Abstract:
Methods, computer program products, and system for generating code for an extract, transform, and load (ETL) data flow are provided. In one implementation, the method includes receiving an ETL data flow representing a logical transformation and flow of data, placing a staging table at a pre-determined location in the ETL data flow to reduce a total number of staging tables required by the transformation, and generating code for the transformation based on the ETL data flow including the staging table placed at the pre-determined location.
Abstract:
A network access sequence for a mobile node (MN) in one or more foreign domains (FD). A foreign domain sends (A1) service advertisement messages (M1), each of which comprises an identifier (41) of the message, network address information (43) and a detailed service offering (42). The mobile node stores (A2) the detailed service offerings and selects one of them. Then it sends a service request message (M2) to the foreign domain which sent the selected service offering (62). The service request indicates (55) the selected service offering (62) and the mobile node's credentials (54). The foreign domain conveys the credentials to the mobile node's home domain (HD) for authentication and authorization and checks (A4) if the selected service offering (62) can be supported. Next the foreign domain (FD) allocates communication resources for supporting the selected service offering and indicates (M9) to the mobile node the availability of the requested service.
Abstract:
An apparatus for calculating a cost of receiving multicast data from a multicast session. A multicast network includes at least one multicast service, each multicast service including at least one multicast session. The apparatus receives a request to establish a connection to the multicast session, stores a start time for the connection and an end time for the connection and, after termination of the connection, calculates the cost of receiving the multicast data. The apparatus can receive a subsequent request to extend the connection, the subsequent request specifying a new end time for the connection, and store the new end time for the connection. Alternatively, the apparatus can receive a subsequent request to terminate the connection, the subsequent request specifying a new end time that precedes the end time for the connection, and store the new end time for the connection.
Abstract:
A computer implemented method for generating code for an integrated data system. A mixed data flow is received. The mixed data flow contains mixed data flow operators, which are associated with multiple runtime environments. A graph is generated containing logical operators based on the mixed data flow in response to receiving the mixed data flow. The logical operators are independent of the plurality of runtime environments. The graph is converted to a model. The logical operators are converted to model operators associated with the multiple runtime environments. The model operators allow for analysis of operations for the mixed data flow. The model is converted into an execution plan graph. The execution plan graph is executable on different runtime environments.
Abstract:
A manipulable human interactive proof (HIP) displays at most a portion of verification information. A user performs at least one manipulation on the HIP display to obtain full verification information.
Abstract:
Methods, systems, and computer program products for generating code from a data flow associated with an extract, transform, and load (ETL) process. In one implementation, the method includes identifying a data exchange requirement between a first operator and a second operator in the data flow. The first operator is a graphical object that represents a first data transformation step in the data flow and is associated with a first type of runtime engine, and the second operator is a graphical object that represents a second data transformation step in the data flow and is associated with a second type of runtime engine. The method further includes generating code to manage data staging between the first operator and the second operator in the data flow. The code exchanges data from a format associated with the first type of runtime engine to a format associated with the second type of runtime engine.
Abstract:
Methods, systems, and computer program products for generating code from a data flow associated with an extract, transform, and load (ETL) process. In one implementation, the method includes identifying a data exchange requirement between a first operator and a second operator in the data flow. The first operator is a graphical object that represents a first data transformation step in the data flow and is associated with a first type of runtime engine, and the second operator is a graphical object that represents a second data transformation step in the date flow and is associated with a second type of runtime engine. The method further includes generating code to manage data staging between the first operator and the second operator in the data flow. The code exchanges data from a format associated with the first type of runtime engine to a format associated with the second type of runtime engine.
Abstract:
A method for operating a touch panel comprises the steps of: sensing an object in proximity to the touch panel; determining a location on the touch panel corresponding to the sensed object; determining a contact metric indicative of an amount of pressure applied on the touch panel by the sensed object; and operating the touch panel as a function of the location and the contact metric.
Abstract:
A remote control device comprises: a unit having a top surface; and a touch panel disposed on the top surface, wherein the touch panel covers all of the top surface. The touch panel comprises touch sensing channels positioned on the touch panel for detecting an object touching or in proximity to the touch panel.
Abstract:
A capacitive sensor for a digital display device comprises: one or more proximity wires; a grounding wire; wherein the DDD having a system area and a frame area; wherein the frame area is positioned around the system area; wherein the grounding wire is disposed on the DDD and forms a first area; wherein a first proximity wire is disposed outside of the first area; and wherein the first proximity wire and the grounding wire defines a first detection area of the capacity sensor.