mhurhangee/ep-ind-claims huggingface dataset:
Transmission method for remote reading of fluid meters, characterized in that a meter comprises a module (E3 1), (E3 2), (E3 3), E3 4), (E3 5) able to transmit, in the VHF frequency band, a frame of remote-reading information intended for a server comprising a radio receiver able to receive in the UHF frequency band, and in that a concentrator (E2 1), (E2 2) receives the frame of information arriving from the module (E3 1), (E3 2), (E3 3), E3 4), (E3 5) in the VHF frequency band and transmits said frame of information in the UHF frequency band to the server.
A method for detecting a predefined set of characteristic points of a face from an image of this face, wherein the characteristic points are obtained by making the shape and the texture of a hierarchy of face portion statistical models, MSV1, and a hierarchy of face statistical models, MSV2, converge on the real data supplied by the image of the face, the used statistical models being of the Patch-based Active Appearance Model type, PAAM, characterised in that it includes using the hierarchy of face portion statistical models, MSV1, for the detection of face portions in the area of the face in the image (step 300), then using the hierarchy of face statistical models, MSV2, for the final detection (step 400) wherein the hierarches of statistical models MSV1 and MSV2 are created based on the same learning base, multiplicative factors matching parameters governing the shapes corresponding to the hierarchies of statistical models MSV1 and MSV2, the initialisation of the final detection being performed using said multiplicative factors applied to the parameters found upon detection of the portions of the face in the area of the face in the image.
An activator having a structure according to formula: where: M is a metal in a +3 oxidation state, the metal being selected from boron, aluminum, gallium, scandium, yttrium, or a lanthanide; [Cat] + is a cation; R 1, R 2, R 3, R 4 R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15, and R 16 are independently chosen from (C 1 -C 40)alkyl, (C 6 -C 40)aryl, -H, -NR C 2, -OR C, -SR C, or halogen, wherein each R C is independently a (C 1 -C 30)hydrocarbyl or -H, provided at least one of R 1-4, and one of R 5-8, and one of R 9-12, and one of R 13-16 is a fluorine-substituted (C 1 -C 40)alkyl, a fluorine-substituted (C 6 -C 40)aryl, or -F; and R 17 and R 18 are (C 1 -C 40)alkyl, (C 1 -C 40)heteroalkyl, a fluorine-substituted (C 1 -C 40)alkyl, or a fluorine-substituted (C 6 -C 40)aryl. M is a metal in a +3 oxidation state, the metal being selected from boron, aluminum, gallium, scandium, yttrium, or a lanthanide; [Cat] + is a cation; R 1, R 2, R 3, R 4 R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15, and R 16 are independently chosen from (C 1 -C 40)alkyl, (C 6 -C 40)aryl, -H, -NR C 2, -OR C, -SR C, or halogen, wherein each R C is independently a (C 1 -C 30)hydrocarbyl or -H, provided at least one of R 1-4, and one of R 5-8, and one of R 9-12, and one of R 13-16 is a fluorine-substituted (C 1 -C 40)alkyl, a fluorine-substituted (C 6 -C 40)aryl, or -F; and R 17 and R 18 are (C 1 -C 40)alkyl, (C 1 -C 40)heteroalkyl, a fluorine-substituted (C 1 -C 40)alkyl, or a fluorine-substituted (C 6 -C 40)aryl.
A method of configuring a computing device in a network of at least one surveillance camera, characterized by the following steps: storing, in a surveillance camera, a configuration data archive relating to a first network video recorder; determining, by a second network video recorder to be configured, whether the surveillance camera has stored therein the configuration data archive; and in response to a determination that the surveillance camera has stored therein the configuration data archive, transferring data from the configuration data archive to the second network recorder to enable configuration of the second network video recorder as a replacement for the first network video recorder, based on the data from the configuration data archive stored in the surveillance camera. storing, in a surveillance camera, a configuration data archive relating to a first network video recorder; determining, by a second network video recorder to be configured, whether the surveillance camera has stored therein the configuration data archive; and in response to a determination that the surveillance camera has stored therein the configuration data archive, transferring data from the configuration data archive to the second network recorder to enable configuration of the second network video recorder as a replacement for the first network video recorder, based on the data from the configuration data archive stored in the surveillance camera.
A method of fabricating alternating N-type and P-type emitter regions of a solar cell, the method comprising: forming a silicon layer above a substrate; implanting dopant impurity species of a first conductivity type in the silicon layer to form first implanted regions and resulting in non-implanted regions of the silicon layer; implanting ancillary impurity species into the first implanted regions of the silicon layer, the ancillary impurity species being different from the dopant impurity species of the first conductivity type; implanting dopant impurity species of a second, opposite, conductivity type in portions of the non-implanted regions of the silicon layer to form second implanted regions and resulting in remaining non-implanted regions of the silicon layer; removing the remaining non-implanted regions of the silicon layer with a selective etch process preserving at least a portion of the first implanted regions and preserving the second implanted regions of the silicon layer; and annealing the first implanted regions and the second implanted regions of the silicon layer to form doped polycrystalline silicon emitter regions (116, 118). forming a silicon layer above a substrate; implanting dopant impurity species of a first conductivity type in the silicon layer to form first implanted regions and resulting in non-implanted regions of the silicon layer; implanting ancillary impurity species into the first implanted regions of the silicon layer, the ancillary impurity species being different from the dopant impurity species of the first conductivity type; implanting dopant impurity species of a second, opposite, conductivity type in portions of the non-implanted regions of the silicon layer to form second implanted regions and resulting in remaining non-implanted regions of the silicon layer; removing the remaining non-implanted regions of the silicon layer with a selective etch process preserving at least a portion of the first implanted regions and preserving the second implanted regions of the silicon layer; and annealing the first implanted regions and the second implanted regions of the silicon layer to form doped polycrystalline silicon emitter regions (116, 118).
A method operating at a user device for securing streaming content decryption, the method comprising: receiving a firmware-level distribution message containing a first key identification and a first private Key Encryption Key that is associated with the first key identification and is encrypted using a root key stored in secure storage in a secure processing zone of the user device; storing the first key identification and the first private KEK in the secure storage; receiving at the user device a manifest for requested content, the manifest providing a Content Encryption Key that is encrypted using a first public KEK corresponding to the first private KEK; decrypting, inside the secure processing zone, the CEK using the first private KEK to create a decrypted content key; decrypting, inside the secure processing zone, requested content using the decrypted content key to form decrypted content; providing the decrypted content to a decoder in the secure processing zone; receiving a firmware-level replacement control message containing the first key identification and a second private KEK encrypted using the root key and replacing the first private KEK with the second private KEK. receiving a firmware-level distribution message containing a first key identification and a first private Key Encryption Key that is associated with the first key identification and is encrypted using a root key stored in secure storage in a secure processing zone of the user device; storing the first key identification and the first private KEK in the secure storage; receiving at the user device a manifest for requested content, the manifest providing a Content Encryption Key that is encrypted using a first public KEK corresponding to the first private KEK; decrypting, inside the secure processing zone, the CEK using the first private KEK to create a decrypted content key; decrypting, inside the secure processing zone, requested content using the decrypted content key to form decrypted content; providing the decrypted content to a decoder in the secure processing zone; receiving a firmware-level replacement control message containing the first key identification and a second private KEK encrypted using the root key and replacing the first private KEK with the second private KEK.
A system for modulating the transmission of light, the system comprising: an electrochromic device comprising an electrochromic glazing and an identification circuit which stores information regarding at least some of the properties of the electrochromic device or its control requirements; and a control system configured to access the information stored in the identification circuit and to use the accessed information to apply an appropriate voltage and/or current to the electrochromic device, characterized in that the identification circuit is in bidirectional communication with said control system. an electrochromic device comprising an electrochromic glazing and an identification circuit which stores information regarding at least some of the properties of the electrochromic device or its control requirements; and a control system configured to access the information stored in the identification circuit and to use the accessed information to apply an appropriate voltage and/or current to the electrochromic device, characterized in that the identification circuit is in bidirectional communication with said control system.
Method implemented in a variable speed drive to detect a loss of one phase, two phases or three phases in a three-phase permanent-magnet synchronous motor (PMSM), running or stopped at rest, said variable speed drive executing a closed loop control operation, said method being characterized in that it comprises steps of: - determining a reference flux current (Idref) as a function of a reference torque current (Iqref), said reference torque current (Iqref) being calculated from a reference speed (Wref) to be applied to the motor and a measurement of the speed (Wmes) or the position carried out on the motor; - applying the reference flux current (Idref) in order to inject currents (I1, 12, 13) over the various phases of the motor (PMSM); - measuring the currents over at least two phases and determining the loss of one phase, of two phases or of three phases from these measured currents. - determining a reference flux current (Idref) as a function of a reference torque current (Iqref), said reference torque current (Iqref) being calculated from a reference speed (Wref) to be applied to the motor and a measurement of the speed (Wmes) or the position carried out on the motor; - applying the reference flux current (Idref) in order to inject currents (I1, 12, 13) over the various phases of the motor (PMSM); - measuring the currents over at least two phases and determining the loss of one phase, of two phases or of three phases from these measured currents.
A light module for a motor vehicle lighting and/or signalling unit, comprising a plurality of point light sources (40, 50, 60, 70) arranged on at least one support plate (10, 20) and capable of emitting light rays of different colors in order to perform different photometric functions, as well as an optical element capable of directing the path of the light rays coming from said light sources (40, 50, 60, 70) towards a space to be illuminated; said optical element being constituted by a reflector comprising a first and a second elongated section (31, 32) joined by a curved intermediate section, said light module comprising a first support plate extending along the inner edge of said first elongated section and carrying a first series of point light sources capable of emitting light rays of a first color in the direction of this first elongated section said light module further comprising a second support plate extending along the outer edge of said second elongated section and carrying a second series of point light sources capable of emitting light rays of a second color in the direction of this second elongated section said first support plate comprising an extension extending beyond said first elongated section as far as said second support plate so as to constitute a screen limiting or preventing the parasitic reflections of light rays coming from the second series of point light sources on said curved intermediate section and said first elongated section of the reflector characterized in that the free end of said extension of the first support plate is profiled so as to be joined to said second support plate.
A control device for a software programmable network comprising one or more nodes, wherein the control device comprises: a processing circuitry configured to determine a new resource distribution partioning resources between guaranteed QoS and BE service classes different from predetermined resource distribution according to a demand for QoS service; calculate, for each node of the one or more nodes, a new configuration indicating the new resource distribution; and obtain, for each entry node to the network among the one or more nodes, a label distribution sequence indicating one or more new label distributions with associated activation timing information; and a transceiver configured to transmit the new configurations to respective nodes; and transmit the label distribution sequences to respective entry nodes. a processing circuitry configured to determine a new resource distribution partioning resources between guaranteed QoS and BE service classes different from predetermined resource distribution according to a demand for QoS service; calculate, for each node of the one or more nodes, a new configuration indicating the new resource distribution; and obtain, for each entry node to the network among the one or more nodes, a label distribution sequence indicating one or more new label distributions with associated activation timing information; and determine a new resource distribution partioning resources between guaranteed QoS and BE service classes different from predetermined resource distribution according to a demand for QoS service; calculate, for each node of the one or more nodes, a new configuration indicating the new resource distribution; and obtain, for each entry node to the network among the one or more nodes, a label distribution sequence indicating one or more new label distributions with associated activation timing information; and a transceiver configured to transmit the new configurations to respective nodes; and transmit the label distribution sequences to respective entry nodes. transmit the new configurations to respective nodes; and transmit the label distribution sequences to respective entry nodes.
A method of carrying out a configuration process in respect of a network element comprising the steps of: generating by an agent first configuration parameters at a configuration process level; determining whether it is not possible to create an object instance representing the network element where all attributes of the object are populated with values and, in the event that it is not possible, determining at the configuration process level second configuration parameters which are required to configure the network element but are not to be generated at the configuration process level; notifying at the configuration process level a level located above the configuration process level of the required second configuration parameters and related information in which a list of the required second configuration parameters is sent to the higher level to cause this higher level to use the related information to generate and provide the second configuration parameters; generating by a manager the second configuration parameters at the higher level; providing the second configuration parameters to the configuration process level; and using the first configuration parameters and the second configuration parameters at the configuration process level to configure the network element. generating by an agent first configuration parameters at a configuration process level; determining whether it is not possible to create an object instance representing the network element where all attributes of the object are populated with values and, in the event that it is not possible, determining at the configuration process level second configuration parameters which are required to configure the network element but are not to be generated at the configuration process level; notifying at the configuration process level a level located above the configuration process level of the required second configuration parameters and related information in which a list of the required second configuration parameters is sent to the higher level to cause this higher level to use the related information to generate and provide the second configuration parameters; generating by a manager the second configuration parameters at the higher level; providing the second configuration parameters to the configuration process level; and using the first configuration parameters and the second configuration parameters at the configuration process level to configure the network element.
A vehicle-body lower face structure, comprising: a torsion beam type of rear suspension comprising a pair of right-and-left trailing arms and a torsion beam connecting the trailing arms; a floor under cover for airflow straightening attached to a portion of a vehicle body in front of the rear suspension so as to cover a vehicle-body lower face; and a cover-support bracket provided to be laid between a side sill and an inward side, in a vehicle width direction, of an arm pivot of the trailing arm, wherein a portion of said floor under cover is engaged with said cover-support bracket, and the floor under cover is extended beyond an inward-side edge (a) of a rear wheel house. a torsion beam type of rear suspension comprising a pair of right-and-left trailing arms and a torsion beam connecting the trailing arms; a floor under cover for airflow straightening attached to a portion of a vehicle body in front of the rear suspension so as to cover a vehicle-body lower face; and a cover-support bracket provided to be laid between a side sill and an inward side, in a vehicle width direction, of an arm pivot of the trailing arm, wherein a portion of said floor under cover is engaged with said cover-support bracket, and the floor under cover is extended beyond an inward-side edge (a) of a rear wheel house.
A fluid treatment system for separating a mixture of a first fluid and a second fluid, comprising: a cyclone separator comprising a separating chamber, an inlet for receiving the mixture, a first outlet for discharge of the first fluid from the separating chamber and a second outlet for discharge of the second fluid from the separating chamber; an inlet pressure transmitter, a first outlet pressure transmitter, and a second outlet pressure transmitter for monitoring the pressure at the inlet, first outlet and second outlet respectively and providing a signalling indicative of the pressures to a control device; an inlet flow monitor for monitoring fluid flow at the inlet; an outlet flow monitor for monitoring fluid flow at at least one of the first and the second outlets; and a control device for receiving signals from the pressure transmitters and flow monitors and for processing those signals to provide an indication of blockage within the separator, wherein the control device uses the signals from the pressure transmitters (24, 25, 26) to produce a pressure differential ratio as part of the determination of the presence of a blockage, wherein the PDR is provided in accordance with the following formula: PDR = P in − P reject P in − P out, where the subscript in is the pressure at the inlet, the subscript out is the pressure at the second outlet and the subscript reject is the pressure at the first outlet. a cyclone separator comprising a separating chamber, an inlet for receiving the mixture, a first outlet for discharge of the first fluid from the separating chamber and a second outlet for discharge of the second fluid from the separating chamber; an inlet pressure transmitter, a first outlet pressure transmitter, and a second outlet pressure transmitter for monitoring the pressure at the inlet, first outlet and second outlet respectively and providing a signalling indicative of the pressures to a control device; an inlet flow monitor for monitoring fluid flow at the inlet; an outlet flow monitor for monitoring fluid flow at at least one of the first and the second outlets; and a control device for receiving signals from the pressure transmitters and flow monitors and for processing those signals to provide an indication of blockage within the separator, wherein the control device uses the signals from the pressure transmitters (24, 25, 26) to produce a pressure differential ratio as part of the determination of the presence of a blockage, wherein the PDR is provided in accordance with the following formula: PDR = P in − P reject P in − P out, where the subscript in is the pressure at the inlet, the subscript out is the pressure at the second outlet and the subscript reject is the pressure at the first outlet.