Home Cloud Computing How To Use Cloud Encryption Algorithm For Data Encryption In The Cloud

How To Use Cloud Encryption Algorithm For Data Encryption In The Cloud

Cloud Encryption Algorithm is a component of data transport security. This Cloud Encryption Algorithm is nothing but some sequence of mathematics. This algorithm varying block ciphers to encrypt electronic 0 and 1.

Encryption algorithms stop data fraud, such as that perpetrated by bad persons who unlawfully obtain electronic information. Cloud Encryption Algorithm is found in software applications and a part of any company’s risk management protocols.

Encryption algorithms help in transforming plain text into encrypted text and again reverse to plain text for the tenacity of securing cloud data when it is transported over networks. You can use Cloud OS for this.

Cloud Encryption Algorithm

Encryption algorithms are frequently used in cloud communications, with FTP transfers. Generally, algorithms are used to deliver secure transfers. When cloud encryption algorithm is used in data transfer, the file at first translated into apparently worthless encryption text and then transferred in this formation; the receiving computer uses a key to interpret the cipher into its unique form. So if the message or file is captured before it reaches the receiving computer it is in an ineffectual (or encrypted) form.

Cloud Encryption Algorithm

When cloud data is encrypted through Cloud Encryption Algorithm data becomes more secure, accurate and safe from bad persons for any fraudulent activities. If the bad persons become more mathematical then the issue is more sophisticated.

Encryption algorithms may vary in size, but the power of an algorithm is usually directly proportional to its size. First Encryption Algorithm was developed by U.S. mathematicians Ron Rivest, Adi Shamir, and Len Adleman in the year 1977.

How Cloud Encryption Algorithm Works

Cloud Encryption Algorithm is an exciting piece of technology that works by scrambling information so it is incomprehensible by bad persons. We can show it as an example:

How Cloud Encryption Algorithm Works

Suppose I want to transfer an encrypted message like “Darling, we will meet 30 February afternoon in your empty house”. The message will be converted like:


When my text is encrypted normally it becomes a jumbled character and equipped with the secret passcode and will be decoded by reverse way.

Blowfish (cipher) Encryption Algorithm

Blowfish Encryption Algorithm is a symmetric-key block cipher, developed in 1993 by Bruce Schneier and included in a big number of cipher suites and encryption goods.

  • Designers: Bruce Schneier
  • First published: 1993
  • Successors: Twofish

Cipher detail

  • Key sizes:32–448 bits
  • Block sizes: 64 bits
  • Structure: Feistel network
  • Rounds: 16

AES Encryption Algorithm

The Advanced Encryption Standard (AES), also famous by its original name Rijndael, is a requirement for the encryption of electronic data recognized by the United States National Institute of Standards and Technology in 2001.

  • Designers: Vincent Rijmen, Joan Daemen
  • First published: 1998
  • Derived from: Square
  • Successors: Anubis, Grand Cru
  • Certification: AES winner, CRYPTREC, NESSIE, NSA
  • Key sizes: 128, 192 or 256 bits[note 1]
  • Block sizes: 128 bits[note 2]
  • Structure: Substitution–permutation network
  • Rounds: 10, 12 or 14 (depending on key size)

Twofish Encryption Algorithm

In cryptography, Twofish Encryption Algorithm is a symmetric key block cipher with a block size of 128 bits and key dimensions up to 256 bits. Twofish Encryption Algorithm was one of the five qualifiers of the Advanced Encryption Standard contest, but it was not nominated for standardization.

  • Designers Bruce Schneier
  • First published 1998
  • Derived from Blowfish, SAFER, Square
  • Related to Threefish
  • Certification AES finalist

Cipher detail

  • Key sizes 128, 192 or 256 bits
  • Block sizes 128 bits
  • Structure Feistel network
  • Rounds 16

IDEA Encryption Algorithm

The International Data Encryption Algorithm initially called Improved Proposed Encryption Standard, is a symmetric-key block cipher developed by James Massey of ETH Zurich and Xuejia Lai and was first defined in 1991.

  • Designers Xuejia Lai and James Massey
  • Derived from PES
  • Successors MMB, MESH, Akelarre,

Cipher detail

  • Key sizes 128 bits
  • Block sizes 64 bits
  • Structure Lai-Massey scheme
  • Rounds 5

MD5 Encryption Algorithm

MD5 is a message-digest algorithm is extensively used confusion function producing a 128-bit confusion value. Although MD5 was originally developed to use as a cryptographic hash function, it has been found to suffer from far-reaching susceptibilities.

  • Designers Ronald Rivest
  • First published in April 1992
  • Series MD2, MD4, MD5, MD6

Cipher detail

  • Digest sizes 128 bit
  • Block sizes 512 bit
  • Structure Merkle–Damgård construction
  • Rounds 4

SHA 1 Encryption Algorithm

SHA-1 means Secure Hash Algorithm 1. SHA-1 is a cryptographic hash function which receipts an input and yields a 160-bit (20-byte) hash value known as a message digest – naturally extracted as a hexadecimal number, 40 digits size. It developed the US National Security Agency and is a U.S. Federal Information Processing Standard.

  • Designers National Security Agency
  • First published 1993 (SHA-0),
  • 1995 (SHA-1)
  • Series (SHA-0), SHA-1, SHA-2, SHA-3
  • Certification FIPS PUB 180-4, CRYPTREC (Monitored)

Cipher detail

  • Digest sizes 160 bits
  • Block sizes 512 bits
  • Structure Merkle–Damgård construction
  • Rounds 80

HMAC Encryption Algorithm

HMAC is a specific type of message authentication code (MAC) including a cryptographic hash function and an undisclosed cryptographic key.

RSA Security Encryption Algorithm

The RSA algorithm is Rivest-Shamir-Adleman. RSA is a cryptosystem for public-key encryption, widely used for securing sensitive information, mainly when being sent over an unconfident network such as the Internet.

  • Designers Ron Rivest, Adi Shamir, and Leonard Adleman
  • First published 1977
  • Certification PKCS#1, ANSI X9.31, IEEE 1363

Cipher detail

  • Key sizes 1,024 to 4,096 bit typical
  • Rounds 1

Advantages of Cloud Encryption Algorithm

  • Encryption Provides Security for Data
  • Encrypted Data Preserves Integrity
  • The Encryption Protects Privacy
  • Encryption is Part of Compliance
  • Encryption Protects Data across Devices
  • Peace of Mind of satisfaction
  • Identity Theft Protection
  • Safe Decommissioning of Computer
  • Unauthorized Access Protection
  • Compliance with Data Protection Acts

Drawbacks/Disadvantages of Cloud Encryption Algorithm

  • Encryption is a very multifaceted technology.
  • Running of encryption keys must be an added administrative job for often overloaded IT staff.
  • Another disadvantage of encryption as it narrates to keys is that the security of data becomes the security of the encryption key.
  • Lose that key, and you effectively lose your data.
  • traditional full-disk encryption solutions are the reduction of overall system performance upon deployment.



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