Abstract: The invention relates to a method for managing charging currents delivered by an installation (1) for charging electric vehicle batteries in a parking lot (P), comprising a set of electric charging terminals (B1, . . . BN) connected to an electric power distribution network (2), each terminal being able to deliver a charging current value to an electric vehicle (VE1, . . . VEj) connected thereto.

Abstract: The invention relates to a method for managing charging currents delivered by an installation (1) for charging electric vehicle batteries in a parking lot (P), comprising a set of electric charging terminals (B1, . . . BN) connected to an electric power distribution network (2), each terminal being able to deliver a charging current value to an electric vehicle (VE1, . . . VEj) connected thereto.

Abstract: When establishing an emergency connection in a wireless network having an authentication server, wherein a user terminal is a non-subscriber to the network, a dialed number is recognized as an emergency number and the terminal sends a start-up message to a radio access point of the network. The terminal receives a first message that requests the identity of the terminal, from the access point in response to the start-up message, and sends a second message, which contains the identity of the terminal and an indication indicating that the terminal is attempting to make an emergency call. An authentication server determines that the second message contains an indication that the call is an emergency call, and sends an acceptance message to the terminal via the access point wherein a port of the access point is validated to permit the terminal to establish an emergency connection.

Abstract: When establishing an emergency connection in a wireless network having an authentication server, wherein a user terminal is a non-subscriber to the network, a dialed number is recognized as an emergency number and the terminal sends a start-up message to a radio access point of the network. The terminal receives a first message that requests the identity of the terminal, from the access point in response to the start-up message, and sends a second message, which contains the identity of the terminal and an indication indicating that the terminal is attempting to make an emergency call. An authentication server, determines that the second message contains an indication that the call is an emergency call, and sends an acceptance message to the terminal via the access point wherein a port of the access point is validated to permit the terminal to establish an emergency connection.

Abstract: When establishing an emergency connection in a wireless network having an authentication server, wherein a user terminal is a non-subscriber to the network, a dialed number is recognized as an emergency number and the terminal sends a start-up message to a radio access point of the network. The terminal receives a first message that requests the identity of the terminal, from the access point in response to the start-up message, and sends a second message, which contains the identity of the terminal and an indication indicating that the terminal is attempting to make an emergency call. An authentication server determines that the second message contains an indication that the call is an emergency call, and sends an acceptance message to the terminal via the access point wherein a port of the access point is validated to permit the terminal to establish an emergency connection.

Abstract: An application server for reducing ambiance noise in an auscultation signal, and for recording comments while auscultating a patient with an electronic stethoscope This application server (AS) comprises: means (SPH) for receiving samples of a raw auscultation signal representing auscultation sounds mixed with ambiance sounds, this raw auscultation signal being transmitted by a first microphone (M1) embedded in a stethoscope (ES), means (SPH) for receiving samples of an ambiance signal transmitted by a second microphone (M2) in a phone (IPP1), means (ASE) for processing the samples of the auscultation signal and the samples of the ambiance signal for generating an auscultation signal without ambiance sounds, means (LBM) for sending the auscultation signal without ambiance sounds to at least the headset of said stethoscope (ES), means (VRM) for recognizing vocal sounds in the ambiance signal, and converting these vocal sounds into text for storing comments into a database (DB).

Abstract: If a given terminal (IPP1) requests the setting up of an emergency call, the method consists in: assigning that terminal to a first virtual network (VLAN1) having a priority higher than that of any virtual network to which a terminal requesting the setting up of a non-urgent call is assigned, the given terminal then using the first virtual network to send in broadcast mode a message addressed in particular to an emergency call server (EMSR); assigning this terminal to a second virtual network (VLAN2) having a priority higher than that of any virtual network to which a terminal that is requesting the setting up of a non-urgent call is assigned, the emergency call server (EMSR) then using the second virtual network to respond to the given terminal in unicast mode.

Abstract: An application server for reducing ambiance noise in an auscultation signal, and for recording comments while auscultating a patient with an electronic stethoscope This application server (AS) comprises: means (SPH) for receiving samples of a raw auscultation signal representing auscultation sounds mixed with ambiance sounds, this raw auscultation signal being transmitted by a first microphone (M1) embedded in a stethoscope (ES), means (SPH) for receiving samples of an ambiance signal transmitted by a second microphone (M2) in a phone (IPP1), means (ASE) for processing the samples of the auscultation signal and the samples of the ambiance signal for generating an auscultation signal without ambiance sounds, means (LBM) for sending the auscultation signal without ambiance sounds to at least the headset of said stethoscope (ES), means (VRM) for recognizing vocal sounds in the ambiance signal, and converting these vocal sounds into text for storing comments into a database (DB).

Abstract: A telephone terminal (UE) comprises telephone signal receiver means (MER) and processing means (MT) adapted in the absence of voice activity to determine a level of comfort noise to be generated as a function of noise data and in the presence of received telephone signals representing voice signals to determine noise signals as a function of noise data and then to subtract at least a portion of said noise signals from the received telephone signals.

Abstract: A data processing system is dedicated to one or more calling users, and comprises (i) storage means (Mi), suited for storing information data indicative of one or more communication addresses of communication terminals (Ci,Ti,FTi) used by the calling user (Ui), and an accessibility status of such calling user through each one of said terminals (Ci,Ti,FTi), (ii) interfacing means (Ii), allowing the calling user (Ui) to request the setting-up of a communication with at least one called user (Uj), and (iii) management means (Gi) capable of negotiating with another data processing system (Dj), dedicated to the called user (Uj), and according to at least the information data stored in their respective memorization means (Mi, Mj), the set-up of the communication, requested by the calling user (Ui) between two terminals likely to be respectively accessed by the calling user (Ui) and the called user (Uj).

Abstract: This method is used to send data representative of the location of communication terminals (T) to a call center (ECC) without using information processing means in the terminals and to send via heterogeneous communication networks (RP, RPT). This method consists, in the event of requesting the setting up of a telephone call between a terminal (T) and the call center (ECC) by means of a dedicated calling number, in sending the call center a signaling message for setting up the connection and comprising a selected call identifier and a text type message including data representative of the location of the calling terminal (T) and the selected call identifier. At the call center, the method consists in associating the signaling message received by the call center with the location data contained in the text message received by the call center if the signaling message and the text message include the same call identifier.

Abstract: If a given terminal (IPP1) requests the setting up of an emergency call, the method consists in: assigning that terminal to a first virtual network (VLAN1) having a priority higher than that of any virtual network to which a terminal requesting the setting up of a non-urgent call is assigned, the given terminal then using the first virtual network to send in broadcast mode a message addressed in particular to an emergency call server (EMSR); assigning this terminal to a second virtual network (VLAN2) having a priority higher than that of any virtual network to which a terminal that is requesting the setting up of a non-urgent call is assigned, the emergency call server (EMSR) then using the second virtual network to respond to the given terminal in unicast mode.

Abstract: A power supply distributor permits to broadcast data received in phantom mode at one of its port to at least few of the other ports such that the respective apparatus connected to the power supply distributor will receive them. The power supply distributor includes modems for at least few of the communications links, while the modems are connected between each other through a multiplexer. Optionally, the multiplexer is setup with a switching function. This enables advantageously to select the ports to which received data in phantom mode will be forwarded allowing to buildup a communications link between different apparatus, such link being based solely on transmission of data in phantom mode. Such links can be setup in a bi-directional modus between at least two apparatus. A ghost network is designed which is mapped on an existing network and based on transmission of data in a phantom mode.

Abstract: Each communication terminal of the calling user (Uj-k) is logically connected to a first communication equipment (Sk) and each communication terminal of the called user (Uj?-k?) is logically connected to a second communication equipment (Sk?). The combination of these terminals enables a plurality of modes of communication between these two users. If the called user accepts the setting up of a call: the second communication equipment (Sk?) determines each terminal of the called user that would enable setting up of the requested call; the second communication equipment (Sk?) then sends the first communication equipment (Sk) a terminal identifier for each terminal thus determined; and the first communication equipment (Sk) then selects, from the identifiers of the called user that it receives, at least one terminal identifier, and then initiates the setting up of a call.

Abstract: This method enables the user of a wireless telephone terminal (T1) to establish an emergency connection in a wireless network involving the use of an authentication server (AS) even when this user does not have the right to access this local network.

Abstract: This method is used to send data representative of the location of communication terminals (T) to a call center (ECC) without using information processing means in the terminals and to send via heterogeneous communication networks (RP, RPT). This method consists, in the event of requesting the setting up of a telephone call between a terminal (T) and the call center (ECC) by means of a dedicated calling number, in sending the call center a signaling message for setting up the connection and comprising a selected call identifier and a text type message including data representative of the location of the calling terminal (T) and the selected call identifier. At the call center, the method consists in associating the signaling message received by the call center with the location data contained in the text message received by the call center if the signaling message and the text message include the same call identifier.

Abstract: This telecommunication network includes a plurality of private networks (PN11, PN21) which are stacked on at least two levels (L1, L2), each private network (PN11) comprising at least one private automatic branch exchange (PBX11a, PBX11b, PBX11c). At a first level (L1), at least one private network (P11) has at least one first private automatic branch exchange (PBX11c, . . . ) which is connected to a second private automatic branch exchange (PBX21a) of a private network (PN21) belonging to a second level by a line (T4, T5) that can transport the signaling of a private network. This second private automatic branch exchange (PBX21a) is configured with data and routing rules which authorize access to at least one service offered by the second network (PN21) by the first private automatic branch exchange (PBX11c).

Abstract: An Ethernet card (CL) is dedicated to the connection of a communication terminal (UE) to a local network via an Ethernet connection (CX). The terminal (UE) can be powered electrically by first power means (MAP), and includes a first internal bus (PCI1). The card (CL) includes i) second power means (MAA) capable of being powered remotely, via the Ethernet connection (CX), by power control means (PPP) on the local network, ii) a second bus (PCI2) coupled to the first internal bus (PCI1), iii) coupling means (MCP) coupled to the second bus (PCI2), and iv) control means (MCC) connected logically to the first (MAP) and second (MAA) power means and tasked, in the event of detection of remote powering of the card (CL) and the absence of electrical powering of the terminal (UE) by its first power means (MAP), to command the coupling means to electrically decouple the card from the first internal bus (PCI1), in order to allow its operation independently of the terminal (UE).

Abstract: Each communication terminal of the calling user (Uj-k) is logically connected to a first communication equipment (Sk) and each communication terminal of the called user (Uj?-k?) is logically connected to a second communication equipment (Sk?). The combination of these terminals enables a plurality of modes of communication between these two users. If the called user accepts the setting up of a call: the second communication equipment (Sk?) determines each terminal of the called user that would enable setting up of the requested call; the second communication equipment (Sk?) then sends the first communication equipment (Sk) a terminal identifier for each terminal thus determined; and the first communication equipment (Sk) then selects, from the identifiers of the called user that it receives, at least one terminal identifier, and then initiates the setting up of a call.

Abstract: Before any supply of remote power to a telecommunications terminal connected to a local area network, the Ethernet equipment must recognize the power class of the terminal by measuring a specific electrical signature of the terminal via their interconnection. If the Ethernet equipment is unable to supply the required power, then it will send a specific signal via the interconnection which will activate an alarm on the terminal. The possibility to be alerted by a specific alarm from the terminal if no remote power can be supplied to it, will advantageously inform the terminal user of the problem and allow the user to look for an alternative.