mhurhangee/ep-ind-claims huggingface dataset:
A method of assessing the integrity of a porous material loaded into a porous material device comprising a) loading a wetted porous material into a device having a housing for receiving the wetted porous material, resulting in a wetted porous material having a feed side and a permeate side; b) feeding a compressed gas mixture of two or more gas components to the feed side of the wetted porous material, wherein the feed gases have differing permeabilities in the liquid used to wet the porous material such that one of the gases permeates through the liquid of the wetted porous material faster than the other gas or gases used; c) charging the permeate side of the porous material volume with a gas mixture having the expected composition of permeate gas generated from an integral membrane; d) venting excess permeate gas and maintaining a feed side gas sweep flow; e) assessing the concentration of the gas mixture on the permeate side; and f) comparing the assessed concentration of the permeate gas with the value expected from an integral device, wherein a deviation from the expected concentration by more than predetermined amount is a signal for a non-integral porous material or porous material device. a) loading a wetted porous material into a device having a housing for receiving the wetted porous material, resulting in a wetted porous material having a feed side and a permeate side; b) feeding a compressed gas mixture of two or more gas components to the feed side of the wetted porous material, wherein the feed gases have differing permeabilities in the liquid used to wet the porous material such that one of the gases permeates through the liquid of the wetted porous material faster than the other gas or gases used; c) charging the permeate side of the porous material volume with a gas mixture having the expected composition of permeate gas generated from an integral membrane; d) venting excess permeate gas and maintaining a feed side gas sweep flow; e) assessing the concentration of the gas mixture on the permeate side; and f) comparing the assessed concentration of the permeate gas with the value expected from an integral device, wherein a deviation from the expected concentration by more than predetermined amount is a signal for a non-integral porous material or porous material device.
Yagi-Uda antenna comprising a reflector parasitic element, a radiating element and at least one director parasitic element that are placed in this order along a longitudinal axis of the antenna, the radiating element being formed from a conductive plate, which plate is placed substantially orthogonal to the longitudinal axis of the antenna and above a ground plane so as to form a monopole, the plate being provided, on the side of the ground plane, with a feed terminal for applying or receiving an antenna signal, the conductive plate being of circular shape, and being equipped, at an end opposite to the ground plane, with a return conductor, the return conductor being electrically connected to the ground plane, so that the assembly consisting of the conductive plate and of the return conductor form a folded monopole, the conductive plate taking the form of a disc of diameter of order λ/4, where λ is a wavelength corresponding to a lower limit of a frequency band of operation of the antenna, and the return conductor taking the form of a rod or strip of length substantially identical to the diameter of the disc.
Electrical contact device, in particular an emergency-stop switch contact device, comprising: - a first switching contact unit for producing or isolating an electrically conductive connection, and - a second switching contact unit for producing or isolating an electrically conductive connection, wherein the first and the second switching contact unit (4, 5) comprise a switching bridge with two contact points, wherein a first contact side of the first switching contact unit is connected to a first contact side of the second switching contact unit, and a second contact side of the first switching contact unit is connected to a first connection contact of the contact device, and a second contact side of the second switching contact unit is connected to a second connection contact of the contact device, and wherein both switching contact units (4, 5) are designed to be actuable by a movable ram acting thereon, wherein the connection contacts (15, 17) for connecting the electric contact device are provided on an external line, wherein the first and the second switching contact unit (4, 5) are arranged inside an assembly unit which is provided for connecting to a actuating device, characterised in that the two connection contacts (15, 17) are arranged relative to the ram on opposite sides of the housing on the contact device. - a first switching contact unit for producing or isolating an electrically conductive connection, and - a second switching contact unit for producing or isolating an electrically conductive connection, wherein the first and the second switching contact unit (4, 5) comprise a switching bridge with two contact points, wherein a first contact side of the first switching contact unit is connected to a first contact side of the second switching contact unit, and a second contact side of the first switching contact unit is connected to a first connection contact of the contact device, and a second contact side of the second switching contact unit is connected to a second connection contact of the contact device, and wherein both switching contact units (4, 5) are designed to be actuable by a movable ram acting thereon, wherein the connection contacts (15, 17) for connecting the electric contact device are provided on an external line, wherein the first and the second switching contact unit (4, 5) are arranged inside an assembly unit which is provided for connecting to a actuating device, characterised in that the two connection contacts (15, 17) are arranged relative to the ram on opposite sides of the housing on the contact device.
A catheter curvature brace (10; 30; 50), comprising: an elongated frame (12; 32; 52) having a distal end (24; 44; 62) and a proximal end (22; 42; 60), the frame being formed with at least a first curve in a first relaxed curved configuration; at least two coupling elements (14; 16; 34; 36; 58; 62; 66) connected to the frame, each coupling element configured to engage an outer surface of a catheter; and at least the frame being formed of an elastic, biocompatible material capable of being straightened by a force and then returning to the first relaxed curved configuration after the force is removed. an elongated frame (12; 32; 52) having a distal end (24; 44; 62) and a proximal end (22; 42; 60), the frame being formed with at least a first curve in a first relaxed curved configuration; at least two coupling elements (14; 16; 34; 36; 58; 62; 66) connected to the frame, each coupling element configured to engage an outer surface of a catheter; and at least the frame being formed of an elastic, biocompatible material capable of being straightened by a force and then returning to the first relaxed curved configuration after the force is removed.
A bone conduction hearing device (600, 700, 800) configured to be worn by a recipient, comprising: a sound input element configured to receive an acoustic sound signal; and one or more functional components, wherein at least one of which is an electronics module configured to generate an electrical signal representing said acoustic sound signal; and a transducer (607, 807) comprising one or more transducer components; characterized by a mass component including at least one transducer component (640, 740, 896A, 896B); and at least one of said one or more functional components (610, 614, 730, 892, 894), wherein at least one of said one or more functional components is attached to the transducer, and wherein the transducer is configured to generate motion of said mass component based on said electrical signal so as to generate one or more mechanical forces resulting in one or more of motion and vibration of a recipient's skull thereby causing sound perception so that said at least one of the one or more functional components is used by the transducer to generate the mechanical forces in addition to performing its own function. a sound input element configured to receive an acoustic sound signal; and one or more functional components, wherein at least one of which is an electronics module configured to generate an electrical signal representing said acoustic sound signal; and a transducer (607, 807) comprising one or more transducer components; characterized by a mass component including at least one transducer component (640, 740, 896A, 896B); and at least one of said one or more functional components (610, 614, 730, 892, 894), wherein at least one of said one or more functional components is attached to the transducer, and wherein the transducer is configured to generate motion of said mass component based on said electrical signal so as to generate one or more mechanical forces resulting in one or more of motion and vibration of a recipient's skull thereby causing sound perception so that said at least one of the one or more functional components is used by the transducer to generate the mechanical forces in addition to performing its own function.
A mobile terminal, comprising a camera including a front camera disposed on a front surface of a body of the mobile terminal and a rear camera disposed on a rear surface of the body, the mobile terminal further comprises a controller configured to activate the camera when an event occurs, and sense whether or not the mobile terminal is mounted on a vehicle and whether or not the vehicle is driving using an image received through the front camera and an image received through the rear camera, determine that the vehicle is driving in a state that the mobile terminal is mounted on the vehicle based on a change of an image in a region having a size smaller than a predetermined reference size on the image received through the front camera, and a change of an image in a region having a size larger than the reference size on the image received through the rear camera, and recognize a gesture of a user to activate a gesture function for controlling the event when it is determined that the vehicle is driving in a state that the mobile terminal is mounted on the vehicle according to the sensed result. activate the camera when an event occurs, and sense whether or not the mobile terminal is mounted on a vehicle and whether or not the vehicle is driving using an image received through the front camera and an image received through the rear camera, determine that the vehicle is driving in a state that the mobile terminal is mounted on the vehicle based on a change of an image in a region having a size smaller than a predetermined reference size on the image received through the front camera, and a change of an image in a region having a size larger than the reference size on the image received through the rear camera, and recognize a gesture of a user to activate a gesture function for controlling the event when it is determined that the vehicle is driving in a state that the mobile terminal is mounted on the vehicle according to the sensed result.
Process for obtaining a thin layer from a semiconductor substrate, comprising the following steps: - introducing at least one gaseous species (3, 13) into a zone (4, 14) of the substrate in order to form micro-cavities in this zone, the zone thus weakened delimiting a thin layer with one face of the substrate; - performing, after the step of introducing at least one gaseous species, at least one manufacturing stage of all or part of at least one component in said thin layer, said at least one manufacturing stage being performed using a thermal treatment; - separating, after said at least one manufacturing stage, the thin layer from the remaining part of the substrate, characterized in that the process further comprises the following step performed before said at least one manufacturing stage: - evacuating all or some of the gaseous species in the weakened zone, this evacuating step comprising a heat treatment carried out so as to allow all or some of the introduced gaseous species to leave the micro-cavities by diffusion and to avoid, during the thermal treatment performed during said at least one manufacturing stage, a pressure effect in the micro-cavities which could induce the surface deformation of the substrate or a separation. - introducing at least one gaseous species (3, 13) into a zone (4, 14) of the substrate in order to form micro-cavities in this zone, the zone thus weakened delimiting a thin layer with one face of the substrate; - performing, after the step of introducing at least one gaseous species, at least one manufacturing stage of all or part of at least one component in said thin layer, said at least one manufacturing stage being performed using a thermal treatment; - separating, after said at least one manufacturing stage, the thin layer from the remaining part of the substrate, - evacuating all or some of the gaseous species in the weakened zone, this evacuating step comprising a heat treatment carried out so as to allow all or some of the introduced gaseous species to leave the micro-cavities by diffusion and to avoid, during the thermal treatment performed during said at least one manufacturing stage, a pressure effect in the micro-cavities which could induce the surface deformation of the substrate or a separation.
Method for updating a certificate stored in the data storage means of a portable device capable of being connected to a client workstation, said client workstation being connected via a network to a server storing a list of certificates characterised in that it comprises the implementation of steps of: - generating, by data processing means of the client workstation, a recovery request on the server of a list of actions commanded by an administrator of the server and transmitting said request to said server; - determining (403, 504), by data processing means of the client workstation, at least one certificate to be updated on the portable device; - transmitting, by said server, said list of actions to said client workstation; - executing, by data processing means of the client workstation, said actions; - for each determined certificate to be updated, generating (406, 506) and transmitting (407, 507), by data processing means of the client workstation, a request to issue a new certificate, sent to a certification authority via said server; - updating (411, 511), by data processing means of the server, said list of certificates stored on the server from new certificates issued by the certification authority; - generating and transmitting, by data processing means of the client workstation, a request for recovering (412, 512) said new certificates sent to said server, transmitting, by the server, new certificates sent to the client workstation; - installing (414, 514), by processing means of the client workstation on said portable device, said recovered new certificates. - generating, by data processing means of the client workstation, a recovery request on the server of a list of actions commanded by an administrator of the server and transmitting said request to said server; - determining (403, 504), by data processing means of the client workstation, at least one certificate to be updated on the portable device; - transmitting, by said server, said list of actions to said client workstation; - executing, by data processing means of the client workstation, said actions; - for each determined certificate to be updated, generating (406, 506) and transmitting (407, 507), by data processing means of the client workstation, a request to issue a new certificate, sent to a certification authority via said server; - updating (411, 511), by data processing means of the server, said list of certificates stored on the server from new certificates issued by the certification authority; - generating and transmitting, by data processing means of the client workstation, a request for recovering (412, 512) said new certificates sent to said server, transmitting, by the server, new certificates sent to the client workstation; - installing (414, 514), by processing means of the client workstation on said portable device, said recovered new certificates.
Device (10, 20, 30) for connecting the shield of a high-voltage cable having a cable intrinsic capacitance (Cc) with a ground, comprising a device capacitance (C10, C20, C30) and an inductance (L10, L20, L30), whereby the device capacitance (C10, C20, C30) and the inductance (L10, L20, L30) are connected between the shield and the ground, characterized in that the device capacitance (C10, C20, C30) and the inductance (L10, L20, L30) are connected in series, and in that the values of the inductance (L10, L20, L30) and the device capacitance (C10, C20, C30) are selected in such a way that the resonant frequency F of the device (10, 20, 30) +/- 10Hz, advantageously +/- 5Hz, even more advantageously +/- 2Hz, is set equal to the fundamental frequency F1 of the high-voltage network in which the high-voltage cable is used, and in such a way that the lowest resonant frequency F2 of the series connection out of the device (10, 20, 30) and the cable intrinsic capacitance (Cc) is greater than a frequency predetermined by the operator of the high-voltage network, and such that the lowest resonant frequency F2 of the series connection of the device (10, 20, 30) and the cable intrinsic capacitance (Cc) is greater than a limit frequency Fg predetermined by the operator of the high-voltage network, above which network elements of the high-voltage network may not behave actively. characterized in that the device capacitance (C10, C20, C30) and the inductance (L10, L20, L30) are connected in series, and in that the values of the inductance (L10, L20, L30) and the device capacitance (C10, C20, C30) are selected in such a way that the resonant frequency F of the device (10, 20, 30) +/- 10Hz, advantageously +/- 5Hz, even more advantageously +/- 2Hz, is set equal to the fundamental frequency F1 of the high-voltage network in which the high-voltage cable is used, and in such a way that the lowest resonant frequency F2 of the series connection out of the device (10, 20, 30) and the cable intrinsic capacitance (Cc) is greater than a frequency predetermined by the operator of the high-voltage network, and such that the lowest resonant frequency F2 of the series connection of the device (10, 20, 30) and the cable intrinsic capacitance (Cc) is greater than a limit frequency Fg predetermined by the operator of the high-voltage network, above which network elements of the high-voltage network may not behave actively.
A piston, comprising: a piston body having an upper combustion surface spaced from an internal cooling chamber by a wall, said wall having at least one pocket extending into said upper combustion surface toward said internal cooling chamber over a depth to a closed bottom surface, said closed bottom surface being spaced from said internal cooling chamber by a portion of said wall having a reduced thickness; and a tubular member disposed in said at least one pocket and extending upwardly from said upper combustion surface; wherein said tubular member extends upwardly from said upper combustion surface a distance equal to or greater than said reduced thickness, and wherein said tubular member has a length greater than said depth such that when impacted it is able to break through said portion of wall having a reduced thickness into the cooling chamber. a piston body having an upper combustion surface spaced from an internal cooling chamber by a wall, said wall having at least one pocket extending into said upper combustion surface toward said internal cooling chamber over a depth to a closed bottom surface, said closed bottom surface being spaced from said internal cooling chamber by a portion of said wall having a reduced thickness; and a tubular member disposed in said at least one pocket and extending upwardly from said upper combustion surface; wherein said tubular member extends upwardly from said upper combustion surface a distance equal to or greater than said reduced thickness, and wherein said tubular member has a length greater than said depth such that when impacted it is able to break through said portion of wall having a reduced thickness into the cooling chamber.
An anomaly detection method implemented by a computer, the anomaly detection method comprising: when there is a window width of which a degree of autocorrelation is greater than a threshold value (Qth) in a measured time-series data of a parameter relating to a network, identifying a first window width (Wo) of which the degree of autocorrelation is largest among the window width as a time period during which the measured time-series data have a periodicity; when a first time (Tp), which corresponds to a time where a determination on whether an anomaly exists in the network is to be made, is within the time period, determining whether the network has the anomaly using the measured time-series data and using a first forecast value of the measured time-series data at the first time (Tp), where the first forecast value is calculated using a first method based on learning measured time-series data of the parameter; and when the first time (Tp) is not within the time period, determining whether the network has the anomaly using the measured time-series data and using a second forecast value of the measured time-series data at the first time (Tp), where the second forecast value is calculated using a second method different from the first method. when there is a window width of which a degree of autocorrelation is greater than a threshold value (Qth) in a measured time-series data of a parameter relating to a network, identifying a first window width (Wo) of which the degree of autocorrelation is largest among the window width as a time period during which the measured time-series data have a periodicity; when a first time (Tp), which corresponds to a time where a determination on whether an anomaly exists in the network is to be made, is within the time period, determining whether the network has the anomaly using the measured time-series data and using a first forecast value of the measured time-series data at the first time (Tp), where the first forecast value is calculated using a first method based on learning measured time-series data of the parameter; and when the first time (Tp) is not within the time period, determining whether the network has the anomaly using the measured time-series data and using a second forecast value of the measured time-series data at the first time (Tp), where the second forecast value is calculated using a second method different from the first method.
A dry composition for the preparation of pervious concrete characterized in that it comprises at least the following solid state components: - 12% of hydraulic binder, of the cement type. - 83% of aggregates comprising essentially 3% of sand with a grain size of less than or equal to 4 mm and 80% of washed crushed gravel with a grain size comprised between 2 mm and 6 mm, - 3.92% of dehydroxylated alumina silicate of general composition Al2O3, 2SiO2, - 0.08% of synthetic fibers. - 0.2% of air entrainer. All the aforementioned percentages are percentages by weight relative to the total weight of the dry composition. - 12% of hydraulic binder, of the cement type. - 83% of aggregates comprising essentially 3% of sand with a grain size of less than or equal to 4 mm and 80% of washed crushed gravel with a grain size comprised between 2 mm and 6 mm, - 3.92% of dehydroxylated alumina silicate of general composition Al2O3, 2SiO2, - 0.08% of synthetic fibers. - 0.2% of air entrainer.