Abstract: A cellular telecommunications network architecture is described where certain UEs are configured to assist the network to improve coverage in regions of poor radio conditions. In certain embodiments, appropriate UEs are selected to act as a dynamic, out-of-band coverage extensions. Network performance can thereby be improved when serving users at the cell edge (or in other poor radio condition regions of a cell).

Abstract: There is provided a method of data over a radio interface in a radio communication network based on a protocol layers model, the model comprising an IP layer on which IP packets are handled, wherein before the transmission of a determined IP packet, the method comprises: determining whether the IP packet is compressible under a predetermined condition and. if the IP packet is compressible under the predetermined condition, performing a compression of the IP packet. There are also provided a user equipment (UE) and a node adapted to perform the steps of a method according to the invention.

Abstract: A cellular telecommunications network architecture is described where certain UEs are configured to assist the network to improve coverage in regions of poor radio conditions. In certain embodiments, appropriate UEs are selected to act as a dynamic, out-of-band coverage extensions. Network performance can thereby be improved when serving users at the cell edge (or in other poor radio condition regions of a cell).

Abstract: Coordination of the use of radio resource between a first Radio Access Network (RAN) and a second RAN is provided, each RAN being configured to communicate over the same predefined bandwidth range. A first priority associated with traffic to be carried over the first RAN and a second priority associated with traffic to be carried over the second RAN are determined. A first portion of the radio resource comprising one or more first bandwidth segments is assigned to the first RAN and a second portion of the radio resource comprising a plurality of second bandwidth segments is assigned to the second RAN, based on the first and second priorities. The first portion is indicated to a first RAN scheduler and/or the second portion is indicated to a second RAN scheduler. At least one first bandwidth segment is assigned between two of the second bandwidth segments.

Abstract: The invention relates to a cellular communication network serving mobile terminals or devices and how to optimize the switching between Dual Cell High-Speed Uplink Packet Access [DC-HSUPA] and Single Cell High-Speed Uplink Packet Access [SC-HSUPA] and vice versa. This invention makes the reconfiguration to dual cell or single cell HSUPA depending on the UE power, available capacity in the cells, sufficient data from UE, and UE battery consumption.

Abstract: The invention relates to both a method and a network entity in a cellular communication network serving mobile terminals or communication devices, offering control over terminals in order to ensure that the best possible data connection is available to the user at all times whatever the coverage scenario and technology the terminals are operating on.

Abstract: A method, base station and controller for allocating PS traffic in mobile networks which provide a plurality of RATs (multi-RAT networks) for supporting Packet Services, which comprises: identifying more than one RAT with free bandwidth, determining a type of traffic which belongs to a PS connection initially established over a initial RAT, classifying Packet Services by taking into account at least one parameter which is the previously determined type of traffic, selecting at least one of the identified RAT for establishing the PS connection in accordance to the previous classification of the Packet Service. The classification of the Packet Service can additionally take into account other parameters: QoS, measured RTT, load of each RAT and combination of these parameters.

Abstract: In order to transmit data packets in multi-RAT networks, a method and system of network controllers are provided including simultaneous establishment of radio connections over multiple different Radio Access Technologies or RATs, with User Equipment or UE 13, being one radio connection firstly established over one primary RAT under a single PDP context and one or more radio connections established over at least one secondary RAT, different from the primary RAT, and under the same single PDP context; simultaneous transmission of data packets over the different RATs towards the UE 13 and combination of the transmitted data by higher layer protocols at the UE 13. In the present method/system, a connection is established for user plane transmission on the same PDP context between a primary network controller 11 of the primary RAT and the secondary network controller 12 of a secondary RAT. More than one secondary RAT may be involved.

Abstract: There is provided a method of data over a radio interface in a radio communication network based on a protocol layers model, the model comprising an IP layer on which IP packets are handled, wherein before the transmission of a determined IP packet, the method comprises: determining whether the IP packet is compressible under a predetermined condition and. if the IP packet is compressible under said predetermined condition, performing a compression of the IP packet. There are also provided a user equipment (UE) and a node adapted to perform the steps of a method according to the invention.

Abstract: A method and network entity for downloading detected video packets. A minimum bit rate MinBR equals ViBR+M, where M?0 is a configurable bit rate margin from an estimated video bit rate ViBR. A specific bit rate SBR is greater than MinBR. The method uses MinBR and SBR as a minimum bit rate limit and a maximum bit rate limit respectively between which the bit rate for delivering video in case of congestion is defined. The method can further compare the predefined specific bit rate with a real throughput of the user requesting video download with a QoS profile, and if there is congestion and if the throughput is larger than or equal to SBR, the priority value of a QoS profile to be used for downloading video in case of congestion.

Abstract: Method and network entities for providing good performance for voice in multiRAB connection for services of a CS+PS call setup (31) without high throughput necessity but providing good throughput for the services needing it. A differentiation of the multiRAB configuration (bearer type, mobility parameters and channel switching timers), based on service detection, is performed either in the RAN either in the CN indicating eventually this detection to the RAN. If the detected service needs high bit rate/throughput (35), the RNC reconfigures the multiRAB configuration (37) so that a bearer type providing high throughput is allocated to said service and the RNC reassigns mobility and channel switching parameters to maximise this throughput and the radio resources. If the service does not require high throughput (34), the RNC configures a bearer type and parameters for mobility and channel switching as specified by the standards to provide good performance (36), low dropped call rate.

Abstract: The invention refers to a radio network entity for transmitting data packets from an IP gateway in a telecommunications network to a user terminal via a plurality of mobile terminations through a single IP connection.

Abstract: A method and mobile device (UE) for enabling services in multi-RAT networks which support at least HSPA and LTE, comprising: identifying an initial radio technology on which a UE requesting service is camped, within a current cell; determining an indication of coverage of another radio technology available on the current cell which provides higher speed access than the initial one; deciding carrying the service, either through the initial radio technology or the other one of higher speed access, according to the previous indication. The indication of coverage can be based on any of the following criteria or a combination of them is met: 1) Terminal is camped on a HSDPA capable or LTE capable cell, 2) HSDPA signal strength is higher than a threshold, 3) LTE signal strength is higher than a threshold, 4) Measurements on the Peak Rate of the UE in a past time and in a location.

Abstract: A method for data transmission in a wide area mobile network supporting both MIMO User Equipments and non MIMO User Equipments includes allocating in a first signal the traffic of non MIMO user Equipments, a first MIMO data stream and a primary pilot channel, allocating in a second signal a second MIMO data stream and a secondary pilot channel, and transmitting the first signal and the second signal with two orthogonal circular polarizations.

Abstract: In order to transmit data packets in multi-RAT networks, a method and system of network controllers are provided including simultaneous establishment of radio connections over multiple different Radio Access Technologies or RATs, with User Equipment or UE 13, being one radio connection firstly established over one primary RAT under a single PDP context and one or more radio connections established over at least one secondary RAT, different from the primary RAT, and under the same single PDP context; simultaneous transmission of data packets over the different RATs towards the UE 13 and combination of the transmitted data by higher layer protocols at the UE 13. In the present method/system, a connection is established for user plane transmission on the same PDP context between a primary network controller 11 of the primary RAT and the secondary network controller 12 of a secondary RAT. More than one secondary RAT may be involved.

Abstract: A system, method and devices for controlling provision of a voice service at a terminal of a first mobile communications network based on the expected quality of service. The presented embodiments improve the VoIP service performance in mobile telecommunication networks solving the problems of current VoIP services, providing to the user a good quality, especially in low coverage or congestion scenarios (reaching a similar quality than the CS voice calls in the same situations).

Abstract: The invention relates to a cellular communication network serving mobile terminals or devices and how to optimize the switching between Dual Cell High-Speed Uplink Packet Access [DC-HSUPA] and Single Cell High-Speed Uplink Packet Access [SC-HSUPA] and vice versa. This invention makes the reconfiguration to dual cell or single cell HSUPA depending on the UE power, available capacity in the cells, sufficient data from UE, and UE battery consumption.

Abstract: The invention relates to both a method and a network entity in a cellular communication network serving mobile terminals or communication devices, offering control over terminals in order to ensure that the best possible data connection is available to the user at all times whatever the coverage scenario and technology the terminals are operating on.

Abstract: Coordination of the use of radio resource between a first Radio Access Network (RAN) and a second RAN is provided, each RAN being configured to communicate over the same predefined bandwidth range. A first priority associated with traffic to be carried over the first RAN and a second priority associated with traffic to be carried over the second RAN are determined. A first portion of the radio resource comprising one or more first bandwidth segments is assigned to the first RAN and a second portion of the radio resource comprising a plurality of second bandwidth segments is assigned to the second RAN, based on the first and second priorities. The first portion is indicated to a first RAN scheduler and/or the second portion is indicated to a second RAN scheduler. At least one first bandwidth segment is assigned between two of the second bandwidth segments.

Abstract: A cellular communication network is described wherein the power of the pilot channel transmitted by the base station is decreased when the uplink interference in its cell area increases above a threshold value. As a result the mobile terminals at the edge of the cell area are triggered to reselect to another base station and the number of call drops and failed call set-ups is reduced.