Abstract: A method and a system are provided for reducing collisions created between endpoints in a wireless local area network environment incorporated with a distributed antenna system (DAS), wherein the DAS comprises a plurality of station units (STUs) each adapted to communicate wirelessly with one or more wireless stations, and at least one access point unit (APU) connected to the plurality of STUs and adapted to communicate with a respective access point. The method comprises: at a first STU belonging to the plurality of STUs, receiving a first signal transmitted wirelessly; conveying the first signal towards the APU; and at the APU, adapting the conveyed signal to be transmitted to the access point associated with the APU, and in response to receiving the first signal, conveying a return signal towards at least two STUs belonging to the plurality of STUs.

Abstract: A system for communicating wireless signals includes a passive optical network (PON) between a central office (CO) and network subscribers. The CO has an optical line terminal (OLT) and a wireless base station. An RF/Optic converter converts base station radio frequency (RF) signals to and from corresponding optical signals. An optical combiner combines signals of the OLT and signals of the RF/Optic converter for communication over the PON with at least one optical network unit (ONU) at a location of one or more of the network subscribers, so that signals of the OLT and converted wireless base station signals are carried together over the PON. A fiber mounted wireless antenna unit (FMCA) having an optical interface and a wireless antenna, and communicating wireless signals of the wireless antenna with the ONU, including performing conversions between wireless RF signals and optical signals.

Abstract: A method is provided for activating a transmission means comprised in a mobile device to operate in a manner compatible with at least one wireless communication protocol such as a Bluetooth or Wi-Fi standard. The activation of this transmission means is carried out in response to receiving a pre-defined indication at that mobile device denoting that an emergency communication is to be forwarded to an emergency center.

Abstract: A method and a system are provided for reducing collisions created between endpoints in a wireless local area network environment incorporated with a distributed antenna system (DAS), wherein the DAS comprises a plurality of station units (STUs) each adapted to communicate wirelessly with one or more wireless stations, and at least one access point unit (APU) connected to the plurality of STUs and adapted to communicate with a respective access point. The method comprises: at a first STU belonging to the plurality of STUs, receiving a first signal transmitted wirelessly; conveying the first signal towards the APU; and at the APU, adapting the conveyed signal to be transmitted to the access point associated with the APU, and in response to receiving the first signal, conveying a return signal towards at least two STUs belonging to the plurality of STUs.

Abstract: A method and apparatus for providing wireless coverage such as WiMAX or LTE coverage via a wired network are provided. For example, systems and methods are discussed in which a Cable TV (“CATV”) network, Direct Broadcasting Satellite (“DBS”) and/or Passive Optical Network (PON) are used in order to deliver the native wireless signals into the buildings or an area in which wireless coverage is desired, where a small Consumer Premise Device is used to transmit and receive the signals to and from the wireless devices.

Abstract: A method is provided for activating a transmission means comprised in a mobile device to operate in a manner compatible with at least one wireless communication protocol such as a Bluetooth or Wi-Fi standard. The activation of this transmission means is carried out in response to receiving a pre-defined indication at that mobile device denoting that an emergency communication is to be forwarded to an emergency center.

Abstract: A method and apparatus for providing WiMAX coverage via a wired network are provided. For example, systems and methods are discussed in which a Cable TV (“CATV”) network, Direct Broadcasting Satellite (“DBS”) and/or Passive Optical Network (PON) are used in order to deliver the native WiMAX signals into the buildings or an area in which WiMAX coverage is desired, where a small Consumer Premise Device is used to transmit and receive the signals to and from the WiMAX devices.

Abstract: A system for communicating wireless signals includes a passive optical network (PON) between a central office (CO) and network subscribers. The CO has an optical line terminal (OLT) and a wireless base station. An RF/Optic converter converts base station radio frequency (RF) signals to and from corresponding optical signals. An optical combiner combines signals of the OLT and signals of the RF/Optic converter for communication over the PON with at least one optical network unit (ONU) at a location of one or more of the network subscribers, so that signals of the OLT and converted wireless base station signals are carried together over the PON. A fiber mounted wireless antenna unit (FMCA) having an optical interface and a wireless antenna, and communicating wireless signals of the wireless antenna with the ONU, including performing conversions between wireless RF signals and optical signals.

Abstract: A CATV network distributing signals below 860 MHz is modified with a secondary transmission bi-directional capability above 860 MHz by adding filters to separate modified mobile-communications frequencies (above 860 MHz) from typical CATV services (below 860 MHz). CATV subscriber termination points function as extremely localized ultra-miniature cell sites within a building. Multiple cellular networks and possibly multiple providers are simultaneously accommodated over a CATV network. The modified network simultaneously handles traffic in combinations of known cellular air interface standards such as: UMTS, GSM, TDMA, CDMA and PDC. Cellular mobile radio terminals do not have to be modified. Signals traverse on non-utilized CATV frequencies. CATV active elements are modified, and new components are provided. A Cable Mounted Cellular Adapter at the CATV outlet acts as a transmit/receive unit and frequency translator for the cellular signals.

Abstract: A CATV network is modified with a secondary transmission (CBP) by adding filters to separate modified mobile-communications frequencies. A CATV terminal can be routed to cellular network by way network coupling devices (NCD).

Abstract: A monitor enabled amplifier in the CATV segment of a wireless network includes a cellular interface communicating with a network control center to provide status information pertaining to the CATV network. A monitor enabled cable Mount cellular antenna with a twin mode cellular interface provide status and location correlation information to the network control center. The location correlation information supports an emergency response system and differential billing.

Abstract: A DBS distribution network (100, 90) is modified with a secondary transmission bi-directional capability below 950 MHz by adding filters to separate modified mobile-communications (60) frequencies from typical DBS services. DBS subscriber termination points function as extremely localized ultra-miniature cell sites within a building. Third generation (3G) cellular networks and second-generation (2G) cellular networks are together merged with DBS networks. The modified network simultaneously handles traffic in known and future cellular air interface standards such as: UMTS, GSM, TDMA, CDMA. Cellular mobile radio terminals do not have to be modified. Signals traverse on non-utilized DBS frequencies. DBS active elements are modified, and new components are provided.

Abstract: A CATV network (141) designed to distribute television and other services in using radio frequencies below a certain frequency (typically 860 HMz) is modified to add a secondary transmission bi-directional capability above this frequency. The secondary bi-directional network (101, 102) is established by adding filters to separate modified mobile-communications frequencies (above 860 MHz) from conventional CATV services (below 860 MHz). Third generation (3G) networks and second generation (2G) networks are together merged with CATV networks. Cable TV networks are used to provide in-building access for 3G and 2G mobile radio terminals, in a mobile radio network. A Cable Mounted Third Generation Module acts as a transmit receive antenna and frequency translator for the 3G signals.