mhurhangee/patent-ind-claim-en huggingface dataset:
Electrical connector for connecting at least two leads to a double-sided printed circuit board , the electrical connector comprising, a housing with a receiving slot being configured for insertion of the double-sided printed circuit board , and at least two contact springs , which are arranged on opposite sides of the receiving slot , the two contact springs being electrically insulated from one another, wherein the housing further comprises at least one lead insertion chamber , and wherein the at least two contact springs extend into the at least one lead insertion chamber , each contact spring forming a lead contact for a different lead , wherein the at least one lead insertion chamber is split into at least two compartments which are separated from one another by a separation wall and wherein at least one contact spring is mounted in each of the at least two compartments , characterised in that the separation wall further serves as a stop limiting the insertion distance of the double-sided printed circuit board into the receiving slot , the separation wall comprising an abutting surface arranged at an end of the receiving slot opposite an opening for the insertion of the double-sided printed circuit board into the receiving slot , the abutting surface being configured to abut an edge of the double-sided printed circuit board when the double-sided printed circuit board is fully inserted into the receiving slot . the electrical connector comprising, a housing with a receiving slot being configured for insertion of the double-sided printed circuit board , and at least two contact springs , which are arranged on opposite sides of the receiving slot , the two contact springs being electrically insulated from one another, wherein the housing further comprises at least one lead insertion chamber , and wherein the at least two contact springs extend into the at least one lead insertion chamber , each contact spring forming a lead contact for a different lead , wherein the at least one lead insertion chamber is split into at least two compartments which are separated from one another by a separation wall and wherein at least one contact spring is mounted in each of the at least two compartments , characterised in that the separation wall further serves as a stop limiting the insertion distance of the double-sided printed circuit board into the receiving slot , the separation wall comprising an abutting surface arranged at an end of the receiving slot opposite an opening for the insertion of the double-sided printed circuit board into the receiving slot , the abutting surface being configured to abut an edge of the double-sided printed circuit board when the double-sided printed circuit board is fully inserted into the receiving slot .
An isolated photoreceptor precursor cell comprising a heterologous nucleic acid encoding an optogenetic inhibitor, wherein said inhibitor is selected from the group consisting of halorhodopsins, archaerhodopsin-3 (AR-3), archaerhodopsin (Arch), bacteriorhodopsins, proteorhodopsins, xanthorhodopsins, Leptosphaeria maculans fungal opsins (Mac) and Jaws.
A machine for the separative machining of a plate-shaped workpiece by means of a processing beam , said machine having: a first movement unit for moving the workpiece in a first direction (X); a second movement unit for moving a machining head , which aligns the processing beam onto the workpiece , in a second direction (Y) which is perpendicular to the first direction; and two workpiece-bearing faces for bearing the workpiece , a gap which extends along the second direction (Y) being formed between the former, characterized in that at least two support slides , which are displaceable in the second direction (Y) in a mutually independent manner and which each have a bearing face for supporting the workpiece borne on the workpiece-bearing faces and for supporting workpiece parts which are cut in the course of separative machining, are disposed within the gap . a first movement unit for moving the workpiece in a first direction (X); a second movement unit for moving a machining head , which aligns the processing beam onto the workpiece , in a second direction (Y) which is perpendicular to the first direction; and two workpiece-bearing faces for bearing the workpiece , a gap which extends along the second direction (Y) being formed between the former, characterized in that at least two support slides , which are displaceable in the second direction (Y) in a mutually independent manner and which each have a bearing face for supporting the workpiece borne on the workpiece-bearing faces and for supporting workpiece parts which are cut in the course of separative machining, are disposed within the gap .
A process for the epoxidation of propene comprising the steps a) reacting propene with hydrogen peroxide in the presence of a methanol solvent and a titanium zeolite epoxidation catalyst to provide a reaction mixture, b) separating a crude propene oxide, comprising from 15 to 97 % by weight propene oxide, from 2 to 84 % by weight methanol and acetaldehyde, and a solvent mixture, comprising methanol, water and peroxides, from the reaction mixture of step a), c) subjecting the crude propene oxide separated in step b) to an extractive distillation in an extractive distillation column, using water as extraction solvent to provide purified propene oxide as an overhead product and a bottoms product comprising water and methanol, d) subjecting the solvent mixture separated in step b) and the bottoms product of step c) to catalytic hydrogenation to form a hydrogenated solvent mixture, e) separating the hydrogenated solvent mixture in at least one distillation stage to provide a recovered methanol as an overhead product, adding an acid to the hydrogenated solvent mixture before it is fed to the distillation or to at least one of the distillation stages and f) recycling the recovered methanol of step e) to step a), wherein in step c) a reactive compound selected from diaminoalkanes having from 2 to 6 carbon atoms is added to the extractive distillation either with a feed stream to the extractive distillation column or directly to the extractive distillation column at a feed point above the feed point for the crude propene oxide. a) reacting propene with hydrogen peroxide in the presence of a methanol solvent and a titanium zeolite epoxidation catalyst to provide a reaction mixture, b) separating a crude propene oxide, comprising from 15 to 97 % by weight propene oxide, from 2 to 84 % by weight methanol and acetaldehyde, and a solvent mixture, comprising methanol, water and peroxides, from the reaction mixture of step a), c) subjecting the crude propene oxide separated in step b) to an extractive distillation in an extractive distillation column, using water as extraction solvent to provide purified propene oxide as an overhead product and a bottoms product comprising water and methanol, d) subjecting the solvent mixture separated in step b) and the bottoms product of step c) to catalytic hydrogenation to form a hydrogenated solvent mixture, e) separating the hydrogenated solvent mixture in at least one distillation stage to provide a recovered methanol as an overhead product, adding an acid to the hydrogenated solvent mixture before it is fed to the distillation or to at least one of the distillation stages and f) recycling the recovered methanol of step e) to step a),
A channel contention method, comprising: sending , by a WUR station, a wake-up packet, WUP; waiting , by the WUR station, a predetermined short interval of time; generating and sending , by the WUR station, a legacy data frame; waiting , by the WUR station starting from the end of sending the legacy data frame, a channel contention waiting time defined by a type of channel access mechanism; and performing, by the WUR station, channel contention with a legacy station. sending , by a WUR station, a wake-up packet, WUP; waiting , by the WUR station, a predetermined short interval of time; generating and sending , by the WUR station, a legacy data frame; waiting , by the WUR station starting from the end of sending the legacy data frame, a channel contention waiting time defined by a type of channel access mechanism; and performing, by the WUR station, channel contention with a legacy station.
Sound pickup device, comprising at least: - a plurality of microphone capsules, distributed over a portion P of a sphere S circumscribed between two or three planes perpendicular to one another, the three planes intersecting one another at a point corresponding to the centre of the sphere S, and the two planes intersecting at a straight line passing through the centre of the sphere S, and the sphere portion P being such that P = n S/8, with n=1,2, - a processing unit connected to the capsules in order to receive the signals picked up by the capsules, said processing unit being designed to: * matrix the signals according to an ambisonic representation in which only ambisonic components associated with spherical harmonics symmetrical about at least two of the abovementioned planes are selected, and * process a matrix thus obtained in order to identify at least one sound source in a space surrounding the sphere portion, and interpret a sound signal originating from this source. - a plurality of microphone capsules, distributed over a portion P of a sphere S circumscribed between two or three planes perpendicular to one another, the three planes intersecting one another at a point corresponding to the centre of the sphere S, and the two planes intersecting at a straight line passing through the centre of the sphere S, and the sphere portion P being such that P = n S/8, with n=1,2, - a processing unit connected to the capsules in order to receive the signals picked up by the capsules, said processing unit being designed to: * matrix the signals according to an ambisonic representation in which only ambisonic components associated with spherical harmonics symmetrical about at least two of the abovementioned planes are selected, and * process a matrix thus obtained in order to identify at least one sound source in a space surrounding the sphere portion, and interpret a sound signal originating from this source. * matrix the signals according to an ambisonic representation in which only ambisonic components associated with spherical harmonics symmetrical about at least two of the abovementioned planes are selected, and * process a matrix thus obtained in order to identify at least one sound source in a space surrounding the sphere portion, and interpret a sound signal originating from this source.
Open impeller for a submergible pump configured for pumping liquid comprising abrasive matter, the impeller comprising a cover plate , a centrally located hub and at least two spirally swept blades connected to the cover plate and to the hub , each blade comprising a leading edge adjacent the hub and a trailing edge at the periphery of the impeller and a lower edge , wherein the lower edge extends from the leading edge to the trailing edge and separates a suction side of the blade from a pressure side of the blade , and wherein the lower edge is configured to be facing and located opposite a wear plate of said submergible pump , at least one blade comprising a winglet at the lower edge , wherein the winglet is connected to and projects from the suction side of said at least one blade , wherein said winglet is located radially outside an inner radius (r_inner) of the impeller and extends in the circumferential direction to the trailing edge at the suctions side of the blade located at a maximum radius (r_max) of the impeller , said winglet has a lower wear surface configured to be facing and located opposite the wear plate of the submergible pump , wherein said inner radius (r_inner) is equal to the largest of: - the maximum radius (r_max) of the impeller multiplied by 0,6, and - an inlet radius (r_inlet) of the impeller multiplied by 1,2, wherein the inlet radius (r_inlet) is taken at the interface between the leading edge of the blade and the lower edge of the blade at the suction side of the blade . each blade comprising a leading edge adjacent the hub and a trailing edge at the periphery of the impeller and a lower edge , wherein the lower edge extends from the leading edge to the trailing edge and separates a suction side of the blade from a pressure side of the blade , and wherein the lower edge is configured to be facing and located opposite a wear plate of said submergible pump , at least one blade comprising a winglet at the lower edge , wherein the winglet is connected to and projects from the suction side of said at least one blade , wherein said winglet is located radially outside an inner radius (r_inner) of the impeller and extends in the circumferential direction to the trailing edge at the suctions side of the blade located at a maximum radius (r_max) of the impeller , said winglet has a lower wear surface configured to be facing and located opposite the wear plate of the submergible pump , wherein said inner radius (r_inner) is equal to the largest of: - the maximum radius (r_max) of the impeller multiplied by 0,6, and - an inlet radius (r_inlet) of the impeller multiplied by 1,2, wherein the inlet radius (r_inlet) is taken at the interface between the leading edge of the blade and the lower edge of the blade at the suction side of the blade . - the maximum radius (r_max) of the impeller multiplied by 0,6, and - an inlet radius (r_inlet) of the impeller multiplied by 1,2, wherein the inlet radius (r_inlet) is taken at the interface between the leading edge of the blade and the lower edge of the blade at the suction side of the blade .
An elevator call registration system comprising: a lobby detection device configured to read out identification information of an elevator user from a storage medium which is carried by the elevator user through a radio communication at a prescribed readout cycle in an elevator lobby; a car detection device configured to read out the identification information of the elevator user from a storage medium which is carried by the elevator user through a radio communication at a prescribed readout cycle inside of an elevator car ; and a call registration processing device configured to register the identification information read out by the lobby detection device and to perform a call registration of the elevator car to the elevator lobby when the identification information read out by the lobby detection device has not been registered, and when it is detected that identification information being the same as registered identification information has not been read out by the car detection device, to delete the registration of the registered identification information after a prescribed grace period elapses subsequent to detecting that the identification information being the same as the registered identification information has not been read out by the car detection device. a lobby detection device configured to read out identification information of an elevator user from a storage medium which is carried by the elevator user through a radio communication at a prescribed readout cycle in an elevator lobby; a car detection device configured to read out the identification information of the elevator user from a storage medium which is carried by the elevator user through a radio communication at a prescribed readout cycle inside of an elevator car ; and a call registration processing device configured to register the identification information read out by the lobby detection device and to perform a call registration of the elevator car to the elevator lobby when the identification information read out by the lobby detection device has not been registered, and when it is detected that identification information being the same as registered identification information has not been read out by the car detection device, to delete the registration of the registered identification information after a prescribed grace period elapses subsequent to detecting that the identification information being the same as the registered identification information has not been read out by the car detection device.
A method for managing a depth of a jitter buffer for receiving a real-time media transmission from a transmitter, the method being performed in a receiver and comprising: determining whether an adaptive bitrate state of the receiver occurs, wherein the adaptive bitrate state is when a current bitrate capacity of a communication channel used for receiving the real-time media transmission is below a maximum bitrate for receiving the real-time media transmission; and, if the adaptive bitrate state is determined, increasing a depth of the jitter buffer for receiving the real-time media transmission when a probing period is about to start and at a time to allow the jitter buffer depth to reach a sufficient level to handle attempts of increased transmission bitrate for the real-time media transmission, wherein the rate of increase of the jitter buffer depth is limited to a limiting increase rate; requesting an increased transmission bitrate from the transmitter during the probing period; and decreasing the depth of the jitter buffer when the probing period has ended. determining whether an adaptive bitrate state of the receiver occurs, wherein the adaptive bitrate state is when a current bitrate capacity of a communication channel used for receiving the real-time media transmission is below a maximum bitrate for receiving the real-time media transmission; and, if the adaptive bitrate state is determined, increasing a depth of the jitter buffer for receiving the real-time media transmission when a probing period is about to start and at a time to allow the jitter buffer depth to reach a sufficient level to handle attempts of increased transmission bitrate for the real-time media transmission, wherein the rate of increase of the jitter buffer depth is limited to a limiting increase rate; requesting an increased transmission bitrate from the transmitter during the probing period; and decreasing the depth of the jitter buffer when the probing period has ended.
A fuel cell system comprising a fuel cell for generating power upon receiving the supply of anode gas and cathode gas and a state determination device for the fuel cell , the state determination device comprising: an internal impedance measurement unit configured to measure an internal impedance of the fuel cell on the basis of an alternating-current signal of a predetermined frequency output from the fuel cell ; and an anode reaction resistance estimation/calculation unit configured to calculate an estimation value of a reaction resistance of an anode electrode of the fuel cell on the basis of a measurement value of the internal impedance, wherein: the predetermined frequency has been selected such that a difference between the estimation value of the reaction resistance of the anode electrode in a state of a lack of a hydrogen concentration of the anode electrode and the estimation value of the reaction resistance of the anode electrode in a state of a lack of an oxygen concentration of a cathode electrode of the fuel cell is not smaller than a predetermined value. an internal impedance measurement unit configured to measure an internal impedance of the fuel cell on the basis of an alternating-current signal of a predetermined frequency output from the fuel cell ; and an anode reaction resistance estimation/calculation unit configured to calculate an estimation value of a reaction resistance of an anode electrode of the fuel cell on the basis of a measurement value of the internal impedance, wherein: the predetermined frequency has been selected such that a difference between the estimation value of the reaction resistance of the anode electrode in a state of a lack of a hydrogen concentration of the anode electrode and the estimation value of the reaction resistance of the anode electrode in a state of a lack of an oxygen concentration of a cathode electrode of the fuel cell is not smaller than a predetermined value.
An anti-BLyS antibody, wherein the amino acid sequences of the light chain variable region and the amino acid sequences of the heavy chain variable region of the anti-BLyS antibody are amino acid sequences as shown by SEQ ID NO.47 and SEQ ID NO.48.
A printing system comprising: printing components ; a dryer having components; a dryer engine configured to determine whether the components of the dryer are functioning properly, an input voltage engine configured to determine whether an input voltage level is outside of a predetermined voltage level range in response to a determination that the components of the dryer are functioning properly; and a printing components engine configured to control the printing components to operate in one of a normal mode and a reduced throughput mode based upon whether the input voltage level is outside of the predetermined voltage level range; wherein, in response to a determination that the input voltage level is within the predetermined voltage level range, the dryer engine is to: attempt to activate the dryer ; determine whether the dryer is functioning as expected; and wherein, in response to a determination that the dryer is not functioning as expected, the printing components engine is to control the printing components to operate in the reduced throughput mode. printing components ; a dryer having components; a dryer engine configured to determine whether the components of the dryer are functioning properly, an input voltage engine configured to determine whether an input voltage level is outside of a predetermined voltage level range in response to a determination that the components of the dryer are functioning properly; and a printing components engine configured to control the printing components to operate in one of a normal mode and a reduced throughput mode based upon whether the input voltage level is outside of the predetermined voltage level range; wherein, in response to a determination that the input voltage level is within the predetermined voltage level range, the dryer engine is to: attempt to activate the dryer ; determine whether the dryer is functioning as expected; and attempt to activate the dryer ; determine whether the dryer is functioning as expected; and wherein, in response to a determination that the dryer is not functioning as expected, the printing components engine is to control the printing components to operate in the reduced throughput mode.