mhurhangee/patent-ind-claim-en huggingface dataset:
A feed station for feeding flying insects, comprising: - a central fluid feed region for receiving fluid feed, said region having multiple elevations which protrude 1 - 5 mm from a base surface of the fluid feed region ; - a dry feed region having a rest surface for placing dry feed, the dry feed region surrounding the fluid feed region , the base surface of the fluid feed region running in a lower plane than the rest surface of the dry feed region ; - a water channel for receiving water, said channel surrounding the dry feed region , an inner wall of the water channel being adjacent to the dry feed region , and an outer wall of the water channel forming the outer boundary of the feed station , the base line of the water channel running in a lower plane than the rest surface of the dry feed region ; wherein the fluid feed region , the dry feed region and the water channel are formed integrally from a ceramic material. - a central fluid feed region for receiving fluid feed, said region having multiple elevations which protrude 1 - 5 mm from a base surface of the fluid feed region ; - a dry feed region having a rest surface for placing dry feed, the dry feed region surrounding the fluid feed region , the base surface of the fluid feed region running in a lower plane than the rest surface of the dry feed region ; - a water channel for receiving water, said channel surrounding the dry feed region , an inner wall of the water channel being adjacent to the dry feed region , and an outer wall of the water channel forming the outer boundary of the feed station , the base line of the water channel running in a lower plane than the rest surface of the dry feed region ;
A method for enzymatic sulfurylation of a substrate comprising: (i) reacting the substrate with 3'-phosphoadenosine-5'-phosphosulfate in a medium containing a bacterium belonging to the family Enterobacteriaceae to produce a sulfated derivative of said substrate, and (ii) collecting the sulfated derivative from the medium, wherein said bacterium has been modified: (A) to produce, at least, a protein having sulfotransferase activity, and (B) to attenuate expression of an aphA gene or a cysQ gene. (i) reacting the substrate with 3'-phosphoadenosine-5'-phosphosulfate in a medium containing a bacterium belonging to the family Enterobacteriaceae to produce a sulfated derivative of said substrate, and (ii) collecting the sulfated derivative from the medium, wherein said bacterium has been modified: (A) to produce, at least, a protein having sulfotransferase activity, and (B) to attenuate expression of an aphA gene or a cysQ gene. (A) to produce, at least, a protein having sulfotransferase activity, and (B) to attenuate expression of an aphA gene or a cysQ gene.
Manually operable lever device for controlling a value of an engine speed of a vehicle, the lever device comprising a first , a second and a third lever element , which are each pivotably arranged about a common first rotational axis (A1) by means of a first end , the value of the engine speed being changeable by pivoting the first lever element about the first rotational axis (A1), characterised in that a reference position for the first lever element is adjustable by pivoting the second lever element about the first rotational axis (A1), and a maximum position for the first and/or the second lever element is adjustable by pivoting the third lever element about the first rotational axis (A1).
A method for shape control in a rolling mill , the method comprising: a measurement step of measuring a shape of a steel sheet (S) on a delivery side of the rolling mill; and a control step of controlling the rolling mill in a manner that the shape of the steel sheet falls within an allowable range, based on the shape of the steel sheet measured at the measurement step, characterized in that the control step includes a step of setting a control gain smaller than a control gain for a width of a steel sheet as a target for rolling being equal to or smaller than the predetermined value when the steel sheet as the target for rolling has a width greater than a predetermined value. a measurement step of measuring a shape of a steel sheet (S) on a delivery side of the rolling mill; and a control step of controlling the rolling mill in a manner that the shape of the steel sheet falls within an allowable range, based on the shape of the steel sheet measured at the measurement step, characterized in that the control step includes a step of setting a control gain smaller than a control gain for a width of a steel sheet as a target for rolling being equal to or smaller than the predetermined value when the steel sheet as the target for rolling has a width greater than a predetermined value.
A household appliance comprising a body ; a receptacle which is provided in the body and wherein the items are loaded; a door which is mounted onto the body and which provides or prevents access into the receptacle; at least one control panel which is provided on the body ; and at least one top plate which is mounted onto the body so as to cover the top of the body , at least one housing which is positioned on the control panel ; and at least one connection member which is disposed on the top plate ; the housing comprising two side walls which extend parallel such that there is a certain distance therebetween, further comprising a base connecting the side walls to each other, characterized by at least one retainer which is positioned on the control panel so as to correspond to the housing ; the at least one connection member which is positioned such that at least a portion thereof is retained by the retainer in the housing ; the two side walls which are fixed to the control panel from one end of each; and the retainer which is in the form of a beam which extends almost horizontally between the two side walls and which has a flexible structure. the housing comprising two side walls which extend parallel such that there is a certain distance therebetween, further comprising a base connecting the side walls to each other, characterized by at least one retainer which is positioned on the control panel so as to correspond to the housing ; the at least one connection member which is positioned such that at least a portion thereof is retained by the retainer in the housing ; the two side walls which are fixed to the control panel from one end of each; and the retainer which is in the form of a beam which extends almost horizontally between the two side walls and which has a flexible structure.
A compound having formula I, or a pharmaceutically acceptable salt thereof, wherein; each R is independently H or -C 1 -C 3 alkyl; R 1 is unsubstituted cyclopropyl or cyclobutyl; B is A 1 , wherein A 1 has the structure of formula II: wherein Y 1 is -CH- or -N- and Y 2 is -N-; A is A 2 wherein A 2 is 3,5-bis-trifluoromethylphenyl; R a1 is 3-fluoroazetidinyl, 4-morpholinyl, CF 3 , -N(CH 3 ) 2 , -N(CH 3 )(SO 2 CH 3 ), or CH 3 S-, A 3 is wherein Y 3 is -CH- or -N- ; X is 3-cyclobutyl-D 1 , 3-cyclobutyl-CH 2 OH, 2-methyl-4-phenyl-D 1 , 2-methyl-4-phenyl-CH 2 OH, -CH 2 CH 2 D 1 , -CH 2 OH, or isopropyl, wherein D 1 is -CO 2 R 8 ; R 8 is H or -CH 3 ; R b is -OCH 3 or halogen; d is 0; and e is an integer from 0-3. each R is independently H or -C 1 -C 3 alkyl; R 1 is unsubstituted cyclopropyl or cyclobutyl; B is A 1 , wherein A 1 has the structure of formula II: wherein Y 1 is -CH- or -N- and Y 2 is -N-; A is A 2 wherein A 2 is 3,5-bis-trifluoromethylphenyl; R a1 is 3-fluoroazetidinyl, 4-morpholinyl, CF 3 , -N(CH 3 ) 2 , -N(CH 3 )(SO 2 CH 3 ), or CH 3 S-, A 3 is wherein Y 3 is -CH- or -N- ; X is 3-cyclobutyl-D 1 , 3-cyclobutyl-CH 2 OH, 2-methyl-4-phenyl-D 1 , 2-methyl-4-phenyl-CH 2 OH, -CH 2 CH 2 D 1 , -CH 2 OH, or isopropyl, wherein D 1 is -CO 2 R 8 ; R 8 is H or -CH 3 ; R b is -OCH 3 or halogen; d is 0; and e is an integer from 0-3. wherein Y 1 is -CH- or -N- and Y 2 is -N-; A is A 2 wherein A 2 is 3,5-bis-trifluoromethylphenyl; R a1 is 3-fluoroazetidinyl, 4-morpholinyl, CF 3 , -N(CH 3 ) 2 , -N(CH 3 )(SO 2 CH 3 ), or CH 3 S-, A 3 is wherein Y 3 is -CH- or -N- ; X is 3-cyclobutyl-D 1 , 3-cyclobutyl-CH 2 OH, 2-methyl-4-phenyl-D 1 , 2-methyl-4-phenyl-CH 2 OH, -CH 2 CH 2 D 1 , -CH 2 OH, or isopropyl, wherein D 1 is -CO 2 R 8 ; R 8 is H or -CH 3 ; R b is -OCH 3 or halogen; d is 0; and e is an integer from 0-3. wherein Y 3 is -CH- or -N- ; X is 3-cyclobutyl-D 1 , 3-cyclobutyl-CH 2 OH, 2-methyl-4-phenyl-D 1 , 2-methyl-4-phenyl-CH 2 OH, -CH 2 CH 2 D 1 , -CH 2 OH, or isopropyl, wherein D 1 is -CO 2 R 8 ; R 8 is H or -CH 3 ; R b is -OCH 3 or halogen; d is 0; and e is an integer from 0-3.
A computer-implemented method for use with a speaker verification system in which users speak utterances of a predefined hotword to invoke the attention of a computing device and the computing device uses a voice template for a user to perform speaker verification to identify whether the speaker of the utterance is the user, the method comprising: in order to gather feedback from the user regarding the user's successes and failures in using the speaker verification system, prompting the user to verify their identification using a technique other than voice-based speaker identification; in response to the user successfully verifying their identification using the technique other than voice-based speaker identification, prompting the user to confirm whether audio data corresponding to an utterance of the predefined hotword received at a particular time was falsely rejected due to it having been incorrectly determined that it was not the user who uttered the predefined hotword; receiving data indicating that the user has confirmed that the audio data corresponding to the utterance was falsely rejected; and in response to receiving the data indicating that the user has confirmed that the audio data corresponding to the utterance was falsely rejected, labelling the utterance as a false rejection, providing, to an accuracy feedback module and for addition to a data set corresponding to the utterance, an indication that the utterance has been confirmed as a false rejection, and using the audio data to update the voice template for the user for use in determining whether audio data corresponding to subsequently received utterances of the predefined hotword are to be accepted or rejected. in order to gather feedback from the user regarding the user's successes and failures in using the speaker verification system, prompting the user to verify their identification using a technique other than voice-based speaker identification; in response to the user successfully verifying their identification using the technique other than voice-based speaker identification, prompting the user to confirm whether audio data corresponding to an utterance of the predefined hotword received at a particular time was falsely rejected due to it having been incorrectly determined that it was not the user who uttered the predefined hotword; receiving data indicating that the user has confirmed that the audio data corresponding to the utterance was falsely rejected; and in response to receiving the data indicating that the user has confirmed that the audio data corresponding to the utterance was falsely rejected, labelling the utterance as a false rejection, providing, to an accuracy feedback module and for addition to a data set corresponding to the utterance, an indication that the utterance has been confirmed as a false rejection, and using the audio data to update the voice template for the user for use in determining whether audio data corresponding to subsequently received utterances of the predefined hotword are to be accepted or rejected.
Thermoelectric safety device in the absence of a flame for gas combustion systems, comprising a thermocouple configured to detect the flame in a corresponding burner of the gas combustion system generating an electrical voltage, an electromagnetic valve electrically connected to the thermocouple and configured to allow the passage of gas towards the corresponding burner when the electromagnetic valve is energized by the thermocouple , and a transistor electrically connected between the thermocouple and the electromagnetic valve , the electromagnetic valve being arranged directly connected with the transistor , the transistor being a field-effect transistor, wherein it comprises a voltage booster powering the transistor , the transistor being connected in parallel with the voltage booster and an output terminal of the voltage booster being arranged connected with a gate terminal of the transistor , the voltage booster being configured to boost the electrical voltage generated in the thermocouple , an electrical voltage being obtained that is capable of keeping the transistor closed such that the electromagnetic valve is energized.
Arrangement for automatic, contactless detection of elongated objects (W) such as cables, wires or profiles, having at least one inductive measuring system (E) for determining an electromagnetic characteristic of the object (W) and at least one first optical measuring system (D) for the object (W) in a common housing , wherein at least a first optical measuring system (D) is designed to determine the outer diameter (Wdo) of the object (W), wherein an optical disc-shaped measuring volume (DCPv) is defined, characterized in that the inductive measuring system (E) is designed as an eddy current sensor for determining an electromagnetic characteristic of the object (W) and includes two series-connected, co-directionally oriented and coaxial half-coils (E1a, E1b), which are located at a distance from each other in the axial direction and encircle the object (W) coaxially with respect to the longitudinal axis (x) thereof, so that its interior defines an inductive cylindrical measuring volume (Ev), wherein the half coils (Ela, E1b) together with a capacitance (E2) electrically connected parallel thereto form a parallel resonant circuit (E6) which is used as an inductive sensor of the inductive measuring system (E) which is connected to an electronic evaluation circuit (E5), and that the optical disc-shaped measuring volume (DCPv) is defined by the distance of the half-coils (Ela, E1b) and the inner wall of the housing and disposed inside the inductive cylindrical measuring volume (Ev).
A converter (1; 13; 14) for converting a voltage (Vin) into time, the converter comprising: a forward path comprising a first injection-locked oscillator and a first circuit , the first circuit being configured for receiving an output signal (Φsens) from the first oscillator and a reference signal (Φ0), and for providing at least a first pulse signal (out; out1, out2) determined by a phase shift between the output signal (Φsens) of the first oscillator and the reference signal (Φ0); and a feedback loop comprising a second circuit configured for integrating said at least one first pulse signal (out; out1, out2), wherein the first oscillator is configured for being controlled by a difference between the voltage to be converted (Vin) and an output voltage (Vfb) of the feedback loop , the output voltage (Vfb) of the feedback loop being determined by an output voltage (Vcp) of the second circuit representative of the integration of said at least one first pulse signal (out; out1, out2), the feedback loop and the forward path being, for example, configured so that a loopback of the feedback loop on the forward path implements a negative feedback. a forward path comprising a first injection-locked oscillator and a first circuit , the first circuit being configured for receiving an output signal (Φsens) from the first oscillator and a reference signal (Φ0), and for providing at least a first pulse signal (out; out1, out2) determined by a phase shift between the output signal (Φsens) of the first oscillator and the reference signal (Φ0); and a feedback loop comprising a second circuit configured for integrating said at least one first pulse signal (out; out1, out2), wherein the first oscillator is configured for being controlled by a difference between the voltage to be converted (Vin) and an output voltage (Vfb) of the feedback loop , the output voltage (Vfb) of the feedback loop being determined by an output voltage (Vcp) of the second circuit representative of the integration of said at least one first pulse signal (out; out1, out2), the feedback loop and the forward path being, for example, configured so that a loopback of the feedback loop on the forward path implements a negative feedback.
An electrode for a lithium secondary battery, characterized in that the electrode comprising: a pair of negative electrode current collectors having a plurality of perforations; and a lithium metal layer disposed between the pair of negative electrode current collectors, wherein the lithium metal layer optionally comprises elements selected from the group S, P, O, Cl, Se, F, Br, I and combinations thereof, and optionally further includes Ni, Co, Cu, Zn, Ga, Ge, Si, Al, Fe, V, Mn, Ti, Mo, Cr, Nb, Pt and combinations thereof, wherein the added sum of the rest of the elements other than lithium in the lithium metal layer is from 5% by weight to 20% by weight with respect to the total negative electrode active material weight, further comprising insulation layers disposed on the negative electrode current collectors and having a plurality of perforations funneled to the perforations, wherein the insulation layers do not have electron conductivity and do not have lithium ion conductivity, wherein the electrode is obtainable by laminating the negative electrode current collectors on the lithium metal layer, wherein a thickness of the insulation layers is from 0.01 μm to 50 μm and wherein a thickness of the negative electrode current collectors is from 3 μm to 500 μm. a pair of negative electrode current collectors having a plurality of perforations; and a lithium metal layer disposed between the pair of negative electrode current collectors, wherein the lithium metal layer optionally comprises elements selected from the group S, P, O, Cl, Se, F, Br, I and combinations thereof, and optionally further includes Ni, Co, Cu, Zn, Ga, Ge, Si, Al, Fe, V, Mn, Ti, Mo, Cr, Nb, Pt and combinations thereof, wherein the added sum of the rest of the elements other than lithium in the lithium metal layer is from 5% by weight to 20% by weight with respect to the total negative electrode active material weight, further comprising insulation layers disposed on the negative electrode current collectors and having a plurality of perforations funneled to the perforations, wherein the insulation layers do not have electron conductivity and do not have lithium ion conductivity, wherein the electrode is obtainable by laminating the negative electrode current collectors on the lithium metal layer, wherein a thickness of the insulation layers is from 0.01 μm to 50 μm and wherein a thickness of the negative electrode current collectors is from 3 μm to 500 μm.
Energy store with a housing , which surrounds a storage medium having latent heat during a phase transfer, which is provided during operation as intended for solidifying into a solid phase and for melting into a liquid phase , comprising within the housing a first storage region , which is provided at least at times for a solid phase of the storage medium and in which an extractor heat exchanger is arranged, which is provided for extracting heat from the storage medium , wherein the first storage region has a longitudinal extension , which is oriented as a vertical axis in the intended usage state, and the extractor heat exchanger is constructed in layers in the direction of the vertical axis with heat exchanger tubes arranged in the layers, comprising a second storage region within the housing , which is intended for a liquid phase of the storage medium , when a solid phase is present in the first storage region , wherein at least regions of the second storage region are provided as a casing around the first storage region , wherein at least one portion of a regeneration device is arranged in the second storage region , which is provided for supplying heat to the storage medium , characterised in that the regeneration device has at least one first and at least one second passage device for the liquid phase and at least one of the passage devices is arranged in the second storage region , wherein one of the passage devices is provided for introducing a liquid phase into the housing and the other of the passage devices is provided for discharging the liquid phase from the housing , wherein the first and/or the second passage device has a passage section with one or more passage openings inside the housing for the liquid phase , through which the storage medium can enter from the corresponding passage device into the housing and can escape from the housing , wherein the passage section is arranged with its longitudinal extension at least in regions about the vertical axis .
A method of wireless communication carried out by a base station , comprising: identifying a duplexing configuration of a carrier ; configuring a MIB with at least one field based at least in part on the duplexing configuration, wherein the at least one field of the MIB comprises one of an indication of a system information block, SIB, location field or an indication of a number of repetitions of the SIB location field, wherein the SIB location field is indicative of one or more downlink, DL, subframe options for SIBi; and broadcasting the MIB on the carrier. identifying a duplexing configuration of a carrier ; configuring a MIB with at least one field based at least in part on the duplexing configuration, wherein the at least one field of the MIB comprises one of an indication of a system information block, SIB, location field or an indication of a number of repetitions of the SIB location field, wherein the SIB location field is indicative of one or more downlink, DL, subframe options for SIBi; and broadcasting the MIB on the carrier.
A method of controlling a position of a header for a combine harvester , said method comprising: measuring an inclination of either the header or the combine; measuring a height of the header with respect to ground; measuring a ground speed of the header or the combine; adjusting both a vertical height and a pitch of the header as a function of the measured inclination, the measured ground speed and the measured height; and generating a ground height error signal as a function of the measured height and a predefined target height value for the header ; characterized in that the method further comprises generating a pitch control scaled error signal for adjusting the pitch of the header as a function of the ground height error signal, the measured ground speed and the measured inclination, wherein the pitch control scaled error signal is the product of the ground height error signal and a pitch control scaling factor, and wherein the pitch control scaling factor is a factory set value that is assigned based upon the measured ground speed and the measured inclination. measuring an inclination of either the header or the combine; measuring a height of the header with respect to ground; measuring a ground speed of the header or the combine; adjusting both a vertical height and a pitch of the header as a function of the measured inclination, the measured ground speed and the measured height; and generating a ground height error signal as a function of the measured height and a predefined target height value for the header ; characterized in that the method further comprises generating a pitch control scaled error signal for adjusting the pitch of the header as a function of the ground height error signal, the measured ground speed and the measured inclination, wherein the pitch control scaled error signal is the product of the ground height error signal and a pitch control scaling factor, and wherein the pitch control scaling factor is a factory set value that is assigned based upon the measured ground speed and the measured inclination.