The term\u00a0encryption\u00a0refers to the encoding of any Internet message in such a way that only the intended addressee can decode it. Internet message literally means any data sent via the Internet, not just a text or email.<\/p>\n
Encryption\u00a0software transforms the data sent into cipher text. If an individual did manage to steal the data sent, they could not read it unless they had the decryption key.<\/p>\n
Military-Grade\u00a0Encryption<\/span><\/strong><\/h3>\nIf you send something using a method that says it uses military-grade\u00a0encryption, you will have sent it in a manner that proves nearly impossible to crack. Military-grade\u00a0encryption\u00a0uses 256-bit keys to create 2^256 possible combinations. No human can encrypt something using military grade\u00a0encryption. Not even a supercomputer can crack an encrypted key in a reasonable time period.<\/p>\n
Symmetric\u00a0Encryption<\/span><\/strong><\/h3>\nSymmetric\u00a0encryption\u00a0is when a sender and a receiver use the same private\u00a0encryption\u00a0key to decode and encode an encrypted message. The main drawback is that the key should be shared between the parties. Unless a secure tunnel is established, an interceptor might snatch the key and decipher the message.<\/p>\n
Asymmetric\u00a0Encryption<\/span><\/strong><\/h3>\nAsymmetric\u00a0encryption\u00a0uses a two key method to for greater safety. A public key and a private key protect the message. Both sender and receiver use the shared public key, while each gets their own private key. You need both to access the message. It does leave the end-points unprotected.<\/p>\n
Here Is an Example of How Asymmetric Encryption Works:<\/span><\/strong><\/h2>\n1) Message is encrypted using the Receiver Public Key<\/p>\n
2) Receiver decrypts the message using his own Private Key<\/p>\n
![\"Asymmetric](\"https:\/\/www.radio-ip.com\/wp-content\/uploads\/2019\/12\/Understanding-How-Encryption-Works-2.png\")
<\/h3>\nAuthentification asym\u00e9trique:<\/span><\/strong><\/h3>\nLes deux m\u00eames cl\u00e9s peuvent effectuer l'authentification:<\/p>\n
1) Sender signs his data with his own private key<\/p>\n
2) Le destinataire peut authentifier que les donn\u00e9es proviennent de l'exp\u00e9diteur \u00e0 l'aide de sa cl\u00e9 publique connue.<\/p>\n
3) No data is encrypted<\/p>\n
![\"Asymmetric](\"https:\/\/www.radio-ip.com\/wp-content\/uploads\/2019\/12\/Understanding-How-Encryption-Works-3.png\")
<\/h3>\nEnd-To-End\u00a0Encryption<\/span><\/strong><\/h3>\nEnd-to-end\u00a0encryption\u00a0(E2EE) encrypts data throughout the transportation between the two end-points, including through intermediate servers. No third party, not even your Internet Service Provider (ISP) car read it. Backup or peer-to-peer (P2P) services sometimes call E2E\u00a0encryption\u00a0by another name – client-side\u00a0encryption. Other times, it\u2019s referred to as zero-knowledge\u00a0encryption. An example of end-to-end encryption can be found on apps such as\u00a0Facebook Messenger<\/a>\u00a0ou Telegram, cependant, aucun des services de messagerie ne l\u2019active automatiquement.<\/p>\n
Symmetric\u00a0encryption\u00a0is when a sender and a receiver use the same private\u00a0encryption\u00a0key to decode and encode an encrypted message. The main drawback is that the key should be shared between the parties. Unless a secure tunnel is established, an interceptor might snatch the key and decipher the message.<\/p>\n
Asymmetric\u00a0Encryption<\/span><\/strong><\/h3>\nAsymmetric\u00a0encryption\u00a0uses a two key method to for greater safety. A public key and a private key protect the message. Both sender and receiver use the shared public key, while each gets their own private key. You need both to access the message. It does leave the end-points unprotected.<\/p>\n
Here Is an Example of How Asymmetric Encryption Works:<\/span><\/strong><\/h2>\n1) Message is encrypted using the Receiver Public Key<\/p>\n
2) Receiver decrypts the message using his own Private Key<\/p>\n
<\/h3>\nAuthentification asym\u00e9trique:<\/span><\/strong><\/h3>\nLes deux m\u00eames cl\u00e9s peuvent effectuer l'authentification:<\/p>\n
1) Sender signs his data with his own private key<\/p>\n
2) Le destinataire peut authentifier que les donn\u00e9es proviennent de l'exp\u00e9diteur \u00e0 l'aide de sa cl\u00e9 publique connue.<\/p>\n
3) No data is encrypted<\/p>\n
<\/h3>\nEnd-To-End\u00a0Encryption<\/span><\/strong><\/h3>\nEnd-to-end\u00a0encryption\u00a0(E2EE) encrypts data throughout the transportation between the two end-points, including through intermediate servers. No third party, not even your Internet Service Provider (ISP) car read it. Backup or peer-to-peer (P2P) services sometimes call E2E\u00a0encryption\u00a0by another name – client-side\u00a0encryption. Other times, it\u2019s referred to as zero-knowledge\u00a0encryption. An example of end-to-end encryption can be found on apps such as\u00a0Facebook Messenger<\/a>\u00a0ou Telegram, cependant, aucun des services de messagerie ne l\u2019active automatiquement.<\/p>\n
1) Message is encrypted using the Receiver Public Key<\/p>\n
2) Receiver decrypts the message using his own Private Key<\/p>\n
<\/h3>\nAuthentification asym\u00e9trique:<\/span><\/strong><\/h3>\nLes deux m\u00eames cl\u00e9s peuvent effectuer l'authentification:<\/p>\n
1) Sender signs his data with his own private key<\/p>\n
2) Le destinataire peut authentifier que les donn\u00e9es proviennent de l'exp\u00e9diteur \u00e0 l'aide de sa cl\u00e9 publique connue.<\/p>\n
3) No data is encrypted<\/p>\n
<\/h3>\nEnd-To-End\u00a0Encryption<\/span><\/strong><\/h3>\nEnd-to-end\u00a0encryption\u00a0(E2EE) encrypts data throughout the transportation between the two end-points, including through intermediate servers. No third party, not even your Internet Service Provider (ISP) car read it. Backup or peer-to-peer (P2P) services sometimes call E2E\u00a0encryption\u00a0by another name – client-side\u00a0encryption. Other times, it\u2019s referred to as zero-knowledge\u00a0encryption. An example of end-to-end encryption can be found on apps such as\u00a0Facebook Messenger<\/a>\u00a0ou Telegram, cependant, aucun des services de messagerie ne l\u2019active automatiquement.<\/p>\n
Les deux m\u00eames cl\u00e9s peuvent effectuer l'authentification:<\/p>\n
1) Sender signs his data with his own private key<\/p>\n
2) Le destinataire peut authentifier que les donn\u00e9es proviennent de l'exp\u00e9diteur \u00e0 l'aide de sa cl\u00e9 publique connue.<\/p>\n
3) No data is encrypted<\/p>\n
<\/h3>\nEnd-To-End\u00a0Encryption<\/span><\/strong><\/h3>\nEnd-to-end\u00a0encryption\u00a0(E2EE) encrypts data throughout the transportation between the two end-points, including through intermediate servers. No third party, not even your Internet Service Provider (ISP) car read it. Backup or peer-to-peer (P2P) services sometimes call E2E\u00a0encryption\u00a0by another name – client-side\u00a0encryption. Other times, it\u2019s referred to as zero-knowledge\u00a0encryption. An example of end-to-end encryption can be found on apps such as\u00a0Facebook Messenger<\/a>\u00a0ou Telegram, cependant, aucun des services de messagerie ne l\u2019active automatiquement.<\/p>\n
End-to-end\u00a0encryption\u00a0(E2EE) encrypts data throughout the transportation between the two end-points, including through intermediate servers. No third party, not even your Internet Service Provider (ISP) car read it. Backup or peer-to-peer (P2P) services sometimes call E2E\u00a0encryption\u00a0by another name – client-side\u00a0encryption. Other times, it\u2019s referred to as zero-knowledge\u00a0encryption. An example of end-to-end encryption can be found on apps such as\u00a0Facebook Messenger<\/a>\u00a0ou Telegram, cependant, aucun des services de messagerie ne l\u2019active automatiquement.<\/p>\n