mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting a malfunction of a management system of a battery comprising a plurality of stages (E i) coupled in series, each stage comprising a plurality of cells (C i) coupled in parallel by conductors (b i), the management system comprising a plurality of voltage sensors (V i, A i), said plurality of voltage sensors comprising a voltage sensor across each cell (C i) and conductor (b i), of the battery, the sensors (V i, A i) define a set of meshes such that each sensor is comprised in several meshes of the set, and such that in each one of the meshes, in normal operation, the sum of the output values of the voltage sensors of the mesh is equal to 0 within the sensors measurement inaccuracies, the method comprising the steps of: a) reading the output values of said sensors; and b) determining, by means of a processing unit, whether the mesh equations of the set of meshes are satisfied by the read values, a mesh equation being considered as satisfied if the sum of the output values of the sensors of the mesh is equal to 0 within the sensors measurement inaccuracies. a) reading the output values of said sensors; and b) determining, by means of a processing unit, whether the mesh equations of the set of meshes are satisfied by the read values, a mesh equation being considered as satisfied if the sum of the output values of the sensors of the mesh is equal to 0 within the sensors measurement inaccuracies.
Enclosure and/or insertion profile for connecting a cladding panel to a building part, in particular for connecting a reveal panel to a window frame or door frame, wherein the enclosure and/or insertion profile has a U-profile part which has a first limb and a second limb, which are connected to one another via a crossmember, and wherein a mount for a peripheral region of the cladding panel is formed between the limbs (4, 5), wherein the enclosure and/or insertion profile has a protective flap which runs in the longitudinal direction of the U-profile part and is connected to a peripheral region of the crossmember remote from the first limb, and/or to the second limb, via a predetermined severing location, for manual break-off action, such that - extending from the predetermined severing location to the opposite periphery of the protective flap, remote from the predetermined severing location - the protective flap is oriented away from the first limb, characterized in that the crossmember is connected to the second limb via a predetermined breaking location, extending in the longitudinal direction of the U-profile part, such that said second limb can be broken off from the crossmember along a predetermined breaking location.
A loading machine for cartridges with quick caliber change system, where said machine comprises: - a frame structure; - feed means for a plurality of empty cartridges having a given caliber (c, c1, c2); - an operating beam provided with ancillary means adapted to load and manufacture said cartridges; - feed and conveying means of said cartridges during loading thereof; - ejection means for the loaded cartridges; - motor means for activation of kinematic mechanisms; - a control unit; wherein said feed and conveying means of said cartridges comprise: - a race adapted to support and allow feed of said cartridges in a given direction according to a rectilinear trajectory; - a conveyor guide, arranged parallel to said race along the side thereof facing the front of the machine, adapted to convey said cartridges along said race; - an abutment bar, arranged parallel to said race, symmetrical with respect to said conveyor guide, adapted to act as vertical support and stop surface for said cartridges in production, characterized in that said feed and conveying means of said cartridges also comprise: - shifting means of said abutment bar in transverse direction with respect to the direction of feed of said cartridges; - interchangeable regulating means, adapted to cooperate resting against said abutment bar to selectively define an appropriate distance between said bar and said race as a function of the caliber (c, c1, c2) of said cartridges. - a frame structure; - feed means for a plurality of empty cartridges having a given caliber (c, c1, c2); - an operating beam provided with ancillary means adapted to load and manufacture said cartridges; - feed and conveying means of said cartridges during loading thereof; - ejection means for the loaded cartridges; - motor means for activation of kinematic mechanisms; - a control unit; - a race adapted to support and allow feed of said cartridges in a given direction according to a rectilinear trajectory; - a conveyor guide, arranged parallel to said race along the side thereof facing the front of the machine, adapted to convey said cartridges along said race; - an abutment bar, arranged parallel to said race, symmetrical with respect to said conveyor guide, adapted to act as vertical support and stop surface for said cartridges in production, characterized in that said feed and conveying means of said cartridges also comprise: - shifting means of said abutment bar in transverse direction with respect to the direction of feed of said cartridges; - interchangeable regulating means, adapted to cooperate resting against said abutment bar to selectively define an appropriate distance between said bar and said race as a function of the caliber (c, c1, c2) of said cartridges.
A signal processing device comprising: an acquisition means (5, 15) configured to acquire a first shake detection signal indicating a detection result of a first angular velocity sensor (12, 17) included in a first device and a second shake detection signal indicating a detection result of a second angular velocity sensor (12, 17) included in a second device different from the first device, wherein the first device and the second device are a lens device and a body unit of an imaging device; and a determination means configured to determine a correction amount which is used to correct the first shake detection signal based on the first shake detection signal and the second shake detection signal, wherein the correction amount is determined for reducing a difference between the first shake detection signal from the first angular velocity sensor and the second shake detection signal from the second angular velocity sensor, characterized in that the determination means is configured to change a process parameter for determining the correction amount in accordance with information regarding the second angular velocity sensor (12, 17) or information regarding the second shake detection signal, wherein the process parameter to be changed includes at least one of a cutoff frequency of a filter and a gain for the correction amount. an acquisition means (5, 15) configured to acquire a first shake detection signal indicating a detection result of a first angular velocity sensor (12, 17) included in a first device and a second shake detection signal indicating a detection result of a second angular velocity sensor (12, 17) included in a second device different from the first device, wherein the first device and the second device are a lens device and a body unit of an imaging device; and a determination means configured to determine a correction amount which is used to correct the first shake detection signal based on the first shake detection signal and the second shake detection signal, wherein the correction amount is determined for reducing a difference between the first shake detection signal from the first angular velocity sensor and the second shake detection signal from the second angular velocity sensor, characterized in that the determination means is configured to change a process parameter for determining the correction amount in accordance with information regarding the second angular velocity sensor (12, 17) or information regarding the second shake detection signal, wherein the process parameter to be changed includes at least one of a cutoff frequency of a filter and a gain for the correction amount.
A reconfigurable optical add/drop multiplexer, ROADM, comprising: an M degree optical cross-connect, OXC, tandem component comprising M wavelength selective switches, WSSs, coupled to M wavelength division multiplexing, WDM, node interfaces, where M is an integer, and is equal to a number of input directions or a number of output directions; a combiner, wherein the combiner is configured to perform add functions; and a distributor, wherein the distributor is configured to perform drop functions; wherein each one of the combiner and distributor comprises a routing stage comprising M routing stage WSSs (412, 418), each routing stage WSS (412, 418) connected to one input/output of the tandem component, wherein the routing stage WSSs (412, 418) are unidirectional components; and wherein each one of the combiner and distributor comprises at least one photonic integrated circuit, PIC, module (430, 432) implementing at least one N by M OXC combiner/distributor coupled to each one of the M routing stage WSS (412, 418), where N is a maximum number of add/drop wavelength signals that the ROADM can add or drop. an M degree optical cross-connect, OXC, tandem component comprising M wavelength selective switches, WSSs, coupled to M wavelength division multiplexing, WDM, node interfaces, where M is an integer, and is equal to a number of input directions or a number of output directions; a combiner, wherein the combiner is configured to perform add functions; and a distributor, wherein the distributor is configured to perform drop functions; wherein each one of the combiner and distributor comprises a routing stage comprising M routing stage WSSs (412, 418), each routing stage WSS (412, 418) connected to one input/output of the tandem component, wherein the routing stage WSSs (412, 418) are unidirectional components; and wherein each one of the combiner and distributor comprises at least one photonic integrated circuit, PIC, module (430, 432) implementing at least one N by M OXC combiner/distributor coupled to each one of the M routing stage WSS (412, 418), where N is a maximum number of add/drop wavelength signals that the ROADM can add or drop.
Bus coupler comprising inputs and outputs (12, 13, 14, 15), to which bus cables (16, 17) of a two-wire bus are in each case connectable, wherein both electrical energy and data are equally transmissible via both bus cables (16, 17), characterised in that - the bus coupler comprises a first and a second input (12, 13) and a first and a second output (14, 15) each capable of connecting two bus cables (16, 17), - the first input and the first output are bus coupler-internally electrically conductively connectable by means of a first connection path, - the second input and the second output are bus coupler-internally electrically conductively connectable by means of a second connection path, and - the first connection path and second connection path are bus coupler-internally electrically conductively connectable by means of a bridge path, - the bus coupler in each case has at least one switching element in the first and/or second connection paths (26, 28) between the respective input (12, 13) and the connection point of the bridge path and/or the connection point of the bridge path and the respective output (14, 15) and - each input (12, 13) can be connected to each output (14, 15) by means of the switching element and the bridge path. - the bus coupler comprises a first and a second input (12, 13) and a first and a second output (14, 15) each capable of connecting two bus cables (16, 17), - the first input and the first output are bus coupler-internally electrically conductively connectable by means of a first connection path, - the second input and the second output are bus coupler-internally electrically conductively connectable by means of a second connection path, and - the first connection path and second connection path are bus coupler-internally electrically conductively connectable by means of a bridge path, - the bus coupler in each case has at least one switching element in the first and/or second connection paths (26, 28) between the respective input (12, 13) and the connection point of the bridge path and/or the connection point of the bridge path and the respective output (14, 15) and - each input (12, 13) can be connected to each output (14, 15) by means of the switching element and the bridge path.
A windshield device of a saddle-ride type vehicle in which: a guide rail is adapted to be fixed to a vehicle front portion; a movable body is movably provided on the guide rail; and a windscreen is supported on the movable body, wherein the movable body includes a slide portion movably attached to the guide rail and a supporting portion configured to support the windscreen, and a link mechanism configured to increase a movement amount of the supporting portion to an amount greater than a slide length of the slide portion is provided between the slide portion and the supporting portion, characterized in that the link mechanism includes: a first link which is swingably coupled to the slide portion and the supporting portion; a second link which is adapted to be swingably coupled at one end to a vehicle body; and a third link which has a center of swinging provided in the slide portion and which is swingably coupled at one end and another end respectively to the supporting portion and another end of the second link, wherein a fixing portion on a vehicle body side to which the second link is 2-adapted to be coupled is disposed below the guide rail in a side view. a first link which is swingably coupled to the slide portion and the supporting portion; a second link which is adapted to be swingably coupled at one end to a vehicle body; and a third link which has a center of swinging provided in the slide portion and which is swingably coupled at one end and another end respectively to the supporting portion and another end of the second link, wherein a fixing portion on a vehicle body side to which the second link is 2-adapted to be coupled is disposed below the guide rail in a side view.
An elastic wave filter device including an elastic wave filter comprising a set of one or more first interdigital transducers, IDTs, (4A,C,E;5A,C,E) and a set of one or more second IDTs (4B,D;5B,D), the first and second IDTs being acoustically coupled to each other, the or each first IDT being electrically connected between a first signal line and a respective first ground line, the or each second IDT being electrically connected between a second signal line and a respective second ground line, one of said first and second signal lines being an input line and the other being an output line, and a parallel trap (3A,3B) electrically connected between a third ground line and the first signal line or the second signal line, the elastic wave filter and the parallel trap (3A,3B) being provided on a piezoelectric substrate, the elastic wave filter device comprising: a first ground connection electrode that is provided on a surface of the piezoelectric substrate and that is electrically connected to the first ground lines of all of the first IDTs (4A,C,E;5A,C,E) and to the second ground lines of all of the second IDTs (4B,D;5B,D); and a second ground connection electrode (GND2/GND3) that is provided on the surface of the piezoelectric substrate so as to be isolated from the first ground connection electrode and that is electrically connected to the third ground line of the parallel trap (3A/3B). a first ground connection electrode that is provided on a surface of the piezoelectric substrate and that is electrically connected to the first ground lines of all of the first IDTs (4A,C,E;5A,C,E) and to the second ground lines of all of the second IDTs (4B,D;5B,D); and a second ground connection electrode (GND2/GND3) that is provided on the surface of the piezoelectric substrate so as to be isolated from the first ground connection electrode and that is electrically connected to the third ground line of the parallel trap (3A/3B).
A monitoring arrangement for predicting rapid symptomatic blood pressure decrease in a subject, the arrangement comprising: a pulse recording means (110; 115) adapted to repeatedly register a pulse shape parameter (p PS) in a peripheral body part of the subject, wherein the pulse recording means comprises a pulse oximetry instrument adapted to register the pulse shape parameter (p PS) based on light response variations in at least one blood vessel of the subject, and a control unit adapted to receive the pulse shape parameter (p PS), the control unit comprising a processing unit adapted to: calculate, during a measurement period, a respective pulse magnitude measure based on each of a number of received pulse shape parameters (p PS), calculate a statistical dispersion measure from the pulse magnitude measures, wherein the statistical dispersion measure represents the variability of a sequence of pulse magnitude measures, investigate whether the statistical dispersion measure fulfils a decision criterion relative to a threshold value, and generate an output signal (α) indicating a prediction of said rapid symptomatic blood pressure decrease in the subject. a pulse recording means (110; 115) adapted to repeatedly register a pulse shape parameter (p PS) in a peripheral body part of the subject, wherein the pulse recording means comprises a pulse oximetry instrument adapted to register the pulse shape parameter (p PS) based on light response variations in at least one blood vessel of the subject, and a control unit adapted to receive the pulse shape parameter (p PS), the control unit comprising a processing unit adapted to: calculate, during a measurement period, a respective pulse magnitude measure based on each of a number of received pulse shape parameters (p PS), calculate a statistical dispersion measure from the pulse magnitude measures, wherein the statistical dispersion measure represents the variability of a sequence of pulse magnitude measures, investigate whether the statistical dispersion measure fulfils a decision criterion relative to a threshold value, and generate an output signal (α) indicating a prediction of said rapid symptomatic blood pressure decrease in the subject. calculate, during a measurement period, a respective pulse magnitude measure based on each of a number of received pulse shape parameters (p PS), calculate a statistical dispersion measure from the pulse magnitude measures, wherein the statistical dispersion measure represents the variability of a sequence of pulse magnitude measures, investigate whether the statistical dispersion measure fulfils a decision criterion relative to a threshold value, and generate an output signal (α) indicating a prediction of said rapid symptomatic blood pressure decrease in the subject.
A clothes dryer apparatus comprising: an electrically conductive, grounded, generally cylindrical rotatable drum having a hollow interior adapted to contain a load of wet clothes to be dried; characterised in that said drum has a partially indented exterior surface in which at least one generally ring-shaped insulated notch has been formed; positioned within each notch, an electrically conductive anode, wherein each anode has a generally flat ring shape, is spatially fixed with respect to the rotatable drum, and is electrically isolated from conductive portions of the drum; and coupled to each anode, a source of RF power operable at a single fixed frequency. an electrically conductive, grounded, generally cylindrical rotatable drum having a hollow interior adapted to contain a load of wet clothes to be dried; characterised in that said drum has a partially indented exterior surface in which at least one generally ring-shaped insulated notch has been formed; positioned within each notch, an electrically conductive anode, wherein each anode has a generally flat ring shape, is spatially fixed with respect to the rotatable drum, and is electrically isolated from conductive portions of the drum; and coupled to each anode, a source of RF power operable at a single fixed frequency.
A filler structure comprising: a substrate; a filler layer spaced apart from the substrate, comprising a matrix material layer and a plurality of conductive fillers and configured to generate heat in response to an electrical signal or have a resistance changing by combination of particles introduced from outside; an electrode configured to contact the filler layer and provide an electrical signal to the filler layer; and an insulating layer arranged between the substrate and the electrode, having an alkali oxide of a content rate of 7% or less and configured to prevent a leakage current from being generated between the substrate and the electrodes or between the substrate and the filler layer. a substrate; a filler layer spaced apart from the substrate, comprising a matrix material layer and a plurality of conductive fillers and configured to generate heat in response to an electrical signal or have a resistance changing by combination of particles introduced from outside; an electrode configured to contact the filler layer and provide an electrical signal to the filler layer; and an insulating layer arranged between the substrate and the electrode, having an alkali oxide of a content rate of 7% or less and configured to prevent a leakage current from being generated between the substrate and the electrodes or between the substrate and the filler layer.
A method of wireless communication operable at a transmitting device utilizing sidelink signaling to a receiving device over a sidelink channel without passing through a base station, comprising: transmitting one or more transport blocks during a plurality of transmission time intervals, TTIs, utilizing sidelink-centric subframes and utilizing a given modulation and coding scheme, MCS, to the receiving device over the sidelink channel; receiving feedback during each of the TTIs from the receiving device over the sidelink channel, the feedback comprising one or more of an acknowledgment/negative acknowledgment, ACK/NACK, channel quality information, CQI, or decoder state information for a decoder at the receiving device; and adapting the transmitting on a per-TTI basis in accordance with the received feedback; wherein, when the feedback comprises decoder state information for a decoder at the receiving device indicating that transmission of parity bits would be insufficient for decoding said one or more transport blocks at the receiving device, the adapting the transmitting comprises: shortening systematic bits of one or more TTIs of said plurality of TTIs to calculate a modified parity transmission transmitting the modified parity transmission; and re-allocating the shortened systematic bits for transmission during one or more subsequent TTIs. transmitting one or more transport blocks during a plurality of transmission time intervals, TTIs, utilizing sidelink-centric subframes and utilizing a given modulation and coding scheme, MCS, to the receiving device over the sidelink channel; receiving feedback during each of the TTIs from the receiving device over the sidelink channel, the feedback comprising one or more of an acknowledgment/negative acknowledgment, ACK/NACK, channel quality information, CQI, or decoder state information for a decoder at the receiving device; and adapting the transmitting on a per-TTI basis in accordance with the received feedback; wherein, when the feedback comprises decoder state information for a decoder at the receiving device indicating that transmission of parity bits would be insufficient for decoding said one or more transport blocks at the receiving device, the adapting the transmitting comprises: shortening systematic bits of one or more TTIs of said plurality of TTIs to calculate a modified parity transmission transmitting the modified parity transmission; and re-allocating the shortened systematic bits for transmission during one or more subsequent TTIs.