Oracle aria

128-bit, 192-bit, and 256-bit. All versions operate in outer Cipher Block Chaining (CBC) mode. CBC mode is an encryption method that protects against block replay attacks by making the encryption of a cipher block dependent on all blocks that precede it; it is designed to make unauthorized decryption incrementally more difficult. Oracle Database employs outer cipher block chaining because it is more secure than inner cipher block chaining, with no material performance penalty. Note:The AES algorithms have been improved. To transition your Oracle Database environment to use stronger algorithms, download and install the patch described in My Oracle Support note 2118136.2. 13.1.3 ARIA Oracle Database supports the Academia, Research Institute, and Agency (ARIA) algorithm. This algorithm acknowledges the cooperative efforts of Korean researchers in designing the algorithm. ARIA defines three standard key lengths, which are 128-bit, 192-bit, and 256-bit. All versions operate in outer cipher Cipher Block Chaining (CBC) mode. 13.1.4 GOST Oracle Database supports the GOsudarstvennyy STandart (GOST) algorithm. The GOST algorithm was created by the Euro-Asian Council for Standardization, Metrology and Certification (EACS). GOST defines a key size of 256-bits. In Oracle Database, outer Cipher Block Chaining (CBC) mode is used. 13.1.5 SEED Oracle Database supports the Korea Information Security Agency (KISA) encryption algorithm, SEED. SEED defines a key size of 128-bits. There are extensions to the standard that defines additional key sizes of 192- and 256-bits, but Oracle Database does not support these extensions. In the Oracle Database, SEED operates in outer Cipher Block Chaining (CBC) mode. 13.1.6 Triple-DES Encryption Triple-DES encryption (3DES) encrypts message data with three passes of the DES algorithm. Note: The DES, DES40, 3DES112, and 3DES168 algorithms are deprecated in this release. To transition your Oracle Database environment to use stronger algorithms, download and install the patch described in My Oracle Support note 2118136.2. 3DES provides a high degree of message security, but with a performance penalty. The magnitude of the performance penalty depends on the speed of the processor performing the encryption. 3DES typically takes three times as long to encrypt a data block when compared to the standard DES algorithm. 3DES is available in two-key and three-key versions, with effective key lengths of 112-bits and 168-bits, respectively. Both versions operate in outer Cipher Block Chaining (CBC) mode. The DES40 algorithm, available with Oracle Database and Secure Network Services, is a variant of DES in which the secret key is preprocessed to provide 40 effective key bits. It was designed to provide DES-based encryption to customers outside the U.S. and Canada at a time when the U.S. export laws were more restrictive. Currently DES40, DES, and 3DES are all available for export. DES40 is still supported to provide backward-compatibility for international customers.

IPv6 support for the private interconnect is restricted to either support IPv4 or IPv6 based IP addresses, but not both versions simultaneously. Super Scalable Oracle RAC Oracle Real Application Clusters (Oracle RAC) Reader Nodes Service-Oriented Buffer Cache Access Optimization Oracle Real Application Clusters (Oracle RAC) Reader Nodes This feature facilitates Oracle Flex Cluster architecture in such a way that it allocates a set of read/write instances running OLTP workloads and a set of read-only database instances across the Hub Nodes and Leaf Nodes in the cluster. In this architecture, the updates made on the read-write instances are immediately propagated to the read-only instances on the Leaf Nodes, where they can be used for online reporting or instant queries. The separation of OLTP and read operations in an Oracle Flex Cluster architecture allows for fast reconfiguration of read-only instances joining and leaving the cluster, as well as efficient updates to the buffer cache on those instances. Service-Oriented Buffer Cache Access Optimization Cluster Managed Services are used to allocate workloads across various Oracle Real Application Clusters (Oracle RAC) database instances running in a cluster. The database objects cached in the buffer caches of the respective database instances are accessed through these services. This feature enables Oracle RAC to cache the instances with data blocks for objects accessed through a service, and thus improves the access time. Data-dependent caching leads to consistent response times when accessing data across Oracle RAC database instances running in the cluster. Security Encryption Enforcing Application Security in the Database Improving Security Manageability, Administration, and Integration Improving Security Posture of the Database Improving User Authentication and Management Modernizing Network Authentication and Encryption Encryption TDE Tablespace Live Conversion Fully Encrypted Database Support for ARIA, SEED, and GOST Encryption Algorithms in TDE TDE Tablespace Offline Conversion TDE Tablespace Live Conversion You can now encrypt, decrypt, and rekey existing tablespaces with Transparent Data Encryption (TDE) tablespace live conversion. A TDE tablespace can be easily deployed, performing the initial encryption that migrates to an encrypted tablespace with zero downtime. This feature also enables automated deep rotation of data encryption keys used by TDE tablespace encryption in the background with zero downtime. This feature performs initial cryptographic migration for TDE tablespace encryption on the tablespace data in the background so that the tablespace can continue servicing SQL statements that insert, delete, select, modify, and so on. Fully Encrypted Database Transparent Data Encryption (TDE) tablespace encryption is applied to database internals including SYSTEM, SYSAUX, and UNDO. Expanding internal usage of TDE tablespace encryption to include SYSTEM, SYSAUX, and UNDO further strengthens the security of Oracle Database. Support for ARIA, SEED, and GOST Encryption Algorithms in TDE This feature provides advanced security Transparent Data Encryption (TDE)

EVEShip.Fit EVE WorkbenchImport Fit via ESIVerified Aria Winterfell Scumlord Treasury Scumlords Ship: Oracle ( Attack Battlecruiser ) System: Korama (0.8) / Lonetrek Location: Stargate (Aurohunen) (km) Time: 2024-10-04 10:49 Points: 1 Damage: 7,467 Destroyed: 5,689,213.92 ISK Destroyed: 82,757,088.59 ISK (w/ship) Dropped: 134,644,567.36 ISK Ship+Fit: 217,401,655.95 ISK Total: 134,644,567.36 ISK Ship: Oracle ( Attack Battlecruiser ) System: Korama (0.8) / Lonetrek Location: Stargate (Aurohunen) (km) Time: 2024-10-04 10:49 Points: 1 Damage: 7,467 Destroyed: 5,689,213.92 ISK Destroyed: 82,757,088.59 ISK (w/ship) Dropped: 134,644,567.36 ISK Ship+Fit: 217,401,655.95 ISK Total: 134,644,567.36 ISK Item(s) Dropped / Destroyed Item Qty Value High Slots Polarized Mega Pulse Laser 8 120,476,734.72 Conflagration L 7 3,831,123.31 Conflagration L 1 547,303.33 Total: 124,855,161.36 Mid Slots Tracking Speed Script 2 32,720.00 Faint Scoped Warp Disruptor 1 31,122.67 Tracking Computer II 2 3,690,000.00 Total: 3,753,842.67 Low Slots Heat Sink II 3 4,360,800.00 Heat Sink II 1 1,453,600.00 Tracking Enhancer II 2 2,222,066.66 Total: 8,036,466.66 Rigs Medium Energy Burst Aerator II 1 1,419,910.59 Medium Hyperspatial Velocity Optimizer I 1 1,536,900.00 Medium Core Defense Field Extender I 1 731,500.00 Total: 3,688,310.59 Ship Oracle 1 77,067,874.67 Total Dropped: 134,644,567.36 Total Destroyed: 0.00 Grand Total: 134,644,567.36 Insurance Possible payouts TypeCostPayout None0.0013,039,780.00 Basic1,629,973.0016,299,725.00 Standard3,259,945.0019,559,670.00 Bronze4,889,918.0022,819,615.00 Silver6,519,890.0026,079,560.00 Gold8,149,863.0029,339,505.00 Platinum9,779,835.0032,599,450.00 This is an NPC Only killmail.It is not counted in statistics.

You can configure native Oracle Net Services data encryption and data integrity for both servers and clients. About Oracle Database Native Network Encryption and Data IntegrityOracle Database enables you to encrypt data that is sent over a network. Oracle Database Native Network Encryption Data IntegrityEncrypting network data provides data privacy so that unauthorized parties cannot view plaintext data as it passes over the network. Improving Native Network Encryption SecurityOracle provides a patch that will strengthen native network encryption security for both Oracle Database servers and clients. Data Integrity Algorithms SupportA keyed, sequenced implementation of the Message Digest 5 (MD5) algorithm or the Secure Hash Algorithm (SHA-1 and SHA-2) protect against these attacks. Diffie-Hellman Based Key NegotiationYou can use the Diffie-Hellman key negotiation algorithm to secure data in a multiuser environment. Configuration of Data Encryption and IntegrityOracle Database native Oracle Net Services encryption and integrity presumes the prior installation of Oracle Net Services. 13.1 About Oracle Database Native Network Encryption and Data Integrity Oracle Database enables you to encrypt data that is sent over a network. How Oracle Database Native Network Encryption and Integrity WorksOracle Database provides native data network encryption and integrity to ensure that data is secure as it travels across the network. Advanced Encryption StandardOracle Database supports the Federal Information Processing Standard (FIPS) encryption algorithm, Advanced Encryption Standard (AES). ARIAOracle Database supports the Academia, Research Institute, and Agency (ARIA) algorithm. GOSTOracle Database supports the GOsudarstvennyy STandart (GOST) algorithm. SEEDOracle Database supports the Korea Information Security Agency (KISA) encryption algorithm, SEED. Triple-DES EncryptionTriple-DES encryption (3DES) encrypts message data with three passes of the DES algorithm. Choosing Between Native Network Encryption and Transport Layer SecurityOracle offers two ways to encrypt data over the network, native network encryption and Transport Layer Security (TLS). 13.1.1 How Oracle Database Native Network Encryption and Integrity Works Oracle Database provides native data network encryption and integrity to ensure that data is secure as it travels across the network. The purpose of a secure cryptosystem is to convert plaintext data into unintelligible ciphertext based on a key, in such a way that it is very hard (computationally infeasible) to convert ciphertext back into its corresponding plaintext without knowledge of the correct key. In a symmetric cryptosystem, the same key is used both for encryption and decryption of the same data. Oracle Database provides the Advanced Encryption Standard (AES) symmetric cryptosystem for protecting the confidentiality of Oracle Net Services traffic. 13.1.2 Advanced Encryption Standard Oracle Database supports the Federal Information Processing Standard (FIPS) encryption algorithm, Advanced Encryption Standard (AES). AES can be used by all U.S. government organizations and businesses to protect sensitive data over a network. This encryption algorithm defines three standard key lengths, which are

HTML5 landmark elements are used to improve navigation Stay organized with collections Save and categorize content based on your preferences. HTML5 elements such as main, nav, and aside act as landmarks,or special regions on the page to whichscreen readers and other assistive technologies can jump.By using landmark elements,you can dramatically improve the navigation experience on your sitefor users of assistive technology.Learn more in Deque University'sHTML 5 and ARIA Landmarks.How to manually check landmarksUse the W3C's list of landmark elementsto check that each major section of your page is contained by a landmark element.For example: Put product name and logo here Put navigation here Put main content here Put copyright info, supplemental links, etc. hereYou can also use tools like Microsoft'sAccessibility Insights extensionto visualize your page structure and catch sections that aren't contained in landmarks: How to use landmarks effectivelyUse landmark elements to define major sections of your pageinstead of relying on generic elements like or .Use landmarks to convey the structure of your page.For example, the element should include all content directly relatedto the page's main idea, so there should only be one per page.See MDN's summary of content sectioning elementsto learn how to use each landmark.Use landmarks judiciously. Having too many landmarks can actuallymake navigation more difficult for assistive technology users becauseit prevents them from easily skipping to a desired piece of content.See the Headings and landmarks postfor more information.ResourcesSource code for HTML5 landmark elements are used to improve navigation auditHTML5 Sectioning Elements (W3C)HTML 5 and ARIA Landmarks (Deque University) Except as otherwise noted, the content of this page is licensed under the Creative Commons Attribution 4.0 License, and code samples are licensed under the Apache 2.0 License. For details, see the Google Developers Site Policies. Java is a registered trademark of Oracle and/or its affiliates. Last updated 2019-05-02 UTC.

Support for these encryption algorithms: SEED (Korea Information Security Agency (KISA) for South Korea ARIA (Academia, Research Institute, and Agency) for South Korea GOST (GOsudarstvennyy STandart) for Russia This feature includes support for both encryption and hashing algorithms and is available for use with data-at-rest encryption. Certain countries require the use of their specific national and government standards for encryption. Deployment of TDE database encryption in these countries can proceed now that these national and government algorithms are supported. TDE Tablespace Offline Conversion This release introduces new SQL commands to encrypt tablespace files in place with no storage overhead. You can do this on multiple instances across multiple cores. Using this feature requires downtime, because you must take the tablespace temporarily offline. With Data Guard configurations, you can either encrypt the physical standby first and switchover, or encrypt the primary database, one tablespace at a time. This feature provides fast offline conversion of existing clear data to TDE encrypted tablespaces. Enforcing Application Security in the Database RAS Session Privilege Scoping RAS Column Privilege Enhancements RAS Schema Level Policy Administration RAS Integration with OLS RAS Session Privilege Scoping This new capability limits the scope of Real Application Security (RAS) users to execute privileged user commands for a limited group of RAS users instead of the entire database. In cloud or consolidated environments, this new feature limits the ability to execute privileged user commands of RAS users to their own group. RAS Column Privilege Enhancements Real Application Security (RAS) users can now be authorized specifically to insert, update or delete data in protected columns. Additional performance enhancements were made for SELECT statements using RAS. A much finer degree of data management is possible through this new feature in addition to the SELECT performance enhancements. RAS Schema Level Policy Administration A schema-based Real Application Security (RAS) policy administrator can now create, modify and delete security policies within the schema instead of requiring a system-wide RAS policy administrator to make the changes. This allows a clear separation of duties between different applications. In a cloud or consolidated database environment, RAS administration is required on a schema by schema basis without requiring a system-wide RAS administrator to make security policy changes on any schema. This improves the security profile of each application. RAS Integration with OLS Oracle Label Security (OLS) which provides an explicit data label and user security label is integrated with Oracle Real Application Security in administration, policy enforcement and user context. Combining RAS implicit data realms with the Oracle Label Security explicit data labeled security provides strong security capabilities to allow formerly separate databases to consolidate into a single database and yet retain the separation of data that was available before the