Tiny solar panels embedded in clothes can charge a mobile phone

Release time:2019-01-03
author:Ameya360
source:newelectronics
reading:11267

  Clothing embedded with tiny solar cells the size of a flea can allow wearers to generate electricity on the move and charge items like mobile phones and smartwatches.

Tiny solar panels embedded in clothes can charge a mobile phone


  Nottingham Trent University has developed a way to embed miniaturised solar cells into yarn that can then be knitted and woven into textiles.

  The technology has been tested and proven to charge a mobile phone and a Fitbit.

  The cells are encapsulated in a resin which allows the textile fabric to be washed and worn like any other form of clothing.

  Measuring only three millimetres in length and 1.5 millimetres in width, the cells are almost invisible to the naked eye and cannot be felt by the wearer.

  For all intents and purposes, garments appear exactly the same as any other form of clothing despite having the capability to generate electricity.

  Project lead Professor Tilak Dias, of the School of Art & Design, said: “By embedding miniaturised solar cells into yarn we can create clothing and fabric that generate power in a sustainable way.

  “The clothing would look and behave like any other textile, but within the fibres would be a network of miniaturised cells which are creating electricity.

  “This could do away with the need to plug items into wall sockets and reduce the demand on the grid while cutting carbon emissions.

  “The electrical power demand for smart e-textiles has always been its Achilles heel and this technology will allow people to use smart textiles while on the move.”

  Up to 200 miniaturised cells can generate 2.5-10 volts and up to 80 miliwatts in power. The university’s Advanced Textiles Research Group made a proof of concept textile of 5cm by 5cm size with 200 cells.

  This proved powerful enough to charge a mobile phone and a Fitbit (please see video). Researchers say if 2,000 solar cells were incorporated into a textile it would generate enough power to charge a smart phone.

  Researcher Achala Satharasinghe, who developed the prototype as part of his PhD at the university, said: “This is an exciting technology which could revolutionise the way we think about solar power, clothing and wearable technology.

  “With the availability of miniaturised solar cells we can generate power in a range of new ways, by utilising things like clothing, fashion accessories, textiles and more.

  “It will allow mobile devices to be charged in environmentally-friendly ways which are more convenient for consumers than ever before.”

("Note: The information presented in this article is gathered from the internet and is provided as a reference for educational purposes. It does not signify the endorsement or standpoint of our website. If you find any content that violates copyright or intellectual property rights, please inform us for prompt removal.")

Online messageinquiry

reading
High-capacity sodium-ion could replace lithium in rechargeable batteries
  Scientists of the University of Birmingham are paving the way to swap the lithium in lithium-ion batteries (LIB) with sodium.  With a rising demand for electric vehicles (EVs), finding a replacement for this expensive and sparse material is becoming a particular area of interest, as the need for a reliable rechargeable battery becomes more apparent.  According to the Birmingham scientists, sodium is inexpensive and can be found in seawater – so is virtually limitless. However, sodium is a larger ion than lithium, so it is not possible to simply "swap" it for lithium in current technologies. For example, unlike lithium, sodium will not fit between the carbon layers of the ubiquitous LIB anode, graphite.  The scientists needed to find new materials to act as battery components for sodium-ion batteries that will compete with lithium for capacity, speed of charge, energy and power density.  Running quantum mechanical models on supercomputers, Dr Andrew Morris's team from the University of Birmingham's Department of Metallurgy and Materials was able to predict what happens when sodium is inserted into phosphorus.  In collaboration with Dr Lauren Marbella and Professor Clare Grey's team at the University of Cambridge, who performed the experiments which have verified the predictions, they found that the phosphorus forms helices at intermediate stages of charging.  The researchers say they identified the final composition of the electrode, which provides a final capacity of charge carriers seven times that of graphite for the same weight, and gives fresh insights into how to make high-capacity sodium-ion anodes.
2018-09-18 00:00 reading:3362
  • Week of hot material
  • Material in short supply seckilling
model brand Quote
TL431ACLPR Texas Instruments
BD71847AMWV-E2 ROHM Semiconductor
MC33074DR2G onsemi
CDZVT2R20B ROHM Semiconductor
RB751G-40T2R ROHM Semiconductor
model brand To snap up
STM32F429IGT6 STMicroelectronics
IPZ40N04S5L4R8ATMA1 Infineon Technologies
BU33JA2MNVX-CTL ROHM Semiconductor
ESR03EZPJ151 ROHM Semiconductor
TPS63050YFFR Texas Instruments
BP3621 ROHM Semiconductor
Hot labels
ROHM
IC
Averlogic
Intel
Samsung
IoT
AI
Sensor
Chip
About us

Qr code of ameya360 official account

Identify TWO-DIMENSIONAL code, you can pay attention to

AMEYA360 weixin Service Account AMEYA360 weixin Service Account
AMEYA360 mall (www.ameya360.com) was launched in 2011. Now there are more than 3,500 high-quality suppliers, including 6 million product model data, and more than 1 million component stocks for purchase. Products cover MCU+ memory + power chip +IGBT+MOS tube + op amp + RF Bluetooth + sensor + resistor capacitance inductor + connector and other fields. main business of platform covers spot sales of electronic components, BOM distribution and product supporting materials, providing one-stop purchasing and sales services for our customers.

Please enter the verification code in the image below:

verification code