1. Wearable Technology Research
Alisa Maria Wronski
November

2. ALL wearable technology has one thing in common:
FIRST COMMON FACTOR
ALL wearable technology has one thing in common:

3. FIRST COMMON FACTOR
It is worn on the body.

4. Most wearable technology will require power
SECOND COMMON FACTOR
Most wearable technology will require power

5. SECOND COMMON FACTOR
Batteries are used because they are mobile from an outlet, and can be carried around.

6. SECOND COMMON FACTOR
But they can be bulky, and sometimes become the main feature of most technologies.

7. GOOGLE GLASS
For example the bulky battery only last 4 hours, and it is the largest part of the device.

8. GOOGLE GLASS

9. BODY AND POWER

10. BODY AND POWER
The movie Matrix showed humans harvested for power. This is actually a great idea for wearable technology knowing that the device will be used in conjunction with an energy emitting being.

11. DARPA
Defense Advanced Research Projects Agency Creating new technologies for military use, they created GPS and Internet

12. DARPA
Currently working on lightening technology for soldiers, because they must be as agile as possible

13. DARPA
Their current objective: “Sensor-studded clothing worn by a soldier to track his movements and vital signs and a cellphone is implanted in a tooth,” according to a story describing the DARPA program last year in The Smithsonian.

15. BODY HEAT-FUJITSU
The chip uses thermoelectric materials, which produce an electric current when exposed to two different temperatures—such as body heat and the (usually) cooler air around us.

16. BODY HEAT-FUJITSU
There is a growing demand for devices that can efficiently derive energy from the surrounding environment at any time Body heat would enable the devices to be used at all times without worry of powering off.

17. BODY HEAT-GOOGLE
Google Science Fair invites young people to share projects. Canadian Ann Makonsinski created a flashlight powered by human touch.

18. BODY HEAT-VODAFONE
Vodafone created a wearable charger pocket for pants and sleeping bags for music festivals.

19. BODY HEAT-VODAFONE
“One side of that is cold and the other is hot, and when you get a flow of heat through it you can create a voltage and a current.”

21. INNER EAR-M.I.T.
The ear is a natural battery that converts a mechanical force (the vibration of the eardrum) into electrochemical signal converted to the brain, this bio-battery is the source of the signals current. The ions create an electrical voltage that can power devices. +

22. INNER EAR-M.I.T.
This could be used to power a self sufficient ear device like mp3 or hearing aid, removing excess bulk from wearables. +

24. BREATH POWER
The breath is extremely powerful, it’s like a mini windmill. It can easily be incorporated into wearable’s and it is always available. +

25. BREATH POWER
The breath is extremely powerful, it’s like a mini windmill. It can easily be incorporated into wearable’s and it is always available. +

27. When we move we can power a device.
VIBRATIONS & KINETICS
When we move we can power a device.

28. KINECTS-M2E CHARGER
M2E makes use of the Faraday principle which states that a "moving magnet could induce an electrical current in a wire coil”

29. KINECTS-M2E CHARGER
When the charger is moved, a magnet moves through the coil creating the energy. M2E, however, tweaked the technology so that even "subtle micro-motions" are translated into energy.

30. KINECTS-EMPOWER
Powers lanterns in rural Africa using kinetic movements in playgrounds by children.

31. Leggings that power your mp3 player as you run and dance.
KINECTS- DANCE PANTS
Leggings that power your mp3 player as you run and dance.

32. KINECTS-DANCE CHARGE
A charger worn around arm such as any mp3 band is already worn, but powers device.

33. VIBRATIONS-M.I.T.
Chandrakasan and his colleagues use piezoelectric materials, which produce an electric current when subjected to mechanical pressure, the DC current that is created can be stored in a chip 2mm small.

34. THE FUTURE OF POWER
As devices become smaller and more portable, batteries must too. But there is only so much we can shrink, that is why a self sufficient power would be the logical step in making wearable technologies more comfortable and seamless to the body

35. THE FUTURE OF POWER
As wearable devices become smaller and more portable, batteries must too. But there is only so much we can shrink, that is why a self sufficient power would be the logical step in making wearable technologies more comfortable and seamless to the body.

36.
Bio Technology Scientific Journal
November 2012, Volume 30 No 11 pp