Abstract: An application node advertises service(s), using a label distribution protocol, that it offers to other network nodes and a corresponding label to use to identify these services(s). For example, a Targeted Label Distribution Protocol (tLDP) session may be established between a packet switching device and the application node providing these services to communicate the advertisement. Packets are encapsulated and sent from a service node (e.g., packet switching device) with the corresponding label to have one or more advertised services applied to the packet by an application node (e.g., a packet switching device and/or computing platform such as a Cisco ASR 1000).

Abstract: An application node advertises service(s), using a routing protocol, that it offers to other network nodes. For example, the routing protocol used to advertise service(s) in a Service Provider Network is typically an link-state, Interior Gateway Protocol (IGP), such as, but not limited to, Intermediate System to Intermediate System (IS-IS) or Open Shortest Path First (OSPF). Packets are encapsulated and sent from a service node (e.g., packet switching device) using one or more advertised services applied to a packet by an application node (e.g., a packet switching device and/or computing platform such as a Cisco ASR 1000).

Abstract: Packets are encapsulated and sent from a service node to one or more application nodes for applying one or more Layer-4 to Layer-7 services to the packets. Before which for a packet, the service node performs a lookup operation based on a destination address of the packet in a routing data structure derived from a exterior network protocol, such as, but not limited to Border Gateway Protocol (BGP). This lookup operation results in the identification of a next hop packet switching device to which the packet would be sent from the service node. The service node includes this identification of the next hop address in the request packet sent to the application node(s). After the service(s) are applied to the packet, an application node will send the services-applied packet to this next hop address. In this manner, application nodes do not need to run an exterior network protocol. Although, they typically will run an Interior Gateway Protocol for identifying how to forward packets to the next hop address.

Abstract: An apparatus for the processing of articles (5) is disclosed. The apparatus includes guide means (1) having a body, a first end (2) for receiving articles, and a second end (3) for dispatching articles. The apparatus may be used to transfer articles (5) from a first conveyor means to a second conveyor means with a reduced likelihood of the articles colliding with other articles.

Abstract: Packets are encapsulated and sent from a service node (e.g., packet switching device) using one or more services applied to a packet by an application node (e.g., a packet switching device and/or computing platform such as a Cisco ASR 1000) to generate a result, which is used by the service node to process packets of a flow of packets to which the packet belonged. An example of a service applied to a packet is a classification service, such as, but not limited to, using deep packet inspection on the packet to identify a classification result. The service node can, for example, use this classification result to process other packets in a same packet flow, such that all packets of a flow do not need to be, nor typically are, sent to an application node for processing.

Abstract: Various embodiments provide a non-collimated 3D localization technique to detect an unknown radioactive source in a medium material using a plurality of detectors. 3D position information (x, y, z), and strength of the unknown radioactive source(s) can be determined by a comparison or a data fit between the measured detector responses with a mapping of detector responses performed with known calibration radioactive source(s). The non-collimated 3D localization technique can be used to extract lateral and depth position of contaminations in soil, concrete, or metal, to aid in monitoring and localizing radiation for nonproliferation and prevent smuggling of nuclear materials, and/or to detect and localize radioactive source(s) in medical or non-medical purposes.

Abstract: In a multilateration apparatus a correlator is provided with a time of arrival correlation window which is set to cater for the path lengths that may be experienced before a signal from an object to be located is received by receivers in the system. This may be on the basis of the largest possible path length in the system or on a receiver by receiver basis.

Abstract: An application node advertises service(s), using a label distribution protocol, that it offers to other network nodes and a corresponding label to use to identify these services(s). For example, a Targeted Label Distribution Protocol (tLDP) session may be established between a packet switching device and the application node providing these services to communicate the advertisement. Packets are encapsulated and sent from a service node (e.g., packet switching device) with the corresponding label to have one or more advertised services applied to the packet by an application node (e.g., a packet switching device and/or computing platform such as a Cisco ASR 1000).

Abstract: An application node advertises service(s), using a routing protocol, that it offers to other network nodes. For example, the routing protocol used to advertise service(s) in a Service Provider Network is typically an link-state, Interior Gateway Protocol (IGP), such as, but not limited to, Intermediate System to Intermediate System (IS-IS) or Open Shortest Path First (OSPF). Packets are encapsulated and sent from a service node (e.g., packet switching device) using one or more advertised services applied to a packet by an application node (e.g., a packet switching device and/or computing platform such as a Cisco ASR 1000).

Abstract: Packets are encapsulated and sent from a service node (e.g., packet switching device) using one or more services applied to a packet by an application node (e.g., a packet switching device and/or computing platform such as a Cisco ASR 1000) to generate a result, which is used by the service node to process packets of a flow of packets to which the packet belonged. An example of a service applied to a packet is a classification service, such as, but not limited to, using deep packet inspection on the packet to identify a classification result. The service node can, for example, use this classification result to process other packets in a same packet flow, such that all packets of a flow do not need to be, nor typically are, sent to an application node for processing.

Abstract: Packets are encapsulated and sent from a service node to one or more application nodes for applying one or more Layer-4 to Layer-7 services to the packets. Before which for a packet, the service node performs a lookup operation based on a destination address of the packet in a routing data structure derived from a exterior network protocol, such as, but not limited to Border Gateway Protocol (BGP). This lookup operation results in the identification of a next hop packet switching device to which the packet would be sent from the service node. The service node includes this identification of the next hop address in the request packet sent to the application node(s). After the service(s) are applied to the packet, an application node will send the services-applied packet to this next hop address. In this manner, application nodes do not need to run an exterior network protocol. Although, they typically will run an Interior Gateway Protocol for identifying how to forward packets to the next hop address.

Abstract: Packets are encapsulated and sent from a service node to an application node for applying one or more Layer-4 to Layer-7 services to the packets, with service-applied packets being returned to the service node. An identification of a virtual private network (VPN) may be carried within a request packet, encapsulating a particular packet, sent by a service node to an application node for applying a service to the particular packet; with the corresponding response packet sent to the service node including an identification of the VPN for use by the service node node in forwarding the services-applied packet. Additionally, parameters may be included in a request packet to identify a particular service of a general service to be applied to a particular packet encapsulated in the request packet.

Abstract: An ion-cut machine and method for slicing silicon ingots into thin wafers for solar cell manufacturing is set forth, amongst other embodiments and applications. One embodiment comprises two carousels: first carousel (100) adapted for circulating workpieces (55) under ion beam (10) inside target vacuum chamber (30) while second carousel (80) is adapted for carrying implanted workpieces through a sequence of process stations that may include annealing (60), cleaving (70), slice output (42), ingot replacement (52), handle bonding, cleaning, etching and others. Workpieces are essentially swapped between carousels. In one embodiment, the swapping system comprises a high throughput load lock (200) disposed in the wall of the vacuum chamber (30), a vacuum swapper (110) swapping workpieces between first carousel (100) and load lock (200), and an atmospheric swapper (90) swapping workpieces between load lock (200) and second carousel (80).

Abstract: Processes and machines for producing large area sheets or films of crystalline, polycrystalline, or amorphous material are set forth; the production of such sheets being valuable for the manufacturing of solar photovoltaic cells, flat panel displays and the like. The surface of rotating cylindrical workpiece (10) is implanted with ion beam (30), whereby a layer of weakened material is formed below the surface. Sheet (20) is detached and peeled off, producing arbitrarily large, monolithic sheets. The sheet may be supported on a temporary or permanent handle (50) such as a glass sheet or a polymer film. Pinch roller (60) may assist in the lamination of handle (50) to sheet (20) before or after the point of separation of sheet (20) from workpiece (10). The implantation, annealing and separation processes are adapted to encourage the material to separate along the implanted layer rather than a particular crystal plane.

Abstract: An ion-cut machine and method for slicing silicon ingots into thin wafers for solar cell manufacturing is set forth, amongst other embodiments and applications. One embodiment comprises two carousels: first carousel (100) adapted for circulating workpieces (55) under ion beam (10) inside target vacuum chamber (30) while second carousel (80) is adapted for carrying implanted workpieces through a sequence of process stations that may include annealing (60), cleaving (70), slice output (42), ingot replacement (52), handle bonding, cleaning, etching and others. Workpieces are essentially swapped between carousels. In one embodiment, the swapping system comprises a high throughput load lock (200) disposed in the wall of the vacuum chamber (30), a vacuum swapper (110) swapping workpieces between first carousel (100) and load lock (200), and an atmospheric swapper (90) swapping workpieces between load lock (200) and second carousel (80).

Abstract: Aspects of the invention include a method and apparatus for processing a substrate using a multi-chamber processing system (e.g., a cluster tool) adapted to process substrates in one or more batch and/or single substrate processing chambers to increase the system throughput. In one embodiment, a system is configured to perform a substrate processing sequence that contains batch processing chambers only, or batch and single substrate processing chambers, to optimize throughput and minimize processing defects due to exposure to a contaminating environment. In one embodiment, a batch processing chamber is used to increase the system throughput by performing a process recipe step that is disproportionately long compared to other process recipe steps in the substrate processing sequence that are performed on the cluster tool. In another embodiment, two or more batch chambers are used to process multiple substrates using one or more of the disproportionately long processing steps in a processing sequence.

Abstract: An apparatus and method to provide a portable networking interface for distributed switching systems. Two Application Program Interfaces (APIs) are defined for communication to a Forwarding Database Distribution Library (FDDL). The FDDL sits between network client applications and the switch device driver in order to provide a uniform interface to the switch device driver. Towers may be added to the FDDL to provide additional functionality specific to certain client applications.

Abstract: In a multilateration apparatus a correlator is provided with a time of arrival correlation window which is set to cater for the path lengths that may be experienced before a signal from an object to be located is received by receivers in the system. This may be on the basis of the largest possible path length in the system or on a receiver by receiver basis.

Abstract: Processes and machines for producing large area sheets or films of crystalline, polycrystalline, or amorphous material are set forth; the production of such sheets being valuable for the manufacturing of solar photovoltaic cells, flat panel displays and the like. In one embodiment the surface of a rotating cylindrical workpiece (10) is implanted with an ion beam (30), whereby a layer of weakened material if formed below the surface, whereby sheet (20) may be detached and peeled off in an unrolling fashion, producing arbitrarily large, monolithic sheets. Optional annealing heater (40) may be used to improve the quality of the film. The sheet may also be optionally supported on a temporary or permanent handle (50) which may be rigid sheet such as glass, or a flexible sheet, such as a polymer film. Representative pinch roller (60) may assist in the lamination of handle (50) to sheet (20) before or after the point of separation of sheet (20) from workpiece (10).

Abstract: An apparatus and method to provide a portable networking interface for distributed switching systems. Two Application Program Interfaces (APIs) are defined for communication to a Forwarding Database Distribution Library (FDDL). The FDDL sits between network client applications and the switch device driver in order to provide a uniform interface to the switch device driver. Towers may be added to the FDDL to provide additional functionality specific to certain client applications.