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RFC 4949 Internet Security Glossary Definitions E

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RFC 4949: #, A, B, C, D, E, F, G, H, I, J, K, L, M, N, O, P, Q, R, S, T, U, V, W, X, Y, Z (navbar_rfc4949)


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(O) Electronic cash; money that is in the form of data and can be used as a payment mechanism on the Internet. (See: IOTP.)

Usage: IDOCs that use this term SHOULD state a definition for it because many different types of electronic cash have been devised with a variety of security mechanisms.

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(I) See: Extensible Authentication Protocol.

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(O) See: evaluation assurance level.

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(O) “Hidden functionality within an application program, which becomes activated when an undocumented, and often convoluted, set of commands and keystrokes is entered. Easter eggs are typically used to display the credits for the development team and [are] intended to be non-threatening” [SP28], but Easter eggs have the potential to contain malicious code.

Deprecated Usage: It is likely that other cultures use different metaphors for this concept. Therefore, to avoid international misunderstanding, IDOCs SHOULD NOT use this term. (See: Deprecated Usage under “Green Book”.)

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(I) Passive wiretapping done secretly, i.e., without the knowledge of the originator or the intended recipients of the communication.

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(N) See: electronic codebook.

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(N) See: Elliptic Curve Digital Signature Algorithm.

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(I) The principle that a security mechanism should be designed to minimize the number of alternative ways of achieving a service. (Compare: economy of mechanism.)

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(I) The principle that a security mechanism should be designed to be as simple as possible, so that (a) the mechanism can be correctly implemented and (b) it can be verified that the operation of the mechanism enforces the system's security policy. (Compare: economy of alternatives, least privilege.)

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(N) See: end cryptographic unit.

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(I) See: electronic data interchange.

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(N) See: secondary definition under “electronic data interchange”.

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(D) Abbreviation of “end entity” and other terms.

Deprecated Abbreviation: IDOCs SHOULD NOT use this abbreviation; there could be confusion among “end entity”, “end-to-end encryption”, “escrowed encryption standard”, and other terms.

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(O) See: Escrowed Encryption Standard.

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(O) “A measure of strength of a cryptographic algorithm, regardless of actual key length.” [IATF] (See: work factor.)

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(O) /ITSEC/ A property of a TOE representing how well it provides security in the context of its actual or proposed operational use.

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(N) An algorithm for asymmetric cryptography, invented in 1985 by Taher El Gamal, that is based on the difficulty of calculating discrete logarithms and can be used for both encryption and digital signatures. [ElGa]

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(N) A block cipher mode in which a plaintext block is used directly as input to the encryption algorithm and the resultant output block is used directly as cipher text [FP081]. (See: block cipher, [SP38A].)

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1. (I) Business conducted through paperless exchanges of information, using electronic data interchange, electronic funds transfer (EFT), electronic mail, computer bulletin boards, facsimile, and other paperless technologies.

2. (O) /SET/ “The exchange of goods and services for payment between the cardholder and merchant when some or all of the transaction is performed via electronic communication.” [SET2]

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(I) Computer-to-computer exchange, between trading partners, of business data in standardized document formats.

Tutorial: EDI formats have been standardized primarily by ANSI X12 and by EDIFACT (EDI for Administration, Commerce, and Transportation), which is an international, UN-sponsored standard primarily used in Europe and Asia. X12 and EDIFACT are aligning to create a single, global EDI standard.

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(O) “Interoperable collection of systems developed by … the U.S. Government to automate the planning, ordering, generating, distributing, storing, filling, using, and destroying of electronic keying material and the management of other types of COMSEC material.” [C4009]

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(D) Synonym for “digital signature” or “digitized signature”.

Deprecated Term: IDOCs SHOULD NOT use this term; there is no current consensus on its definition. Instead, use “digital signature”, if that is what was intended

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(D) A secure container to hold, in digitized form, some sensitive data objects that belong to the owner, such as electronic money, authentication material, and various types of personal information. (See: IOTP.)

Deprecated Term: IDOCs SHOULD NOT use this term. There is no current consensus on its definition; and some uses and definitions

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may be proprietary. Meanings range from virtual wallets implemented by data structures to physical wallets implemented by cryptographic tokens. (See: Deprecated Usage under “Green Book”.)

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(I) A type of asymmetric cryptography based on mathematics of groups that are defined by the points on a curve, where the curve is defined by a quadratic equation in a finite field. [Schn]

Tutorial: ECC is based on mathematics different than that originally used to define the Diffie-Hellman-Merkle algorithm and the DSA, but ECC can be used to define an algorithm for key agreement that is an analog of Diffie-Hellman-Merkle [A9063] and an algorithm for digital signature that is an analog of DSA [A9062]. The mathematical problem upon which ECC is based is believed to be more difficult than the problem upon which Diffie- Hellman-Merkle is based and, therefore, that keys for ECC can be shorter for a comparable level of security. (See: ECDSA.)

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(N) A standard [A9062] that is the analog, in elliptic curve cryptography, of the Digital Signature Algorithm.

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(I) A signal (e.g., electromagnetic or acoustic) that is emitted by a system (e.g., through radiation or conductance) as a consequence (i.e., byproduct) of the system's operation, and that may contain information. (See: emanations security.)

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(I) /threat action/ See: secondary definition under “interception”.

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(I) Physical security measures to protect against data compromise that could occur because of emanations that might be received and read by an unauthorized party. (See: emanation, TEMPEST.)

Usage: Refers either to preventing or limiting emanations from a system and to preventing or limiting the ability of unauthorized parties to receive the emissions.

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(N) “Cryptography engineered into an equipment or system whose basic function is not cryptographic.” [C4009]

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(D) Synonym for “contingency plan”.

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Deprecated Term: IDOCs SHOULD NOT use this term. Instead, for neutrality and consistency of language, use “contingency plan”.

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(O) An urgent response to a fire, flood, civil commotion, natural disaster, bomb threat, or other serious situation, with the intent of protecting lives, limiting damage to property, and minimizing disruption of system operations. [FP087] (See: availability, CERT, emergency plan.)

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(I) See: emanations security.

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(N) Abbreviation of “Europay, MasterCard, Visa”. Refers to a specification for smart cards that are used as payment cards, and for related terminals and applications. [EMV1, EMV2, EMV3]

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(I) An Internet protocol [R2406, R4303] designed to provide data confidentiality service and other security services for IP datagrams. (See: IPsec. Compare: AH.)

Tutorial: ESP may be used alone, or in combination with AH, or in a nested fashion with tunneling. Security services can be provided between a pair of communicating hosts, between a pair of communicating security gateways, or between a host and a gateway. The ESP header is encapsulated by the IP header, and the ESP header encapsulates either the upper-layer protocol header (transport mode) or an IP header (tunnel mode). ESP can provide data confidentiality service, data origin authentication service, connectionless data integrity service, an anti-replay service, and limited traffic-flow confidentiality. The set of services depends on the placement of the implementation and on options selected when the security association is established.

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(D) Synonym for “encrypt”.

Deprecated Definition: IDOCs SHOULD NOT use this term as a synonym for “encrypt”. However, see Usage note under “encryption”.

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(D) Synonym for “encryption”.

Deprecated Definition: IDOCs SHOULD NOT use this term as a synonym for “encryption”. However, see Usage note under “encryption”.

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1. (I) A set of system resources that operate in the same security domain and that share the protection of a single, common, continuous security perimeter. (Compare: domain.)

2. (D) /U.S. Government/ “Collection of computing environments connected by one or more internal networks under the control of a single authority and security policy, including personnel and physical security.” [C4009]

Deprecated Definition: IDOCs SHOULD NOT use this term with definition 2 because the definition applies to what is usually called a “security domain”. That is, a security domain is a set of one or more security enclaves.

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1. (I) Use a system of symbols to represent information, which might originally have some other representation. Example: Morse code. (See: ASCII, BER.) (See: code, decode.)

2. (D) Synonym for “encrypt”.

Deprecated Definition: IDOCs SHOULD NOT use this term as a synonym for “encrypt”; encoding is not always meant to conceal meaning.

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(I) Cryptographically transform data to produce cipher text. (See: encryption. Compare: seal.)

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1. (I) Cryptographic transformation of data (called “plain text”) into a different form (called “cipher text”) that conceals the data's original meaning and prevents the original form from being used. The corresponding reverse process is “decryption”, a transformation that restores encrypted data to its original form. (See: cryptography.)

2. (O) “The cryptographic transformation of data to produce ciphertext.” [I7498-2]

Usage: For this concept, IDOCs SHOULD use the verb “to encrypt” (and related variations: encryption, decrypt, and decryption). However, because of cultural biases involving human burial, some international documents (particularly ISO and CCITT standards) avoid “to encrypt” and instead use the verb “to encipher” (and related variations: encipherment, decipher, decipherment).

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Tutorial: Usually, the plaintext input to an encryption operation is clear text. But in some cases, the plain text may be cipher text that was output from another encryption operation. (See: superencryption.)

Encryption and decryption involve a mathematical algorithm for transforming data. Besides the data to be transformed, the algorithm has one or more inputs that are control parameters: (a) a key that varies the transformation and, in some cases, (b) an IV that establishes the starting state of the algorithm.

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(I) A public-key certificate that contains a public key that is intended to be used for encrypting data, rather than for verifying digital signatures or performing other cryptographic functions.

Tutorial: A v3 X.509 public-key certificate may have a “keyUsageextension that indicates the purpose for which the certified public key is intended. (See: certificate profile.)

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1. (N) Final destination device into which a key is loaded for operational use.

2. (N) A device that (a) performs cryptographic functions, (b) typically is part of a larger system for which the device provides security services, and ©, from the viewpoint of a supporting security infrastructure such as a key management system, is the lowest level of identifiable component with which a management transaction can be conducted

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1. (I) A system entity that is the subject of a public-key certificate and that is using, or is permitted and able to use, the matching private key only for purposes other than signing a digital certificate; i.e., an entity that is not a CA.

2. (O) “A certificate subject [that] uses its public [sic] key for purposes other than signing certificates.” [X509]

Deprecated Definition: IDOCs SHOULD NOT use definition 2, which is misleading and incomplete. First, that definition should have said “private key” rather than “public key” because certificates are not usefully signed with a public key. Second, the X.509 definition is ambiguous regarding whether an end entity may or may not use the private key to sign a certificate, i.e., whether the subject may be a CA. The intent of X.509's authors was that an end entity certificate is not valid for use in verifying a signature

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on an X.509 certificate or X.509 CRL. Thus, it would have been better for the X.509 definition to have said “only for purposes other than signing certificates”.

Usage: Despite the problems in the X.509 definition, the term itself is useful in describing applications of asymmetric cryptography. The way the term is used in X.509 implies that it was meant to be defined, as we have done here, relative to roles that an entity (which is associated with an OSI end system) is playing or is permitted to play in applications of asymmetric cryptography other than the PKI that supports applications.

Tutorial: Whether a subject can play both CA and non-CA roles, with either the same or different certificates, is a matter of policy. (See: CPS.) A v3 X.509 public-key certificate may have a “basicConstraints” extension containing a “cA” value that specifically “indicates whether or not the public key may be used to verify certificate signatures”. (See: certificate profile.)

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(N) /OSIRM/ A computer that implements all seven layers of the OSIRM and may attach to a subnetwork. Usage: In the IPS context, an end system is called a “host”.

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(I) Continuous protection of data that flows between two points in a network, effected by encrypting data when it leaves its source, keeping it encrypted while it passes through any intermediate computers (such as routers), and decrypting it only when it arrives at the intended final destination. (See: wiretapping. Compare: link encryption.)

Examples: A few are BLACKER, CANEWARE, IPLI, IPsec, PLI, SDNS, SILS, SSH, SSL, TLS.

Tutorial: When two points are separated by multiple communication links that are connected by one or more intermediate relays, end- to-end encryption enables the source and destination systems to protect their communications without depending on the intermediate systems to provide the protection.

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1. (I) /information system/ A system entity, usually a human individual, that makes use of system resources, primarily for application purposes as opposed to system management purposes.

2. (D) /PKI/ Synonym for “end entity”.

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Deprecated Definition: IDOCs SHOULD NOT use “end user” as a synonym for “end entity”, because that would mix concepts in a potentially misleading way.

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(O) /U.S. Government/ “Unclassified cryptographic equipment that embodies a U.S. Government classified cryptographic logic and is endorsed by NSA for the protection of national security information.” [C4009] (Compare: CCI, type 2 product.)

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See: system entity.

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(I) “The deliberate planting of apparent flaws in a system for the purpose of detecting attempted penetrations or confusing an intruder about which flaws to exploit.” [FP039] (See: honey pot.)

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1. (I) An information-theoretic measure (usually stated as a number of bits) of the amount of uncertainty that an attacker faces to determine the value of a secret. [SP63] (See: strength.)

Example: If a password is said to contain at least 20 bits of entropy, that means that it must be as hard to find the password as to guess a 20-bit random number.

2. (I) An information-theoretic measure (usually stated as a number of bits) of the amount of information in a message; i.e., the minimum number of bits needed to encode all possible meanings of that message. [Schn] (See: uncertainty.)

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(I) /adjective/ Refers to a cryptographic key or other cryptographic parameter or data object that is short-lived, temporary, or used one time. (See: session key. Compare: static.)

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1. (I) Delete stored data. (See: sanitize, zeroize.)

2. (O) /U.S. Government/ Delete magnetically stored data in such a way that the data cannot be recovered by ordinary means, but might be recoverable by laboratory methods. [C4009] (Compare: /U.S. Government/ purge.)

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(I) A checksum designed to detect, but not correct, accidental (i.e., unintentional) changes in data.

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(N) A U.S. Government standard [FP185] that specifies how to use a symmetric encryption algorithm (SKIPJACK) and create a Law Enforcement Access Field (LEAF) for implementing part of a key escrow system that enables decryption of telecommunications when interception is lawfully authorized.

Tutorial: Both SKIPJACK and the LEAF are intended for use in equipment used to encrypt and decrypt sensitive, unclassified, telecommunications data.

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(I) See: Encapsulating Security Payload.

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(N) A language (ISO 9074-1989) for formal specification of computer network protocols.

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(N) See: European Telecommunication Standards Institute.

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(O) See: endorsed-for-unclassified cryptographic item.

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(N) An independent, non-profit organization, based in France, that is officially recognized by the European Commission and responsible for standardization of information and communication technologies within Europe.

Tutorial: ETSI maintains the standards for a number of security algorithms, including encryption algorithms for mobile telephone systems in Europe.

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(I) A system that has been evaluated against security criteria (for example, against the TCSEC or against a profile based on the Common Criteria).

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(I) Assessment of an information system against defined security criteria (for example, against the TCSEC or against a profile based on the Common Criteria). (Compare: certification.)

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(N) A predefined package of assurance components that represents a point on the Common Criteria's scale for rating confidence in the security of information technology products and systems.

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Tutorial: The Common Criteria defines a scale of seven, hierarchically ordered EALs for rating a TOE. From highest to lowest, they are as follows: - EAL7. Formally verified design and tested. - EAL6. Semiformally verified design and tested. - EAL5. Semiformally designed and tested. - EAL4. Methodically designed, tested, and reviewed. - EAL3. Methodically tested and checked. - EAL2. Structurally tested. - EAL1. Functionally tested.

An EAL is a consistent, baseline set of requirements. The increase in assurance from EAL to EAL is accomplished by substituting higher assurance components (i.e., criteria of increasing rigor, scope, or depth) from seven assurance classes: (a) configuration management, (b) delivery and operation, © development, (d) guidance documents, (e) lifecycle support, (f) tests, and (g) vulnerability assessment.

The EALs were developed with the goal of preserving concepts of assurance that were adopted from earlier criteria, so that results of previous evaluations would remain relevant. For example, EALs levels 2-7 are generally equivalent to the assurance portions of the TCSEC C2-A1 scale. However, this equivalency should be used with caution. The levels do not derive assurance in the same manner, and exact mappings do not exist.

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(I) /credential/ Cease to be valid (i.e., change from being valid to being invalid) because its assigned lifetime has been exceeded. (See: certificate expiration.)

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(I) A type of threat action whereby sensitive data is directly released to an unauthorized entity. (See: unauthorized disclosure.)

Usage: This type of threat action includes the following subtypes: - “Deliberate Exposure”: Intentional release of sensitive data to an unauthorized entity. - “Scavenging”: Searching through data residue in a system to gain unauthorized knowledge of sensitive data. - “Human error”: /exposure/ Human action or inaction that unintentionally results in an entity gaining unauthorized knowledge of sensitive data. (Compare: corruption, incapacitation.) - “Hardware or software error”: /exposure/ System failure that unintentionally results in an entity gaining unauthorized

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knowledge of sensitive data. (Compare: corruption, incapacitation.)

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(I) See: secondary definition under “IPSO”.

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(I) An extension framework for PPP that supports multiple, optional authentication mechanisms, including cleartext passwords, challenge-response, and arbitrary dialog sequences. [R3748] (Compare: GSS-API, SASL.)

Tutorial: EAP typically runs directly over IPS data link protocols or OSIRM Layer 2 protocols, i.e., without requiring IP. Originally, EAP was developed for use in PPP, by a host or router that connects to a network server via switched circuits or dial-up lines. Today, EAP's domain of applicability includes other areas of network access control; it is used in wired and wireless LANs with IEEE 802.1X, and in IPsec with IKEv2. EAP is conceptually related to other authentication mechanism frameworks, such as SASL and GSS-API.

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(N) A version of Standard Generalized Markup Language (ISO 8879) that separately represents a document's content and its structure. XML was designed by W3C for use on the World Wide Web.

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(I) /protocol/ A data item or a mechanism that is defined in a protocol to extend the protocol's basic or original functionality.

Tutorial: Many protocols have extension mechanisms, and the use of these extension is usually optional. IP and X.509 are two examples of protocols that have optional extensions. In IP version 4, extensions are called “options”, and some of the options have security purposes (see: IPSO).

In X.509, certificate and CRL formats can be extended to provide methods for associating additional attributes with subjects and public keys and for managing a certification hierarchy: - A “certificate extension”: X.509 defines standard extensions that may be included in v3 certificates to provide additional key and security policy information, subject and issuer attributes, and certification path constraints. - A “CRL extension”: X.509 defines extensions that may be included in v2 CRLs to provide additional issuer key and name information, revocation reasons and constraints, and information about distribution points and delta CRLs.

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- A “private extension”: Additional extensions, each named by an OID, can be locally defined as needed by applications or communities. (See: Authority Information Access extension, SET private extensions.)

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(I) /COMPUSEC/ Refers to administrative security, personnel security, and physical security. (Compare: internal controls.)

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(I) A computer network that an organization uses for application data traffic between the organization and its business partners. (Compare: intranet.)

Tutorial: An extranet can be implemented securely, either on the Internet or using Internet technology, by constructing the extranet as a VPN.

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(O) Ability of cryptographic equipment to resist efforts to extract keying material directly from the equipment (as opposed to gaining knowledge of keying material by cryptanalysis). [C4009]

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(I) Monitoring for unauthorized transfers of sensitive information and other communications that originate inside a system's security perimeter and are directed toward the outside; i.e., roughly the opposite of “intrusion detection”.


Fair Use Sources

Fair Use Sources:

Cybersecurity: DevSecOps - Security Automation, Cloud Security - Cloud Native Security (AWS Security - Azure Security - GCP Security - IBM Cloud Security - Oracle Cloud Security, Container Security, Docker Security, Podman Security, Kubernetes Security, Google Anthos Security, Red Hat OpenShift Security); CIA Triad (Confidentiality - Integrity - Availability, Authorization - OAuth, Identity and Access Management (IAM), JVM Security (Java Security, Spring Security, Micronaut Security, Quarkus Security, Helidon Security, MicroProfile Security, Dropwizard Security, Vert.x Security, Play Framework Security, Akka Security, Ratpack Security, Netty Security, Spark Framework Security, Kotlin Security - Ktor Security, Scala Security, Clojure Security, Groovy Security;

, JavaScript Security, HTML Security, HTTP Security - HTTPS Security - SSL Security - TLS Security, CSS Security - Bootstrap Security - Tailwind Security, Web Storage API Security (localStorage Security, sessionStorage Security), Cookie Security, IndexedDB Security, TypeScript Security, Node.js Security, NPM Security, Deno Security, Express.js Security, React Security, Angular Security, Vue.js Security, Next.js Security, Remix.js Security, PWA Security, SPA Security, Svelts.js Security, Ionic Security, Web Components Security, Nuxt.js Security, Z Security, htmx Security

Python Security - Django Security - Flask Security - Pandas Security,

Database Security (Database Security on Kubernetes, Database Security on Containers / Database Security on Docker, Cloud Database Security - DBaaS Security, Concurrent Programming and Database Security, Functional Concurrent Programming and Database Security, Async Programming and Databases Security, MySQL Security, Oracle Database Security, Microsoft SQL Server Security, MongoDB Security, PostgreSQL Security, SQLite Security, Amazon RDS Security, IBM Db2 Security, MariaDB Security, Redis Security (Valkey Security), Cassandra Security, Amazon Aurora Security, Microsoft Azure SQL Database Security, Neo4j Security, Google Cloud SQL Security, Firebase Realtime Database Security, Apache HBase Security, Amazon DynamoDB Security, Couchbase Server Security, Elasticsearch Security, Teradata Database Security, Memcached Security, Infinispan Security, Amazon Redshift Security, SQLite Security, CouchDB Security, Apache Kafka Security, IBM Informix Security, SAP HANA Security, RethinkDB Security, InfluxDB Security, MarkLogic Security, ArangoDB Security, RavenDB Security, VoltDB Security, Apache Derby Security, Cosmos DB Security, Hive Security, Apache Flink Security, Google Bigtable Security, Hadoop Security, HP Vertica Security, Alibaba Cloud Table Store Security, InterSystems Caché Security, Greenplum Security, Apache Ignite Security, FoundationDB Security, Amazon Neptune Security, FaunaDB Security, QuestDB Security, Presto Security, TiDB Security, NuoDB Security, ScyllaDB Security, Percona Server for MySQL Security, Apache Phoenix Security, EventStoreDB Security, SingleStore Security, Aerospike Security, MonetDB Security, Google Cloud Spanner Security, SQream Security, GridDB Security, MaxDB Security, RocksDB Security, TiKV Security, Oracle NoSQL Database Security, Google Firestore Security, Druid Security, SAP IQ Security, Yellowbrick Data Security, InterSystems IRIS Security, InterBase Security, Kudu Security, eXtremeDB Security, OmniSci Security, Altibase Security, Google Cloud Bigtable Security, Amazon QLDB Security, Hypertable Security, ApsaraDB for Redis Security, Pivotal Greenplum Security, MapR Database Security, Informatica Security, Microsoft Access Security, Tarantool Security, Blazegraph Security, NeoDatis Security, FileMaker Security, ArangoDB Security, RavenDB Security, AllegroGraph Security, Alibaba Cloud ApsaraDB for PolarDB Security, DuckDB Security, Starcounter Security, EventStore Security, ObjectDB Security, Alibaba Cloud AnalyticDB for PostgreSQL Security, Akumuli Security, Google Cloud Datastore Security, Skytable Security, NCache Security, FaunaDB Security, OpenEdge Security, Amazon DocumentDB Security, HyperGraphDB Security, Citus Data Security, Objectivity/DB). Database drivers (JDBC Security, ODBC), ORM (Hibernate Security, Microsoft Entity Framework), SQL Operators and Functions Security, Database IDEs (JetBrains DataSpell Security, SQL Server Management Studio Security, MySQL Workbench Security, Oracle SQL Developer Security, SQLiteStudio),

Programming Language Security ((1. Python Security, 2. JavaScript Security, 3. Java Security, 4. C# Security, 5. C++ Security, 6. PHP Security, 7. TypeScript Security, 8. Ruby Security, 9. C Security, 10. Swift Security, 11. R Security, 12. Objective-C Security, 13. Scala Security, 14. Golang Security, 15. Kotlin Security, 16. Rust Security, 17. Dart Security, 18. Lua Security, 19. Perl Security, 20. Haskell Security, 21. Julia Security, 22. Clojure Security, 23. Elixir Security, 24. F# Security, 25. Assembly Language Security, 26. Shell Script Security / bash Security, 27. SQL Security, 28. Groovy Security, 29. PowerShell Security, 30. MATLAB Security, 31. VBA Security, 32. Racket Security, 33. Scheme Security, 34. Prolog Security, 35. Erlang Security, 36. Ada Security, 37. Fortran Security, 38. COBOL Security, 39. Lua Security, 40. VB.NET Security, 41. Lisp Security, 42. SAS Security, 43. D Security, 44. LabVIEW Security, 45. PL/SQL Security, 46. Delphi/Object Pascal Security, 47. ColdFusion Security, 49. CLIST Security, 50. REXX);

OS Security, Mobile Security: Android Security - Kotlin Security - Java Security, iOS Security - Swift Security; Windows Security - Windows Server Security, Linux Security (Ubuntu Security, Debian Security, RHEL Security, Fedora Security), UNIX Security (FreeBSD Security), IBM z Mainframe Security (RACF Security), Passwords (Windows Passwords, Linux Passwords, FreeBSD Passwords, Android Passwords, iOS Passwords, macOS Passwords, IBM z/OS Passwords), Passkeys, Hacking (Ethical Hacking, White Hat, Black Hat, Grey Hat), Pentesting (Red Team - Blue Team - Purple Team), Cybersecurity Certifications (CEH, GIAC, CISM, CompTIA Security Plus, CISSP), Mitre Framework, Common Vulnerabilities and Exposures (CVE), Cybersecurity Bibliography, Cybersecurity Courses, Firewalls, CI/CD Security (GitHub Actions Security, Azure DevOps Security, Jenkins Security, Circle CI Security), Functional Programming and Cybersecurity, Cybersecurity and Concurrency, Cybersecurity and Data Science - Cybersecurity and Databases, Cybersecurity and Machine Learning, Cybersecurity Glossary (RFC 4949 Internet Security Glossary), Awesome Cybersecurity, Cybersecurity GitHub, Cybersecurity Topics (navbar_security - see also navbar_aws_security, navbar_azure_security, navbar_gcp_security, navbar_k8s_security, navbar_docker_security, navbar_podman_security, navbar_mainframe_security, navbar_ibm_cloud_security, navbar_oracle_cloud_security, navbar_database_security, navbar_windows_security, navbar_linux_security, navbar_macos_security, navbar_android_security, navbar_ios_security, navbar_os_security, navbar_firewalls, navbar_encryption, navbar_passwords, navbar_iam, navbar_pentesting, navbar_privacy)

Request for Comments (RFC): List of RFCs, GitHub RFCs, Awesome RFCs, (navbar_rfc)


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