Skip to main content

PRIVACY POLICY

1. Era Quantic does not share any user's name, surname, telephone information, and any personal information with any web address while browsing the site. Users' navigation on the site and other personal information is carefully protected.


2. Era Quantic may only share your information with third parties in the following cases;

      2.1. It can be shared if we have been contacted in writing or by e-mail about a   legal situation and if it is intended to protect and defend the property rights of our   website.

3. Era Quantic takes great care in protecting your personal information. Your personal information is valuable to us.

4. Our web address is not responsible for the problems and legal problems caused by the use of the content shared on our site. 

5. Advertisements are made on our site. We work with companies like Adsense etc. These advertisements may contain cookies and cookies may be collected by companies. It is not possible for us to see these sages. Please read the privacy agreements of Adsense etc. companies.

6. Our Era Quantic site also shares links to other web addresses in some cases. The privacy policy only concerns our web address.


Comments

Post a Comment

Popular posts from this blog

Bloch Sphere – Geometric Representation of Quantum State

    It is very difficult to visualize quantum states before our eyes. The Bloch sphere represents quantum state functions quite well. The Bloch sphere is named after physicist Felix Bloch. As you can see in the Bloch sphere figure below, it geometrically shows the pure states of two-level quantum mechanical systems. The poles of the Bloch sphere consist of bits |0⟩ and |1⟩. Classically, the point on the sphere indicates either 0 or 1. However, from a quantum mechanics point of view, quantum bits contain possibilities to be found on the entire surface of the sphere. Traditionally, the z-axis represents the |0⟩ qubit, and the z-axis the |1⟩ qubit. When the wave function in superposition is measured, the state function collapses to one of the two poles no matter where it is on the sphere. The probability of collapsing into either pole depends on which pole the vector representing the qubit is closest to. The angle θ that the vector makes with the z-axis determines this probabilit...
1 comment
Read more

Statement of Bell's Inequality

 One of the most important applications of quantum mechanics is Bell's inequality. In 1965, John Stewart Bell actually thought that Einstein might be right and tried to prove it, but proved that quantum logic violated classical logic. It was a revolutionary discovery. Let's look at its mathematically simple explanation. To create the analogy, let's first write a classical inequality.   This inequality above is a classic expression. The quantum analogy of this expression represents the Bell inequality. With just one difference. Bell's inequality shows that the above equation is violated. Expressing Bell's inequality by skipping some complicated mathematical intermediates; While there is no such situation in the classical world that will violate the inequality we mentioned at the beginning, it is difficult to find a situation that does not violate this inequality in the quantum world. Reference https://www.youtube.com/watch?v=lMyWl6Pq904 https://slideplay...
1 comment
Read more

Bernstein–Vazirani Algorithm

  Quantum computers currently available are not sufficient to solve every existing classical problem due to their own characteristics. This does not mean that they are inferior to classical computers, or that, on the contrary, quantum computers should give all kinds of advantages over classical computers. Popular quantum algorithms solved in quantum computers are algorithms created by taking advantage of the superposition and entanglement properties of particles. So, they are algorithms created to show the prominent features of quantum properties. Today I will talk about an enjoyable algorithm that demonstrates the efficiency and speed of these quantum features. Known as the Bernstein - Vazirani algorithm is a quantum algorithm invented by Ethan Bernstein and Umesh Vazirani in 1992. The purpose of this algorithm, which is a game, is to find a desired number. To put it more clearly, let's keep in mind a string of binary numbers, for example, 1011001. Next, let's write an algori...
Post a Comment
Read more