Abstract: Initially, a database schema is parsed and a table tree structure is created delineating the relationships between data that are identified in the schema. In addition to accomodating relationships between main tables of data, the table tree structure also accomodates possible side tables of data, and possible circular references between tables, should such be encountered when parsing the schema. Subsequently, a migration mechanism consumes the generated table tree structure and iteratively migrates data in accordance therewith. Individual layers of the table tree structure are migrated consecutively with referenced layers being migrated prior to referencing layers. Circular links are accommodated through temporary null values, and side tables are accommodated during migration of the referencing main table. The iterative process provides completeness and fault tolerance/failure recovery.

Abstract: Initially, a database schema is parsed and a table tree structure is created delineating the relationships between data that are identified in the schema. In addition to accomodating relationships between main tables of data, the table tree structure also accomodates possible side tables of data, and possible circular references between tables, should such be encountered when parsing the schema. Subsequently, a migration mechanism consumes the generated table tree structure and iteratively migrates data in accordance therewith. Individual layers of the table tree structure are migrated consecutively with referenced layers being migrated prior to referencing layers. Circular links are accommodated through temporary null values, and side tables are accommodated during migration of the referencing main table. The iterative process provides completeness and fault tolerance/failure recovery.

Abstract: Initially, a database schema is parsed and a table tree structure is created delineating the relationships between data that are identified in the schema. In addition to accommodating relationships between main tables of data, the table tree structure also accommodates possible side tables of data, and possible circular references between tables, should such be encountered when parsing the schema. Subsequently, a migration mechanism consumes the generated table tree structure and iteratively migrates data in accordance therewith. Individual layers of the table tree structure are migrated consecutively with referenced layers being migrated prior to referencing layers. Circular links are accommodated through temporary null values, and side tables are accommodated during migration of the referencing main table. The iterative process provides completeness and fault tolerance/failure recovery.

Abstract: Initially, a database schema is parsed and a table tree structure is created delineating the relationships between data that are identified in the schema. In addition to accomodating relationships between main tables of data, the table tree structure also accomodates possible side tables of data, and possible circular references between tables, should such be encountered when parsing the schema. Subsequently, a migration mechanism consumes the generated table tree structure and iteratively migrates data in accordance therewith. Individual layers of the table tree structure are migrated consecutively with referenced layers being migrated prior to referencing layers. Circular links are accommodated through temporary null values, and side tables are accommodated during migration of the referencing main table. The iterative process provides completeness and fault tolerance/failure recovery.

Abstract: A computer system access feed data belonging to a particular feed, and executes a dynamic server statement to create a relational dataset with data type fields from the feed data in an in-memory table of the server. The dynamic server statement is stored within metadata associated with the feed. The computer system also applies a second dynamic server statement to the data feed which applies one or more data processing conditions indicated in the metadata. The second dynamic server statement is also stored within the metadata associated with the feed. Upon determining that one or more feed data rows match the data processing conditions, the computer system places feed data row information about the matching data rows into an alert table that includes references to a regional blob table with blob data, thereby triggering an alert.

Abstract: A computer system access feed data belonging to a particular feed, and executes a dynamic server statement to create a relational dataset with data type fields from the feed data in an in-memory table of the server. The dynamic server statement is stored within metadata associated with the feed. The computer system also applies a second dynamic server statement to the data feed which applies one or more data processing conditions indicated in the metadata. The second dynamic server statement is also stored within the metadata associated with the feed. Upon determining that one or more feed data rows match the data processing conditions, the computer system places feed data row information about the matching data rows into an alert table that includes references to a regional blob table with blob data, thereby triggering an alert.

Abstract: A computer system accesses rows of feed data and converts the received feed data into portions of binary blob data. The computer system also sends the binary blob data to a database server which is configured to access metadata associated with a feed including a dynamic server statement to determine how to convert the binary blob data to a server table with a blob column configured to store the rows of feed data. The database server accesses feed data belonging to a particular feed and executes a dynamic server statement to create a relational dataset in an in-memory table of the server. A second dynamic statement applies data processing conditions indicated in the metadata. When feed data rows match conditions, the computer system places feed data row information into an alert table that includes references to the blob table with blob data, thereby triggering an alert.

Abstract: A computer system accesses rows of feed data and converts the received feed data into portions of binary blob data. The computer system also sends the binary blob data to a database server which is configured to access metadata associated with a feed including a dynamic server statement to determine how to convert the binary blob data to a server table with a blob column configured to store the rows of feed data. The database server accesses feed data belonging to a particular feed and executes a dynamic server statement to create a relational dataset in an in-memory table of the server. A second dynamic statement applies data processing conditions indicated in the metadata. When feed data rows match conditions, the computer system places feed data row information into an alert table that includes references to the blob table with blob data, thereby triggering an alert.

Abstract: A computer system accesses rows of feed data. and converts the received feed data into portions of binary blob data. The computer system also sends the binary blob data to a database server which is configured to access metadata associated with a feed including a dynamic server statement to determine how to convert the binary blob data to a server table with a blob column configured to store the rows of feed data. The database server accesses feed data belonging to a particular feed and executes a dynamic server statement to create a relational dataset in an in-memory table of the server. A second dynamic statement applies data processing conditions indicated in the metadata. When feed data rows match conditions, the computer system places feed data row information into an alert table that includes references to the blob table with blob data, thereby triggering an alert.

Abstract: A computer system accesses rows of feed data. and converts the received feed data into portions of binary blob data. The computer system also sends the binary blob data to a database server which is configured to access metadata associated with a feed including a dynamic server statement to determine how to convert the binary blob data to a server table with a blob column configured to store the rows of feed data. The database server accesses feed data belonging to a particular feed and executes a dynamic server statement to create a relational dataset in an in-memory table of the server. A second dynamic statement applies data processing conditions indicated in the metadata. When feed data rows match conditions, the computer system places feed data row information into an alert table that includes references to the blob table with blob data, thereby triggering an alert.

Abstract: A test packet sequencer for dispatching test packets onto a computer network comprises a computer running software under an operating system. The software uses I/O completion ports to dispatch packets and bursts of packets. The packets may be dispatched to travel a path in the network which terminates at the test packet sequencer. The software may also receive and time stamp returning packets and bursts of packets. The test packet sequencer may receive the packets in I/O completion ports. The software may have a test handler thread which terminates its current time slice just prior to sending a burst of packets so that the packets are all dispatched within a single time slice of the test handler thread. The test handler thread may be assigned a time critical priority.