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Maarten Bodewes
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So, i've just started to figure out how encryption works. Correct me if i misunderstood something.

As iI understand the most widely used method to exchange encrypted data over untrusted network is Diffie-Hellman protocol. Protocol itself doesn't define how to encrypt data, but it defines a usage pattern of public/private keys and implementation can vary.

So, original idea was to use big prime numbers (1 number, 1-D) and their combinations as public/private keys. After a while elliptic curves (x and y coordinates, 2-D) was discovered, so now everyone using them. Question is - do elliptic curves have more cryptographic strength than classical approach because of 2 dimensions? Is there researches related to 3-rd (or even more) order polynomes that potentially can provide even more cryptographic strength than elliptic curves?

Do elliptic curves have more cryptographic strength than classical approach because of 2 dimensions? Is there any research related to 3rd (or even more) order polynomial that potentially can provide even more cryptographic strength than elliptic curves?

So, i've just started to figure out how encryption works. Correct me if i misunderstood something.

As i understand the most widely used method to exchange encrypted data over untrusted network is Diffie-Hellman protocol. Protocol itself doesn't define how to encrypt data, but it defines a usage pattern of public/private keys and implementation can vary.

So, original idea was to use big prime numbers (1 number, 1-D) and their combinations as public/private keys. After a while elliptic curves (x and y coordinates, 2-D) was discovered, so now everyone using them. Question is - do elliptic curves have more cryptographic strength than classical approach because of 2 dimensions? Is there researches related to 3-rd (or even more) order polynomes that potentially can provide even more cryptographic strength than elliptic curves?

As I understand the most widely used method to exchange encrypted data over untrusted network is Diffie-Hellman protocol. Protocol itself doesn't define how to encrypt data, but it defines a usage pattern of public/private keys and implementation can vary.

So, original idea was to use big prime numbers (1 number, 1-D) and their combinations as public/private keys. After a while elliptic curves (x and y coordinates, 2-D) was discovered, so now everyone using them.

Do elliptic curves have more cryptographic strength than classical approach because of 2 dimensions? Is there any research related to 3rd (or even more) order polynomial that potentially can provide even more cryptographic strength than elliptic curves?

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Is there a 3-D alternative for elliptic curves?

So, i've just started to figure out how encryption works. Correct me if i misunderstood something.

As i understand the most widely used method to exchange encrypted data over untrusted network is Diffie-Hellman protocol. Protocol itself doesn't define how to encrypt data, but it defines a usage pattern of public/private keys and implementation can vary.

So, original idea was to use big prime numbers (1 number, 1-D) and their combinations as public/private keys. After a while elliptic curves (x and y coordinates, 2-D) was discovered, so now everyone using them. Question is - do elliptic curves have more cryptographic strength than classical approach because of 2 dimensions? Is there researches related to 3-rd (or even more) order polynomes that potentially can provide even more cryptographic strength than elliptic curves?