IonQ Inc (IONQ) Share Price

who makes superconducting wire? amsc. i think project stargate with 64, 000 gpu's will be networked with such ethernet connectivity. quantum morgana twister pair entangled transportation of data?

thanks for the update 

So is $20 the floor here

If you read the last, AFRL PR, even the military had to go to Congress to get sufficient funding to allow them to buy and install one of IONQ‘s quantum devices.

In most companies, the equivalent process would be for an officer of that company to take and argue a business case in front of the board of directors.

At the current price for IONQ product and services, very few will ever be sold and revenues will not increase at a rapid rate, if at all.

Unless and until, their product becomes much more affordable, the share price will continue to fall until revenues substantially increase, and there’s at least a glimmer of hope that there will be some earnings in the foreseeable future.

There seems to be a lot of focus here on all of the great things IONQ is doing, and that is wonderful.

However, each of these accomplishments, partnerships and strides forward are drowned out by the overall market (and manipulation) which is pulling this down.

An unpopular observation, but I don't think we have hit bottom yet here.

Descending Triple Bottom Breakdown on 6-March-2025. BLTA

So is $20 the floor here or will they pull it down further?

cuda-q is a programming platform... goodness.
so it is using programming language/s that might allow browser like functionality in the vmware cloud foundation 9 release?
so you use it to program the gpu/quantum /data servers/accelerators/cpus/switches and routers?

cuda-q is a programming platform? goodness.
"When considering Ethernet in the context of NVIDIA's CUDA-Q, it's important to understand the role of each technology:

CUDA-Q:
This is NVIDIA's platform for hybrid quantum-classical computing. It's designed to allow developers to program quantum computers and integrate them with classical computing resources, particularly GPUs.  
Its focus is on the software and hardware infrastructure that enables quantum computing, including simulation and execution on actual quantum processing units (QPUs).  
Ethernet:
This is a networking technology used for connecting devices in a local area network (LAN).  
It facilitates the transfer of data between computers, servers, and other network devices.  
Here's how they relate:

Data Transfer:
In a quantum computing environment, large amounts of data need to be transferred between classical computers (GPUs, CPUs) and QPUs.
Ethernet can play a crucial role in this data transfer, especially in data centers and supercomputing environments where quantum computers are likely to reside.
Therefore, while CUDA-Q itself is a programming platform, Ethernet is a fundamental technology that supports the infrastructure on which CUDA-Q operates.
High-Performance Computing (HPC):
Quantum computing is often associated with HPC, where high-speed data transfer is essential.
Ethernet, particularly high-bandwidth Ethernet technologies, is widely used in HPC environments to enable efficient communication between computing nodes.
Therefore, in an HPC enviroment where CUDA-Q is being utilized, ethernet would be a very important part of the infrastructure.
In summary, while CUDA-Q doesn't directly "use" Ethernet in the sense of being a networking protocol itself, Ethernet is a vital networking technology that supports the infrastructure necessary for CUDA-Q to function effectively, especially in large-scale quantum computing deployments."

so jensen is using ethernet for cuda-q? twisted pair cable or the fermion architecture? with a cruz device to receive the photonic data? does it even have to be a fermion? but tuned to freq/pulse/energy...alu and superconductor/semi conductor arsenide for the photon emission?
so, even if a whole quantum computer isn't now, maybe this marjorana semi thing is and it allows entangled communications at entangled speeds? communicating ionq quantum computing events which were 'programmed' by supercomputer/ai? programmed as in programming language that allows function like a browser , but not. lol.

did you guys go to computer show?

kona.......ionq twisted wire......allowing the fermion knowledge on the quantum dot...software defined quantum computer ip.
ploinks/puddle;
creator and majorana quantum entanglement with recipients of admin controlled connectivity.
recipient views allowed by programming language like a browser but not.
views controlled by the admin/creator.
etheral on the viewers side and can't be captured other than transiently via quantum dot ip?
call samsung and lg?
msft with the majorana ip
hp/neoware with the client?
8 with the networking/dynamic routing/authentication/
vcsy with the patent on the 521/emily? or some construct of such?

Hellelujah.

sk telecom and ionq;
sk telecom and remote quantum computing /software defined quantum computer to add to the hybrid computing architecture?

add it to the nvidia mini supercomputer/s which could be used for parallel work?
faster, more efficient computing/generative ai responses?
would require a lot of networking, dynamic routing, and authentication over a distributed network/fabric?

kona, transformation in the manner not of whim, but with preservation of:...in the manner of vcsy

=========================


You're likely thinking of Microsoft's Majorana 1, a quantum processor that utilizes topological qubits. It's a significant step towards fault-tolerant quantum computing. Here's how it relates to "logical" in the context of quantum computing:

Topological Qubits: These qubits are based on Majorana zero modes, which are exotic quasiparticles with unique properties that make them less susceptible to errors. This inherent stability is a key advantage.

Logical Qubits and Error Correction: In quantum computing, logical qubits are built from multiple physical qubits and use error correction codes to protect the information. This is essential because qubits are very fragile and prone to errors.

Majorana 1's Approach: Microsoft's approach with Majorana 1 aims to reduce the overhead of traditional error correction by using topological qubits. The idea is that these qubits are inherently more stable, so they require less complex error correction schemes.

Measurement-Based Control: Majorana 1 uses a digital, measurement-based control system. This means that measurements are used to perform computations and manage the qubits, rather than relying solely on complex analog control signals.

Scalability: The ultimate goal is to create a scalable quantum computer. By using topological qubits and digital control, Microsoft believes Majorana 1 provides a path towards a million-qubit processor.

In summary:

Microsoft's Majorana 1 quantum computer uses topological qubits and a digital, measurement-based control system to move towards fault-tolerant quantum computing. This approach aims to reduce the complexity of error correction and enable the construction of larger, more scalable quantum computers.

topological and transformation


"Topological" and "transformation" are closely related concepts, particularly in the field of mathematics known as topology. Here's a breakdown of their connection:

Topology

What it studies: Topology is a branch of mathematics that deals with the properties of shapes and spaces that remain unchanged under continuous transformations.  
Focus: It's concerned with connectivity, continuity, and the overall "shape" of spaces, rather than precise measurements like distances or angles.
Topological Transformations

What they are: Topological transformations are ways of deforming or changing a space without tearing it, gluing parts together, or creating new holes.  
Examples:
Stretching a rubber sheet  
Bending a wire
Transforming a coffee cup into a donut shape (both have one hole)
Key Properties of Topological Transformations

Continuity: The transformation must be continuous, meaning that points that are close together in the original space remain close together in the transformed space.
Invertibility: The transformation must be reversible. You can undo the transformation and get back to the original space.
Why This Matters

Understanding Space: Topological transformations help us understand the fundamental properties of spaces and how they can be deformed.
Applications: Topology has applications in various fields, including:
Physics: Studying the shapes of universes, the behavior of materials, and quantum field theory.  
Computer science: Network design, data analysis, and image processing.  
Biology: Understanding the structure of DNA and proteins.  
In Summary

Topological transformations are the allowed ways to change or deform spaces in topology.

They preserve fundamental properties like continuity and connectivity, helping us understand the essential "shape" of spaces and their relationships to one another.  


Sources and related content

Jack. Looks like you can stop banging your head against the wall. Looks like all the crooks got their fills. 😳THUMP!

Jfyi. My linkedin is under Jimi. Not James. I don’t know why they can’t fix it? Never was a problem for years. ????

What we have here. Is a failure to communicate. Niccolo wants to communicate. But he’s got to get his qubits right. And his QKD for security . Among other things. But he’s got this. It’s all coming together very presto now. Watch and learn as it gets even faster , faster! Oh my! The lights are turning red!

But things are really looking up and moving even faster faster , the lights are turning red ( slow down AI) Life in the fast lane! Presto Niccolo!

Doc a lot on my plate today. I’ll look at this tomorrow or next day. Very busy next couple days 😎🤙

Jack. There is a God! Ask and ye shall receive. 22.83 rtq

mathematical transformation...and topology:
"Topological" and "transformation" are closely related concepts, particularly in the field of mathematics known as topology. Here's a breakdown of their connection:

Topology

What it studies: Topology is a branch of mathematics that deals with the properties of shapes and spaces that remain unchanged under continuous transformations.  
Focus: It's concerned with connectivity, continuity, and the overall "shape" of spaces, rather than precise measurements like distances or angles.
Topological Transformations

What they are: Topological transformations are ways of deforming or changing a space without tearing it, gluing parts together, or creating new holes.  
Examples:
Stretching a rubber sheet  
Bending a wire
Transforming a coffee cup into a donut shape (both have one hole)
Key Properties of Topological Transformations

Continuity: The transformation must be continuous, meaning that points that are close together in the original space remain close together in the transformed space.
Invertibility: The transformation must be reversible. You can undo the transformation and get back to the original space.
Why This Matters

Understanding Space: Topological transformations help us understand the fundamental properties of spaces and how they can be deformed.
Applications: Topology has applications in various fields, including:
Physics: Studying the shapes of universes, the behavior of materials, and quantum field theory.  
Computer science: Network design, data analysis, and image processing.  
Biology: Understanding the structure of DNA and proteins.  
In Summary

Topological transformations are the allowed ways to change or deform spaces in topology. They preserve fundamental properties like continuity and connectivity, helping us understand the essential "shape" of spaces and their relationships to one another.  


Sources and related content

mathematical transformations and point 3:"In supersymmetry (SUSY), the relationship between bosons and fermions isn't caused by specific events or qualities in the way we typically think of cause and effect. Instead, it's a fundamental symmetry that is built into the theoretical framework. Here's how it works:

1. Supersymmetry as a Principle

Not an event: SUSY isn't something that happens, but rather a principle that governs the relationship between particles. It's a way of looking at the universe where certain transformations can seamlessly switch fermions and bosons without altering the underlying physics.
2. Mathematical Transformations

The heart of SUSY: The core of supersymmetry lies in mathematical transformations that connect fermions and bosons. These transformations are not physical events, but rather mathematical operations that reveal a deeper connection between the two types of particles.
3. Superpartners

Theoretical consequence: A key consequence of SUSY is the prediction of superpartners. For every known fermion, there should be a bosonic superpartner, and vice versa. These superpartners have not been observed yet.  
4. Unification and Implications

Motivation: SUSY offers a potential path toward unifying all fundamental forces and particles. It has implications for:
Quantum gravity: SUSY is a key ingredient in supergravity and string theory, which are attempts to unify quantum mechanics and general relativity.  
Hierarchy problem: SUSY could help explain the vast difference in strength between the weak force and gravity.  
Dark matter: Supersymmetric particles are candidates for dark matter.  
 
Key takeaway:

The supersymmetry between bosons and fermions is not caused by events or qualities, but rather is a fundamental symmetry that is assumed to exist within the theoretical framework of SUSY. This symmetry has profound implications for our understanding of the universe and is an active area of research in particle physics."

Jack. Now tell us how you really feel.

COLLEGE PARK, MD — NOVEMBER 6, 2024

Ansys and IonQ Are Bringing the Power of Quantum to the $10 Billion Dollar Computer-Aided Engineering Industry.

IonQ and Ansys partner to enhance engineering simulation through advanced quantum computing
Key Highlights
The computer-aided engineering (CAE) market can benefit from the ability of IonQ quantum computers to accelerate simulation, allowing Ansys customers to perform more complex simulations and bring better products to market faster.
New partnership aims to allow expert and non-expert users to seamlessly access the power of IonQ’s quantum computers to improve product development processes.
IonQ will use Ansys simulation solutions to design its next-generation quantum computers and quantum networks for increased scalability and performance.

COLLEGE PARK, MD — November 6, 2024 — IonQ (NYSE: IONQ), a leader in the quantum computing industry, and Ansys (Nasdaq: ANSS), have joined forces to integrate quantum computing into the $10B computer-aided engineering (CAE) industry.* Together, IonQ and Ansys aim to accelerate simulation, expand high-fidelity design exploration, and reduce product development timelines, enabling faster market entry for innovative products.

This partnership aims to make simulation accessible to both quantum experts and non-experts, with the goal of enhancing enterprise value and streamlining product development processes. Ansys solutions are used in product development across industries and account for a significant portion of all modeling and simulation in the CAE market. As IonQ’s quantum computers advance and outpace classical systems on specific tasks, integrating them with Ansys’ technology for complex simulations will open the door to new discoveries and innovations. With these advancements, Ansys will gain access to critical infrastructure to test and refine its technology in a quantum environment.

IonQ will use Ansys’ multiphysics technology — including structural, optical, photonic, and electromagnetic simulation software — to design and optimize key components for extremely scalable and performant next-generation quantum computers.

“We are excited to work with IonQ to create a new generation of quantum-based solvers that could simultaneously increase predictive accuracy and expedite simulation run time,” said Prith Banerjee, Chief Technology Officer at Ansys. “Our goal is to enable every Ansys customer to seamlessly access the power of quantum computing to accelerate innovation and get their products to market sooner. We believe that quantum computing holds tremendous benefit for the CAE market, and IonQ’s technology excels at offering solutions to complex simulation challenges that were previously out of reach for classical computers.”

“IonQ has made significant strides in demonstrating the value of quantum computing to businesses across industries, such as pharmaceuticals, finance, automotive, and aerospace,” said Ariel Braunstein, IonQ’s SVP of Products and Applications. “We believe that Ansys’ simulation software will be crucial to designing and scaling our most advanced systems. This partnership will also give IonQ broader access to the multi-billion dollar Computer-Aided Engineering market, which accounts for a substantial portion of global High-Performance Computing usage.”

IonQ also works with enterprise customers such as Airbus and Hyundai Motor to incorporate quantum solutions into their industries. To learn more about IonQ and its latest system news and business developments, visit https://ionq.com/.

*https://www.grandviewresearch.com/industry-analysis/computer-aided-engineering-cae-market

thinking majorana...key areas of research; gemini ai says:"what is quantum gravity


Quantum gravity is a field of theoretical physics that seeks to describe gravity according to the principles of quantum mechanics. Essentially, it's an attempt to unify two of the most successful, yet seemingly incompatible, theories in physics:

General Relativity:
This theory, developed by Albert Einstein, describes gravity as the curvature of spacetime caused by mass and energy. It excels at explaining large-scale phenomena like the orbits of planets and the expansion of the universe.
Quantum Mechanics:
This theory governs the behavior of matter and energy at the smallest scales, such as atoms and subatomic particles. It has been incredibly successful in explaining the electromagnetic, strong, and weak forces.
The Problem:

General relativity and quantum mechanics work exceptionally well in their respective domains, but they break down when applied to situations where both gravity and quantum effects are significant.
These situations occur in extreme environments like:
The centers of black holes
The very early universe, moments after the Big Bang
The Goal:

Quantum gravity aims to create a single, consistent framework that can describe all four fundamental forces of nature (gravity, electromagnetism, strong force, and weak force).
It seeks to understand the fundamental nature of spacetime at the Planck scale, the smallest possible length scale in the universe.
Challenges:

Gravity is incredibly weak compared to the other forces, making it extremely difficult to detect quantum gravitational effects.
Developing a consistent mathematical framework that reconciles general relativity and quantum mechanics has proven to be a formidable challenge.
Key Areas of Research:

String Theory:
This theory proposes that fundamental particles are actually tiny vibrating strings.
Loop Quantum Gravity:
This approach quantizes spacetime itself, suggesting that it is made up of discrete loops.


Quantum gravity is one of the most significant unsolved problems in physics. Its resolution would revolutionize our understanding of the universe.


Sources and related content
"=============================
fundamental particles? ferminon; vibrating strings? twisted photons/light.

msft is going for string theory and quantum gravity?
and msft is said to be relieving itself of leases of some data centers. perhaps, money better spent with project stargate and allies open ai, softbank, and oracle. yes, oracle. and nvidia cuda-q and integration with quantum computing like ionq, which has partnership with us air force, state of maryland, univ of maryland. quantum simulations of many type of quantum computing to try to obtain an unbiased solution. knowledge of quantum computing needed to unify...perhaps even the string theory and embodiment in the majorana semi/superconductor fermion?

key areas of research; gemini ai says:"what is quantum gravity


Quantum gravity is a field of theoretical physics that seeks to describe gravity according to the principles of quantum mechanics. Essentially, it's an attempt to unify two of the most successful, yet seemingly incompatible, theories in physics:  

General Relativity:
This theory, developed by Albert Einstein, describes gravity as the curvature of spacetime caused by mass and energy. It excels at explaining large-scale phenomena like the orbits of planets and the expansion of the universe.  
Quantum Mechanics:
This theory governs the behavior of matter and energy at the smallest scales, such as atoms and subatomic particles. It has been incredibly successful in explaining the electromagnetic, strong, and weak forces.  
The Problem:

General relativity and quantum mechanics work exceptionally well in their respective domains, but they break down when applied to situations where both gravity and quantum effects are significant.
These situations occur in extreme environments like:
The centers of black holes
The very early universe, moments after the Big Bang
The Goal:

Quantum gravity aims to create a single, consistent framework that can describe all four fundamental forces of nature (gravity, electromagnetism, strong force, and weak force).
It seeks to understand the fundamental nature of spacetime at the Planck scale, the smallest possible length scale in the universe.
Challenges:

Gravity is incredibly weak compared to the other forces, making it extremely difficult to detect quantum gravitational effects.  
Developing a consistent mathematical framework that reconciles general relativity and quantum mechanics has proven to be a formidable challenge.
Key Areas of Research:

String Theory:
This theory proposes that fundamental particles are actually tiny vibrating strings.  
Loop Quantum Gravity:
This approach quantizes spacetime itself, suggesting that it is made up of discrete loops.

 
Quantum gravity is one of the most significant unsolved problems in physics. Its resolution would revolutionize our understanding of the universe.  


Sources and related content
"=============================
fundamental particles? ferminon; vibrating strings? twisted photons/light.

msft is going for string theory and quantum gravity?

air force quantum computing lab..how might they use it?
gemini ai said, "how to use quantum computing to know self generating wormhole?


The application of quantum computing to the study of self-generating wormholes is a frontier of theoretical physics, where researchers are attempting to bridge the gap between general relativity and quantum mechanics. Here's how quantum computers are playing a role:

Key Applications:

Simulating Quantum Gravity:
One of the biggest challenges in physics is understanding quantum gravity, the theory that would unify general relativity and quantum mechanics.
Quantum computers offer the potential to simulate aspects of quantum gravity, which is crucial for understanding wormhole physics.  
Exploring the ER=EPR Conjecture:
The ER=EPR conjecture proposes a deep connection between Einstein-Rosen bridges (wormholes) and quantum entanglement.  
Quantum computers are ideally suited for studying entanglement, allowing researchers to explore the validity and implications of this conjecture.
Holographic Duality:
Holographic duality is a theoretical framework that relates gravitational theories in one dimension to quantum field theories in a lower dimension.  
Quantum computers can be used to simulate these quantum field theories, providing insights into the corresponding gravitational theories and potentially revealing information about wormholes.
Simulating Wormhole Dynamics:
Recent experiments have demonstrated the ability of quantum computers to simulate certain aspects of wormhole dynamics.  
These experiments involve manipulating entangled qubits in ways that are mathematically analogous to the behavior of wormholes.  
It is very important to understand that these experiments are simulations of the mathematics of wormholes, and not the creation of actual wormholes.
Important Considerations:

Theoretical Research:
This is still very much a field of theoretical research. While quantum computers are providing valuable tools, we are far from being able to create or observe actual wormholes.
Complexity:
Simulating the full complexity of wormhole physics requires extremely powerful quantum computers, beyond the capabilities of current technology.
In essence, quantum computers are providing a powerful tool to explore the theoretical landscape of wormhole physics, particularly in understanding the relationship between gravity and quantum entanglement."

Doc. That would be nice. Ya gotta know a whole lot is going on behind the scene. Every new breakthrough in increasing the speed of quantum will increase the speed of quantum until this gets crazy fast. Presto!

how much of the 500million dollars of equity did they sell? at the market pricing they said. might be the reason for the current pricing? once the share trading is done. back up we go with new investors? softbank?private equity? not likely thinking of us retail folk.

once it's done i expect to see the pr prophesied by kona.

Is it too much to ask that this trade sideways for just one motherfucking day?

Doc. Can u say heterogeneous?

IonQ and Australian National University collaborate on even faster, higher-fidelity quantum gates with fewer errors, higher scalability and faster time to solution

COLLEGE PARK, Md.--(BUSINESS WIRE)--Mar. 5, 2025--IonQ (NYSE: IONQ), a leader in the quantum computing and networking industries, today announced a significant milestone in the development of high-speed, mixed-species quantum logic gates for trapped-ion quantum computing and networking. The findings further the company’s momentum in driving scalable, high-fidelity quantum networking and distributed quantum computing. Detailed in a new paper written by IonQ scientists and co-authored with Australian National University, the research shows a novel approach to achieving an orders-of-magnitude increase in physical gate speed of two-qubit gates between different atomic species.

“Quantum gate speed is critical for quantum computing at scale, and this work is expected to enable IonQ to bring quantum computing to the market faster to help our customers solve problems not possible with current technology,” said Dean Kassmann, SVP of Engineering and Technology at IonQ. “Developing high-speed, high-fidelity mixed-species gates with fewer errors is essential for building large-scale quantum networks. This research not only drives faster and more efficient entanglement but also lays the foundation for delivering scalable, fault-tolerant quantum computing.”

IonQ’s research demonstrates a practical method for executing high-speed, mixed-species entangling operations, a key step in linking computational qubits across separate quantum processing nodes via photonic connections. The research introduces an industry-first approach using ultrafast state-dependent kicks (SDKs) from nanosecond laser pulses, expected to enable quantum logic gates to operate at much faster megahertz (MHz) speeds. By enabling fast, high-fidelity interactions between different qubit types, this advancement improves quantum information transfer, reduces noise and errors, and enhances network accuracy. The increased gate speed and computational efficiency support deeper circuits, more effective qubit use, and higher system throughput, bringing quantum computing closer to practical scalability and real-world applications.

Mixed-species gates refer to quantum operations between ions of different atomic elements or isotopes such as Barium and Ytterbium. Species are chosen strategically to enable optimal interaction between qubits. For example, some can offer longer coherence times, making them ideal for memory, while others can interact efficiently with photons, improving performance for networking applications. Effectively integrating different species can optimize quantum architectures for scalability, reliability, improved fidelity, and efficient entanglement distribution.

“In addition to being an important milestone for quantum computing, achieving high-speed mixed-species quantum gates is also a crucial step toward scalable and modular quantum networks,” said Dr. Ricardo Viteri, Staff Physicist at IonQ. “This research paves the way for architectures that can more efficiently interconnect and process information.”

IonQ has filed for patent protection on the underlying invention. Forthcoming experimental work will determine when and how these techniques may be incorporated into IonQ’s commercial systems.

The paper was authored by IonQ scientists Haonan Liu, Alexander K. Ratcliffe, Varun D. Vaidya and C. Ricardo Viteri, with Australian National University scientists Phoebe Grosser, Simon A. Haine, Joseph J. Hope, Zain Mehdi and Isabelle Savill-Brown. For more details, see our technical blog post or read the full research paper here: https://arxiv.org/abs/2412.07185.

today would have been a great day to drop a PR 

this company puts them out when the  stock is weak to prevent a bigger loss 
I'd rather see a PR or an additional PR to book an up day 

have a nice day 

People always ask me what I do best and I like to reply “ Nothin. I started doing it yesterday, but I’m not finished. And I’m no quitter. “

With IonQ’s latest miniaturization advances. Who knows? GO NICCOLO!!!

Doc. It will be interesting to see how Jensen plays his quantum day conference on March 20. I’m hoping his mini super computer has a mini quantum hybrid computer on it along with a mini server😱 Wouldn’t that be a hoot!😜. Now we’ve got your attention.

Man I wish I had more available cash. I sold my extra car and everything that wasn’t nailed down last summer. So glad I did that back in August Sept . Lots of manipulation going on. But rest assured IonQ is the one to keep your eye on.

Hmm Not sure why I’m getting these p r alerts from Schwab, but then no p r for several minutes to much later in my p r feed? It used to be synced instantly.

It seems Niccolo is keeping with Peter’s release of most news before the open? Stay tuned. And I agree with da kine. We have a tag team made in heaven. We are in great hands longs. 😎🤙

PR just out. … waiting ….

For all the new investors out there looking for information Start here if you know nothing about quantum computing. Read Michio Kaku’s “ Quantum Supremacy “ for starters. Great read! Breaks it down into layman’s terms. You don’t have to be a quantum physicist ( sorry Niccolo) to understand it. Then follow this board and my “ Homework “ from there and you should be good to go. You can also just search things like “ latest quantum advancements “ to keep up. But read all you can. I read a minimum of 4 hours a day and it’s not enough. Things are moving at Presto speeds now! ( Niccolo just spit his Kona coffee all over his screen😂) It’s hard to keep up with all the latest advances but you need to try as to stay on top of your investment. I meet tec executives everyday from all over the world. You’d be surprised how many know very little about about quantum anything. But they are all ears. I educate them to their amazement. Many have invested in IonQ and keep in touch with me. To me it’s just kinda fun. It’s not a job. It’s an adventure! lol. What do I do? Guess.

I have more Homework to do.

Zzzzzzzzzzzzz😜I actually just woke up 1:25 am here lol. I only sleep 4 to maybe 5 hrs.

Go to bed !!

1 novel 2 usefulness 3 new 4 Enablement: There must be a clear description of how to make and use the invention
4 is the stickler. More shall be revealed soon imo

kona, releasing the power of quantum computing with supercomputer ai doing the prompts/instructions/algorithm/parsing for those with the questions but not the computer skills and infrastructure is huge. if ionq kept just a little advantage for itself...even if it was in the form of potential patentable ip in the topic area of expertise......huge. first to file is now the uspto rule.

Symbol IONQ
Last $22.43
Change -$0.68 (-2.94%)
Bid $22.36
Ask $22.50
High $23.20
Low $20.84
Volume 20,742,146 Time (ET)

PS: The search for a bottom appears starting in todays trading session.
We shall see and learn more in tomorrows session's of the move's intent/direction. GLTA

i got into this because i was watch cnbc and amy raskin a guest recommended it 
i quickly looked up a few things and said why not go for it 
this was around .  sept 5 
i've since added 
 and even flipped for a nice gain one time only ( picked up exxon with the gain ) 
now i will wait with you and a few others 
and see how this improves 

i'm not comfortable with the pricing  action 
however i do believe in valuations 

Ok. Everybody do your homework. Things will be moving very fast soon. If I can come up with that on chat GPT. Think of what Ionq is coming up with with forte enterprise and our Quantum O S etc etc Faster ! Faster the lights are turning red. Life in the fast lane. Everything . All the time. Ahh ha!

Beam me up Doc. Not transporting. “teleporting”. Hmm.Transforming comes to mind with v 😱