Sign up to save your podcasts
Or
Share Quantum Gossip: Superposition Spills the Tea on Classical Computings Dirty Laundry
Share to email
Share to Facebook
Share to X
Share to email
Share to Facebook
Share to X
Or
Quantum Gossip: Superposition Spills the Tea on Classical Computings Dirty Laundry
This is your Quantum Dev Digest podcast.
Hi, I'm Leo, short for Learning Enhanced Operator, and I'm here to share with you today's most interesting quantum computing discovery and why it matters.
Just the other day, I was reflecting on how quantum computing has come a long way since Peter Shor's groundbreaking algorithm for integer factorization in 1994. This algorithm showed how a quantum mechanical computer could potentially break the most advanced cryptography systems of the time, some of which are still used today.
But let's dive into something more recent and fascinating. Quantum computing uses qubits, which are special systems that act like subatomic particles made of atoms, superconducting electric circuits, or other systems that data in a set of amplitudes applied to both 0 and 1, rather than just two states (0 or 1). This concept is called a superposition.
To explain this in an everyday analogy, imagine you're standing in the center of a complicated maze. A traditional computer would have to "brute force" the problem, trying every possible combination of paths to find the exit. This is like using a stick to prod a murky pond at different locations until you hit a treasure chest, as described by Cronokirby in his treasure pond analogy.
On the other hand, a quantum computer might derive a bird's-eye view of the maze, testing multiple paths simultaneously and using quantum interference to reveal the correct solution. This is akin to throwing a stone into the pond and observing how the ripples behave. The chest will cause a perturbation in the ripples, revealing its location. This illustrates how quantum computing can make use of global information about the problem, unlike classical computing which works with local information.
This difference in approach is crucial for solving complex problems like chemical simulations. Classical supercomputers might try to simulate molecular behavior with brute force, using many processors to explore every possible way every part of the molecule might behave. However, as it moves past the simplest molecules, the supercomputer stalls due to lack of working memory.
Quantum algorithms, on the other hand, create multidimensional computational spaces or run calculations that behave much like these molecules themselves. This turns out to be a much more efficient way of solving complex problems like molecular simulation.
Engineering firms, financial institutions, and global shipping companies are exploring use cases where quantum computers could solve important problems in their fields. As quantum hardware scales and quantum algorithms advance, many big, important problems should find solutions.
In conclusion, quantum computing's ability to harness global information and use superposition makes it a powerful tool for solving complex problems that classical computers cannot. This is why it matters, and it's an exciting time to be in the field of quantum computing.
For more http://www.quietplease.ai
Get the best deals https://amzn.to/3ODvOta
Hi, I'm Leo, short for Learning Enhanced Operator, and I'm here to share with you today's most interesting quantum computing discovery and why it matters.
Just the other day, I was reflecting on how quantum computing has come a long way since Peter Shor's groundbreaking algorithm for integer factorization in 1994. This algorithm showed how a quantum mechanical computer could potentially break the most advanced cryptography systems of the time, some of which are still used today.
But let's dive into something more recent and fascinating. Quantum computing uses qubits, which are special systems that act like subatomic particles made of atoms, superconducting electric circuits, or other systems that data in a set of amplitudes applied to both 0 and 1, rather than just two states (0 or 1). This concept is called a superposition.
To explain this in an everyday analogy, imagine you're standing in the center of a complicated maze. A traditional computer would have to "brute force" the problem, trying every possible combination of paths to find the exit. This is like using a stick to prod a murky pond at different locations until you hit a treasure chest, as described by Cronokirby in his treasure pond analogy.
On the other hand, a quantum computer might derive a bird's-eye view of the maze, testing multiple paths simultaneously and using quantum interference to reveal the correct solution. This is akin to throwing a stone into the pond and observing how the ripples behave. The chest will cause a perturbation in the ripples, revealing its location. This illustrates how quantum computing can make use of global information about the problem, unlike classical computing which works with local information.
This difference in approach is crucial for solving complex problems like chemical simulations. Classical supercomputers might try to simulate molecular behavior with brute force, using many processors to explore every possible way every part of the molecule might behave. However, as it moves past the simplest molecules, the supercomputer stalls due to lack of working memory.
Quantum algorithms, on the other hand, create multidimensional computational spaces or run calculations that behave much like these molecules themselves. This turns out to be a much more efficient way of solving complex problems like molecular simulation.
Engineering firms, financial institutions, and global shipping companies are exploring use cases where quantum computers could solve important problems in their fields. As quantum hardware scales and quantum algorithms advance, many big, important problems should find solutions.
In conclusion, quantum computing's ability to harness global information and use superposition makes it a powerful tool for solving complex problems that classical computers cannot. This is why it matters, and it's an exciting time to be in the field of quantum computing.
For more http://www.quietplease.ai
Get the best deals https://amzn.to/3ODvOta
View all episodes
By Quiet. PleaseThis is your Quantum Dev Digest podcast.
Hi, I'm Leo, short for Learning Enhanced Operator, and I'm here to share with you today's most interesting quantum computing discovery and why it matters.
Just the other day, I was reflecting on how quantum computing has come a long way since Peter Shor's groundbreaking algorithm for integer factorization in 1994. This algorithm showed how a quantum mechanical computer could potentially break the most advanced cryptography systems of the time, some of which are still used today.
But let's dive into something more recent and fascinating. Quantum computing uses qubits, which are special systems that act like subatomic particles made of atoms, superconducting electric circuits, or other systems that data in a set of amplitudes applied to both 0 and 1, rather than just two states (0 or 1). This concept is called a superposition.
To explain this in an everyday analogy, imagine you're standing in the center of a complicated maze. A traditional computer would have to "brute force" the problem, trying every possible combination of paths to find the exit. This is like using a stick to prod a murky pond at different locations until you hit a treasure chest, as described by Cronokirby in his treasure pond analogy.
On the other hand, a quantum computer might derive a bird's-eye view of the maze, testing multiple paths simultaneously and using quantum interference to reveal the correct solution. This is akin to throwing a stone into the pond and observing how the ripples behave. The chest will cause a perturbation in the ripples, revealing its location. This illustrates how quantum computing can make use of global information about the problem, unlike classical computing which works with local information.
This difference in approach is crucial for solving complex problems like chemical simulations. Classical supercomputers might try to simulate molecular behavior with brute force, using many processors to explore every possible way every part of the molecule might behave. However, as it moves past the simplest molecules, the supercomputer stalls due to lack of working memory.
Quantum algorithms, on the other hand, create multidimensional computational spaces or run calculations that behave much like these molecules themselves. This turns out to be a much more efficient way of solving complex problems like molecular simulation.
Engineering firms, financial institutions, and global shipping companies are exploring use cases where quantum computers could solve important problems in their fields. As quantum hardware scales and quantum algorithms advance, many big, important problems should find solutions.
In conclusion, quantum computing's ability to harness global information and use superposition makes it a powerful tool for solving complex problems that classical computers cannot. This is why it matters, and it's an exciting time to be in the field of quantum computing.
For more http://www.quietplease.ai
Get the best deals https://amzn.to/3ODvOta
Hi, I'm Leo, short for Learning Enhanced Operator, and I'm here to share with you today's most interesting quantum computing discovery and why it matters.
Just the other day, I was reflecting on how quantum computing has come a long way since Peter Shor's groundbreaking algorithm for integer factorization in 1994. This algorithm showed how a quantum mechanical computer could potentially break the most advanced cryptography systems of the time, some of which are still used today.
But let's dive into something more recent and fascinating. Quantum computing uses qubits, which are special systems that act like subatomic particles made of atoms, superconducting electric circuits, or other systems that data in a set of amplitudes applied to both 0 and 1, rather than just two states (0 or 1). This concept is called a superposition.
To explain this in an everyday analogy, imagine you're standing in the center of a complicated maze. A traditional computer would have to "brute force" the problem, trying every possible combination of paths to find the exit. This is like using a stick to prod a murky pond at different locations until you hit a treasure chest, as described by Cronokirby in his treasure pond analogy.
On the other hand, a quantum computer might derive a bird's-eye view of the maze, testing multiple paths simultaneously and using quantum interference to reveal the correct solution. This is akin to throwing a stone into the pond and observing how the ripples behave. The chest will cause a perturbation in the ripples, revealing its location. This illustrates how quantum computing can make use of global information about the problem, unlike classical computing which works with local information.
This difference in approach is crucial for solving complex problems like chemical simulations. Classical supercomputers might try to simulate molecular behavior with brute force, using many processors to explore every possible way every part of the molecule might behave. However, as it moves past the simplest molecules, the supercomputer stalls due to lack of working memory.
Quantum algorithms, on the other hand, create multidimensional computational spaces or run calculations that behave much like these molecules themselves. This turns out to be a much more efficient way of solving complex problems like molecular simulation.
Engineering firms, financial institutions, and global shipping companies are exploring use cases where quantum computers could solve important problems in their fields. As quantum hardware scales and quantum algorithms advance, many big, important problems should find solutions.
In conclusion, quantum computing's ability to harness global information and use superposition makes it a powerful tool for solving complex problems that classical computers cannot. This is why it matters, and it's an exciting time to be in the field of quantum computing.
For more http://www.quietplease.ai
Get the best deals https://amzn.to/3ODvOta