Abstract: Various techniques for dynamic path selection and data flow forwarding are disclosed. For example, various systems, processes, and computer program products for dynamic path selection and data flow forwarding are disclosed for providing dynamic path selection and data flow forwarding that can facilitate preserving/enforcing symmetry in data flows as disclosed with respect to various embodiments.

Abstract: Various techniques for dynamic path selection and data flow forwarding are disclosed. For example, various systems, processes, and computer program products for dynamic path selection and data flow forwarding are disclosed for providing dynamic path selection and data flow forwarding that can facilitate preserving/enforcing symmetry in data flows as disclosed with respect to various embodiments.

Abstract: Various techniques for dynamic path selection and data flow forwarding are disclosed. For example, various systems, processes, and computer program products for dynamic path selection and data flow forwarding are disclosed for providing dynamic path selection and data flow forwarding that can facilitate preserving/enforcing symmetry in data flows as disclosed with respect to various embodiments.

Abstract: Various techniques for dynamic path selection and data flow forwarding are disclosed. For example, various systems, processes, and computer program products for dynamic path selection and data flow forwarding are disclosed for providing dynamic path selection and data flow forwarding that can facilitate preserving/enforcing symmetry in data flows as disclosed with respect to various embodiments.

Abstract: Various techniques for dynamic path selection and data flow forwarding are disclosed. For example, various systems, processes, and computer program products for dynamic path selection and data flow forwarding are disclosed for providing dynamic path selection and data flow forwarding that can facilitate preserving/enforcing symmetry in data flows as disclosed with respect to various embodiments.

Abstract: Disclosed are novel genetic arrays for use in the molecular detection of multiple Salmonella serovars, common food-borne and water-borne pathogens. The arrays may be used to simultaneously detect multiple food safety Salmonella serovars. The multiplex-detection methods have improved sensitivity and specificity for the detection of multiple high-impact food-borne pathogens simultaneously. Real-time PCR assaying techniques using such serovars include microarrays.

Abstract: Various techniques for dynamic path selection and data flow forwarding are disclosed. For example, various systems, processes, and computer program products for dynamic path selection and data flow forwarding are disclosed for providing dynamic path selection and data flow forwarding that can facilitate preserving/enforcing symmetry in data flows as disclosed with respect to various embodiments.

Abstract: Disclosed are novel genetic arrays for use in the molecular detection of multiple Salmonella serovars, common food-borne and water-borne pathogens. The arrays may be used to simultaneously detect multiple food safety Salmonella serovars. The multiplex-detection methods have improved sensitivity and specificity for the detection of multiple high-impact food-borne pathogens simultaneously. Real-time PCR assaying techniques using such serovars include microarrays.

Abstract: A method includes determining a network requirement for at least one application, dynamically determining a link suitable for data transmission in accordance with a policy based at least in part on a current network condition to meet the network requirement and routing one or more application network data flows associated with the at least one application over the link.

Abstract: A method includes detecting a data flow and an associated originating interface on a network, determining a first link over which to forward the data flow, transmitting the data flow over the determined link, receiving a return data flow and moving a forward direction of the return data flow to a new path if the return data flow arrived via a link other than the first link, wherein all packets following a first packet on the flow are forwarded on the same path as the first packet.

Abstract: A method includes determining a network requirement for at least one application, dynamically determining a link suitable for data transmission in accordance with a policy based at least in part on a current network condition to meet the network requirement and routing one or more application network data flows associated with the at least one application over the link.

Abstract: A method includes detecting a data flow and an associated originating interface on a network, determining a first link over which to forward the data flow, transmitting the data flow over the determined link, receiving a return data flow and moving a forward direction of the return data flow to a new path if the return data flow arrived via a link other than the first link, wherein all packets following a first packet on the flow are forwarded on the same path as the first packet.

Abstract: Compounds of formula wherein the variables are defined in the specification, are used in compositions which stimulate T cell responses.

Abstract: Compounds of formula wherein the variables are defined in the specification, are used in compositions which stimulate T cell responses.

Abstract: Compounds of formula wherein the variable are defined in the specification, are used in compositions which stimulate T cell responses.

Abstract: Compounds of formula wherein the variable are defined in the specification, are used in compositions which stimulate T cell responses.

Abstract: There are disclosed compound of formula I, in which R1 represents a hydrophobic moiety adapted to occupy the C? channel of human CDId, R2 represents a hydrophobic moiety adapted to occupy the A? channel of human CDId, such that R1 fills at least at least 30% of the occupied volume of the C? channel compared to the volume occupied by the terminal nC14H29 of the sphingosine chain of ?-galactosylceramide when bound to human CDId and R2 fills at least 30% of the occupied volume of the A? channel compared to the volume occupied by the terminal nC25H51 of the acyl chain of ?-galactosylceramide when bound to human CDId R3 represents hydrogen or OH, Ra and Rb each represent hydrogen and in addition, when R3 represents hydrogen, Ra and Rb together may form a single bond, X represents or —CHA(CHOH)nY or —P(=0)(0?)0CH2(CH0H)mY, in which Y represents CHB1B2, n represents an integer from 1 to 4, m represents 0 or 1, A årepresents hydrogen, one of B1 and B2 represents H, OH or phenyl, and the other represents hydrogen or o

Abstract: There are disclosed compound of formula I, in which R1 represents a hydrophobic moiety adapted to occupy the C? channel of human CDId, R2 represents a hydrophobic moiety adapted to occupy the A? channel of human CDId, such that R1 fills at least at least 30% of the occupied volume of the C? channel compared to the volume occupied by the terminal nC14H29 of the sphingosine chain of ?-galactosylceramide when bound to human CDId and R2 fills at least 30% of the occupied volume of the A? channel compared to the volume occupied by the terminal nC25H51 of the acyl chain of ?-galactosylceramide when bound to human CDId R3 represents hydrogen or OH, Ra and Rb each represent hydrogen and in addition, when R3 represents hydrogen, Ra and Rb together may form a single bond, X represents or —CHA(CHOH)nY or —P(?0)(0?)0CH2(CH0H)mY, in which Y represents CHB1B2, n represents an integer from 1 to 4, m represents 0 or 1, A årepresents hydrogen, one of B1 and B2 represents H, OH or phenyl, and the other represents hydrogen or o