Artificial intelligence, which until recently was merely a tool for analytics and simple automation, has learned to create in a truly creative way. It is now a full-fledged co-author in art, science, and creative exploration.
We stand at the threshold of a technological transformation comparable to the shift from steam to electricity or from analog circuits to integrated microprocessors. Today, the focus is on quantum computing—a technology that promises not merely to accelerate familiar computations but to redefine the very principles of how we interact with information. In this article, we’ll explore how quantum computers work, why they matter, and how soon quantum technologies may become part of our everyday lives.
In reality, a “smart city” is far more than sensors at traffic lights, parking payment apps, and 5G connectivity. A smart city is a complex and large-scale ecosystem in which technologies become an organic part of everyday urban life — just like roads, parks, and buildings. In such a city, the infrastructure begins to sense and understand its residents, respond to their needs, anticipate their desires — and, in a way, truly comes alive.
Scientific and technological progress has always been one of the most controversial topics for discussion. In fact, it is precisely progress that creates new vulnerabilities. The exponential growth of AI power, the slowing pace of the fight against climate change, and the quiet epidemic of antimicrobial resistance—these processes are not just developing; they are accelerating. They are approaching critical tipping points, the crossing of which could trigger irreversible chain reactions.
We stand at the threshold of a technological transformation comparable to the shift from steam to electricity or from analog circuits to integrated microprocessors. Today, the focus is on quantum computing—a technology that promises not merely to accelerate familiar computations but to redefine the very principles of how we interact with information. In this article, we’ll explore how quantum computers work, why they matter, and how soon quantum technologies may become part of our everyday lives.
In reality, a “smart city” is far more than sensors at traffic lights, parking payment apps, and 5G connectivity. A smart city is a complex and large-scale ecosystem in which technologies become an organic part of everyday urban life — just like roads, parks, and buildings. In such a city, the infrastructure begins to sense and understand its residents, respond to their needs, anticipate their desires — and, in a way, truly comes alive.
Scientific and technological progress has always been one of the most controversial topics for discussion. In fact, it is precisely progress that creates new vulnerabilities. The exponential growth of AI power, the slowing pace of the fight against climate change, and the quiet epidemic of antimicrobial resistance—these processes are not just developing; they are accelerating. They are approaching critical tipping points, the crossing of which could trigger irreversible chain reactions.
Scientific and technological progress has always been one of the most controversial topics for discussion. In fact, it is precisely progress that creates new vulnerabilities. The exponential growth of AI power, the slowing pace of the fight against climate change, and the quiet epidemic of antimicrobial resistance—these processes are not just developing; they are accelerating. They are approaching critical tipping points, the crossing of which could trigger irreversible chain reactions.
In reality, a “smart city” is far more than sensors at traffic lights, parking payment apps, and 5G connectivity. A smart city is a complex and large-scale ecosystem in which technologies become an organic part of everyday urban life — just like roads, parks, and buildings. In such a city, the infrastructure begins to sense and understand its residents, respond to their needs, anticipate their desires — and, in a way, truly comes alive.
We stand at the threshold of a technological transformation comparable to the shift from steam to electricity or from analog circuits to integrated microprocessors. Today, the focus is on quantum computing—a technology that promises not merely to accelerate familiar computations but to redefine the very principles of how we interact with information. In this article, we’ll explore how quantum computers work, why they matter, and how soon quantum technologies may become part of our everyday lives.
Artificial intelligence, which until recently was merely a tool for analytics and simple automation, has learned to create in a truly creative way. It is now a full-fledged co-author in art, science, and creative exploration.
Until recently, the pinnacle of engineering was considered to be a precise 3D model—a digital prototype of anything from a jet engine to a skyscraper. But such a prototype had a fundamental flaw: it was static. As soon as the real object rolled off the assembly line or was constructed, its digital copy became a useless artifact, quickly losing its connection to the original.
The global financial group London Stock Exchange Group (LSEG) has launched a new blockchain-based infrastructure — Digital Markets Infrastructure (DMI). This is the first system of its kind created by a major global exchange platform, designed to serve the entire life cycle of private funds — from issuance and tokenization to post-trade settlement and servicing.
In reality, a “smart city” is far more than sensors at traffic lights, parking payment apps, and 5G connectivity. A smart city is a complex and large-scale ecosystem in which technologies become an organic part of everyday urban life — just like roads, parks, and buildings. In such a city, the infrastructure begins to sense and understand its residents, respond to their needs, anticipate their desires — and, in a way, truly comes alive.
Scientific and technological progress has always been one of the most controversial topics for discussion. In fact, it is precisely progress that creates new vulnerabilities. The exponential growth of AI power, the slowing pace of the fight against climate change, and the quiet epidemic of antimicrobial resistance—these processes are not just developing; they are accelerating. They are approaching critical tipping points, the crossing of which could trigger irreversible chain reactions.
We stand at the threshold of a technological transformation comparable to the shift from steam to electricity or from analog circuits to integrated microprocessors. Today, the focus is on quantum computing—a technology that promises not merely to accelerate familiar computations but to redefine the very principles of how we interact with information. In this article, we’ll explore how quantum computers work, why they matter, and how soon quantum technologies may become part of our everyday lives.
Just recently, the idea of controlling a complex mechanism on the other side of the planet with millimeter-precision and full tactile feedback seemed like science fiction.
Until recently, the pinnacle of engineering was considered to be a precise 3D model—a digital prototype of anything from a jet engine to a skyscraper. But such a prototype had a fundamental flaw: it was static. As soon as the real object rolled off the assembly line or was constructed, its digital copy became a useless artifact, quickly losing its connection to the original.
Artificial intelligence, which until recently was merely a tool for analytics and simple automation, has learned to create in a truly creative way. It is now a full-fledged co-author in art, science, and creative exploration.
In reality, a “smart city” is far more than sensors at traffic lights, parking payment apps, and 5G connectivity. A smart city is a complex and large-scale ecosystem in which technologies become an organic part of everyday urban life — just like roads, parks, and buildings. In such a city, the infrastructure begins to sense and understand its residents, respond to their needs, anticipate their desires — and, in a way, truly comes alive.
Scientific and technological progress has always been one of the most controversial topics for discussion. In fact, it is precisely progress that creates new vulnerabilities. The exponential growth of AI power, the slowing pace of the fight against climate change, and the quiet epidemic of antimicrobial resistance—these processes are not just developing; they are accelerating. They are approaching critical tipping points, the crossing of which could trigger irreversible chain reactions.