mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-stage screw compressor, comprising: a first-pressure stage chamber; a first screw compression mechanism installed in the first-pressure stage chamber; a second-pressure stage chamber, a second screw compression mechanism installed in the second-pressure stage chamber, wherein a pressure in the first-pressure stage chamber is lower than a pressure in the second-pressure stage chamber; a gas supplement inlet , disposed between the first-pressure stage chamber and the second-pressure stage chamber and configured to supplement a fluid; a perforated member , provided with apertures and disposed between the gas supplement inlet and the second-pressure stage chamber, the apertures being configured to allow the fluid supplemented from the gas supplement inlet and a fluid discharged from the first-pressure stage chamber to pass therethrough; characterized in that the perforated member is provided with a plurality of apertures , and a distribution density of the apertures disposed in a region away from the gas supplement inlet is greater than a distribution density of the apertures disposed in a region adjacent to the gas supplement inlet . a first-pressure stage chamber; a first screw compression mechanism installed in the first-pressure stage chamber; a second-pressure stage chamber, a second screw compression mechanism installed in the second-pressure stage chamber, wherein a pressure in the first-pressure stage chamber is lower than a pressure in the second-pressure stage chamber; a gas supplement inlet , disposed between the first-pressure stage chamber and the second-pressure stage chamber and configured to supplement a fluid; a perforated member , provided with apertures and disposed between the gas supplement inlet and the second-pressure stage chamber, the apertures being configured to allow the fluid supplemented from the gas supplement inlet and a fluid discharged from the first-pressure stage chamber to pass therethrough; characterized in that the perforated member is provided with a plurality of apertures , and a distribution density of the apertures disposed in a region away from the gas supplement inlet is greater than a distribution density of the apertures disposed in a region adjacent to the gas supplement inlet .
Method for transmitting data packets from a transmitter device to a receiver device in a motor vehicle , wherein the data packets are transmitted via a gateway device and, in this way, the gateway device receives the data packets from the transmitter device via a first data connection and forwards a second data connection to the receiver device , characterised in that one of the data connections leads via a first bus system (CAN-FD, Flexray) on the basis of a first bus protocol and the other of the data connections is an ethernet data connection on the basis of an Internet protocol (IP) or leads via a second bus system (CAN-FD, Flexray) on the basis of a second bus protocol and that the data packets of the transmitter device are each addressed to an IP address and, in the data packets , the gateway device replaces a respective first packet part , via which a link layer of the first data connection is achieved, with a corresponding packet part of the link layer of the second data connection, and retains the IP address in a second packet part via which a network layer is achieved with the IP address , and forwards the data packets with the IP address found in the second packet part to the receiver device .
A method of producing efinaconazole comprising: step A of forming a toluene solution comprising a compound represented by formula (II): (hereinafter sometimes referred to as epoxytriazole); a compound represented by formula (III): (where X is Cl, Br or I and the compound is hereinafter sometimes referred to as 4-MP • HX salt); an inorganic base, and toluene in a volume (L) which is 2 to 5 times the mass (kg) of epoxytriazole; step B of subjecting the toluene solution to reaction under heating; step C of washing the reaction mixture from step B more than once or washing the reaction mixture from step B so that the pH of the aqueous layer after the washing operation is between 3 and 5, thereby obtaining a toluene solution of crude efinaconazole in which the residual amount of 4-MP is not more than 5 wt% of efinaconazole; step D of mixing the toluene solution of crude efinaconazole with 2-propanol and p-toluenesulfonic acid or a hydrate thereof to precipitate p -toluenesulfonate of efinaconazole; step E of isolating the p -toluenesulfonate of efinaconazole; step F of neutralizing the p -toluenesulfonate of efinaconazole. step A of forming a toluene solution comprising a compound represented by formula (II): (hereinafter sometimes referred to as epoxytriazole); a compound represented by formula (III): (where X is Cl, Br or I and the compound is hereinafter sometimes referred to as 4-MP • HX salt); an inorganic base, and toluene in a volume (L) which is 2 to 5 times the mass (kg) of epoxytriazole; step B of subjecting the toluene solution to reaction under heating; step C of washing the reaction mixture from step B more than once or washing the reaction mixture from step B so that the pH of the aqueous layer after the washing operation is between 3 and 5, thereby obtaining a toluene solution of crude efinaconazole in which the residual amount of 4-MP is not more than 5 wt% of efinaconazole; step D of mixing the toluene solution of crude efinaconazole with 2-propanol and p-toluenesulfonic acid or a hydrate thereof to precipitate p -toluenesulfonate of efinaconazole; step E of isolating the p -toluenesulfonate of efinaconazole; step F of neutralizing the p -toluenesulfonate of efinaconazole.
A brake comprising a first housing portion , a second housing portion having a distal end , an alternating arrangement of stationary discs (54A,B,C) and rotating discs (62A,B) in said second housing portion , said stationary discs (54A,B,C) including an inboard stationary disc , characterised in that said brake further comprises at least two torque pin holes extending from said inboard stationary disc to said distal end of said second housing portion , each of said stationary discs (54A,B,C) including an ear extending between two torque pin grooves , and a torque pin positioned in each of said torque pin holes and the torque pin grooves to thereby secure said stationary discs (54A,B,C) in a stationary position with respect to said second housing portion .
A method for producing a phenyl propane-based compound comprising a step of producing a phenyl propane-based compound expressed by general formula (A) wherein R represents - 1, 2 or more than 2 alkyl groups or alkoxy groups having 1 to 5 carbon atoms or - hydrogen atoms by causing the microorganism Novosphingobium species MBES04 (accession number: NITE P-01797) to act on biomass containing lignins. - 1, 2 or more than 2 alkyl groups or alkoxy groups having 1 to 5 carbon atoms or - hydrogen atoms
Table with table feet, a table top and a table frame for supporting the table top at a working height, the table frame being designed for fastening the table feet and as a modularly connectable plug-in system, the table frame comprising at least two clamps and at least two profile bodies which can be connected to one another via at least two clamps , the clamps being designed for engaging over and around edges of the profile bodies, CHARACTERIZED IN THAT stiffness promoting clamping means are provided on the profile body which comprise projections which, in the installed position, engage in a guide slot on the table foot, or which comprise a guide slot into which projections formed on the table foot engage, in that the profiled bodies are of trough- or channel-shaped design, and in that the clamps are at least about twice as long as the profiled bodies .
A system for generating channel-compensated low level features for speaker recognition, the system comprising: an acoustic channel simulator configured to receive a recognition speech signal, degrade the recognition speech signal to include changing characteristics of an audio channel for each training iteration of a plurality of training iterations for the recognition speech signal, and output degraded speech signals corresponding to the recognition speech signal for the plurality of training iterations; a first convolutional neural network configured, in a training mode, to receive the degraded speech signals, and to compute from each of the degraded speech signals a plurality of channel-compensated low-level features, and further configured, in a test and enrollment mode, to receive the recognition speech signal, to calculate from the recognition speech signal a second plurality of channel-compensated low-level features; a speech signal analyzer configured, in the training mode, to extract features of the recognition speech signal; a loss function processor configured to calculate a loss based on the features from the speech analyzer and the channel-compensated low-level features of each of the degraded speech signals from the first convolutional neural network; wherein, the calculated loss at each of the plurality of training iterations is lowered by modifying one or more connection weights of the first feed forward convolutional neural network, and if the calculated loss is less than or equal to a threshold loss, or a maximum number of training iterations has been met, the training mode is terminated. an acoustic channel simulator configured to receive a recognition speech signal, degrade the recognition speech signal to include changing characteristics of an audio channel for each training iteration of a plurality of training iterations for the recognition speech signal, and output degraded speech signals corresponding to the recognition speech signal for the plurality of training iterations; a first convolutional neural network configured, in a training mode, to receive the degraded speech signals, and to compute from each of the degraded speech signals a plurality of channel-compensated low-level features, and further configured, in a test and enrollment mode, to receive the recognition speech signal, to calculate from the recognition speech signal a second plurality of channel-compensated low-level features; a speech signal analyzer configured, in the training mode, to extract features of the recognition speech signal; a loss function processor configured to calculate a loss based on the features from the speech analyzer and the channel-compensated low-level features of each of the degraded speech signals from the first convolutional neural network; wherein, the calculated loss at each of the plurality of training iterations is lowered by modifying one or more connection weights of the first feed forward convolutional neural network, and if the calculated loss is less than or equal to a threshold loss, or a maximum number of training iterations has been met, the training mode is terminated.
A biotechnological phytodepuration system for polluted water, the system comprising a tank containing a filtering bed constituted of porous material and vegetable species planted out onto said filtering bed , an inlet for introduction of polluted water into said tank and an outlet for discharge of depurated water from the tank , the system being characterized in that said filtering bed contains a microorganism consortium inoculum, said consortium inoculum comprising: a) symbiont fungi belonging to the genera Glomus spp. and Gigaspora spp., b) saprophytic fungus belonging to the genus Trichoderma spp., and c) bacteria of the rhizosphere belonging to the genera Bacillus spp., Pseudomonas spp. and Actinomycetales spp., d) biosurfactant fungi belonging to the genera Acinetobacter spp., Pichia spp., Torulopsis spp., Candida spp. , Saccharomyces spp., Schizonella spp., and Ustilago spp. , and e) biosurfactant bacteria belonging to the genera Agrobacterium spp., Serratia spp., Flavobacterium spp., Mycobacterium spp., Nocardia spp., Corynebacterium spp., Rhodococcus spp., Arthrobacter spp., Thiobacillus spp., Gluconobacter spp., Aspergillus spp., and Alcanivorax spp.. a) symbiont fungi belonging to the genera Glomus spp. and Gigaspora spp., b) saprophytic fungus belonging to the genus Trichoderma spp., and c) bacteria of the rhizosphere belonging to the genera Bacillus spp., Pseudomonas spp. and Actinomycetales spp., d) biosurfactant fungi belonging to the genera Acinetobacter spp., Pichia spp., Torulopsis spp., Candida spp. , Saccharomyces spp., Schizonella spp., and Ustilago spp. , and e) biosurfactant bacteria belonging to the genera Agrobacterium spp., Serratia spp., Flavobacterium spp., Mycobacterium spp., Nocardia spp., Corynebacterium spp., Rhodococcus spp., Arthrobacter spp., Thiobacillus spp., Gluconobacter spp., Aspergillus spp., and Alcanivorax spp..
Display device especially intended for an automotive vehicle, comprising: - a display screen , - a touch panel placed in front of the display screen, - a lateral frame placed on a portion of the front surface of the display screen, characterized in that it includes - a first opaque mask placed between the touch panel and the lateral frame and extending in the direction of the centre of the front surface of the display screen beyond the lateral frame so as to mask said lateral frame, - a second opaque mask placed in front of the touch panel and masking a lateral portion of the front surface of the touch panel placed in front of the first mask, wherein the first mask extends in the direction of the centre of the front surface of the screen beyond the second mask. - a display screen , - a touch panel placed in front of the display screen, - a lateral frame placed on a portion of the front surface of the display screen, - a first opaque mask placed between the touch panel and the lateral frame and extending in the direction of the centre of the front surface of the display screen beyond the lateral frame so as to mask said lateral frame, - a second opaque mask placed in front of the touch panel and masking a lateral portion of the front surface of the touch panel placed in front of the first mask,
A battery pack, comprising: a plurality of battery modules , each having a plurality of unit cells , a case for accommodating the unit cell and a bus bar electrically connected to the unit cell ; and a connecting bar for connecting bus bars of battery modules adjacent to each other among the plurality of battery modules , wherein at least one of the connecting bars includes: a first metal plate ; a second metal plate spaced apart from the first metal plate ; and a metal bridge configured to connect the first metal plate and the second metal plate and having a lower melting point than the metal plate , the metal bridge being a lead-free alloy containing tin (Sn) and copper (Cu) as main components, the content of the tin being 80 to 98 wt%, and the content of the copper being 2 to 20 wt%. a plurality of battery modules , each having a plurality of unit cells , a case for accommodating the unit cell and a bus bar electrically connected to the unit cell ; and a connecting bar for connecting bus bars of battery modules adjacent to each other among the plurality of battery modules , wherein at least one of the connecting bars includes: a first metal plate ; a second metal plate spaced apart from the first metal plate ; and a metal bridge configured to connect the first metal plate and the second metal plate and having a lower melting point than the metal plate , the metal bridge being a lead-free alloy containing tin (Sn) and copper (Cu) as main components, the content of the tin being 80 to 98 wt%, and the content of the copper being 2 to 20 wt%. a first metal plate ; a second metal plate spaced apart from the first metal plate ; and a metal bridge configured to connect the first metal plate and the second metal plate and having a lower melting point than the metal plate , the metal bridge being a lead-free alloy containing tin (Sn) and copper (Cu) as main components, the content of the tin being 80 to 98 wt%, and the content of the copper being 2 to 20 wt%.
A method for suppressing an optical crosstalk in a rangefinder device , which has at least one light-sensitive receiver and at least one laser light source as a transmitter , wherein an electrical signal (I1) generated by the receiver is amplified by means of an amplifier and analyzed by a microprocessor , wherein the microprocessor determines the temporal position of the reflected light pulses sent by the transmitter and therefrom calculates a distance to a target, characterized in that at least one counter signal corresponding to the optical crosstalk is generated and is superimposed to a signal (I1) generated by the receiver and the portion of the crosstalk is specifically reduced , wherein in each measurement, first pulses are used for determining the portion of the optical crosstalk, wherein the microprocessor analyzes a very early temporal window in which a part of the optical crosstalk is present, a counter pulse is generated with an information on a signal level in this time window via a controlled power source , said counter pulse being superimposed to the signal (I1) generated by the receiver upstream of the amplifier and reducing the portion of the crosstalk, wherein the new signal is controlled to correspond to a target value by amendment of the counter pulse .
Hob (38a-b), in particular induction hob, with at least one hob apparatus (10a-b), wherein the hob apparatus (10a-b) has at least one hob plate (40a-b), at least one outer housing unit (46a-b), at least one cable (18a-b), at least one housing unit (12a-b), which is provided, in at least one installed state, at least partially to delimit and/or to define at least one receiving space for receiving and/or mounting at least one component, and at least one guide unit (14a-b), which defines at least one guide path (16a-b) and is provided, in at least one installed state, to guide the cable (18a-b) within the housing unit (12a-b) along the guide path (16a-b), wherein the hob plate (40a-b) and the outer housing unit (46a-b) delimit at least one outer housing receiving space, within which the housing unit (12a-b) is arranged in the installed state, wherein the outer housing unit (46a-b) has an outer housing insertion opening (48a-b), which is provided for introducing the cable (18a-b) into the outer housing unit (46a-b), and the housing unit (12a-b) has an insertion opening (32a-b), which is provided for introducing the cable (18a-b) into the housing unit (12a-b), wherein the guide unit (14a-b), in the installed state, is arranged at least for the most part within the housing unit (12a-b), characterised in that the guide unit (14a-b) has at least one fixing element (20a-b) which is at least partially free-standing and is arranged such that it can be moved in relation to the housing unit (12a-b), said fixing element (20a-b) being connected to the housing unit (12a-b) in the installed state and protruding from a contour of the housing unit (12a-b) and/or projecting beyond a contour of the housing unit (12a-b) and being provided to fix the cable (18a-b) in at least one cable length direction (22a-b), at least partially.
A method for ambient background noise modification, the method comprising: identifying at least one noise present in an environment of a user having a user device , an activity the user is currently engaged in, a physical or emotional state of the user, and a particular goal for the user based on the activity the user is currently engaged in, and the physical or emotional state of the user; determining a target ambient noise to be produced in the environment based at least in part on the identified noise, the activity the user is currently engaged in, the physical or emotional state of the user and the goal for the user, wherein the target ambient noise assists the user in achieving the goal; identifying at least one device associated with the user device to be used to produce the target ambient noise, wherein at least one of the identified devices has at least one fan ; determining sound outputs corresponding to each of the identified devices, wherein a combination of the sound outputs produces an approximation of one or more characteristics of the target ambient noise; and causing the identified devices to produce the determined sound outputs by modulating a speed of the at least one fan associated with the at least one of the identified devices to synthesize the target ambient noise. identifying at least one noise present in an environment of a user having a user device , an activity the user is currently engaged in, a physical or emotional state of the user, and a particular goal for the user based on the activity the user is currently engaged in, and the physical or emotional state of the user; determining a target ambient noise to be produced in the environment based at least in part on the identified noise, the activity the user is currently engaged in, the physical or emotional state of the user and the goal for the user, wherein the target ambient noise assists the user in achieving the goal; identifying at least one device associated with the user device to be used to produce the target ambient noise, wherein at least one of the identified devices has at least one fan ; determining sound outputs corresponding to each of the identified devices, wherein a combination of the sound outputs produces an approximation of one or more characteristics of the target ambient noise; and causing the identified devices to produce the determined sound outputs by modulating a speed of the at least one fan associated with the at least one of the identified devices to synthesize the target ambient noise.
A solid catalyst component comprising the product of a process comprising (a) reacting at a temperature ranging from 0 to 150°C a Mg based compound of formula (MgCl m X 2-m )·nLB, in which m ranges from 0 to 2, n ranges from 0 to 6, X is, independently R, OR, -OCOR or -OC(O)-OR group, in which R is a C 1 -C 20 hydrocarbon group, and LB is a Lewis base, with a Ti compound, having at least a Ti-Cl bond, in an amount such that the Ti/Mg molar ratio is greater than 0.1 optionally in the presence of an electron donor compound thereby obtaining a catalyst precursor; (b) reacting the product coming from the preceding step with an organoaluminum compound in such an amount to have a Al/Ti ratio of 0.01 to 50 optionally in the presence of an amount of olefin monomer able to produce from 0.1 to 50gr of polymer per gram of catalyst precursor; optionally followed by one or more washing steps; (c) treating the catalyst precursor coming from step (b) with a mono or polychlorinated R 1 -Cl compound in a R 1 Cl/Al ratio from 0.1 to 5 where R 1 is hydrogen or a C 1 -C 20 hydrocarbon group and (d) isolating and recovering the solid catalyst component. (a) reacting at a temperature ranging from 0 to 150°C a Mg based compound of formula (MgCl m X 2-m )·nLB, in which m ranges from 0 to 2, n ranges from 0 to 6, X is, independently R, OR, -OCOR or -OC(O)-OR group, in which R is a C 1 -C 20 hydrocarbon group, and LB is a Lewis base, with a Ti compound, having at least a Ti-Cl bond, in an amount such that the Ti/Mg molar ratio is greater than 0.1 optionally in the presence of an electron donor compound thereby obtaining a catalyst precursor; (b) reacting the product coming from the preceding step with an organoaluminum compound in such an amount to have a Al/Ti ratio of 0.01 to 50 optionally in the presence of an amount of olefin monomer able to produce from 0.1 to 50gr of polymer per gram of catalyst precursor; optionally followed by one or more washing steps; (c) treating the catalyst precursor coming from step (b) with a mono or polychlorinated R 1 -Cl compound in a R 1 Cl/Al ratio from 0.1 to 5 where R 1 is hydrogen or a C 1 -C 20 hydrocarbon group and (d) isolating and recovering the solid catalyst component.