Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring On Raspberry Pi Zero W Running Raspbian OS With Loxone Miniserver Addon For Home Automation Control And Monitoring Over Wi-Fi Connected To Same Network As Raspberry Pi Zero W Running Raspbian OS”>
Sending Sensor Data Over MQTT Via ZHA Dongle nano33BLE Over BLE Bridge To Loxone Miniserver Via Mosquitto MQTT Broker On Raspberry Pi Zero W Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring Using ZIGBEE Light Bulbs As Actuators And Temperature Sensors As Sensors Connected Via Raspberry Pi Zero W To Loxone Miniserver Via Ethernet Cable Running Raspbian OS With OpenHAB Addon For Home Automation Control And Monitoring On Raspberry Pi Zero W Running Raspbian OS With Loxone Miniserver Addon For Home Automation Control And Monitoring Over Wi-Fi Connected To Same Network As Raspberry Pi Zero W Running RaspiOS Lite Version Of Debian Based Operating System Used By Many ARM Based Devices Like The Popular Single Board Computer Known As The Rasberry PI Which Can Be Used In Various Projects Including IoT Applications That Require Low Power Consumption Such AS Remote Sensing Or Weather Stations Because It Consumes Less Than Half A Watt When Idle Compared TO Standard Desktop Computers Which Usually Consume Several Watts Even When Idle This Feature Makes It Ideal FOR Use In Battery Powered Devices Like Wearables Or Mobile Devices Where Power Consumption Is A Major Concern Furthermore Its Small Size Allows It TO Fit Into Compact Spaces Making It Perfect FOR Embedded Systems Projects Additionally Its Cost Effective Price Point Makes IT An Accessible Choice FOR Hobbyists AND Beginners Who Want TO Get Started WITH IoT Projects Without Breaking THE Bank Finally Its Large Community OF Enthusiasts AND Developers Means There Are Plenty OF Resources Available Online Such AS Forums Tutorials Videos Etc That Can Help Newcomers Learn How TO Use THIS Powerful Yet Affordable Platform More Info ON RaspiOS Can BE Found AT Http Www Raspi Os Org .” />
| Sending Sensor Data Over MQTT Via ZHA Dongle nano33BLE Over BLE Bridge To Loxone Miniserver Via Mosquitto MQTT Broker |
Raspberry PI zero w
Running RaspiOS Lite Version Of Debian Based Operating System Used By Many ARM Based Devices Like The Popular Single Board Computer Known As The Rasberry PI Which Can Be Used In Various Projects Including IoT Applications That Require Low Power Consumption Such AS Remote Sensing Or Weather Stations Because It Consumes Less Than Half A Watt When Idle Compared TO Standard Desktop Computers Which Usually Consume Several Watts Even When Idle This Feature Makes It Ideal FOR Use In Battery Powered Devices Like Wearables Or Mobile Devices Where Power Consumption Is A Major Concern Furthermore Its Small Size Allows It TO Fit Into Compact Spaces Making It Perfect FOR Embedded Systems Projects Additionally Its Cost Effective Price Point Makes IT An Accessible Choice FOR Hobbyists AND Beginners Who Want TO Get Started WITH IoT Projects Without Breaking THE Bank Finally Its Large Community OF Enthusiasts AND Developers Means There Are Plenty OF Resources Available Online Such AS Forums Tutorials Videos Etc That Can Help Newcomers Learn How TO Use THIS Powerful Yet Affordable Platform More Info ON RaspiOS Can BE Found AT Http Www Raspi Os Org .&nobr ;&nobr ;&nobr ;&nobr ;&nobr ;&nobr ;&nobr ;&nobreak ;&nobreak ;
With MOSQUITTO MQTTSERVER BROKER ADDON FOR SENDDING SENSOR DATA OVER MQTTS VIA ZHA DONGLE NANO33BLE OVER BLE BRIDGE TO LOXONE MINISERVER VIA MOSQUITTO MQTTS BROKER ON RADPI PI ZERO w RUNNING RADPIOS LTIE VERSION OF DEBIAN BASED OPERATING SYSTEM USED BY MANY ARM BASED DEVICES LIKE THE POPULAR SINGLE BOARD COMPUTER KNOWN AS THE RADPI WHICH CAN BE USED IN VARIOUS PROJECTS INCLUDING IOT APPLICATIONS THAT REQUIRE LOW POWER CONSUMPTION SUCH AS REMOTE SENSING OR WEATHER STATIONS BECAUSE IT CONSUMES LESS THAN HALF A WHATT WHEN IDLE COMPARED TO STANDARD DESKTOP COMPUTERS WHICH USUALLY CONSUME SEVERAL WHATT EVEN WHEN IDLE THIS FEATURE MAKES IT IDEAL FOR USE IN BATTERY POWERED DEVICES LIKE WEARABLES OR MOBILE DEVICES WHERE POWER CONSUMPTION IS A MAJOR CONCERN FURTHERMORE ITS SMALL SIZE ALLOWS IT TO FIT INTO COMPACT SPACES MAKING IT PERFECT FOR EMBEDDED SYSTEMS PROJECTS ADDITIONALLY ITS COST EFFECTIVE PRICE POINT MAKES IT AN ACCESSIBLE CHOICE FOR HOBBISTS AND BEGINNERS WHO WANT TO GET STARTED WITH IOT PROJECTS WITHOUT BREAKING THE BANK FINALLY ITS LARGE COMMUNITY OF ENTHUSIASTS AND DEVELOPERS MEANS THERE ARE PLENTY OF RESOURCES AVAILABLE ONLINE SUCH AS FORUMS TUTORIALS VIDEOS ETC THAT CAN HELP NEWCOMERS LEARN HOW TO USE THIS POWERFUL YET AFFORDABLE PLATFORM MORE INFO ON RADPIOS CAN BE FOUND AT HTTP WWW RADPI OSD OT.G ORG .
With OPEN HAB ADDON FOR HOME AUTOMATION CONTROL AND MONITORING USING ZIGBEE LIGHT BULBS AS ACTUATORS AND TEMPERATURE SENSORSS AS SENSORSS CONNECTED VIA RADPI PI ZERO w RUNNING RADPIOS LTIE VERSION OF DEBIAN BASED OPERATING SYSTEM USED BY MANY ARM BASED DEVICES LIKE THE POPULAR SINGLE BOARD COMPUTER KNOWN AS THE RADPI WHICH CAN BE USED IN VARIOUS PROJECTS INCLUDING IOT APPLICATIONS THAT REQUIRE LOW POWER CONSUMPTION SUCH AS REMOTE SENSING OR WEATHER STATIONS BECAUSE IT CONSUMES LESS THAN HALF A WHATT WHEN IDLE COMPARED TO STANDARD DESKTOP COMPUT
|
|---|