Series Introduction | Quantum Computing in Practice | Episode 1
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- Опубликовано: 21 апр 2024
- Welcome to Quantum Computing in Practice! The aim of this course is to teach a broad audience (yes, that includes you!) how to use quantum processors of over 100 qubits.
In this course we will discuss application areas of importance, error mitigation strategies, and best practices for Qiskit Runtime. In order to be prepared for this full course, we recommend already being familiar with the basics of quantum computing. You can check out John Watrous' course on Understanding Quantum Information and Computation to quickly get up to speed!
Scaling up circuits and experiments to the Utility scale can be tricky at first, so join us by subscribing to the channel to get notified when the newest episodes drops.
Written text for this course can be found on IBM Quantum Learning by following this link: learning.quantum.ibm.com/cour...
Understanding Quantum Information & Computation Lesson 1 & 2
• Lesson 01: Single Syst...
• Lesson 02: Multiple Sy...
#ibmquantum #qiskit #learnquantum 
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I love how the Qiskit team is making quantum computing more acessable. Im ready for episode 2!
We are living in very powerful exciting times.
We are embarking on dawn of Quantum computing. Quantum computing is going to be a great adventure for all of us in this new quantum technology field. Thank You IBM.
SOSSTSE SCIENTIFIC TECHNOLOGY SOLUTIONS.
❤❤❤🎉🎉🎉
Well done, Olivia! Looking forward to the following episodes!
Olivia Lanes explaining in detail my entire junior Data Processing course content is really refreshing...!
The victory sound when quantum computing waa mentioned is great!
Extremly interesting first video! Olivia is always amazing!
Finally !! Signed Up on IBM Quantum.
Good to see IBM leading the way in computer science, well done Qiskit team.
Fantastic! I can't wait for the next episode of this series. Olivia has the magic to tie everything together in such a succinct delivery.
Thansk Olivia for all you make for the Quantum Computation.
Great start of a great series! Please continue 🙂
As it was difficult for human to move from decimal counting to binary counting, it will be hard too to move from classical computing to quantum computing. When that happen, people will see how pioneers were able to make that shift. Thanks for the nice introduction and I hope the rest of the course will be as clear as this one.
Thanks Olivia! Even though this first episode (being an intro) does not yet deep dive into quantum computing, it certainly has attached my interest and looking forward to more material! Digesting information provided by Olivia is so enjoyable anyway 😊
Regards from Europe!
Eagerly waiting! 👍
Eagerly waiting for next episode, please bring it ASAP.
Great video! I really appreciated the clear explanations and the practical insights. Looking forward to the upcoming episodes and learning more with each one. 👍#learnquantum
Much more insightful thanks for starting such learning series....
Already on the track!!! Thnks Olivia!!! Greetings!!!
Thank you so much for the Best Presentation!
Thanks for the awesome introduction, Ma'am.
I remain highly expectant for the next.
Nicely compiled, thank you 🙌🏻
Awesome! Can't wait for the next one!
Her speech and lecture is very nice, clear....
Eagerly waiting for the next episode !!
Looking forward to the next lesson
It was awesome! Thanks all
Gordon Moore's observation was only about the number of transistors. He didn't mention anything about their size.
Good introduction. Looking forward to the rest of the series.
Good overview introduction.
Great series! Is there a known schedule for when these episodes come out?
Great content as always.
Thank you ❤
Nice and clear presentation. 👏
Every computer is a quantum computer, computers compute the Quantity or Quantum of values.
Semi conductors of the computers in ROOM TEMPERATURE have reached their operating frequency's speed limit.
Transistors are ionic switches that with higher frequency of switching they get hot and create errors / noise.
The most practical way of cooling the processors is with Heat Sinks and Fans which we have been using.
Quantum Computers are the higher frequency computers with liquified gas cooling pipes. Concept and the technique of parallel processing is as old as the invention of IC (integrated circuit). We can connect multiple fan cooled regular computers in parallel to achieve the same performance of a Quantum Computer, all we need is a synchronization algorithm to compensate for network latency, same as the one for supper computers.
Thanks, I Deeply aprecciate this effort. Thanks
Looks like I'll now be completely consumed by this course for the next week
Thanks mam so much for the videos
great series
These are great
I wish I can do online summer school in using 100 qubits. My tries so far are basically me blinding figuring out how they work and try to do my research on them. This course definitely will help!
keenly looking forward to the next episode (is there going to be one? or, do we go back to the current lengthy ones!)
Love it.
Thanks for this content
LETS GOOOO OLANES!
Gemini: This video is the first episode of a series called "Quantum Computing in Practice" by Qiskit. It aims to teach viewers how to use a quantum computer to its full potential.
The speaker, Olivia Lan, a researcher and educator at IBM Quantum, argues that quantum computers are entering a new era of usefulness. Previously, quantum computers were only useful for simulating small circuits. Now, with new advancements, quantum computers can outperform classical computers for certain tasks.
One reason why quantum computers are becoming more useful is that IBM has made quantum processors with over 100 qubits available. These processors are too complex for classical computers to simulate.
This course is designed for a broad audience, including those who already have a basic understanding of quantum computation and those who are new to the field. The course will cover how to create and run quantum computing jobs, error mitigation techniques, and potential application areas.
The speaker also briefly discusses the history of computation, noting that quantum computers are just the next step in a long line of advancements. Quantum computers are not meant to replace classical computers, but rather to complement them.
In the next episode, the speaker will discuss 100 qubit systems and how to interact with them using the Qiskit software development kit.
Nice video
Great
Excellent :)
Can you post the pre - requisite course you spoke about .. exciting !!
Sure thing, it was John's course here: ruclips.net/video/42OiBzfdE2o/видео.html&pp=iAQB
10 year from now folks watching this.... 😮 See this uploaded 10 year ago.
I hope they appreciate how OLi builds on a subject. I'd be truly impressed though if, at some point, you bring a practitioner in from one of those fields discussed at the end(drug discovery please), and are thorough about it--but OLi is essential to the script.
Waiting for the 2nd episode. When will it be released?
Are the slides available for download? They've been very handy for the "Understanding Quantum Information & Computation" presentations. Thanks and looking forward to these presentations.
This is an exciting series and thank for fostering our creative juices.
Is it possible to have Qiskit create models for something like this?
A quantum-state memory device IC or could I create a model, where I can input the "address" "command" and "data" which are three discrete superimposed frequencies enveloped as a wavelet. And if a circuit connection at the location at that frequency is open or closed, then that state may change based on the command and open/closed, and a reflecting wave comes back with a specific phase based on whether it was on or off.
The ability to input a classical lattice (perhaps as a graph) to represent, say: an electronic circuit lattice with LC values, maze puzzle lattice (with only one solution), or an airline system lattice with dynamical models for costs and weights back and forth, attach some observation areas, and have the system be solved through resonance by inputting wavelets at the input, and determining the solution to the lattice, at the various nodes and vertices throughput. Can each node have "quantum" properties as the dynamical models. Can adding that non-linear knowledge of the internal stress dynamics predict where a classical system will stress itself out or not work?
The ability to factorize an integer faster (or more efficiently) than a GPU, for example in Python, having primePy.factorize() execute in some time or faster?
Have two systems of qubits interact with one another via some coupling factors which we pre-assign?
If this series does what it promises I'll be very happy (for a moment, after that I'll realise that I'm living in a late stage capitalist world and be sad again).
Will there be other videos soon?
Thank you for this first episode!
I'm looking forward to the entire series.
Are we just gonna ignore how great the pun of (what is it good for)😂 were?
This is yet another hyped forward-looking presentation on QC. Very much look forward to seeing the “quantum computer that exists right now” (not a simulated quantum computer, not a piece of a QC which - if we knew how to wire it to the real world may do something) in the next episodes. The whole thing is content-free as far as i can see. And the couple of facts that are presented are actually wrong - for example Nvidia is already simulating c 1100 qubits (not just 100). And "quantum machine learning" ha ha ha. Once thing she is right about is that there are "billions of videos on the internet" about quantum computing. This is just another one.
The purpose of this course is actually exactly the opposite of what you claim. I think I was pretty clear that we are not interested in hype, nor forecasting the future. We are only going to describe what can be done with the quantum computers that exist right now, and how to do it.
Furthermore Nvidia cannot simulate 1100 qubits...this is physically impossible. The team is doing interesting work for sure, but directly from the website they state: "An NVIDIA DG A100 system with eight NVIDIA A100 80GB Tensor Core GPUs can simulate up to 36 qubits." As far as I am aware 36
Please provide the link or anything for basic basic understanding of Quantam Computing, which is referred at 3:40- 3:45
ruclips.net/video/3-c4xJa7Flk/видео.html
Qiskit : *publishes video*
Also Qiskit : *makes it private*
WE SAW IT
😅
Hey, I love your content and videos, they're really helpful.
I am an undergraduate student from Indian Institute of Technology Hyderabad, majoring in Engineering Physics.
My major interests are in Quantum Computing, Artificial intelligence and working in a startup as team.
I basically want to use these technologies to invent things that make life easier for everyone.
I just completed my 2nd year and right now I have a three month long break and I'm kinda of confused about a few things regarding how to proceed and utilize my time in the best way to learn everything. Also about what exactly I need to do to achieve what I want.
Is there anyway you guys can help me ?
i cant login on ibm quantum with my IBMid anymore, it always just brings me back to the login page without getting logged in
In the realm where particles dance and spin,
Entangled threads, where realities begin,
Quantum whispers, mysteries within,
A cosmic dance, where wonders grin.
Entangled pairs, in quantum's embrace,
Spinning in sync, through time and space,
Linked by laws, no one can erase,
A bond of mystery, in every case.
Quantum computing, a revolution's dawn,
Harnessing entanglement, where paths are drawn,
Bits of qubits, in states withdrawn,
Calculating realms, previously withdrawn.
Parallel processing, in quantum's domain,
Simultaneous pathways, a computational gain,
Solving puzzles, with quantum's reign,
A new frontier, where knowledge reigns.
Entangled threads, computing's key,
Unlocking realms, previously unseen,
In the quantum dance, where dreams convene,
A future bright, yet to be seen.
While I get that AI itself will benefit from quantum computing, aren't they kinda achieving many of the theoretical benefits we hope quantum computing will have already? Like protein folding for example. More and more theoretical benefits of quantum computing are being 'eaten up' by machine learning algorithms today. How do you see this?
is episode 2 out?
Looking forward to lesson 2 for one month. Will you go on?
very shortly! Thanks for being patient.
When will the second video be uploaded
I'll ask our producers to step on it.
Si. Hay que meterse en el barro. Nada de teoría todo práctica.
I really love this course, but, please make the English subtitles because my English skill is not that good to understand this video without subtitles. Thank You!
We will work on that!
BILLIONS of videos on Quantum computers?
we are so back!
SO back
Hi
We got "Quantum Mommy" before GTA 6
but guy, can we use quantum computing to make starcraft 3???
I'm a lady. And no.
@@qiskit Funny girl. And darn.
"... and less sci-fiy"😂😂
I’ll be honest, I think QM computers are not going to have any advantage over classical computers. Believing so involves two things
1) that hyper computation is possible… that quantum computers can perform computation better than classical computation as outlined by Turing.
2) That if hyper computation does not exist that any computer can do what quantum computers can do.
Therefor, in order to believe quantum computers will work, means you must believe the universe is strictly stronger than a Turing machine, which means you’d be able to solve the halting problem which is nonsense. And if hypercomputation does not exist, then it means QC’s will never have an advantage over a Turing machine.
It’s a lose lose situation. If Turing taught us anything it’s that hardware doesn’t matter, we can just create instructions and feeding it to the same machine. It’s about algorithms, not hardware.
Don’t get me wrong, I’m not saying we shouldn’t build different computation structures to leverage nature’s properties to do computation, I’m just saying that there will just be no advantage.
just a fiction.
all I heard was blah blah blah. no practical example whatsoever. they just keeps bragging about quantum this quantum that.
It's just the first video man, be patient may be 2nd one will be better but I agree that there was no practical
@@comicrystal2385 I stopped the video after about 6 seconds, lol. Ty for the heads up.
Bro chill.. be patient
Yes, it is just part 1
Think with more vigor 🙂👍
The fun thing is: We (as humans) are Quantum Computers (highly complex biochemical interactions) who create Quantum Computers outside ourselves. This is very interesting in the Context of the Role of Consciousness and how Consciousness can influences the "Quantum Calculations". Because the best Quantum Computers are living things (humans, plants etc.). It could be that Consciousness is directly involved in the "Noise" we see in Quantum Computers and that Consciousness is the "interacting force" which actually collapses the Wave-Function to a desired state based on the state of consciousness the organism/ system is.