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- New Adventures with Innovation Toronto
  
  Innovation Toronto has been running since 2007 and as such is getting a little old in terms of its constituent parts. the theme in particular has been a problem mainly because we relied too much on some of the components attached to it and therefore could not move on without extensive work. it is now come to the point where that extensive work is going to produce good results. we are already in the process of updating and upgrading various parts of it and over time will make sure that each and every post has been Revisited and revamped so it presents as best it can.
  
  Testing

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- New Adventures with Innovation Toronto
  
  Innovation Toronto has been running since 2007 and as such is getting a little old in terms of its constituent parts. the theme in particular has been a problem mainly because we relied too much on some of the components attached to it and therefore could not move on without extensive work. it is now come to the point where that extensive work is going to produce good results. we are already in the process of updating and upgrading various parts of it and over time will make sure that each and every post has been Revisited and revamped so it presents as best it can.
  
  Testing

tokyo institute of technology

Why heat and cool the room when clothing can keep us comfortable?

Turning tellurite glass into a ‘transparent' light-energy harvester by etching semiconducting patterns using femtosecond laser light. CREDIT EPFL / Lisa Ackermann

Has glass really reached the point of becoming a ‘transparent’ light-energy harvester?

Figure 1. Structural diagram of BBCube 3D The proposed technology uses a stacked design where processing units (xPU) sit atop multiple interconnected memory layers (DRAM). By replacing wires with through-silicon vias (TSVs), the lengths of the connections can be shortened, leading to better overall electrical performance.

Three-dimensional integration of processing units and memory for much faster computing

This could serve as the prototype for the transceiver. CREDIT IEEE

A device for the simultaneous transmission of power and 5G signal can help to revolutionize the Internet of Things

A schematic of the how the lens-less imaging process works, from light collection through encoding the signal to post-processing with computing algorithms. CREDIT Xiuxi Pan from Tokyo Tech

Image reconstruction computing allowing for a lens-less camera, which is ultra-thin, lightweight, and low-cost

The world’s first “carbon air secondary battery system”

Single-molecule self-restoring electronics could likely revolutionize nanobiotechnology, medicine, and related fields

Revolutionizing materials research: Discovering exotic material properties and new laws of physics ten times faster

A very promising stepping stone toward much more energy-efficient and faster computing

Could this approach enable electronic devices with speeds orders of magnitude higher?

Is geothermal heat the ultimate energy source?

Artificial intelligence (AI) can accelerate the discovery of new materials

The swarming behavior of about 100 million molecular machines can be controlled by simple mechanical stimuli

A new discovery heralds an exciting future for organic electronics

New renewable raw materials replace the classic non-renewable ones used for making many plastics