Abstract:
PROBLEM TO BE SOLVED: To solve a problem that a mechanism for a single resource allocation and a mechanism capable of allocating resources based on demands of each of user equipment are required in the case of a frame or a transmission time interval (TTI) constituted of a chain of sub-frames. SOLUTION: The present invention relates to a method in a wireless communication terminal (103) including receiving a plurality of sub-frames having time-frequency resource elements and resource allocation fields associated with a corresponding sub-frame, wherein the resource allocation fields indicate a resource assignment. In another embodiment, the terminal receives a radio frame comprising a plurality of sub-frames and a frequency diverse allocation field indicating frequency diverse resource allocations in multiple sub-frames of the radio frame. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
A METHOD FOR COMMUNICATING CONTROL CHANNEL INFORMATION IN A WIRELESS COMMUNICATION SYSTEM, INCLUDING TRANSMITTING A SUPER-FRAME HAVING A TIME-FREQUENCY RESOURCE REGION CONTAINING AN ALLOCATION CONTROL CHANNEL AND MULTIPLE PILOT ELEMENTS, AT LEAST SOME OF WHICH ARE ASSOCIATED WITH THE ALLOCATION CONTROL CHANNEL, AND INDICATING, IN A CONFIGURATION INFORMATION CONTROL CHANNEL OF THE SUPER-FRAME, A CHARACTERISTIC OF THE PILOTS ELEMENTS ASSOCIATED WITH THE ALLOCATION CONTROL CHANNEL.
Abstract:
A method in a wireless communication device may include receiving a plurality of sub-frames, each sub-frame having time-frequency resource elements, at least one of the sub-frames having a control channel. In some implementations, the plurality of sub-frames forms a continuum of concatenated sub-frames. Each of the plurality of resource allocation fields of the control channel may indicate a resource assignment to the wireless communication device based on a channel quality report, as well as resource assignments in sub-frames of the continuum of concatenated sub-frames. At least one sub-frame of the continuum of concatenated sub-frames may include information indicating that at least some of the resource assignments are frequency diverse.
Abstract:
A wireless communication infrastructure entity configured to allocate radio resources, in a radio frame, to a wireless terminal compliant with a first protocol and to a wireless terminal compliant with a second protocol. The radio frame including a first protocol resource region and a second protocol resource region. The radio frame including a first protocol allocation control message that allocates resources within the first protocol resource region to the wireless terminal compliant with the first protocol, and a second protocol allocation control message that allocates resources within the second protocol resource region to the wireless terminal compliant with the second protocol.
Abstract:
Un método para comunicar información de canal de control en un sistema de comunicación inalámbrica, que incluye transmitir una supertrama que tiene una región de recursos de tiempo-frecuencia que contiene un canal de control de asignación y múltiples elementos de pilotos, por lo menos algunos de, los cuales se asocian con el canal de control de asignación, e indican, en un canal de control de configuración de la supertrama, una característica de los elementos de pilotos asociados con el canal de control de asignación.
Abstract:
A method in a wireless communication terminal (103) including receiving a plurality of sub-frames having time-frequency resource elements and resource allocation fields associated with a corresponding sub-frame, wherein the resource allocation fields indicate a resource assignment. In another embodiment, terminal receives a radio frame comprising a plurality of sub-frames and a frequency diverse allocation field indicating frequency diverse resource allocations in multiple sub-frames of the radio frame.
Abstract:
A method performed by a wireless communication infrastructure entity, comprises allocating radio resources in a radio frame to a wireless terminals compliant with first and second protocols, characterized in that the radio frame includes a first and second protocol resource regions, a first protocol allocation control message allocating resources within the first protocol resource region to the wireless terminal compliant with the first protocol, and a second protocol allocation control message allocating resources within the second protocol resource region to the wireless terminal compliant with the second protocol.
Abstract:
Una entidad de infraestructura de comunicaciones inalámbricas configurada para asignar recursos de radio, en una trama de radio, a una terminal inalámbrica compatible con un primer protocolo y a una terminal inalámbrica compatible con un segundo protocolo. La trama de radio incluye una primera región de recursos de protocolo y una segunda región de recursos de protocolo. La trama de radio incluye un primer mensaje de control de asignación de protocolo que asigna recursos dentro de la primera región de recursos de protocolo a la terminal inalámbrica compatible con el primer protocolo, y un segundo mensaje de control de asignación de protocolo que asigna recursos dentro de la segunda región de recursos de protocolo a la terminal inalámbrica compatible con el segundo protocolo.
Abstract:
A wireless communication infrastructure entity configured to allocate radio resources, in a radio frame, to a wireless terminal compliant with a first protocol and to a wireless terminal compliant with a second protocol. The radio frame including a first protocol resource region and a second protocol resource region. The radio frame including a first protocol allocation control message that allocates resources within the first protocol resource region to the wireless terminal compliant with the first protocol, and a second protocol allocation control message that allocates resources within the second protocol resource region to the wireless terminal compliant with the second protocol.
Abstract:
Received data packets are channel-encoded prior to fragmentation so that large data packets, which would not otherwise fit within the available frame resources, are transmitted by fragmenting the channel-encoded physical layer packet. Hybrid Automatic Repeat Request (H-ARQ) is then utilized to ensure reliability.