Abstract: A system for providing improved efficiency in use of a mobile application can comprise a mobile application and a macro presenter on a mobile device, and a target platform the mobile application provides access to. The mobile application can comprise a front-end client and a user interface. The macro presenter can overlay a control panel over the user interface allowing the selection of a macro for playback. The target platform can comprise a server, a macro recorder capable of recording user interactions to create programmable macros, and a macro player capable of executing a macro. An exemplary embodiment of the target platform can further comprise a macro recommender capable of monitoring user interactions, identifying repetitive tasks, and suggesting programmable macros. The macro player can execute a programmable macro without user interaction or can pause to receive user input. Macros can be retrieved from and stored in a macro repository.

Abstract: A system and method for transmitting and presenting streaming digital information signals that optimizes performance in the context of goodput, throughput, delay, receiver buffer requirements and tolerance to loss and jitter. The method provides ordering packets of information based on a priority associated with each of the packets; managing the flow of the packets into and out of a buffer; adjusting the rate at which the packets are provided to a communication medium; and transmitting and retransmitting the packets as needed.

Abstract: Systems and methods for reconfiguring a transport-layer protocol are disclosed. The transport-layer protocol is implemented by a plurality of transport-layer mechanisms. Each transport-layer mechanism resides in a dynamically loadable module and implements a specific area of transport-layer functionality. One method comprises: performing an initial load of a first plurality of transport-layer mechanisms into memory; unloading one of the first plurality of transport-layer mechanisms; and loading at least one transport-layer mechanism different than the first plurality. One system comprises a processor coupled to a local interface; a memory coupled to the local interface; and protocol logic stored in the memory and executable by the processor.

Abstract: The present invention is a system and method for mobilization of enterprise-based applications for mobile devices. In an aspect, the system and method derives an enterprise-based application for use on a mobile device through transformation of the user interface from an existing enterprise-based application while maintaining the functionality of the enterprise-based application. In an aspect, a mobile application derivation system transforms the enterprise-based application through implementing mechanisms that can carry over client-side logic while applying transformations. In another aspect, the mobile application derivation systems can deliver mobile friendly user interfaces (UI) and modified workflows. In another aspect, the mobile application derivation system provides fast transformations while dealing with application dynamics (i.e., changes and updates with the enterprise-based application).

Abstract: Systems and methods of improving transport protocol performance are disclosed. One exemplary method includes: in a first state, non-linearly increasing a congestion window; in response to the congestion window exceeding a threshold value while in the first state, transitioning to a second state; and in the second state, linearly increasing the congestion window.

Abstract: Provided are methods and systems for creating an optimal set of reflector peers, comprising detecting a plurality of reflector peers, retrieving a plurality of static metrics from each of the plurality of reflector peers, ranking the plurality of reflector peers based on the plurality of static metrics, selecting a top predetermined number of peers from each static metric, establishing the selected reflector peers as the optimal set of reflector peers, determining dynamic metric for each of the plurality of reflector peers, and adjusting the optimal set of reflector peers based on the dynamic metric.

Abstract: Devices, systems, and methods of improving transport protocol performance in a multi-path environment are disclosed. One network device comprises a transport-layer proxy; and a multi-path traffic distributor coupled to the transport-layer proxy. The transport-layer proxy is configured to receive packets, each associated with a transport-layer connection, from a transport-layer endpoint. The proxy is further configured to deliver at least a portion of the received packets to the multi-path traffic distributor. The multi-path traffic distributor is configured to: assign each of the delivered packets to one of a plurality of data flows, and to transmit each of the delivered packets on an outbound path associated with the assigned data flow.

Abstract: Devices, systems, and methods of improving protocol performance are disclosed. One method includes transmitting a block of frames to another communication device, and upon completion of the transmitting, requesting an acknowledgement of the transmitted block from the another communication device. The method further includes receiving the acknowledgement and adjusting the number of frames in the block based on information from the received acknowledgement.

Abstract: Provided are methods and systems for multi-caching. The methods and systems provided can enhance network content delivery performance in terms of reduced response time and increased throughput, and can reduce communication overhead by decreasing the amount of data that have to be transmitted over the communication paths.

Abstract: A system and method for transmitting and presenting streaming digital information signals that optimizes performance in the context of goodput, throughput, delay, receiver buffer requirements and tolerance to loss and jitter. The method provides ordering packets of information based on a priority associated with each of the packets; managing the flow of the packets into and out of a buffer; adjusting the rate at which the packets are provided to a communication medium; and transmitting and retransmitting the packets as needed.

Abstract: Certain embodiments of the invention may include systems, methods, and computer readable media for automatically converting a non-mobile computer platform application view to a mobile application view for use on a mobile device. The method can include transforming the non-mobile computer platform application view to the mobile application view based at least in part on differences between the-non mobile computer platform and the mobile device, wherein the differences comprise one or more of display capability, associated peripheral devices, bandwidth, or software libraries. The method can also include sending information associated with the transformed application view to the mobile device.

Abstract: Wireless communication collision coding devices, systems, and methods are provided. According to some embodiments, wireless communication systems can generally comprise a plurality of wireless access points and wireless clients. The wireless access points can be controlled by a network controller. The wireless access points can be configured to enable a plurality of wireless clients to wirelessly connect to the wireless access points. The wireless access points can be configured to encode data packets destined for the wireless clients with a collision coding scheme so that wireless data packets concurrently transmitted from at least two wireless access points colliding in air can be decoded at the wireless clients with the collision coding scheme so that data packets are not affected by collisions with another data packet. Other aspects, embodiments, and features, are also claimed and described.

Abstract: The present invention describes systems and methods for improved wireless interface integration. An exemplary embodiment of the present invention provides a wireless interface aggregation system having a computing device including a processor, a memory, a first wireless interface with a first observed throughput rate in a first network environment and second wireless interface with a second observed throughput rate in the first network environment. The aggregation control module is configured to control the transmission and wireless interface and the second wireless interface to provide an overall throughput rate for the computing device in the first network environment greater than sum of the first observed throughput rate and the second observed throughput rate.

Abstract: Provided are methods and systems for creating an optimal set of reflector peers, comprising detecting a plurality of reflector peers, retrieving a plurality of static metrics from each of the plurality of reflector peers, ranking the plurality of reflector peers based on the plurality of static metrics, selecting a top predetermined number of peers from each static metric, establishing the selected reflector peers as the optimal set of reflector peers, determining dynamic metric for each of the plurality of reflector peers, and adjusting the optimal set of reflector peers based on the dynamic metric.

Abstract: An embodiment of the present invention provides a system for increasing aggregate throughput in a wireless network array comprising a first node and a second node. The first node comprises a first plurality of wireless radios, a scheduling module, and an adaptive carrier sensing module. The second node can comprise a second plurality of wireless radios. The first node can be configured to simultaneously wirelessly transmit a first data packet from the first wireless radio in the first plurality of wireless radios to a first wireless radio in the second plurality of wireless radios at a first frequency and wirelessly transmit a second data packet from a second wireless radio in the first plurality of wireless radios to a second wireless radio in the second plurality of wireless radios at a second frequency, wherein the first frequency and second frequency are in a predetermined frequency band.

Abstract: Systems and methods of improving transport protocol performance are disclosed. One exemplary method includes: in a first state, non-linearly increasing a congestion window; in response to the congestion window exceeding a threshold value while in the first state, transitioning to a second state; and in the second state, linearly increasing the congestion window.

Abstract: Systems and methods of improving transport protocol performance are disclosed. One exemplary method includes: in a first state, non-linearly increasing a congestion window; in response to the congestion window exceeding a threshold value while in the first state, transitioning to a second state; and in the second state, linearly increasing the congestion window.

Abstract: Wireless communication collision coding devices, systems, and methods are provided. According to some embodiments, wireless communication systems can generally comprise a plurality of wireless access points and wireless clients. The wireless access points can be controlled by a network controller. The wireless access points can be configured to enable a plurality of wireless clients to wirelessly connect to the wireless access points. The wireless access points can be configured to encode data packets destined for the wireless clients with a collision coding scheme so that wireless data packets concurrently transmitted from at least two wireless access points colliding in air can be decoded at the wireless clients with the collision coding scheme so that data packets are not affected by collisions with another data packet. Other aspects, embodiments, and features, are also claimed and described.

Abstract: Systems and methods of network monitoring are disclosed. One exemplary method includes receiving a first packet, creating a filter instance if the first received packet matches a filter template, receiving a second packet, and storing the second received packet if the second received packet matches the created filter instance. The filter instance is based at least partially on the filter template. An exemplary system includes a network interface, a memory, and a processor. The memory stores program code which programs the network monitor device to receive a first packet, create a filter instance if the first received packet matches a filter template, receive a second packet, and store the second received packet if the second received packet matches the created filter instance. The filter instance is based at least partially on the filter template.

Abstract: A system and method for transmitting and presenting streaming digital information signals that optimizes performance in the context of goodput, throughput, delay, receiver buffer requirements and tolerance to loss and jitter. The method provides ordering packets of information based on a priority associated with each of the packets; managing the flow of the packets into and out of a buffer; adjusting the rate at which the packets are provided to a communication medium; and transmitting and retransmitting the packets as needed.