Abstract: A method for verifying the connectivity of software applications hosted on networked computers. The connectivity of hosted function applications to be loaded into networked computers is verified and validated using quasi-hosted function applications that simulate the communications functions (i.e., connectivity) of those hosted function applications. The quasi-hosted function applications are run on the same hardware that the real hosted function applications will be run on. Furthermore, the connectivity of a real hosted function application loaded into one computer can be verified and validated by simulating communications of that real hosted function application with a multiplicity of quasi-hosted function applications running on the networked computers.

Abstract: A method for verifying the connectivity of software applications hosted on networked computers. The connectivity of hosted function applications to be loaded into networked computers is verified and validated using quasi-hosted function applications that simulate the communications functions (i.e., connectivity) of those hosted function applications. The quasi-hosted function applications are run on the same hardware that the real hosted function applications will be run on. Furthermore, the connectivity of a real hosted function application loaded into one computer can be verified and validated by simulating communications of that real hosted function application with a multiplicity of quasi-hosted function applications running on the networked computers.

Abstract: A method for adding latency and jitter to a number of selected packets transmitted between end systems within a network of end systems is described. The method includes receiving a packet identifier, the packet identifier indicating a selected packet to which latency and jitter is to be added, receiving a selected latency and jitter for the selected packet, receiving a packet, determining if the received packet is the selected packet, and forwarding the received packet to its destination if the received packet is not the selected packet. If the received packet is the selected packet, the method continues by reading a real time clock, computing a transmit time for the received packet based on the selected latency and jitter for the selected packet, and forwarding the received packet to its destination when the real time clock reaches the computed transmit time.

Abstract: A method for adding latency and jitter to a number of selected packets transmitted between end systems within a network of end systems is described. The method includes receiving a packet identifier, the packet identifier indicating a selected packet to which latency and jitter is to be added, receiving a selected latency and jitter for the selected packet, receiving a packet, determining if the received packet is the selected packet, and forwarding the received packet to its destination if the received packet is not the selected packet. If the received packet is the selected packet, the method continues by reading a real time clock, computing a transmit time for the received packet based on the selected latency and jitter for the selected packet, and forwarding the received packet to its destination when the real time clock reaches the computed transmit time.

Abstract: A method for verifying the connectivity of software applications hosted on networked computers. The connectivity of hosted function applications to be loaded into networked computers is verified and validated using quasi-hosted function applications that simulate the communications functions (i.e., connectivity) of those hosted function applications. The quasi-hosted function applications are run on the same hardware that the real hosted function applications will be run on. Furthermore, the connectivity of a real hosted function application loaded into one computer can be verified and validated by simulating communications of that real hosted function application with a multiplicity of quasi-hosted function applications running on the networked computers.

Abstract: A speaker spider arrangement includes a speaker spider and an integral lead wire arrangement which includes at least a pair of lead wires and an attachment member for attaching attachment portions of the lead wires on one side surface of the speaker spider so as to ensure the attachment portions of the lead wires being spacedly extended between an inner rim and an outer rim of the speaker spider and to integrate with the speaker spider to move simultaneously. Thereby, the integral lead wire arrangement provides the speaker spider with an enhanced durability, higher sound quality and improved safety, so as to enable a speaker to be manufactured by less steps in a lower cost while achieving a higher quality in comparison with the conventional speaker structure.

Abstract: A speaker spider arrangement includes a speaker spider and an integral lead wire arrangement which includes at least a pair of lead wires and an attachment member for attaching attachment portions of the lead wires on one side surface of the speaker spider so as to ensure the attachment portions of the lead wires being spacedly extended between an inner rim and an outer rim of the speaker spider and to integrate with the speaker spider to move simultaneously. Thereby, the integral lead wire arrangement provides the speaker spider with an enhanced durability, higher sound quality and improved safety, so as to enable a speaker to be manufactured by less steps in a lower cost while achieving a higher quality in comparison with the conventional speaker structure.