Abstract: A method of remote desktop protocol (RDP) operating system (OS) session remote-control includes providing security credentials to a client device. The method includes requesting OS sessions currently operating on the client device. The method includes receiving from an agent on the client device, an indication of OS sessions currently operating on the client device. The OS sessions include one or more RDP OS sessions and a console OS session. The method includes selecting a first RDP OS session of the one or more RDP OS sessions. Responsive to the selection of the first RDP OS session, the method includes communicating with an agent an instruction to initiate a remote-control interface with the client device. The remote-control interface is configured such that the agent transmits visual data of the RDP OS session to the service device and relays commands from the service device.

Abstract: In one embodiment, a subnet-scoped multicast packet is received on an interface of a forwarding device that is connected to a host device of a subnet of a forwarding domain. The received subnet-scoped multicast packet is transmitted from one or more other interfaces of the forwarding device that are connected to one or more other host devices of the subnet. The received subnet-scoped multicast packet is also encapsulated with an additional header. The encapsulated subnet-scoped multicast packet is forwarded from the forwarding device to an intermediate router which routes the encapsulated subnet-scoped multicast packet to one or more other forwarding devices configured to decapsulate the encapsulated subnet-scoped multicast packet and transmit the decapsulated subnet-scoped multicast packet to one or more connected host devices of an additional portion of the subnet.

Abstract: The present invention provides an interchangeable, custom-designed guitar faceplate and guitar body for an electric guitar which allows one to quickly and easily change the appearance, the sounds, the tones and the resonance of the electric guitar. The interchangeable, custom-designed faceplate houses all components and electronics needed for an electric guitar solely on the faceplate itself, so that the tone, sound and resonance characteristics of the guitar can be changed simply by substituting alternate interchangeable faceplates. Further, after assembly of the interchangeable faceplate with the guitar body, the unique configuration of the components and electronic wiring on the faceplate, in combination with the guitar body configuration, produce superior and enhanced sounds, tones and resonance when played by a guitar player.

Abstract: The present invention provides an interchangeable, custom-designed guitar faceplate and guitar body for an electric guitar which allows one to quickly and easily change the appearance, the sounds, the tones and the resonance of the electric guitar. The interchangeable, custom-designed faceplate houses all components and electronics needed for an electric guitar solely on the faceplate itself, so that the tone, sound and resonance characteristics of the guitar can be changed simply by substituting alternate interchangeable faceplates. Further, after assembly of the interchangeable faceplate with the guitar body, the unique configuration of the components and electronic wiring on the faceplate, in combination with the guitar body configuration, produce superior and enhanced sounds, tones and resonance when played by a guitar player.

Abstract: In one embodiment, a subnet-scoped multicast packet is received on an interface of a forwarding device that is connected to a host device of a subnet of a forwarding domain. The received subnet-scoped multicast packet is transmitted from one or more other interfaces of the forwarding device that are connected to one or more other host devices of the subnet. The received subnet-scoped multicast packet is also encapsulated with an additional header. The encapsulated subnet-scoped multicast packet is forwarded from the forwarding device to an intermediate router which routes the encapsulated subnet-scoped multicast packet to one or more other forwarding devices configured to decapsulate the encapsulated subnet-scoped multicast packet and transmit the decapsulated subnet-scoped multicast packet to one or more connected host devices of an additional portion of the subnet.

Abstract: A mobile payment application loaded upon a user device allows a user to perform mobile payment transactions for the purchase of a product and/or service via an unattended terminal over a network. The networked unattended terminal is operationally coupled with a mechanism, such as a vending machine, for delivering the purchased product and/or service to the user.

Abstract: In one embodiment, a subnet-scoped multicast packet is received on an interface of a forwarding device that is connected to a host device of a subnet of a forwarding domain. The received subnet-scoped multicast packet is transmitted from one or more other interfaces of the forwarding device that are connected to one or more other host devices of the subnet. The received subnet-scoped multicast packet is also encapsulated with an additional header. The encapsulated subnet-scoped multicast packet is forwarded from the forwarding device to an intermediate router which routes the encapsulated subnet-scoped multicast packet to one or more other forwarding devices configured to decapsulate the encapsulated subnet-scoped multicast packet and transmit the decapsulated subnet-scoped multicast packet to one or more connected host devices of an additional portion of the subnet.

Abstract: Apparatus and methods are disclosed for obtaining an image of the impedance properties of an object by inferring a measure of straight-line path impedance along a plurality of paths from a plurality of current amplitude and phase measurements made between combinations of electrodes placed at selected points, and/or from measurements of the intensity of the electromagnetic signal emitted when an alternating current is made to resonate along the straight line path.

Abstract: In one embodiment, a subnet-scoped multicast packet is received on an interface of a forwarding device that is connected to a host device of a subnet of a forwarding domain. The received subnet-scoped multicast packet is transmitted from one or more other interfaces of the forwarding device that are connected to one or more other host devices of the subnet. The received subnet-scoped multicast packet is also encapsulated with an additional header. The encapsulated subnet-scoped multicast packet is forwarded from the forwarding device to an intermediate router which routes the encapsulated subnet-scoped multicast packet to one or more other forwarding devices configured to decapsulate the encapsulated subnet-scoped multicast packet and transmit the decapsulated subnet-scoped multicast packet to one or more connected host devices of an additional portion of the subnet.

Abstract: In one embodiment, receiving a data packet in a data forwarding domain, encapsulating a header to the received data packet, and routing the encapsulated data packet in the data forwarding domain over a distribution tree are provided.

Abstract: Apparatus and methods are disclosed for obtaining an image of the impedance properties of an object by inferring a measure of straight-line path impedance along a plurality of paths from a plurality of current amplitude and phase measurements made between combinations of electrodes placed at selected points, and/or from measurements of the intensity of the electromagnetic signal emitted when an alternating current is made to resonate along the straight line path.

Abstract: In one embodiment, detecting data traffic from a host device in a data forwarding domain, injecting a host route associated with the detected data traffic, and updating a forwarding table associated with the host route are provided.

Abstract: The network switches and computer readable mediums of the present invention allocate port assignments based on load, that is, the amount of data being forwarded through each port in the group. The load balancing of the present invention is preferably dynamic, that is, packets from a given stream may be forwarded on different ports depending upon each port's current utilization. When a new port is selected to transmit a particular packet stream, it is done so that the packets cannot be forwarded out of order. This is preferably accomplished by ensuring passage of a period of time sufficient to allow all packets of a given stream to be forwarded by a port before a different port is allocated to transmit packets of the same stream. The invention may be used in a variety of different network environments and speeds, including 10Base-T, 100Base-T, and Gigabit Ethernet, and other network environments.

Abstract: In one embodiment, receiving a data packet in a data forwarding domain, encapsulating a header to the received data packet, and routing the encapsulated data packet in the data forwarding domain over a distribution tree are provided.

Abstract: In one embodiment, detecting data traffic from a host device in a data forwarding domain, injecting a host route associated with the detected data traffic, and updating a forwarding table associated with the host route are provided.

Abstract: A cross stack port aggregation method and system associates a destination index with a received packet when it is provided to devices in the stack. Each device utilizes the destination index to access a descriptor identifying ports in the device included in the port aggregation group. An index generated from packet address data is used to select a bit in a group mask unique to each port.

Abstract: The network switches and computer readable mediums of the present invention allocate port assignments based on load, that is, the amount of data being forwarded through each port in the group. The load balancing of the present invention is preferably dynamic, that is, packets from a given stream may be forwarded on different ports depending upon each port's current utilization. When a new port is selected to transmit a particular packet stream, it is done so that the packets cannot be forwarded out of order. This is preferably accomplished by ensuring passage of a period of time sufficient to allow all packets of a given stream to be forwarded by a port before a different port is allocated to transmit packets of the same stream. The invention may be used in a variety of different network environments and speeds, including 10Base-T, 100Base-T, and Gigabit Ethernet, and other network environments.

Abstract: An apparatus and method are described for performing resistance exercise, allowing the user to select from multiple, biomechanically appropriate resistance exercise movements and thereby control a (prior art) computer game or video game, providing sound strength-building exercise in an entertaining manner. The apparatus has multiple actuators from which the user may select, each coupled to an appropriate resistance, and each having a range of motion corresponding to the natural exercise range of a large muscle or muscle group. The actuator movements are detected and used to control the game.

Abstract: Provided are methods, apparatuses and systems for balancing the load of data transmissions through a port aggregation. The methods and apparatuses of the present invention allocate port assignments based on load, that is, the amount of data being forwarded through each port in the group. The load balancing of the present invention is preferably dynamic, that is, packets from a given stream may be forwarded on different ports depending upon each port's current utilization. When a new port is selected to transmit a particular packet stream, it is done so that the packets cannot be forwarded out of order. This is preferably accomplished by ensuring passage of a period of time sufficient to allow all packets of a given stream to be forwarded by a port before a different port is allocated to transmit packets of the same stream. The invention may be used in a variety of different network environments and speeds, including 10Base-T, 100Base-T, and Gigabit Ethernet, and other network environments.

Abstract: Data is stored in a memory in a manner which eliminates dead time which occurs when the number of words in a page which are read-out are insufficient to provide enough time for simultaneously opening the next page. If the length of a frame being stored in memory is not an exact integral multiple of words in a page, a penultimate (or earlier) page is written with fewer words than the page can hold. This allows additional words to be placed into the last page, sufficient to provide every page used for storing a frame at least a number of words equal to the number of clock cycles needed for opening a next page.