BRN Discussion Ongoing
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Zedjack33
Regular
I have been with whk in the past. Got out at 37 but still watch.
I asked the question of any links with Brn on HC sometime ago with little response.
I’m still thinking possible links. I don’t mind the look of these guys.
Boab
I wish I could paint like Vincent
Another little nugget. Thank you
Evening Zedjack33,
Yes, I have been with them for a couple or years.
With the utilisation of Brainchips technology thay could , both, seriously gain substantial market capture in the online cyber security sector to the immense benefit of all.
These days I hate answering my phone due to all scampers etc.
Come on BRN release a cyber patch thingsi, and the world will be eternally gratefull.
* I would also like to disclose BRN is by far my favourite stock , with by far & away the greatest potential to exponentially grow.
Bring on the Lilly Pad Affect.
AKUDA BAILISTA.
* I'm waiting on the aquatic ones.
Ha ha.
Regards,
Esq.
Rskiff
Regular
Just adding to this even though slightly off topic but a cool video by Sandy Munro at the Tesla opening. Boy all the other legacy automakers are behind the 8 ball in electric vehicles compared with Tesla. Hopefully Akida can help some out in some way. You have to hand it to Elon Musk and his team in creating a revolution in electric vehicles. Enjoy
thelittleshort
Top Bloke
Further to my previous post, there was in fact another comment which is perhaps more intriguing. I was hoping for a BrainChip connection, but have come up short. I'm sure there is something in here that I am missing. Or not
Anyone know anything about this guy Jonathon Wolfe? His LinkedIn activity is heavily linked to the Western Sydney University International Centre for Neuromorphic Systems, Thale, Thales Alenia Space, Violet Defense, Australian Space Agency and Space Industry Association of Australia - I'm sure he fits in somehow
Here's a link to the brief cited in his comment
International Centre for Neuromorphic Systems (ICNS) on LinkedIn: #neuromorphicsystems #icns #neuromorphs #intelfpga #intelai #innovation…
International Centre for Neuromorphic Systems (ICNS) are excited to announce they have teamed up with Intel FPGA to build a world-first brain-scale…
Gregory Cohen on LinkedIn: It is official, we now have the WORLD’S FASTEST EVENT-BASED CAMERAS!* (*… | 19 comments
It is official, we now have the WORLD’S FASTEST EVENT-BASED CAMERAS!* (* Well, in terms of velocity, and relative to the earth’s surface.) They really are… | 19 comments on LinkedIn
Attachments
Hi FF,
Biotome looks for peptides, which, I am reliably informed, are fragments of proteins. As we know, Akida is sensor-agnostic.
https://www.biotome.com.au/general-9
While traditional serology tests use full proteins as markers, Biotome’s precision immunology approach detects antibody binding to small parts of proteins known as peptides, unlocking the high-resolution of the immune system for greater accuracy.
Biotome are adapting a transistor with a graphene field effect transistor in conjunction with Cardea to detect Covid antibodies in blood samples.
US10968481B2 Graphene FET devices, systems, and methods of using the same for sequencing nucleic acids
Basically, the channel between source (39a) & drain (39b) is filled with blood sample solution, and ions in the solution interact with free ions in the graphene layer 30. The concentration of ions in the solution is measured by detecting the current when a known voltage is applied across the source and drain.
The free ions from the graphene make the graphene FET much more sensitive than a normal Si based FET.
across the source and drain.
Chemically-sensitive field effect transistors for biosensor chips and system are disclosed. The itransisitors have a multi-layered structure for performing a set of measurements of a biological reaction involving a binding event for one or more biological analytes that may be label-free. The multilayer structure includes a first insulating layer above a substrate layer and a source electrode and a drain electrode disposed positioned over the first insulating layer; a second insulating layer above the first insulating layer and proximate the source and drain electrodes forming side wall members of a well for a fluid comprising the analytes; a 2D graphene layer forming a channel between source and drain electrodes; a solution gate, formed by fluid flowed over the channel, configured to enable determining differences between one or more sample I-Vg curves having a shifted and changed shape relative to a reference curve; embodiments may include ion-selective membranes and/or ion getters.
[0039] ... the FET, e.g., CMOS, structure may include a processor configured for controlling the performance of one or more reactions involving a biological or chemical material so as to obtain reaction results, and for analyzing those results, for instance, based on detecting and/or measuring changes in a voltage (V) potential, current (I), or capacitance occurring on the chemically-sensitive field effect transistor. Particularly, the processor, such as a signal processor, may be configured so as to generate one or more current (I) vs. voltage (V) curves, such as where the current I of the I-V curve is the current applied between the source and drain of the chemically sensitive field effect transistor and/or where the gate voltage (Vg) of the I-Vg curve is a gate or channel voltage applied to the chemically-sensitive field effect transistor. In such an instance, the gate voltage Vg of the I-Vg curve is a top and/or a back gate voltage that may be applied to the chemically sensitive field effect transistor through a top (or front) and/or back of the device, respectively. Hence, a suitably configured device of the disclosure may be adapted as a front and/or back-gated device, which may further be configured as a solution gate. Accordingly, in various embodiments, a device of the disclosure may be a field-effect transistor that includes a chamber adapted for measuring ion concentrations in a solution; such as where, when the ion concentration (such as H+ or OH− in a pH scale) within the chamber changes, the current through the transistor, e.g., a gate region thereof, will change accordingly. In such an instance, the solution, when added to the chamber forms, or otherwise serves as, a gate electrode.
[0121] For instance, in various embodiments, the material layer may be a single layer, 2D material, such as a graphene layer 30 . Particularly, as can be seen with respect to FIG. 1B, graphene is a two-dimensional, monolayer of carbon atoms that are arranged as a lattice structure. This lattice structure forms regular hexagons with a carbon atom at each vertex. In such an instance, the bond length between adjacent carbon atoms may be about 1.42 Å and the lattice constant may be about 2.46 Å. This molecular structure is very unique in that each carbon atom shares one of its four free valence electrons with three of its adjacent and planar carbon atoms such that each of the three planar carbon atoms is orientated at about a 120° with respect to the other three carbon atoms. Such an orientation gives graphene it's honeycomb, lattice structure. Additionally, the fourth valence electron forms a pi bond, perpendicular to the three planar signma-bonded carbon atoms, which is responsible for the unique electronic characteristics of graphene.
[0122] Particularly, the single-layer, two-dimensional structure of graphene gives it at least three important characteristics with respect to its use herein:
it creates the presence of a bandgap, it makes the graphene layer a seimimetal, and it promotes rapid charge transport (mobility and high-field transport) at room temperature. Hence, in various instances, a graphene FET, as herein described performs better as a biological sensor than a typical CMOS-FET device not having such a reaction layer.
For instance, with respect to hybridization detection and/or sequencing, a traditional MOSFET transistor may have fundamental limitations in its sensitivity (due to channel thickness and intervening insulating layers), whereas the present gFET with its single atom thickness can be employed to form a solution gated reaction zone and/or channel, wherein the graphene layer may be in direct contact with the chemical reaction zone. Specifically, the reaction layers may include a 1D, 2D, and/or 3D structure 30 may be configured so as to have a much higher carrier mobility than the typical doped silicon commonly used in MOSFET or ISFET devices. This gives the herein disclosed 1D, 2D, and/or 3D FET sensor devices increased sensitivity to and faster detection of chemical reactions. Further, in various instances, the surface and/or channel 26 may include or make up a dielectric layer, such as for further increasing sensor sensitivity and/or functioning.
thelittleshort
Top Bloke
Has anyone investigated a BrainChip link to Merck via Merck Electronics?
View attachment 4001
Merck Electronics on LinkedIn: Merck | Our materials sit in almost every electronics device that protects…
From smart watches to healthcare devices – displays and chips are widely used in these electronics tools for promoting and protecting human #health. It is…www.linkedin.com
Merck Electronics on LinkedIn: #iotday #iot #satellite #licrion #nextenna #alcan
The Internet of Things (IoT) is revolutionizing our world and lives as we know them, and our licriOn™ technology from Merck™ for satellite-based IoT antennas…
Not a link but good to be mentioned on their website alongside our peers
Hi Esq 111,
I'm sure @Fact Finder can fill you in on the details, but I understand that PvdM is more than a little venture capital averse.
Casting no nasturtiums, Blackstone is chief of those of whom Peter Goodman, the author of Davos Man, How the billionaires devoured the world speaks with disfavour.
That said, I have no knowledge of Whitehawk, and, as you say, given Mr Hibbeln's connexions, any venture with which he is associated would probably have more than a toe in the door.
Good Evening Diogenese,
Appreciate what you are saying, and agree.
The only reason I thought to share this chaps short biography was , amoungst other things , his dabbling in hypersonics together with numerous connections in the upper eschalons of power.
Those that wield the Mont blanc pens.
Nothing to do with his venture capitol side of things.
All good , and cheers for all your technical disipherings, we would be half lost without your input.
Regards,
Esq.
KMuzza
Mad Scientist
Hi - why is this not freely avalible to all UNI students- ( But Watch this SPACE- Yes- NMorphic AI is such a new / junivinile system for some in the educatation system ) - WOW- so advanced - ACADEMIA RULES -
- 
AKIDA BALLISTA
Last edited:
KMuzza
Mad Scientist
The Higgs boson: What makes it special?
Our second story in the LHC Physics at Ten series visits the LHC’s most important discovery so far
KMuzza
Mad Scientist
“It” was the Higgs boson, the almost-mythical entity that had put particle physics in the global spotlight, and the man proclaiming to be a mere layman was none other than CERN’s Director-General, Rolf Heuer. Heuer spoke in the Laboratory’s main auditorium on 4 July 2012, moments after the CMS and ATLAS collaborations at the Large Hadron Collider announced the discovery of a new elementary particle, which we now know is a Higgs boson. Applause reverberated in Geneva from as far away as Melbourne, Australia, where delegates of the International Conference on High Energy Physics were connected via video-conference.
4 July 2012: A packed auditorium at CERN listens keenly to the announcement from CMS and ATLAS (Image: Maximilien Brice/CERN)
So what exactly is so special about this particle?
So what exactly is so special about this particle?
JK200SX
Regular
Further to my previous post, there was in fact another comment which is perhaps more intriguing. I was hoping for a BrainChip connection, but have come up short. I'm sure there is something in here that I am missing. Or not
View attachment 4035
Anyone know anything about this guy Jonathon Wolfe? His LinkedIn activity is heavily linked to the Western Sydney University International Centre for Neuromorphic Systems, Thale, Thales Alenia Space, Violet Defense, Australian Space Agency and Space Industry Association of Australia - I'm sure he fits in somehow
View attachment 4038
Here's a link to the brief cited in his comment
View attachment 4032
View attachment 4033
International Centre for Neuromorphic Systems (ICNS) on LinkedIn: #neuromorphicsystems #icns #neuromorphs #intelfpga #intelai #innovation…
International Centre for Neuromorphic Systems (ICNS) are excited to announce they have teamed up with Intel FPGA to build a world-first brain-scale…
Gregory Cohen on LinkedIn: It is official, we now have the WORLD’S FASTEST EVENT-BASED CAMERAS!* (*… | 19 comments
It is official, we now have the WORLD’S FASTEST EVENT-BASED CAMERAS!* (* Well, in terms of velocity, and relative to the earth’s surface.) They really are… | 19 comments on LinkedIn
Wasn't it just last week that the nightly news showed the first images from event based neuromorphic technology bearing camera's from outer space?
World-first Neuromorphic Data Received from the Space Station | Spaceaustralia
Western Sydney University and the United States Airforce Academy have successfully built, designed, launched, and received data from a pair of neuromorphic cameras installed aboard the ISS.
spaceaustralia.com
4 mins read 21 Mar 2022
World-first Neuromorphic Data Received from the Space Station
#ScienceWritten by Vanessa Chapman
Western Sydney University and the United States Airforce Academy have successfully built, designed, launched, and received data from a pair of neuromorphic cameras installed aboard the ISS.
One of the Project Falcon Neuro cameras installed on the ISS. Credit: NASA.
In a world-first, neuromorphic data has been sent back to Earth and successfully received from new cameras aboard the International Space Station (ISS). The two neuromorphic cameras are designed for earth observation and analysis of atmospheric events such as sprites – a high-altitude phenomenon caused by upward electrical discharges from thunderstorms. The cameras were developed as part of Project Falcon Neuro, a collaboration between the University of Western Sydney’s International Centre for Neuromorphic Systems (ICNS) and the United States Airforce Academy.
Western Sydney University’s Deputy Vice-Chancellor Professor Deborah Sweeney congratulated the ICNS team on their achievements.
“We are incredibly proud of our ICNS team and the University’s world-leading neuromorphic engineering research expertise, which is significantly strengthening Australia’s space industry capabilities,” said Professor Sweeney.
“Working with government, big-tech, as well as local and international research partners, we are helping to solve real-world challenges in the rapidly-evolving space industry. The success of Project Falcon Neuro further cements Western Sydney University’s reputation as a collaborative, young and innovative university with a growing international reach and a commitment to academic excellence and impact-driven research.”
Neuromorphic Cameras
A map of the Honduras coastline overlaid with data from Project Falcon Neuro on the right, and conventional high-definition ISS sensors on the left. Credit: Western Sydney University; NASA; Apple Maps.
The two new cameras aboard the ISS are neuromorphic, meaning their engineering is inspired by biology. Associate Professor Gregory Cohen, ICNS’s lead researcher on Project Falcon Neuro, says these ‘event-based’ cameras, as they are often called, are a completely different type of sensor that operates more like a biological eye than a conventional camera.
“These cameras don’t take pictures, but rather sense changes and only send those when they happen. This method of sensing the visual world allows them to perform tasks that simply cannot be done with a conventional camera,” said Associate Professor Cohen.
“Project Falcon Neuro is the first use of these sensors for earth observation from orbit, and the data received is the first neuromorphic data to be transmitted from space.”
Falcon Neuro was launched into space on 21 December 2021 to the International Space Station on the SpaceX CRS-24 resupply mission and then were installed on the ISS in January this year. One camera is positioned to point directly downward towards the Earth, and the other is pointing forward in the direction of motion of the ISS.
On the 24 of January, Falcon Neuro captured data as the ISS passed over the coastline of Honduras. The captured data was later streamed back to Earth and processed using algorithms developed by the ICNS team.
“The result we saw from the first resolved data image was fantastic. Although it may look like a normal image when we display it, the information was collected in a completely new and novel way,” said Associate Professor Cohen.
“This is only the first step. Now we know the cameras are working and operating in space, we can start using them for scientific experiments and further explore the incredible potential of these sensors and what they can do from orbit.”
Associate Professor Cohen said this is an enormous technological advancement that is vital for Australia’s space capabilities and growing space sector.
“It’s easy to lose sight of just how hard building things for space can be. There are so many technical challenges between the scientific goal and actually placing a working sensor in orbit. It’s really a testament to the absolutely fantastic engineering efforts by the technical team at ICNS and the cadets and faculty at US Air Force Academy,” he said.
Dhm
Regular
I think I know the answer to this, but I would like for others more qualified to confirm. This is Akida on board, right?Wasn't it just last week that the nightly news showed the first images from event based neuromorphic technology bearing camera's from outer space?
World-first Neuromorphic Data Received from the Space Station | Spaceaustralia
Western Sydney University and the United States Airforce Academy have successfully built, designed, launched, and received data from a pair of neuromorphic cameras installed aboard the ISS.spaceaustralia.com
4 mins read 21 Mar 2022
World-first Neuromorphic Data Received from the Space Station
#Science
Written by Vanessa Chapman
Western Sydney University and the United States Airforce Academy have successfully built, designed, launched, and received data from a pair of neuromorphic cameras installed aboard the ISS.
One of the Project Falcon Neuro cameras installed on the ISS. Credit: NASA.
In a world-first, neuromorphic data has been sent back to Earth and successfully received from new cameras aboard the International Space Station (ISS). The two neuromorphic cameras are designed for earth observation and analysis of atmospheric events such as sprites – a high-altitude phenomenon caused by upward electrical discharges from thunderstorms. The cameras were developed as part of Project Falcon Neuro, a collaboration between the University of Western Sydney’s International Centre for Neuromorphic Systems (ICNS) and the United States Airforce Academy.
Western Sydney University’s Deputy Vice-Chancellor Professor Deborah Sweeney congratulated the ICNS team on their achievements.
“We are incredibly proud of our ICNS team and the University’s world-leading neuromorphic engineering research expertise, which is significantly strengthening Australia’s space industry capabilities,” said Professor Sweeney.
“Working with government, big-tech, as well as local and international research partners, we are helping to solve real-world challenges in the rapidly-evolving space industry. The success of Project Falcon Neuro further cements Western Sydney University’s reputation as a collaborative, young and innovative university with a growing international reach and a commitment to academic excellence and impact-driven research.”
Neuromorphic Cameras
A map of the Honduras coastline overlaid with data from Project Falcon Neuro on the right, and conventional high-definition ISS sensors on the left. Credit: Western Sydney University; NASA; Apple Maps.
The two new cameras aboard the ISS are neuromorphic, meaning their engineering is inspired by biology. Associate Professor Gregory Cohen, ICNS’s lead researcher on Project Falcon Neuro, says these ‘event-based’ cameras, as they are often called, are a completely different type of sensor that operates more like a biological eye than a conventional camera.
“These cameras don’t take pictures, but rather sense changes and only send those when they happen. This method of sensing the visual world allows them to perform tasks that simply cannot be done with a conventional camera,” said Associate Professor Cohen.
“Project Falcon Neuro is the first use of these sensors for earth observation from orbit, and the data received is the first neuromorphic data to be transmitted from space.”
Falcon Neuro was launched into space on 21 December 2021 to the International Space Station on the SpaceX CRS-24 resupply mission and then were installed on the ISS in January this year. One camera is positioned to point directly downward towards the Earth, and the other is pointing forward in the direction of motion of the ISS.
On the 24 of January, Falcon Neuro captured data as the ISS passed over the coastline of Honduras. The captured data was later streamed back to Earth and processed using algorithms developed by the ICNS team.
“The result we saw from the first resolved data image was fantastic. Although it may look like a normal image when we display it, the information was collected in a completely new and novel way,” said Associate Professor Cohen.
“This is only the first step. Now we know the cameras are working and operating in space, we can start using them for scientific experiments and further explore the incredible potential of these sensors and what they can do from orbit.”
Associate Professor Cohen said this is an enormous technological advancement that is vital for Australia’s space capabilities and growing space sector.
“It’s easy to lose sight of just how hard building things for space can be. There are so many technical challenges between the scientific goal and actually placing a working sensor in orbit. It’s really a testament to the absolutely fantastic engineering efforts by the technical team at ICNS and the cadets and faculty at US Air Force Academy,” he said.
Cam Smith imploding on the back 9 sadly. Scotty Scheffler looking well under control.
alwaysgreen
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