mhurhangee/ep-ind-claims huggingface dataset:
A PLC system comprising a plurality of CPU modules (10, 20, 30, 40), characterized in that: the plurality of CPU modules (10,20,30,40) comprises a master CPU module, at power on, the master CPU module is adapted to ascertain the number and attributes of all the CPU modules (10,20,30,40) present within the PLC system and to set time counts defining a respective time slot to access a backplane for each one of the CPU modules, the master CPU module is adapted to transmit the time counts to all other CPU modules (20,30,40), each CPU module (10,20,30,40) includes a detector configured to detect a clock signal generated by a CPU module accessing the backplane, each CPU module (10,20,30,40) is adapted to access the backplane during allocated time slot if the clock signal is not detected by the detector, and each CPU module (10,20,30,40) ending its access to the backplane is adapted to stop the generation of the clock signal whereupon the master CPU module is adapted to synchronize the time counts by starting from zero the time count, wherein the time counts define "time slot maximum count", "time slot current count", a respective "time slot start count" and a respective "time slot end count" for each CPU module (10,20,30,40). the plurality of CPU modules (10,20,30,40) comprises a master CPU module, at power on, the master CPU module is adapted to ascertain the number and attributes of all the CPU modules (10,20,30,40) present within the PLC system and to set time counts defining a respective time slot to access a backplane for each one of the CPU modules, the master CPU module is adapted to transmit the time counts to all other CPU modules (20,30,40), each CPU module (10,20,30,40) includes a detector configured to detect a clock signal generated by a CPU module accessing the backplane, each CPU module (10,20,30,40) is adapted to access the backplane during allocated time slot if the clock signal is not detected by the detector, and each CPU module (10,20,30,40) ending its access to the backplane is adapted to stop the generation of the clock signal whereupon the master CPU module is adapted to synchronize the time counts by starting from zero the time count, wherein the time counts define "time slot maximum count", "time slot current count", a respective "time slot start count" and a respective "time slot end count" for each CPU module (10,20,30,40).
Device for restoring video sequences comprising: - a data memory in which are recorded a current territory value and customisation parameters depending on the current territory value; - means for connecting to a remote server, said remote server making it possible, in case of a successful connection, to detect the territory wherein said device is located and to transmit to said device a piece of information on the detected territory so that it replaces the current territory value with the value of the detected territory; - means for customising said device according to the customisation parameters; said device being characterised in that it further comprises means for switching over to a local configuration mode in case of failure of the connection to the remote server, said local configuration mode allowing the user to select a territory of his choice and to replace the current territory value with the value of the selected territory. - a data memory in which are recorded a current territory value and customisation parameters depending on the current territory value; - means for connecting to a remote server, said remote server making it possible, in case of a successful connection, to detect the territory wherein said device is located and to transmit to said device a piece of information on the detected territory so that it replaces the current territory value with the value of the detected territory; - means for customising said device according to the customisation parameters;
A communication device for communicating with a network device of a communication network, the communication device being operative to: receive a challenge (RAND), a first Perfect Forward Secrecy, PFS, parameter and a first verification code (VC1; VC1A; VC1B) for the first PFS parameter from the network device, wherein the first verification code (VC1A; VC1B) comprises a message authentication code based on at least the first PFS parameter; forward a derivative of said challenge to an identity module; receive at least one result parameter (CK/IK, RES) as response from the identity module; determine, based on said result parameter (CK/IK, RES) whether said first PFS parameter is authentic; and generate and send a second PFS parameter to the network device if said determination is that the first PFS parameter is authentic. receive a challenge (RAND), a first Perfect Forward Secrecy, PFS, parameter and a first verification code (VC1; VC1A; VC1B) for the first PFS parameter from the network device, wherein the first verification code (VC1A; VC1B) comprises a message authentication code based on at least the first PFS parameter; forward a derivative of said challenge to an identity module; receive at least one result parameter (CK/IK, RES) as response from the identity module; determine, based on said result parameter (CK/IK, RES) whether said first PFS parameter is authentic; and generate and send a second PFS parameter to the network device if said determination is that the first PFS parameter is authentic.
A radio network controller comprising an apparatus for selectably facilitating communication of multicast data from a data source to a first mobile user endpoint and at least a second mobile user endpoint belonging to a multicast group, through a radio access network in a packet-based multi-user radio communication system, wherein the radio access network further comprises a first base transceiver station and at least a second base transceiver station, the first base transceiver station defining a first cell and the at least the second base transceiver station defining at least a second cell, said apparatus comprising: an identifier for identifying separately for each of the first and at least second cells that communication of the multicast data is to be effectuated upon a common channel, common to both the first mobile user endpoint and the at least second mobile user endpoint, the identifier being configured to: maintain a count of mobile user endpoints within a particular cell that request the downloading of the multicast data; compare the count with a selected threshold; and selectably implement communication of multicast data upon the common channel when the count exceeds the selected threshold value; and a point to multi-point bearer implementer coupled to said identifier, said point to multi-point bearer implementer for implementing a point to multi-point bearer for casting of the multicast data upon the common channel to the first and at least second mobile user endpoints, respectively, when said identifier identifies that the communication of the multicast data is to be effectuated upon the common channel. an identifier for identifying separately for each of the first and at least second cells that communication of the multicast data is to be effectuated upon a common channel, common to both the first mobile user endpoint and the at least second mobile user endpoint, the identifier being configured to: maintain a count of mobile user endpoints within a particular cell that request the downloading of the multicast data; compare the count with a selected threshold; and selectably implement communication of multicast data upon the common channel when the count exceeds the selected threshold value; and maintain a count of mobile user endpoints within a particular cell that request the downloading of the multicast data; compare the count with a selected threshold; and selectably implement communication of multicast data upon the common channel when the count exceeds the selected threshold value; and a point to multi-point bearer implementer coupled to said identifier, said point to multi-point bearer implementer for implementing a point to multi-point bearer for casting of the multicast data upon the common channel to the first and at least second mobile user endpoints, respectively, when said identifier identifies that the communication of the multicast data is to be effectuated upon the common channel.
A method, comprising: receiving, by a communication device, a data unit in accordance with a power line communication protocol; extracting, by the communication device, data within the data unit to provide extracted data, wherein extracting comprises extracting the data from a frame control block of the data unit when a data type identifier within the data unit corresponds to a predetermined value; and processing, by the communication device, the extracted data in accordance with a non-power line communication protocol. receiving, by a communication device, a data unit in accordance with a power line communication protocol; extracting, by the communication device, data within the data unit to provide extracted data, wherein extracting comprises extracting the data from a frame control block of the data unit when a data type identifier within the data unit corresponds to a predetermined value; and processing, by the communication device, the extracted data in accordance with a non-power line communication protocol.
A method for secure communications between multiple parties, comprising the steps of: - transforming private information into measurement bases; - generating a plurality of sets of entangled photons, wherein each photon of said plurality of sets of entangled photons represents a corresponding optical pulse or a quantum mechanical superposition of optical pulses; - transmitting said plurality of sets of entangled photons, one set of entangled photons at a time, to a plurality of communication parties, wherein each communication party of said plurality of communication parties receives a photon from each set of said plurality of sets of entangled photons in the order in which said plurality sets of entangled photons are transmitted; - assigning each set of entangled photons an index number based on the order in which said plurality of sets of entangled photons are transmitted to said plurality of communication parties, whereby optical pulses corresponding to photons from the same corresponding set of entangled photons are associated with identical index numbers; - applying said measurement bases to said optical pulses and detecting said photons on said measurement bases to obtain respective data for each party of said plurality of communication parties in the order in which said optical pulses are received by each party; - generating from said respective data corresponding lists of relevant indices for each party of said plurality of communication parties; and - computing a secure communication by comparing said corresponding lists of relevant indices. - transforming private information into measurement bases; - generating a plurality of sets of entangled photons, wherein each photon of said plurality of sets of entangled photons represents a corresponding optical pulse or a quantum mechanical superposition of optical pulses; - transmitting said plurality of sets of entangled photons, one set of entangled photons at a time, to a plurality of communication parties, wherein each communication party of said plurality of communication parties receives a photon from each set of said plurality of sets of entangled photons in the order in which said plurality sets of entangled photons are transmitted; - assigning each set of entangled photons an index number based on the order in which said plurality of sets of entangled photons are transmitted to said plurality of communication parties, whereby optical pulses corresponding to photons from the same corresponding set of entangled photons are associated with identical index numbers; - applying said measurement bases to said optical pulses and detecting said photons on said measurement bases to obtain respective data for each party of said plurality of communication parties in the order in which said optical pulses are received by each party; - generating from said respective data corresponding lists of relevant indices for each party of said plurality of communication parties; and - computing a secure communication by comparing said corresponding lists of relevant indices.
A vehicle roof assembly comprising an electronic control circuitry and at least one sensor operatively coupled to the electronic control circuitry, an output of the sensor exhibiting hysteresis, wherein the electronic control circuitry is configured to perform a sensor power-down sequence of steps comprising: a) switching off the sensor; b) switching on the sensor; c) detecting the output of the sensor; d) storing the output of the sensor in a memory; and e) switching off the sensor. a) switching off the sensor; b) switching on the sensor; c) detecting the output of the sensor; d) storing the output of the sensor in a memory; and e) switching off the sensor.
A digital shower controller (1, 2, 3, 4), comprising a display configured to display information related to the operation of a shower, the display comprising: a light source; a touch interface configured to provide an input to the digital shower controller (1, 2, 3, 4); characterized in that the display further comprises a semi-transparent layer and a transparent layer; in that the light source and the semi-transparent layer are configured such that the semi-transparent layer absorbs or reflects light transmitted towards the light source and allows light transmitted from the light source to be transmitted from the display, such that the light source appears hidden when light is not transmitted from the light source; and in that the semi-transparent layer is formed integrally with the transparent layer. a light source; a touch interface configured to provide an input to the digital shower controller (1, 2, 3, 4); characterized in that the display further comprises a semi-transparent layer and a transparent layer; in that the light source and the semi-transparent layer are configured such that the semi-transparent layer absorbs or reflects light transmitted towards the light source and allows light transmitted from the light source to be transmitted from the display, such that the light source appears hidden when light is not transmitted from the light source; and in that the semi-transparent layer is formed integrally with the transparent layer.
A pharmaceutical composition, comprising: a) at least one sorbitan unsaturated fatty acid ester having a polar head with at least two or more -OH(hydroxyl) groups; b) at least one phospholipid; c) at least one liquid crystal hardener, which is free of an ionizable group, having a hydrophobic moiety of 15 to 40 carbon atoms with a triacyl group or a carbon ring structure; and d) at least one GnRH(gonadotropin-releasing hormone) analogue as a pharmacologically active substance, wherein said lipid pre-concentrate exists as a liquid phase in absence of aqueous fluid and forms into a liquid crystal in presence of aqueous fluid, wherein the GnRH analogue is a GnRH agonist that is selected from the group consisting of leuprolide, goserelin, triptorelin, nafarelin, buserelin, histrelin, deslorelin, meterelin, gonadrelin, a pharmaceutically acceptable salt thereof, and a combination thereof, or wherein the GnRH analogue is a GnRH antagonist that is selected from the group consisting of degarelix, abarelix, ganirelix, cetrorelix, a pharmaceutically acceptable salt thereof, and a combination thereof. a) at least one sorbitan unsaturated fatty acid ester having a polar head with at least two or more -OH(hydroxyl) groups; b) at least one phospholipid; c) at least one liquid crystal hardener, which is free of an ionizable group, having a hydrophobic moiety of 15 to 40 carbon atoms with a triacyl group or a carbon ring structure; and d) at least one GnRH(gonadotropin-releasing hormone) analogue as a pharmacologically active substance, wherein said lipid pre-concentrate exists as a liquid phase in absence of aqueous fluid and forms into a liquid crystal in presence of aqueous fluid,
A noise-reduction circuit to reduce common-mode noise associated with signaling to and from a field device that is connected to a remote device via a first communication link (30; 224; 320) and connected to a process control network via a second communication link, the first communication link comprising at least a sensor signal line and a sensor reference line, the noise-reduction circuit comprising: a first circuit input coupled to the sensor signal line; a second circuit input coupled to the sensor reference line; an active impedance matching unit that monitors the signals at the first and second circuit inputs (260, 262), the active impedance matching unit comprising an operational amplifier that adjusts AC voltage at its output to maintain equal input AC impedances at the first and second circuit inputs (260, 262). a first circuit input coupled to the sensor signal line; a second circuit input coupled to the sensor reference line; an active impedance matching unit that monitors the signals at the first and second circuit inputs (260, 262), the active impedance matching unit comprising an operational amplifier that adjusts AC voltage at its output to maintain equal input AC impedances at the first and second circuit inputs (260, 262).
A histone deacetylase inhibitor having the formula: wherein: X is chosen from H and CH 3; Y is (CH 2) n, wherein n is 0; Z is chosen from (CH 2) m wherein m is 0-3 and 2; A is an α-branched aromatic fatty alkyl group of from 3 to 14 carbons, B is hydroxy, and Q is hydrogen. X is chosen from H and CH 3; Y is (CH 2) n, wherein n is 0; Z is chosen from (CH 2) m wherein m is 0-3 and 2; A is an α-branched aromatic fatty alkyl group of from 3 to 14 carbons, B is hydroxy, and Q is hydrogen.
A method for making a fibre electrically conductive, comprising the steps of: (a) providing a fibre having a negative electric charge at the surface of the fibre, (b) applying to the fibre a substance which provides a layer of said substance on the fibre and changes the electric charge at the surface of the fibre from negative to positive, wherein said substance is not chitosan, and (c) making the surface of the fibre electrically conductive with a metal, wherein the metal of step (c) is provided in the form of metal ions, wherein the metal ions are reduced to form elemental metal nanoparticles, and wherein the nanoparticles are deposited selectively. (a) providing a fibre having a negative electric charge at the surface of the fibre, (b) applying to the fibre a substance which provides a layer of said substance on the fibre and changes the electric charge at the surface of the fibre from negative to positive, wherein said substance is not chitosan, and (c) making the surface of the fibre electrically conductive with a metal,
A process for preparing a salt of acetylsalicylic acid and a basic amino acid, which comprises mixing a solution of acetylsalicylic acid and a solution of said basic amino acid in a reactor, at a temperature of less than or equal to 30°C at atmospheric pressure, characterized in that said mixing is carried out by gradual introduction simultaneously of said solution of acetylsalicylic acid and of said solution of said basic amino acid into the reactor, under conditions such that, throughout said introduction, at each instant the amounts of acetylsalicylic acid and of said basic amino acid introduced into the reactor are equimolar.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, first information on a first cell allowed for a first logical channel associated with a packet duplication configured for a radio bearer, second information on a first subcarrier spacing, SCS, allowed for the first logical channel, third information on a second cell allowed for a second logical channel associated with the packet duplication, and fourth information on a second SCS allowed for the second logical channel; receiving, from the base station, a first medium access control, MAC, control element, CE, indicating an activation of the packet duplication; transmitting, to the base station, a first uplink data of the first logical channel, wherein the first uplink data is transmitted on the first cell based on the first information by using the first SCS based on the second information; and transmitting, to the base station, a second uplink data of the second logical channel, wherein the second uplink data is transmitted on the second cell based on the third information by using the second SCS based on the fourth information, wherein the second uplink data is a duplicate of the first uplink data and the second uplink data is duplicated from the first uplink data based on the first MAC CE. receiving, from a base station, first information on a first cell allowed for a first logical channel associated with a packet duplication configured for a radio bearer, second information on a first subcarrier spacing, SCS, allowed for the first logical channel, third information on a second cell allowed for a second logical channel associated with the packet duplication, and fourth information on a second SCS allowed for the second logical channel; receiving, from the base station, a first medium access control, MAC, control element, CE, indicating an activation of the packet duplication; transmitting, to the base station, a first uplink data of the first logical channel, wherein the first uplink data is transmitted on the first cell based on the first information by using the first SCS based on the second information; and transmitting, to the base station, a second uplink data of the second logical channel, wherein the second uplink data is transmitted on the second cell based on the third information by using the second SCS based on the fourth information, wherein the second uplink data is a duplicate of the first uplink data and the second uplink data is duplicated from the first uplink data based on the first MAC CE.
A method comprising: identifying, by an Access Point, AP, in a Wireless Local Area Network, WLAN, a station wherein identifying the station comprises determining that the station has roamed away from the AP; sending, by the AP, a report request to the station in response to identifying the station; and receiving, from the station in response to the report request, a report comprising information, the information comprising a location of the station and data indicating a strength of a signal from the AP at the station, the method further comprising creating, by a mapping server based on the received report, a plurality of maps wherein each of the plurality of maps indicates a hole in the coverage of the WLAN for a corresponding plurality of service levels. identifying, by an Access Point, AP, in a Wireless Local Area Network, WLAN, a station wherein identifying the station comprises determining that the station has roamed away from the AP; sending, by the AP, a report request to the station in response to identifying the station; and receiving, from the station in response to the report request, a report comprising information, the information comprising a location of the station and data indicating a strength of a signal from the AP at the station, the method further comprising creating, by a mapping server based on the received report, a plurality of maps wherein each of the plurality of maps indicates a hole in the coverage of the WLAN for a corresponding plurality of service levels.