Abstract: A method of volume compressed header identification includes reading, by a processing device of a host, compressible data on a sector of a storage volume of a storage array. The method further includes compressing the compressible data to generate compressed data for the sector. The method further includes adding, by the processing device of the host, metadata associated with the storage volume to the compressed data. The method further includes writing the compressed data, including the added metadata, to the sector of the storage volume of the storage array.

Abstract: An illustrative method includes a data protection system identifying one or more input operations and one or more output operations performed between a source and a storage system, identifying an anomaly in a relationship between the one or more input operations and the one or more output operations, and determining, based on the identifying of the anomaly, that the storage system is possibly being targeted by a security threat.

Abstract: A method of volume compressed header identification includes reading, by a processing device of a host, compressible data on a sector of a storage volume of a storage array. The method further includes compressing the compressible data to generate compressed data for the sector. The method further includes adding, by the processing device of the host, metadata associated with the storage volume to the compressed data. The method further includes writing the compressed data, including the added metadata, to the sector of the storage volume of the storage array.

Abstract: A method of volume compressed header identification includes reading, by a processing device of a host, compressible data on a sector of a storage volume of a storage array. The method further includes compressing the compressible data to generate compressed data for the sector. The method further includes adding, by the processing device of the host, metadata associated with the storage volume to the compressed data. The method further includes writing the compressed data, including the added metadata, to the sector of the storage volume of the storage array.

Abstract: A method includes compressing data to generate compressed data having a first block size corresponding to a block-size requirement of a client device. The method further includes encrypting the compressed data to generate an encrypted data packet. The method further includes adding, by a processing device, a padding bit pattern to the encrypted data packet to generate a data block for storage, the data block having a second block size determined by a buffer size of a storage array.

Abstract: A method includes compressing data to generate compressed data having a first block size corresponding to a block-size requirement of a client device. The method further includes encrypting the compressed data to generate an encrypted data packet. The method further includes adding, by a processing device, a padding bit pattern to the encrypted data packet to generate a data block for storage, the data block having a second block size determined by a buffer size of a storage array.

Abstract: An illustrative method includes a data protection system identifying one or more input operations and one or more output operations performed between a source and a storage system, identifying an anomaly in a relationship between the one or more input operations and the one or more output operations, and determining, based on the identifying of the anomaly, that the storage system is possibly being targeted by a security threat.

Abstract: A method of volume compressed header identification includes reading, by a processing device of a host, compressible data on a sector of a storage volume of a storage array. The method further includes compressing the compressible data to generate compressed data for the sector. The method further includes adding, by the processing device of the host, metadata associated with the storage volume to the compressed data. The method further includes writing the compressed data, including the added metadata, to the sector of the storage volume of the storage array.

Abstract: A method includes compressing data to generate compressed data having a first block size corresponding to a block-size requirement of a client device. The method further includes encrypting the compressed data to generate an encrypted data packet. The method further includes adding, by a processing device, a padding bit pattern to the encrypted data packet to generate a data block for storage, the data block having a second block size determined by a buffer size of a storage array.

Abstract: A method of encryption management with host-side data reduction includes identifying data to be written to a storage array and compressing the data to generate compressed data. The method further includes encrypting the compressed data to generate an encrypted data packet. The method further includes adding, by a processing device of a host, a padding bit pattern to the encrypted data packet to generate a data block for storage. The method further includes sending the data block to the storage array.

Abstract: A method of encryption management with host-side data reduction includes identifying data to be written to a storage array and compressing the data to generate compressed data. The method further includes encrypting the compressed data to generate an encrypted data packet. The method further includes adding, by a processing device of a host, a padding bit pattern to the encrypted data packet to generate a data block for storage. The method further includes sending the data block to the storage array.

Abstract: Technologies for persistent memory pointer access include a computing device having a persistent memory including one or more nonvolatile regions. The computing device may load a persistent memory pointer having a static region identifier, a segment identifier, and an offset from the persistent memory. The computing device may map the static region identifier to a dynamic region identifier and determine a virtual memory address of the persistent memory pointer target based on the dynamic region identifier, the segment identifier, and the offset. The computing device may load an in-storage representation of a persistent-export pointer from the persistent memory, map the in-storage representation to a runtime representation, and determine a target address of a persistent external data object based on the runtime representation. The computing device may include a compiler to generate output code including persistent memory pointer and/or persistent-export pointer accesses.

Abstract: Technologies for persistent memory pointer access include a computing device having a persistent memory including one or more nonvolatile regions. The computing device may load a persistent memory pointer having a static region identifier, a segment identifier, and an offset from the persistent memory. The computing device may map the static region identifier to a dynamic region identifier and determine a virtual memory address of the persistent memory pointer target based on the dynamic region identifier, the segment identifier, and the offset. The computing device may load an in-storage representation of a persistent-export pointer from the persistent memory, map the in-storage representation to a runtime representation, and determine a target address of a persistent external data object based on the runtime representation. The computing device may include a compiler to generate output code including persistent memory pointer and/or persistent-export pointer accesses.

Abstract: Technologies for persistent memory pointer access include a computing device having a persistent memory including one or more nonvolatile regions. The computing device may load a persistent memory pointer having a static region identifier, a segment identifier, and an offset from the persistent memory. The computing device may map the static region identifier to a dynamic region identifier and determine a virtual memory address of the persistent memory pointer target based on the dynamic region identifier, the segment identifier, and the offset. The computing device may load an in-storage representation of a persistent-export pointer from the persistent memory, map the in-storage representation to a runtime representation, and determine a target address of a persistent external data object based on the runtime representation. The computing device may include a compiler to generate output code including persistent memory pointer and/or persistent-export pointer accesses.

Abstract: Technologies for persistent memory pointer access include a computing device having a persistent memory including one or more nonvolatile regions. The computing device may load a persistent memory pointer having a static region identifier, a segment identifier, and an offset from the persistent memory. The computing device may map the static region identifier to a dynamic region identifier and determine a virtual memory address of the persistent memory pointer target based on the dynamic region identifier, the segment identifier, and the offset. The computing device may load an in-storage representation of a persistent-export pointer from the persistent memory, map the in-storage representation to a runtime representation, and determine a target address of a persistent external data object based on the runtime representation. The computing device may include a compiler to generate output code including persistent memory pointer and/or persistent-export pointer accesses.