Abstract: Technology for a user equipment (UE), operable to generate an enhanced buffer status report (eBSR) is disclosed. The UE can identify packets for uplink transmission. The UE can filter the packets for uplink transmission, to identify a number of small packets pending for transmission and a number of larger packets, relative to the small packets, that are pending for transmission in the uplink transmission. The UE can encode the eBSR for transmission to a next generation node B (gNB), wherein the eBSR includes information identifying the number of small packets pending for transmission. The UE can have a memory interface configured to send to a memory the number of small packets pending for transmission.

Abstract: Technology for a user equipment (UE), operable to generate an enhanced buffer status report (eBSR) is disclosed. The UE can identify packets for uplink transmission. The UE can filter the packets for uplink transmission, to identify a number of small packets pending for transmission and a number of larger packets, relative to the small packets, that are pending for transmission in the uplink transmission. The UE can encode the eBSR for transmission to a next generation node B (gNB), wherein the eBSR includes information identifying the number of small packets pending for transmission. The UE can have a memory interface configured to send to a memory the number of small packets pending for transmission.

Abstract: Technology for a user equipment (UE), operable to generate an enhanced buffer status report (eBSR) is disclosed. The UE can identify packets for uplink transmission. The UE can filter the packets for uplink transmission, to identify a number of small packets pending for transmission and a number of larger packets, relative to the small packets, that are pending for transmission in the uplink transmission. The UE can encode the eBSR for transmission to a next generation node B (gNB), wherein the eBSR includes information identifying the number of small packets pending for transmission. The UE can have a memory interface configured to send to a memory the number of small packets pending for transmission.

Abstract: Technology for a user equipment (UE), operable to generate an enhanced buffer status report (eBSR) is disclosed. The UE can identify packets for uplink transmission. The UE can filter the packets for uplink transmission, to identify a number of small packets pending for transmission and a number of larger packets, relative to the small packets, that are pending for transmission in the uplink transmission. The UE can encode the eBSR for transmission to a next generation node B (gNB), wherein the eBSR includes information identifying the number of small packets pending for transmission. The UE can have a memory interface configured to send to a memory the number of small packets pending for transmission.

Abstract: Technology for a user equipment (UE), operable to generate an enhanced buffer status report (eBSR) is disclosed. The UE can identify packets for uplink transmission. The UE can filter the packets for uplink transmission, to identify a number of small packets pending for transmission and a number of larger packets, relative to the small packets, that are pending for transmission in the uplink transmission. The UE can encode the eBSR for transmission to a next generation node B (gNB), wherein the eBSR includes information identifying the numbePr of small packets pending for transmission. The UE can have a memory interface configured to send to a memory the number of small packets pending for transmission.

Abstract: Technology for a user equipment (UE), operable to generate an enhanced buffer status report (eBSR) is disclosed. The UE can identify packets for uplink transmission. The UE can filter the packets for uplink transmission, to identify a number of small packets pending for transmission and a number of larger packets, relative to the small packets, that are pending for transmission in the uplink transmission. The UE can encode the eBSR for transmission to a next generation node B (gNB), wherein the eBSR includes information identifying the number of small packets pending for transmission. The UE can have a memory interface configured to send to a memory the number of small packets pending for transmission.

Abstract: Technology for a user equipment (UE), operable to generate an enhanced buffer status report (eBSR) is disclosed. The UE can identify packets for uplink transmission. The UE can filter the packets for transmission, to identify a number of small packets pending for transmission and a number of larger packets, relative to the small packets, that are pending for transmission in the uplink transmission. The UE can encode the eBSR for transmission to a next generation node B (gNB), wherein the eBSR includes information identifying the number of small packets pending for transmission. The UE can have a memory interface configured to send to a memory the number of small packets pending for transmission.

Abstract: Technologies for managing Transmission Control Protocol/Internet Protocol (TCP/IP) packet delivery include a network interface controller (NIC) of a computing device. The NIC is configured to retrieve identifying data from received IP packets and identify a TCP data stream associated with each received IP packet based on the retrieved identifying data. Additionally, the NIC is configured to determine a service data flow queue associated with the TCP data stream, determine whether a plurality of IP packets presently enqueued in the determined service data flow queue are out of order, and enqueue the received IP packet at a tail of the identified service data flow queue if the NIC determines that the plurality of IP packets presently enqueued in the determined service data flow queue are out of order. Other embodiments are described herein.

Abstract: Technology for a user equipment (UE), operable to generate an enhanced buffer status report (eBSR) is disclosed. The UE can identify packets for uplink transmission. The UE can filter the packets for transmission, to identify a number of small packets pending for transmission and a number of larger packets, relative to the small packets, that are pending for transmission in the uplink transmission. The UE can encode the eBSR for transmission to a next generation node B (gNB), wherein the eBSR includes information identifying the number of small packets pending for transmission. The UE can have a memory interface configured to send to a memory the number of small packets pending for transmission.

Abstract: Technologies for managing Transmission Control Protocol/Internet Protocol (TCP/IP) packet delivery include a network interface controller (NIC) of a computing device. The NIC is configured to retrieve identifying data from received IP packets and identify a TCP data stream associated with each received IP packet based on the retrieved identifying data. Additionally, the NIC is configured to determine a service data flow queue associated with the TCP data stream, determine whether a plurality of IP packets presently enqueued in the determined service data flow queue are out of order, and enqueue the received IP packet at a tail of the identified service data flow queue if the NIC determines that the plurality of IP packets presently enqueued in the determined service data flow queue are out of order. Other embodiments are described herein.

Abstract: A processor includes cores and a context management circuit. The circuit includes logic to determine an execution context group (ECG) to be migrated between cores. The ECG is to include application threads. The circuit also includes logic to halt all execution contexts in the ECG before migrating the ECG, reassign processor affinity to designate the target core, and restart execution of the ECG.

Abstract: A technique for providing network access to an external device is described. A modem device for realizing this technique comprises a first mobile platform module adapted to support network access via a first radio access technology (RAT) and comprising a first data interface towards the external device, as well as a second mobile platform module adapted to support network access via at least one second RAT and comprising a second data interface towards the external device.

Abstract: A technique for selectively providing network access to various components is described. A modem device for realizing this technique comprises a first platform module adapted to support network access via a Radio Access Technology (RAT). The first platform module comprises a first data interface. The apparatus further comprises a second data interface adapted to be coupled to a second platform and a third data interface adapted to be coupled to an external device. A switching mechanism selectively couples the first data interface to the second data interface to provide network access, via the second platform module, to an application residing on the apparatus. The switching mechanism may further couple the first data interface to the third data interface to provide network access to the external device.

Abstract: An apparatus such as a mobile telephone or a network card is described. In one implementation, the apparatus comprises a first functional module, a second functional module and a hub circuit. The hub circuit includes a first downstream port connectable to the first functional module, a second downstream port connectable to the second functional module and an upstream port adapted to be coupled to an external device. The hub circuit is configured to couple the upstream port with at least one of the first and second downstream port. Moreover, the hub circuit comprises a switching mechanism adapted to selectively couple the first downstream port internally within the hub circuit with the second downstream port to enable a data transfer between the first functional module and the second functional module.

Abstract: A technique for providing network access to an external device is described. A modem device for realizing this technique comprises a first mobile platform module adapted to support network access via a first radio access technology (RAT) and comprising a first data interface towards the external device, as well as a second mobile platform module adapted to support network access via at least one second RAT and comprising a second data interface towards the external device.

Abstract: A technique for selectively providing network access to various components is described. A modem device for realizing this technique comprises a first platform module adapted to support network access via a Radio Access Technology (RAT). The first platform module comprises a first data interface. The apparatus further comprises a second data interface adapted to be coupled to a second platform and a third data interface adapted to be coupled to an external device. A switching mechanism selectively couples the first data interface to the second data interface to provide network access, via the second platform module, to an application residing on the apparatus. The switching mechanism may further couple the first data interface to the third data interface to provide network access to the external device.

Abstract: An apparatus such as a mobile telephone or a network card is described. In one implementation, the apparatus comprises a first functional module, a second functional module and a hub circuit. The hub circuit includes a first downstream port connectable to the first functional module, a second downstream port connectable to the second functional module and an upstream port adapted to be coupled to an external device. The hub circuit is configured to couple the upstream port with at least one of the first and second downstream port. Moreover, the hub circuit comprises a switching mechanism adapted to selectively couple the first downstream port internally within the hub circuit with the second downstream port to enable a data transfer between the first functional module and the second functional module.