Sony develops 11Gbps short-range wireless intra-connection
Before you get too excited about the bandwidth number, you should know that Sony's latest wireless innovation works at a range of up to 14 millimeters. So no, it won't be replacing your WiFi antenna anytime soon, but it may well be showing up in your next television set or other bit of Sony-branded gadgetry. Working in the 30GHz to 300GHz frequency range, this is designed to replace wired communication channels inside electronic devices, with Sony claiming it will deliver "advantages such as size and cost-reduction and enhanced reliability of the final product." Basically, erecting 1mm antennae that can beam information at each other at a rate of 11Gbps turns out to be simpler and more reliable than printing ever wider data lanes into the circuit board. Makes sense to us. Full PR after the break.
Sony Develops World's First*1 Millimeter-wave Wireless Intra-Connection Technology for Internal High Speed Data Transfer within Electronics Products
Realizes 11Gbps transfer speed with an active footprint of just 0.13mm2
Tokyo, Japan, February 8, 2010 - Sony Corporation ('Sony') today announced the development of millimeter-wave wireless intra-connection technology that realizes high speed wireless data transfer inside electronic products such as television sets. By replacing complicated wires and internal circuitry with wireless connections, this technology enables a reduction in the size and cost of the IC and other components used in electronics products, delivering advantages such as size and cost-reduction and enhanced reliability of the final product.
The advancing functionality of today's electronics products requires ever increasing quantities of internal data transfer. Once wired connections approach the limit of their data capacity, additional circuitry is required to facilitate larger data transfers, however this leads to the issue of increasingly complicated IC packages, intricately printed circuit boards, and larger IC sizes.
This new wireless intra-connection system is based on millimeter-wave wireless data transfer technology. Millimeter-wave refers to electromagnetic waves with a frequency of 30GHz to 300GHz, and wavelength between 1mm to 10mm. With their high frequency, millimeter-waves are suited to ultra high speed data transfer, while a further advantage is their ability to transfer data using only very small antennas. The high frequency technologies used in this system also draw on Sony's extensive expertise and years of experience in the field of wireless communications and broadcast products. Specifically, Sony has integrated highly energy efficient millimeter-wave circuits on 40nm-CMOS-LSIs (with an active footprint of just 0.13mm2 including both the transmitter and receiver), to realize high speed, 11Gbps data transfer over a distance of 14mm using antennas approximately 1mm in size.
By replacing physical circuitry in electronics products with high speed wireless connections, this new data transfer technology reduces the number of wired connections and minimizes IC use, to simplify the IC package and printed circuit board. Furthermore, because the data transfer occurs without contact, this enhances the reliability of movable and detachable parts within the product.
Sony will proceed with efforts to adopt this technology in a range of electronics products, while continuing its development to meet ever-increasing data-rate requirements.
This technology will be presented at "ISSCC 2010", to be held in San Francisco, California, US, from February 7th 2010.
Key Features
1. Optimized circuit for intra-connection on CMOS-LSIs
Sony has drawn on its years of experience in radio frequency technologies to realize compact, low power, millimeter-wave circuits optimal for use in intra-connection over CMOS-LSIs. Due to the small footprint of just 0.13mm2 the circuits can be built into a single chip, at very low cost.
2. Injection lock method*2 realizes small size, low power consumption and sufficient transmission range for intra-connection
Synchronized detection, which aligns the receiver with the transmitted carrier frequency, is an effective means of providing sufficient transmission range for intra-connection, while also ensuring low power consumption. However, the PLL (Phase Locked Loop) generally used for this synchronization has the disadvantage of requiring large, power-consuming circuitry to transmit at millimeter-wave frequency. By adopting an injection lock system that eliminates PLL, Sony has enabled synchronized detection over small size circuits, while also minimizing power consumption and providing sufficient transmission range for successful intra-connection.
This technology, used together with miniature antennas approximately 1mm in length, enable transmission speeds of 11Gbps over a distance of 14mm, with power consumption of 70mW. It is possible for this distance to be extended to around 50mm using high directivity antennas.
*1 Based on Sony research (as of January, 2010).
*2 A method of synchronization that injects incoming signals into the receiver's oscillator, and then aligns the oscillator to that signal.
Sony Develops World's First*1 Millimeter-wave Wireless Intra-Connection Technology for Internal High Speed Data Transfer within Electronics Products
Realizes 11Gbps transfer speed with an active footprint of just 0.13mm2
Tokyo, Japan, February 8, 2010 - Sony Corporation ('Sony') today announced the development of millimeter-wave wireless intra-connection technology that realizes high speed wireless data transfer inside electronic products such as television sets. By replacing complicated wires and internal circuitry with wireless connections, this technology enables a reduction in the size and cost of the IC and other components used in electronics products, delivering advantages such as size and cost-reduction and enhanced reliability of the final product.
The advancing functionality of today's electronics products requires ever increasing quantities of internal data transfer. Once wired connections approach the limit of their data capacity, additional circuitry is required to facilitate larger data transfers, however this leads to the issue of increasingly complicated IC packages, intricately printed circuit boards, and larger IC sizes.
This new wireless intra-connection system is based on millimeter-wave wireless data transfer technology. Millimeter-wave refers to electromagnetic waves with a frequency of 30GHz to 300GHz, and wavelength between 1mm to 10mm. With their high frequency, millimeter-waves are suited to ultra high speed data transfer, while a further advantage is their ability to transfer data using only very small antennas. The high frequency technologies used in this system also draw on Sony's extensive expertise and years of experience in the field of wireless communications and broadcast products. Specifically, Sony has integrated highly energy efficient millimeter-wave circuits on 40nm-CMOS-LSIs (with an active footprint of just 0.13mm2 including both the transmitter and receiver), to realize high speed, 11Gbps data transfer over a distance of 14mm using antennas approximately 1mm in size.
By replacing physical circuitry in electronics products with high speed wireless connections, this new data transfer technology reduces the number of wired connections and minimizes IC use, to simplify the IC package and printed circuit board. Furthermore, because the data transfer occurs without contact, this enhances the reliability of movable and detachable parts within the product.
Sony will proceed with efforts to adopt this technology in a range of electronics products, while continuing its development to meet ever-increasing data-rate requirements.
This technology will be presented at "ISSCC 2010", to be held in San Francisco, California, US, from February 7th 2010.
Key Features
1. Optimized circuit for intra-connection on CMOS-LSIs
Sony has drawn on its years of experience in radio frequency technologies to realize compact, low power, millimeter-wave circuits optimal for use in intra-connection over CMOS-LSIs. Due to the small footprint of just 0.13mm2 the circuits can be built into a single chip, at very low cost.
2. Injection lock method*2 realizes small size, low power consumption and sufficient transmission range for intra-connection
Synchronized detection, which aligns the receiver with the transmitted carrier frequency, is an effective means of providing sufficient transmission range for intra-connection, while also ensuring low power consumption. However, the PLL (Phase Locked Loop) generally used for this synchronization has the disadvantage of requiring large, power-consuming circuitry to transmit at millimeter-wave frequency. By adopting an injection lock system that eliminates PLL, Sony has enabled synchronized detection over small size circuits, while also minimizing power consumption and providing sufficient transmission range for successful intra-connection.
This technology, used together with miniature antennas approximately 1mm in length, enable transmission speeds of 11Gbps over a distance of 14mm, with power consumption of 70mW. It is possible for this distance to be extended to around 50mm using high directivity antennas.
*1 Based on Sony research (as of January, 2010).
*2 A method of synchronization that injects incoming signals into the receiver's oscillator, and then aligns the oscillator to that signal.
























I just hope more companies get in on this and make it universal. Would be nice to place my phone on tv and play a slideshow of the pics I've taken.
@Faforce
Meh knowing how the world works by the time this is released there'll be 3 other alternatives with no chance of a universal solution...
@Faforce you might wanna read that first sentence again
@mrqs
Despite what the article says about the purpose of this being to replace traces on a PCB (which sounds pretty idiotic to me), I think that Faforce has the only sensible application for such a technology: to provide short range communication for devices without a hard electrical interface.
Where I'd like to see something like this is in storage media. Imagine if you could have storage media without any exposed electrical contacts to corrode (maybe EM power too), or statically fry, or wear out. No more USB-Washing machine disasters, no more scratched DVDs etc.
@mrqs So it works within 14 mm. I said put phone on tv, that's pretty close to the tv :p.
Imagine iPhone / iPod docks that work with all the phones placed on it.
@Faforce the 14 mm range is with air as the medium - even tho' your phone's innards could (just barely) be in that range of the tv's, doesn't mean the signal would actually get through
@Faforce
My thoughts are "gadgets with folding screens", like laptops. No wires running through the hinges could make it easier to replace broken screens.
@Mr 14
And the screens would be powered how?
@(Unverified) with tidal turbines, obviously
@mrqs
you guys are talking about TransferJet... which is another technology Sony is pushing.
@Faforce kind of like those charging pads, where you place your device on the pad(iPod, psp,cell) and it charges up sans cables.
@Unverified User never seen the wireless charging pads yet eh? Drop your device on it and it charges.
@(Unverified) Inductive.
are we looking at higher prices in the near future, to pay for this "innovation", Sony?
how many lines and length of printed circuitry will this replace in a 40"+ flatscreen? Even if it replaces a hundred 14mm printed circuit, wouldn't that add up to only 1.4 m? Just how will that help?
Size and cost it might reduce but it will definitely increase power consumption..
This would be handy for communicating with your device while it rests on a charging mat.
So, plunk your phone, pod, gps, player, etc on a mat, and your network can talk to it while it charges.
@alexz Exactly my thoughts. Completely wireless port replicator, charging station, infohubofdoom.
Cool.
@alexz
Actually, the main company behind the new "Qi" wireless charging spec includes data communication capability in the charger.
So we'll probably have that sooner than you think!
-Taylor
Of course no designer is going to use this tech unless there is an advantage to it. Any sane engineer will consider power consumption, cost and space. This is just another technology available when laying out the hardware.
I expect there'll be places where a physical connection is a problem. They don't want a ribbon cable going from x to y. I have no idea what those circumstances would be. It doesn't sound like an "end user" tech. Not something designed for you to plug your iPod into. It's more for inside the guts of things.
Yeah, right, a transmitter and a receiver is surely cheaper and more reliable that 14 mm of copperwire.,
@dura
Exactly what I was thinking.
@dura
+1
This technology sounds even more ridiculous when you convert 14mms to inches. 1/2" of copper doesn't weight jack.
The only real use for this technology that I can see is what a few other people have alluded to already - gadget-to-gadget communication.
I could see this being used alongside induction-charging.... where that offers wireless charging, and this Sony tech could offer up wireless comm.
@Hazdaz Even if the tv only charges the remote. Would be a good day if I didn't have to swap battaries around for the control I'm using. Just put it on top when I go to bed and all charged up in the morning :-)
@Slice105 Or you could get a harmony one which comes with a charging base...
I don't see them using it for phones or being cheaper. I see a separate connection base to plug all those set tops into with an antenna that runs to the tv. Not technically a new Idea to run one line to a tv and have the av receiver some where else.
Actually, this could help reduce costs by making things more modular.
If sony wants to add a tuner to a monitor to make it a TV, with something like this they could just slap on a module that just needs connections for power and ground. Eliminating the data interconnects means simpler connections and less traces to route. Plus, at 11Gbps, that's not a trivial data rate. You have to route a lot of traces very carefully to move some data at 11Gbps. If all they have to do is take a few different sub-boards and slap them on one simple main board, they could make their electronics simpler and cheaper. Even if that is all on one board, taking a few pre-designed sections is easier than routing it all together.
And of course, as someone already said, this is a tool that an engineer would only use if it makes sense. But in making modular designs, they could really reduce a lot of cost.
So 14mm is about a half an inch... How exactly would this make a difference? Unless the point of it is to free up space on the board in a cell phone or something, but even then I don't see how this would be cost-effective or battery-effective.
so they can mix and match parts without using wires and solders....
swap out some parts to create a totally new product and charging full price for that, while keeping production costs down.... lazy, evil people....
sounds like something new that can break that did not break before
I thought to myself, "Hm, I wonder what short-range means... 500 yards? A mile?" Nay, 11 millimeters.
I'm filing this under optronics/mini fiber links. It's close enough to using RF over short hops when it's a win over a metal bus. Which makes you wonder, did they consider that? Maybe this was cheaper?