Abstract: A predictive model for classification of tissue rupture risk is generated by providing a computer aided design (CAD) model suitable for simulating a balloon expandable transcatheter heart valve, and computing stress, strain, and/or displacement at the tissue as a function of expansion of the expandable transcatheter heart valve. The computed stress, strain, and/or displacement at the tissue enables determination of low, moderate or high tissue rupture risk as a function of the expansion at time of the expandable transcatheter heart valve deployment into a patient.

Abstract: The disclosed system may comprise a mainframe computing resource, a data library, a data processing appliance, and a distributed system. The data library may be securely connected to the mainframe computing resource. The data library may be configured to receive data from the mainframe computing resource via a first interface. The data processing appliance may be configured to read and write data to the data library via a second user interface. The distributed system may be configured to receive data from the data processing appliance. The distributed system may be further configured to process the data based on a workflow from the mainframe computing system.

Abstract: The disclosed system may comprise a mainframe computing resource, a data library, a data processing appliance, and a distributed system. The data library may be securely connected to the mainframe computing resource. The data library may be configured to receive data from the mainframe computing resource via a first interface. The data processing appliance may be configured to read and write data to the data library via a second user interface. The distributed system may be configured to receive data from the data processing appliance. The distributed system may be further configured to process the data based on a workflow from the mainframe computing system.

Abstract: The disclosed system may comprise a mainframe computing resource, a data library, a data processing appliance, and a distributed system. The data library may be securely connected to the mainframe computing resource. The data library may be configured to receive data from the mainframe computing resource via a first interface. The data processing appliance may be configured to read and write data to the data library via a second user interface. The distributed system may be configured to receive data from the data processing appliance. The distributed system may be further configured to process the data based on a workflow from the mainframe computing system.

Abstract: The disclosed system may comprise a mainframe computing resource, a data library, a data processing appliance, and a distributed system. The data library may be securely connected to the mainframe computing resource. The data library may be configured to receive data from the mainframe computing resource via a first interface. The data processing appliance may be configured to read and write data to the data library via a second user interface. The distributed system may be configured to receive data from the data processing appliance. The distributed system may be further configured to process the data based on a workflow from the mainframe computing system.

Abstract: A user is allowed to select a fuel item remotely of a fuel dispenser using a payer application accessible on a computing device. An order is generated based on the selected fuel item; the order including an identifier associated with a payer account. The order is provided to a point of sale (POS) application associated with a merchant. The POS application generates a payment request based on the order and a record of the amount of fuel dispensed by the fuel dispenser; the payment request including an identifier associated with a recipient account. The payment request is forwarded by the POS application to a payment network, which effects a payment transaction from the payer account to the recipient account. A notification is forwarded to the payer application indicating the status of the payment transaction.

Abstract: Methods for the measurement and prediction of response to hepatotoxicants and carcinogens through the detection of metabolites in a mammal are provided. The metabolites can be used as biomarkers, including efficacy biomarkers, surrogate biomarkers, and toxicity biomarkers. The methods find use for early prediction of toxicity, target identification/validation, and monitoring of drug efficacy.

Abstract: During recording of an MPEG information signal on a record carrier, transport packets (Pk) are stored in signal blocks in a track on the record carrier. x transport packets of the MPEG information signal are stored in the second block sections (SB) of y signal blocks, where x and y are integers, x?1 and y>1, more specifically, y>x. Further, third block sections (TB) are present in one or more of the second block sections in the y signal blocks of a group for storing additional information, this additional information relating to the specific application of recording and reproducing the MPEG information signal on/from the record carrier.

Abstract: Methods for the measurement and prediction of response to hepatotoxicants and carcinogens through the detection of metabolites in a mammal are provided. The metabolites can be used as biomarkers, including efficacy biomarkers, surrogate biomarkers, and toxicity biomarkers. The methods find use for early prediction of toxicity, target identification/validation, and monitoring of drug efficacy.

Abstract: Methods for the measurement and prediction of response to hepatotoxicants and carcinogens through the detection of metabolites in a mammal are provided. The metabolites can be used as biomarkers, including efficacy biomarkers, surrogate biomarkers, and toxicity biomarkers. The methods find use for early prediction of toxicity, target identification/validation, and monitoring of drug efficacy.

Abstract: A method of transmitting timing critical data via an asynchronous channel without changing any datum to be transmitted. The timing critical data can be an MPEG transport stream. The asynchronous channel can be a computer or telephone network, a digital storage media such as a digital VCR, or a digital interface. The method involves tagging each transmission unit of the data stream, before inputting to the channel, with timing information, and using the timing information at the output end of the channel to recreate the proper data timing, Various schemes are described for packing the timing information tags with each or a plurality of transmission units.

Abstract: During recording of an MPEG information signal on a record carrier, transport packets (Pk) are stored in signal blocks in a track on the record carrier. x transport packets of the MPEG information signal are stored in the second block sections (SB) of y signal blocks, where x and y are integers, x?1 and y>1, more specifically, y>x. Further, third block sections (TB) are present in one or more of the second block sections in the y signal blocks of a group for storing additional information, this additional information relating to the specific application of recording and reproducing the MPEG information signal on/from the record carrier.

Abstract: During recording of an MPEG information signal on a record carrier, transport packets (Pk) are stored in signal blocks in a track on the record carrier. x transport packets of the MPEG information signal are stored in the second block sections (SB) of y signal blocks, where x and y are integers, x≧1 and y>1, more specifically, y>x. Further, third block sections (TB) are present in one or more of the second block sections in the y signal blocks of a group for storing additional information, this additional information relating to the specific application of recording and reproducing the MPEG information signal on/from the record carrier.

Abstract: A method of transmitting timing critical data via an asynchronous channel without changing any datum to be transmitted. The timing critical data can be an MPEG transport stream. The asynchronous channel can be a computer or telephone network, a digital storage media such as a digital VCR, or a digital interface. The method involves tagging each transmission unit of the data stream, before inputting to the channel, with timing information, and using the timing information at the output end of the channel to recreate the proper data timing, Various schemes are described for packing the timing information tags with each or a plurality of transmission units.

Abstract: A method of transmitting timing critical data via an asynchronous channel without changing any datum to be transmitted. The timing critical data can be an MPEG transport stream. The asynchronous channel can be a computer or telephone network, a digital storage media such as a digital VCR, or a digital interface. The method involves tagging each transmission unit of the data stream, before inputting to the channel, with timing information, and using the timing information at the output end of the channel to recreate the proper data timing. Various schemes are described for packing the timing information tags with each or a plurality of transmission units.

Abstract: During recording of an MPEG information signal on a record carrier, transport packets (Pk) are stored in signal blocks in a track on the record carrier. x transport packets of the MPEG information signal are stored in the second block sections (SB) of y signal blocks, where x and y are integers, x≧1 and y>1, more specifically, y>x. Further, third block sections (TB) are present in one or more of the second block sections in the y signal blocks of a group for storing additional information, this additional information relating to the specific application of recording and reproducing the MPEG information signal on/from the record carrier.

Abstract: During recording of an MPEG information signal on a record carrier, transport packets (Pk) are stored in signal blocks in a track on the record carrier. x transport packets of the MPEG information signal are stored in the second block sections (SB) of y signal blocks, where x and y are integers, x≧1 and y>1, more specifically, y>x. Further, third block sections (TB) are present in one or more of the second block sections in the y signal blocks of a group for storing additional information, this additional information relating to the specific application of recording and reproducing the MPEG information signal on/from the record carrier.

Abstract: A method of transmitting timing critical data via an asynchronous channel without changing any datum to be transmitted. The timing critical data can be an MPEG transport stream. The asynchronous channel can be a computer or telephone network, a digital storage media such as a digital VCR, or a digital interface. The method involves tagging each transmission unit of the data stream, before inputting to the channel, with timing information, and using the timing information at the output end of the channel to recreate the proper data timing. Various schemes are described for packing the timing information tags with each or a plurality of transmission units.

Abstract: A device comprising an MPEG encoder (2) is provided with a preanalyser (8) which encodes each picture with a fixed step size (Q.sub.2). The preanalyser is coupled to a computing circuit (9) which computes, for each type of (I, P, B) picture, a target value (T) for the number of bits for encoding said picture, as well as a suitable distribution of the target value among the macroblocks of the picture. A proportionally integrating control circuit (7) controls the quantization step size (Q.sub.1). Since the PI control circuit does not introduce any residual errors, the desired number of bits per picture or per group of pictures is achieved within narrow limits. The output signal is eminently suitable for recording and subsequent editing.

Abstract: The disclosed system may comprise a mainframe computing resource, a data library, a data processing appliance, and a distributed system. The data library may be securely connected to the mainframe computing resource. The data library may be configured to receive data from the mainframe computing resource via a first interface. The data processing appliance may be configured to read and write data to the data library via a second user interface. The distributed system may be configured to receive data from the data processing appliance. The distributed system may be further configured to process the data based on a workflow from the mainframe computing system.