Abstract: A Pole Phase Modulated (PPM) nine-phase induction motor drive may be used in gearless electric vehicle applications. A single stator winding multiphase induction motor may deliver variable speed-torques by varying the number of phases and poles with respect to a multiphase power converter. A multilevel inverter controlled with carrier phase shifted space vector pulse width modulator (PWM) may further improve the PPM based multiphase induction motor (MIM) drive with respect to efficiency, torque ripple, and direct current (DC) link utilization. To operate the PPM based MIM drive smoothly in different pole phase combinations, indirect field oriented vector control may used.

Abstract: A Pole Phase Modulated (PPM) nine-phase induction motor drive may be used in gearless electric vehicle applications. A single stator winding multiphase induction motor may deliver variable speed-torques by varying the number of phases and poles with respect to a multiphase power converter. A multilevel inverter controlled with carrier phase shifted space vector pulse width modulator (PWM) may further improve the PPM based multiphase induction motor (MIM) drive with respect to efficiency, torque ripple, and direct current (DC) link utilization. To operate the PPM based MIM drive smoothly in different pole phase combinations, indirect field oriented vector control may used.

Abstract: A network appliance deployed in a visibility fabric may intelligently drop certain low priority traffic to avoid indiscriminate dropping of data packets across all flow maps during periods of high congestion. More specifically, the network appliance may determine the data packets of a flow map should be dropped based on priority measures assigned on a per-flow map basis. Such a technique enables the network appliance to drop low priority traffic and forward high priority traffic downstream. Also introduced herein are techniques for metering traffic in order to gain better control over the traffic that is forwarded to an egress port of a network appliance. Because a network tool connected to the egress port can become easily overwhelmed, the network appliance may filter the traffic based on the priority of the flow maps to ensure that the network tool does not receive more traffic than can be handled.

Abstract: A network appliance described herein allows the user to selectively forward the flow of packets received through a network port, to a particular egress port. The network appliance creates virtual ports, which can be assigned to the one or more egress ports. The network appliance assigns the flow of packets to the one or more virtual ports in the network appliance. The network appliance decides a forwarding treatment to be applied to the flow of packets, for forwarding the flow of packets to the egress tool ports, based on the virtual port to which the flow of packets is assigned and based on a detected network characteristic. The forwarding treatment can be a decision to drop the flow of packets, or to send the flow of packets to the egress port assigned to the virtual port.

Abstract: The present invention relates to the cationic lipid cordiaroimide hybrid compounds of formula I. The present invention provides a process for preparation of these compounds is also being elaborated. The compounds described provides anticancerous activity against cell lines including PC-3 (prostate cancer), HepG2 (liver cancer), MCF-7 (breast cancer) and NIH-1/3T3 (non cancer cells. The compound was also capable of inducing caspase-3 mediated apoptosis in HepG2 cells by arresting the cell cycle in the G1 phase. Furthermore, the compound exhibited DNA ligase I inhibition. The present class of cationic lipid cordiarimide hybrids is likely to find specific use in developing novel targeted therapies for liver and prostate cancers.

Abstract: A network appliance described herein allows the user to selectively forward the flow of packets received through a network port, to a particular egress port. The network appliance creates virtual ports, which can be assigned to the one or more egress ports. The network appliance assigns the flow of packets to the one or more virtual ports in the network appliance. The network appliance decides a forwarding treatment to be applied to the flow of packets, for forwarding the flow of packets to the egress tool ports, based on the virtual port to which the flow of packets is assigned and based on a detected network characteristic. The forwarding treatment can be a decision to drop the flow of packets, or to send the flow of packets to the egress port assigned to the virtual port.

Abstract: A network appliance deployed in a visibility fabric may intelligently drop certain low priority traffic to avoid indiscriminate dropping of data packets across all flow maps during periods of high congestion. More specifically, the network appliance may determine the data packets of a flow map should be dropped based on priority measures assigned on a per-flow map basis. Such a technique enables the network appliance to drop low priority traffic and forward high priority traffic downstream. Also introduced herein are techniques for metering traffic in order to gain better control over the traffic that is forwarded to an egress port of a network appliance. Because a network tool connected to the egress port can become easily overwhelmed, the network appliance may filter the traffic based on the priority of the flow maps to ensure that the network tool does not receive more traffic than can be handled.

Abstract: A network appliance described herein allows the user to selectively forward the flow of packets received through a network port, to a particular egress port. The network appliance creates virtual ports, which can be assigned to the one or more egress ports. The network appliance assigns the flow of packets to the one or more virtual ports in the network appliance. The network appliance decides a forwarding treatment to be applied to the flow of packets, for forwarding the flow of packets to the egress tool ports, based on the virtual port to which the flow of packets is assigned and based on a detected network characteristic. The forwarding treatment can be a decision to drop the flow of packets, or to send the flow of packets to the egress port assigned to the virtual port.

Abstract: A network appliance deployed in a visibility fabric may intelligently drop certain low priority traffic to avoid indiscriminate dropping of data packets across all flow maps during periods of high congestion. More specifically, the network appliance may determine the data packets of a flow map should be dropped based on priority measures assigned on a per-flow map basis. Such a technique enables the network appliance to drop low priority traffic and forward high priority traffic downstream. Also introduced herein are techniques for metering traffic in order to gain better control over the traffic that is forwarded to an egress port of a network appliance. Because a network tool connected to the egress port can become easily overwhelmed, the network appliance may filter the traffic based on the priority of the flow maps to ensure that the network tool does not receive more traffic than can be handled.

Abstract: A network appliance described herein allows the user to selectively forward the flow of packets received through a network port, to a particular egress port. The network appliance creates virtual ports, which can be assigned to the one or more egress ports. The network appliance assigns the flow of packets to the one or more virtual ports in the network appliance. The network appliance decides a forwarding treatment to be applied to the flow of packets, for forwarding the flow of packets to the egress tool ports, based on the virtual port to which the flow of packets is assigned and based on a detected network characteristic. The forwarding treatment can be a decision to drop the flow of packets, or to send the flow of packets to the egress port assigned to the virtual port.

Abstract: A network appliance deployed in a visibility fabric may intelligently drop certain low priority traffic to avoid indiscriminate dropping of data packets across all flow maps during periods of high congestion. More specifically, the network appliance may determine the data packets of a flow map should be dropped based on priority measures assigned on a per-flow map basis. Such a technique enables the network appliance to drop low priority traffic and forward high priority traffic downstream. Also introduced herein are techniques for metering traffic in order to gain better control over the traffic that is forwarded to an egress port of a network appliance. Because a network tool connected to the egress port can become easily overwhelmed, the network appliance may filter the traffic based on the priority of the flow maps to ensure that the network tool does not receive more traffic than can be handled.

Abstract: The present invention relates to the cationic lipid cordiaroimide hybrid compounds of formula I. The present invention provides a process for preparation of these compounds is also being elaborated. The compounds described provides anticancerous activity against cell lines including PC-3 (prostate cancer), HepG2 (liver cancer), MCF-7 (breast cancer) and NIH-1/3T3 (non cancer cells. The compound was also capable of inducing caspase-3 mediated apoptosis in HepG2 cells by arresting the cell cycle in the G1 phase. Furthermore, the compound exhibited DNA ligase I inhibition. The present class of cationic lipid cordiarimide hybrids is likely to find specific use in developing novel targeted therapies for liver and prostate cancers.

Abstract: A headlamp assembly for a motor vehicle having a light source, a chamber that receives the light source and a cooling channel for removing heat from the chamber. A conductive wall and an insulating wall cooperate to define the chamber and the channel. The conductive wall has a substantially higher thermal conductivity than the insulating wall to promote the heat exchange between the chamber and the cooling channel and to reduce heat exchange between the cooling channel and the relatively hot engine compartment.

Abstract: A headlamp assembly for a motor vehicle including a lens and a housing that cooperate to define an inner chamber that is generally isolated from the atmosphere. A heat sink includes a fin portion that extends from the inner chamber so as to be exposed to ambient air. A light source is located within the inner chamber and is supported on a base portion of the heat sink. The heat sink conducts heat from the light source to air located exterior of the chamber.

Abstract: A system and method for soldering flat flexible cable to an electronic substrate using lead-free solder is disclosed. The method comprises bending conductive end portions of the flat flexible cable and inserting the bent conductive end portions of the flat flexible cable through slots that extend through the thickness of the electronic substrate. In so doing, a segment of the conductive end portion will protrude through the thickness of the substrate. The method further comprises of heating the flat flexible cable to a temperature of approximately 100° C. and then applying the lead-free solder to the area where the end portion protrudes through the thickness of the substrate for a time period of approximately 5 to 9 seconds.

Abstract: A die mount assembly including a semiconductor die and die mount is provided. The semiconductor die may be a light emitting diode die that is attached to the die mount forming an electrical and thermal connection. The die mount includes a first set of pads and a second set of pads. A first pad of the first set of pads is connected to a second pad of the second set of pads through a plurality of vias. The vias comprise an electrically and thermally conductive material that connect the first pad to the second pad through a substrate.

Abstract: A liquid cooled semiconductor device is provided. The device includes a semiconductor die and a heat spreader. In one aspect of the invention, the heat spreader is mounted to a substrate such that a first side of the spreader is exposed on one side of the substrate and that a second side of the heat spreader is exposed on an opposing side of the substrate. Attached to a first side of the spreader is the semiconductor die. In another aspect of the invention, a wetting material is used to provide a thermal/electrical connection between the die and heat spreader. Sealant is provided between the die and the heat spreader to encapsulate and contain the wetting material.

Abstract: A liquid cooled semiconductor device is provided. The device includes a semiconductor die, a heat spreader, a wetting material, a sealant, a substrate, and a base. The spreader is mounted to a substrate such that a first side of the spreader is exposed on one side of the substrate and that a second side of the spreader is exposed on an opposing side of the substrate. Attached to a first side of the spreader is the semiconductor die. The wetting material is used to provide a thermal/electrical connection between the die and heat spreader. Sealant is provided between the die and the heat spreader to encapsulate and contain the wetting material. The substrate is mounted to the base, whereby the second side of the spreader is exposed to allow fluid to flow across the second side, directed within a channel defined by the base, and transfer heat away from the spreader.

Abstract: An electric machine for converting electrical energy to mechanical energy is disclosed. The electric machine includes a stator having an outer layer, a first intermediate layer, a second intermediate layer, and an inner layer. The electric machine further includes a rotor axially aligned and positioned within the stator. The rotor has at least one permanent magnet, and at least one busbar. The busbar is attached to the first intermediate layer. The busbar includes at least one bare power die in electrical communication therewith.

Abstract: A liquid cooled semiconductor device is provided. The device includes a semiconductor die, a heat spreader, a wetting material, a sealant, a substrate, and a base. The spreader is mounted to a substrate such that a first side of the spreader is exposed on one side of the substrate and that a second side of the spreader is exposed on an opposing side of the substrate. Attached to a first side of the spreader is the semiconductor die. The wetting material is used to provide a thermal/electrical connection between the die and heat spreader. Sealant is provided between the die and the heat spreader to encapsulate and contain the wetting material. The substrate is mounted to the base, whereby the second side of the spreader is exposed to allow fluid to flow across the second side, directed within a channel defined by the base, and transfer heat away from the spreader.