WIRELESS
Solar Powered Telemetry
A long-term and uninterrupted monitoring of the environmental and geological data is being implemented by many countries for the purpose of safeguarding the environment and wildlife. In such remote ecologically vulnerable areas, utilizing telemetry-applications is the only option to implement an unattended monitoring system so that the requirement on cost and safety can be satisfied. Like any other system, the telemetry-applications systems also need power to function. But the coverage rate of the power grid in these areas is usually lower than the average level and often not available. In these cases, solar powered systems become the most feasible option in terms of stability, reliability and ease of maintenance. Moreover, they are increasingly becoming the best solution for power supply of telemetry-applications systems.
The combination of the two systems forms a solar-powered telemetry-applications solution. It is widely used in applications such as water management, navigation, wildlife research and management for unattended monitoring and data logging.
A solar-powered telemetry-applications system is commonly made up of three subsystems: solar power system, telemetry-applications system and communication system. The solar power system consists of solar panels, rechargeable battery, charge management and power conversion. This system is used to collect solar power and store electrical power, and then convert the stored power into the one that is suited for the telemetry-applications system. The telemetry-applications system may have different designs depending on the different applications. In general, it basically includes three blocks: sensors, signal conditioning and MCU.
The telemetry-applications system is responsible for the collection of environmental data and equipments’ operation status and the transmission of the collected information to the control center. The communication system employs different modules and structures according to the communication modes applied by the system and the control center. The direct communication with the control center is realized mostly by the high-power module dedicatedly designed for long distance transmission. In some areas where there are existing cellular networks, the GPRS/CDMA modules in these networks can be used as the substitutes. The indirect communication can be implemented using the lower-power modules and repeaters. After receiving the data from those modules, the repeaters can boost the transmission power to resend the data to the control center.
Hover over the diagram blocks to view recommended products for this solution:
Collects solar power and converts it into electrical power.
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Charges the battery
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Li-ion battery and lead-acid battery stores electrical energy.
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Senses enviromental or geological information from the surrounding and constantly feeds it to the system
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High precision amplifier is the core chip of signal conditioning circuit.
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MUX can accommodate multiple analog input channels. Some ADCs have them integrated internally.
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High performance ADC converts analog signal into digital signal.
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Control of conditioned signal from the telemetry-applications block
Texas Instruments
Microchip
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Communication by GSM/GPRS protocols
SIMCom
Cinterion
Telit
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Power Management
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Voltage Reference
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Communication of controlled signal(s) enabled with RF transceivers
Texas Instruments
Analog Devices
Microchip
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Texas Instruments | ||
Microchip | ||
QUATECH | ||
CINTERION | ||
CYMBET |
TI | MCU | Using power solutions to extend battery life in MSP430 applications | MSP430F4XX | Click here | |
TI | MCU | MSP430 32-kHz Crystal Oscillators (Rev. B) | MSP430F4XX | Click here | |
TI | MCU | Ultra-Low Power Motion Detection Using the MSP430F2013 | MSP430F4XX | Click here | |
TI | MCU | MSP430 Competitive Benchmarking | MSP430F4XX | Click here | |
TI | MCU | Powering an MSP430 From a Single Battery Cell | MSP430F4XX | Click here | |
TI | MCU | MSP430 Flash Memory Characteristics (Rev. A) | MSP430F4XX | Click here | |
TI | MCU | Three-Phase Electronic Watt-Hour Meter Design Using MSP430 | MSP430F4XX | Click here | |
NXP | MCU | AN10963 Reducing code size for LPC11XX with LPCXpresso | LPC1100 | Click here | |
NXP | MCU | AN10968 Using Code Read Protection in LPC1100 and LPC1300 | LPC1100 | Click here | |
NXP | MCU | ARM Cortex-M0 Processor (in ARM I.Q.) (Mar 2009) | LPC1100 | Click here | |
NXP | MCU | ARM Preps Tiny Core for Low-Power Microcontrollers (in EE Times) | LPC1100 | Click here | |
NXP | MCU | LPCXpresso Low-Cost Development Platform | LPC1100 | Click here | |
NXP | MCU | NXP Launches the LPC1100, Interview with NXP's Geoff Lees (in IQ Magazine) | LPC1100 | Click here | |
NXP | MCU | Sample Code Bundle for LPC11xx Peripherals using Keil's MDK-ARM | LPC1100 | Click here | |
Microchip | MCU | AN1171 - How To Use The Capacitive Sensing Module (CSM) | PIC16F193x | Click here | |
Microchip | MCU | AN1267 - nanoWatt & nanoWatt XLP(TM) Technologies: An Introduction to Microchip's Low Power devices | PIC16F193x | Click here | |
Microchip | MCU | AN1302 - An I2C Bootloader for the PIC16F1XXX Enhanced Core | PIC16F193x | Click here | |
Microchip | MCU | AN1303 - Software Real-Time Clock and Calendar Using PIC16F1827 | PIC16F193x | Click here | |
Microchip | MCU | AN1310 - High-Speed Bootloader for PIC16 and PIC18 Devices | PIC16F193x | Click here | |
NXP | MCU | Thermostat Reference Design Using the MC9S08LL16 | MC9S08LL16 | Click here | |
NXP | MCU | Analog Comparator Tips and Tricks for the MC9S08QG MCU | MC9S08LL16 | Click here | |
NXP | MCU | LCD Driver Specification | MC9S08LL16 | Click here | |
NXP | MCU | How to Handle Dual Flash Architecture in MC9S08LG32 | MC9S08LL16 | Click here | |
NXP | MCU | Emulated EEPROM Implementation in Dual Flash Architecture and Demo Description on MC9S08LG32 | MC9S08LL16 | Click here | |
NXP | MCU | Migrating from the MC9S08LL16 to MC9S08LL64 Microcontroller | MC9S08LL16 | Click here | |
Manufacturer | Product Type | AN Title | AN Number | Part Number | URL |
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TEXAS INSTRUMENTS | MCU | MSP430 Value Line LaunchPad Development Kit | Click here |
NXP | MCU | ARM Cortex-M0 Processor (in ARM I.Q.) (Mar 2009) | Click here |
NXP | MCU | ARM Preps Tiny Core for Low-Power Microcontrollers (in EE Times) | Click here |
NXP | MCU | LPCXpresso Low-Cost Development Platform | Click here |
NXP | MCU | NXP targets 8/16-bit apps with low cost Cortex-M0 MCU (in SCDsource) | Click here |
NXP | MCU | S08LL16PWRCMPWP | Click here |
Manufacturer | Product Type | White Paper Title | URL |
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NXP | MCU | Demonstration board for the DEMO9S08LC60 microcontroller | DEMO9S08LC60 | 9S08LC60 | Click here |
NXP | MCU | S08MP16 Demonstration board | DEMO9S08MP16 | 9S08MP16 | Click here |
NXP | MCU | DEMO9S08QE8 is a cost-effective board targeting quick microcontroller evaluation | DEMO9S08QD4 | 9S08QD4 | Click here |
NXP | MCU | Demonstration board for the DEMO9S08QE8 microcontroller | DEMO9S08QE8 | 9S08QE8 | Click here |
NXP | MCU | Demonstration board for the MC9S08QG8 microcontroller | DEMO9S08QG8E | 9S08QG8E | Click here |
NXP | MCU | Demonstration board for the DEMO9S08SE8 microcontroller | DEMO9S08SE8 | 9S08SE8 | Click here |
MICROCHIP | MCU | PICDEM™ Z Demonstration Kit | AC163027-1 | Click here | |
MICROCHIP | MCU | PIC18F87J50 FS USB Plug-In Module | MA180021 | PIC18F87J50 | Click here |
MICROCHIP | MCU | PIC18F46J50 FS USB Demo Board | MA180024 | PIC18F46J50 | Click here |
MICROCHIP | MCU | MCP3901 ADC Evaluation Board for 16-Bit MCUs | MCP3901EV-MCU16 | MCP3901 | Click here |
OLIMEX | MCU | MPS430F169 STARTERKIT DEVELOPMENT BOARD WITH GRAPHICS LCD | MSP430-169LCD | MPS430FXX | Click here |
OLIMEX | MCU | MPS430F449 STARTERKIT DEVELOPMENT BOARD | MSP430-449STK2 | MPS430FXX | Click here |
OLIMEX | MCU | MPS430FG4619 STARTERKIT DEVELOPMENT BOARD WITH COLOR GRAPHICS LCD,ACCELEROMETER | MSP430-4619LCD | MPS430FXX | Click here |
POWERLITE SYSTEMS | MCU | Flash Lab is a PC104 style Pic micro controller development system | FLAB | Click here | |
POWERLITE SYSTEMS | MCU | Flash Lab is a PC104 style Pic micro controller development system | FLABP | Click here | |
TEXAS INSTRUMENTS | MCU | MSP430 USB Stick Development Tool | EZ430-F2013 | MSP430FXX | Click here |
TEXAS INSTRUMENTS | MCU | MSP430 Wireless Development Tool | EZ430-RF2500 | MSP430FXX | Click here |
TEXAS INSTRUMENTS | MCU | MSP430 2.4-GHz Wireless Target Board | EZ430-RF2500T | MSP430FXX | Click here |
TEXAS INSTRUMENTS | MCU | MSP430 USB Stick F2012 Board | EZ430-T2012 | MSP430FXX | Click here |
TEXAS INSTRUMENTS | MCU | MSP430FG4618/F2013 Experimenter Board | MSP-EXP430FG4618 | MSP430FXX | Click here |
Manufacturer | Product Type | Evaluation Kits Title | EVKs Part Number | Part Number | URL |
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CYPRESS SEMICONDUCTOR | RF | An Overview Study On 2.4 GHz CyFi™ Transceiver CYRF7936 | CYRF7936 | Click here |
NXP | MCU | Getting Started with RS08 MCUs | Click here | |
NXP | MCU | S08SF 8 Bit Microcontrollers and Development Kits | Click here | |
LINEAR TECHNOLOGY | ADC | LTC2440 – High Speed Delta Sigma ADC | Click here | |
LINEAR TECHNOLOGY | Battery Charger | LT3650 – Li-Ion Battery Charger | Click here | |
LINEAR TECHNOLOGY | RF | Study on 0.4GHz to 2.7GHz High Linearity Upconverting Mixer | Click here | |
MICROCHIP | MCU | PIC18F2XK20/4XK20 8-Bit Microcontroller Family | Click here | |
MICROCHIP | MCU | An Introduction to nanoWatt XLP: PIC18F46J50 | Click here | |
MICROCHIP | MCU | 8-Bit CMOS Microcontrollers With nanoWatt Technology | Click here | |
MICROCHIP | Battery Charger | Battery Charger Basics | Click here | |
TEXAS INSTRUMENTS | MCU | Getting Started with MSP430 MCUs | Click here | |
TEXAS INSTRUMENTS | RF | CC1020 Low Power UHF Transceiver | Click here | |
TEXAS INSTRUMENTS | RF | eZ430-Chronos Wireless Watch Development Tool | Click here | |
Manufacturer | Product Type | Training Title | Part Number | URL |
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