
Energy scavenging systems are devices that can convert solar power, thermal energy, wind power, mechanical energy and electromagnetic energy into electrical energy. This is then stored in batteries or super capacitors.
Benefiting from the latest developments in semiconductor technology, such energy scavenging schemes are getting increasingly easier to develop and implement.
An energy scavenging system is composed of energy collection, energy storage and power management devices.The energy collection is responsible for capturing the energy from surrounding sources (such as ambient light or mechanical vibration) and converting it into electrical power. The electrical power is stored in batteries or super capacitors to feed to other devices. The power management converts the stored power into different voltage and current levels for satisfying the different needs of powered devices.
The common application of the energy scavenging systems can be found in wireless network sensors or wireless detection devices. In these applications, the use of ultra low power consuming MCUs and Wireless Trancievers and the scarcity of the conventional power sources makes the case for the implementation and use of Energy Scavenging Systems.
| DIGI INTERNATIONAL | ZigBee DVK | Command Reference: Digi Connect Family | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Getting Started Guide: ConnectWare Manager | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Getting Started Guide: Drop-In Networking Kit - 802.15.4 | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Mechanical Drawing: XBee / XBee Pro OEM RF Modules | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Product Manual: XBee / XBee-PRO 802.15.4 OEM RF Modules | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Users Guide: ConnectPort X Family | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Users Guide: ConnectWare Manager | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Users Guide: XCTU Configuration & Test Utility Software | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Users Guide: XBee / XBee-PRO Drop-in Networking Adapters and Accessories | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Application Guide: How to Perform a Range Test | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Customization and Integration Guide: Digi Connect Family | | | Click here |
| DIGI INTERNATIONAL | ZigBee DVK | Mechanical Drawing: XBee / XBee Pro OEM RF Modules: RPSMA Variant | | | Click here |
| TEXAS INSTRUMENTS | ZigBee DVK | DN300 -- SmartRF04EB Troubleshooting (Rev. B) | DN300 | | Click here |
| TEXAS INSTRUMENTS | ZigBee DVK | AN061 -- Optimizing power consumption with the CC2520DK CC2520DK | AN061 | | Click here |
| TEXAS INSTRUMENTS | ZigBee DVK | CC2520DK CC2520DK Quick Start Guide | | | Click here |
| TEXAS INSTRUMENTS | ZigBee DVK | AN081 -- Johanson Technology balun optimized for CC2530 (Rev. A) (Multiple Files) | AN081 | | Click here |
| TEXAS INSTRUMENTS | ZigBee DVK | AN086 -- Using CC2591 CC2591 Front End with CC2530 CC2530 and CC2531 (Rev. A) (PDF 327 KB) | AN086 | | Click here |
| TEXAS INSTRUMENTS | ZigBee DVK | AN078 -- TIMAC and Z-Stack Modifications for using CC2591 CC2591 RF Front End with CC2 (PDF 216 KB) | AN078 | | Click here |
| FREESCALE | MCU | Pad Layout Application Note | AN3747 | | Click here |
| FREESCALE | MCU | USB BootLoader for MCF51JM128 MCF51JM128 | AN3748 | | Click here |
| FREESCALE | MCU | Using the MM/JE Flexis Families for Infrared Communication | AN4116 | | Click here |
| FREESCALE | MCU | IrDA Driver and SD Card File System on the MM/JE Flexis Families | AN4115 | | Click here |
| FREESCALE | MCU | Dynamic LCD Driver Using GPIO Pins | AN3412 | | Click here |
| MICROCHIP | MCU | nanoWatt & nanoWatt XLP(TM) Technologies: An Introduction to Microchip's Low Power devices | AN1267 | | Click here |
| MICROCHIP | MCU | Practical Applications of Low-Power Design with nanoWatt XLP | | | Click here |
| MICROCHIP | MCU | PIC® MCU Tips 'n Tricks Featuring nanoWatt XLP Technology (DS01146B) | | | Click here |
| MICROCHIP | MCU | AN1171 - How To Use The Capacitive Sensing Module (CSM) | AN1171 | | Click here |
| MICROCHIP | MCU | AN1250 - Microchip CTMU for Capacitive Touch Applications | AN1250 | | Click here |
| MICROCHIP | MCU | AN1268 - mTouch Capacitive Sensing Using Period Method | AN1268 | | Click here |
| MICROCHIP | MCU | AN1298 - Capacitive Touch Using Only an ADC (CVD) | AN1298 | | Click here |
| MICROCHIP | MCU | AN1317 - mTouch Conducted Noise Immunity Techniques for the CTMU | AN1317 | | Click here |
| MICROCHIP | MCU | AN1325 - mTouch Metal Over Cap Technology | AN1325 | | Click here |
| MICROCHIP | MCU | AN1334 - Techniques for Robust Touch Sensing Design | AN1334 | | Click here |
| TEXAS INSTRUMENTS | MCU | Wireless Sensor Monitor Using the eZ430-RF2500 (Rev. C) | | | Click here |
| TEXAS INSTRUMENTS | MCU | DN018 -- Range Measurements in an Open Field Environment (Rev. A) | DN018 | | Click here |
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| DIGI INTERNATIONAL | ZigBee | Demystifying 802.15.4 and ZigBee | Click here |
| TEXAS INSTRUMENTS | Energy Harvesting | Ultra Low Power Meets Energy Harvesting – White Paper | Click here |
| TEXAS INSTRUMENTS | ZigBee | Creating a ZigBee Smart Energy Device with the MSP430F54xx and the CC2530-ZNP | Click here |
| TEXAS INSTRUMENTS | Energy Harvesting | EZ430-RF2500-SEH EZ430-RF2500-SEH Solar Energy Harvesting Development Kit | Click here |
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