Abstract: An intraoral scanning system comprises and intraoral scanner and a processor. The intraoral scanner comprises one or more cameras and one or more structured light projectors, the intraoral scanner to generate a series of images using the one or more cameras, each image including at least a portion of a pattern projected by the one or more structured light projectors onto an intraoral three-dimensional surface. The processor runs a correspondence algorithm to compute respective three-dimensional positions of a plurality of features of the pattern on the intraoral three-dimensional surface, as captured in the series of images. The processor identifies the computed three-dimensional position of a detected feature of the pattern as corresponding to a particular projector ray r, in at least a subset of the series of images. The processor tracks the particular projector ray r across one or more additional images of the series of images.

Abstract: A system and method for managing a storage system may include generating, for a data block, a set of tags and a unique name. A set of tags may represent a context. A service related to the data block may be provided in response to receiving at least one of: a tag, a set of tags and a unique name.

Abstract: A system and method for managing a storage system may include generating, for a data block, a set of tags and a unique name. A set of tags may represent a context. A service related to the data block may be provided in response to receiving at least one of: a tag, a set of tags and a unique name.

Abstract: A system and method for managing a storage system may include generating, for a data block, a set of tags and a unique name. A set of tags may represent a context. A service related to the data block may be provided in response to receiving at least one of: a tag, a set of tags and a unique name.

Abstract: A system and method for storing and retrieving data may include receiving, by a controller, data to be stored in a storage system; associating the data with a key and storing the data in the storage system; providing the key, by the controller, to a processing unit; and using the key, by the processing unit, to retrieve the data from the storage system.

Abstract: A system and a method of synchronizing, by a processor, between content of a first data container and content of at least one second data container may include: receiving one or more first data elements of the first data container and one or more second data elements of the at least one second data container; computing one or more first unique reference values (URVs) for the respective one or more first data elements; computing one or more second URVs for the respective one or more second data elements; storing the first data elements on a first storage element; storing the second data elements at a second storage element; comparing between a first URV and a second URV to identify data elements having diverged content; and synchronizing between content of the first data container and content of the at least one second data container based on the comparison.

Abstract: A system and a method of managing a plurality of storage tiers, may include: receiving a write-access request, including at least one data element for storage, a logical address associated with the data element and a tier identifier for a selected tier; computing a unique reference name based on the content of the data element, and associating the unique reference name with the logical address; using a global API to generate a first write-access command, that includes the unique reference name and the data element; customizing the write-access command according to an addressing scheme of the selected tier by a dedicated driver, to obtain at least one second write-access command; using the second write-access command to associate the unique reference name with at least one physical location on the selected tier; and storing the at least one data element at the associated at least one physical location.

Abstract: A system and a method of handling data on at least one storage device may include, with a controller, receiving, from a computing device, a first request for storing on storage media at least one data segment, comprising one or more data blocks and at least one respective metadata object; storing the data blocks and respective metadata object concurrently on the storage media, wherein the metadata object comprises a fidelity flag set to ‘False’; sending an acknowledgement to the computing device; validating the storage of at least one data block of the data segment in an offline validation process; determining the value of at least one fidelity flag associated with the data segment, according to an outcome of the offline validation process; and updating the value of the fidelity flag in the storage media.

Abstract: A system and a method of managing a plurality of storage tiers, may include: receiving a write-access request, including at least one data element for storage, a logical address associated with the data element and a tier identifier for a selected tier, computing a unique reference name based on the content of the data element, and associating the unique reference name with the logical address; using a global API to generate a first write-access command, that includes the unique reference name and the data element; customizing the write-access command according to an addressing scheme of the selected tier by a dedicated driver, to obtain at least one second write-access command; using the second write-access command to associate the unique reference name with at least one physical location on the selected tier; and storing the at least one data element at the associated at least one physical location.

Abstract: A system and a method of synchronizing, by a processor, between content of a first data container and content of at least one second data container may include: receiving one or more first data elements of the first data container and one or more second data elements of the at least one second data container; computing one or more first unique reference values (URVs) for the respective one or more first data elements; computing one or more second URVs for the respective one or more second data elements; storing the first data elements on a first storage element; storing the second data elements at a second storage element; comparing between a first URV and a second URV to identify data elements having diverged content; and synchronizing between content of the first data container and content of the at least one second data container based on the comparison.

Abstract: A system and method for managing a storage system may include generating, for a data block, a set of tags and a unique name. A set of tags may represent a context. A service related to the data block may be provided in response to receiving at least one of: a tag, a set of tags and a unique name.

Abstract: A system and method for managing a storage system may include storing, recording or including, in a transportable container representation (TCR) a set of unique reference values calculated based on content in a respective set of data elements of a data container. At least some of the unique reference values may be associated with physical locations of respective data elements. Data at specific offsets in the data container may be mapped to the unique reference values. A request for data may be received, the request including a read offset in the data container and the mapping may be used to determine at least one unique reference value. Based on an association of the at least one unique reference with a physical location of a data element, requested data may be retrieved.

Abstract: A method and system for ensuring consistency in data updates transactions in a distributed storage system (DSS) are provided. The method includes receiving an aggregated transaction request comprising monotonous transaction requests, wherein each monotonous transaction request is initiated by at least one computing node of a plurality of computing of nodes in the DSS, wherein the root computing node and the plurality of computing nodes are arranged in a tree structure; generating a range of transaction indexes based on the aggregated transaction request; and passing the generated range of transaction indexes along the plurality of computing nodes according to their respective level in the tree structure hierarchy, wherein each of the plurality of computing nodes initiating the monotonous transaction request is allocated with a unique portion of the aggregated transaction indexes, thereby ensuring time-order access to at least one storage device in the DSS.

Abstract: A network storage system for a download intensive environment is provided. The network storage comprises at least a data storage server (DSS) that includes an interface enabling connection of the DSS to a network at a location that enables at least a view of network transactions performed by a plurality of clients; a storage unit; and a system adapted to monitor the network transactions occurring on the network and identification of the network transactions as belonging to a registered client of the DSS, and storing in the storage the transactions with an identification corresponding to the registered client.

Abstract: A method and system for storage of a data block for time continuum back-in-time data retrieval. The method comprises receiving a data block from a user node; updating an index stored in a memory respective of a time that the data block was received, wherein the time is a past time for retrieval of the data block; generating a hash number respective of contents of the data block; updating the index with the generated hash number; checking for existence of the generated hash number in a database; upon determination that the generated hash number does not exist in the database saving the data block in a storage device; increasing monotonously a transaction number respective of the generated hash number; and updating the index with the transaction number.

Abstract: A method and system for ensuring consistency in data updates transactions in a distributed storage system (DSS) are provided. The method includes receiving an aggregated transaction request comprising monotonous transaction requests, wherein each monotonous transaction request is initiated by at least one computing node of a plurality of computing of nodes in the DSS, wherein the root computing node and the plurality of computing nodes are arranged in a tree structure; generating a range of transaction indexes based on the aggregated transaction request; and passing the generated range of transaction indexes along the plurality of computing nodes according to their respective level in the tree structure hierarchy, wherein each of the plurality of computing nodes initiating the monotonous transaction request is allocated with a unique portion of the aggregated transaction indexes, thereby ensuring time-order access to at least one storage device in the DSS.

Abstract: A system comprising a file system that manages files and directories. A digest-based block storage engine coupled to the file system generates a digest when performing saving and retrieving operations initiated by the file system. The engine counts references to data blocks and a list of free data blocks. A storage unit may be coupled to the engine, wherein the storage unit stores a plurality of data blocks.

Abstract: A network storage system for a download intensive environment is provided. The network storage comprises at least a data storage server (DSS) that includes an interface enabling connection of the DSS to a network at a location that enables at least a view of network transactions performed by a plurality of clients; a storage unit; and a system adapted to monitor the network transactions occurring on the network and identification of the network transactions as belonging to a registered client of the DSS, and storing in the storage the transactions with an identification corresponding to the registered client.

Abstract: A network storage system for a download intensive environment is provided. The network storage comprises at least a data storage server (DSS) that includes an interface enabling connection of the DSS to a network at a location that enables at least a view of network transactions performed by a plurality of clients; a storage unit; and a system adapted to monitor the network transactions occurring on the network and identification of the network transactions as belonging to a registered client of the DSS, and storing in the storage the transactions with an identification corresponding to the registered client.

Abstract: A method and system for storage of a data block for time continuum back-in-time data retrieval. The method comprises receiving a data block from a user node; updating an index stored in a memory respective of a time that the data block was received, wherein the time is a past time for retrieval of the data block; generating a hash number respective of contents of the data block; updating the index with the generated hash number; checking for existence of the generated hash number in a database; upon determination that the generated hash number does not exist in the database saving the data block in a storage device; increasing monotonously a transaction number respective of the generated hash number; and updating the index with the transaction number.