mhurhangee/ep-ind-claims huggingface dataset:
An injection member assembly for a bidet, comprising: a movable injection member;; a bracket assembly comprising a bracket and a dentate guiding surface a driving assembly, including a driving device and a coupling member, wherein the coupling member is coupled with the guiding surface, the driving device is a motor the injection member assembly being characterised in that the driving device further includes a driving gear, the coupling member is a gear assembly comprising a base gear and a coupling gear, the coupling gear is coupled with the guiding surface, and the driving gear is coupled to the base gear; the movable injection member is fixedly connected to the driving assembly and the guiding surface is an incurved dentate surface. a movable injection member;; a bracket assembly comprising a bracket and a dentate guiding surface a driving assembly, including a driving device and a coupling member, wherein the coupling member is coupled with the guiding surface, the driving device is a motor the injection member assembly being characterised in that the driving device further includes a driving gear, the coupling member is a gear assembly comprising a base gear and a coupling gear, the coupling gear is coupled with the guiding surface, and the driving gear is coupled to the base gear; the movable injection member is fixedly connected to the driving assembly and the guiding surface is an incurved dentate surface.
Line end segment (17.1) of a coupling device for the secondary cooling of a strand in a strand guide of a continuous casting installation, the line end segment (17.1) comprising - an outlet nozzle with a coolant outlet for discharging coolant, - a switchover valve for switching an individual coolant stream on and off, - a segmented pipe for guiding the coolant to the coolant outlet of the outlet nozzle and for guiding an end portion of a control line (25.1 to 25.4) for switching the switchover valve to the switchover valve, - a connecting flange with a first flange opening (37.1) for feeding the coolant into the segmented pipe and a second flange opening (37.2) for guiding the control line (25.1 to 25.4) into the segmented pipe, wherein - the connecting flange is arranged at a first end of the segmented pipe and the switchover valve is arranged at a second end of the segmented pipe, the outlet nozzle is arranged at the switchover valve and - the segmented pipe has an outer pipe and an inner pipe running in the outer pipe, wherein the coolant is guided between the outer pipe and the inner pipe and the inner pipe forms or surrounds the end portion of the control line (25.1 to 25.4). - an outlet nozzle with a coolant outlet for discharging coolant, - a switchover valve for switching an individual coolant stream on and off, - a segmented pipe for guiding the coolant to the coolant outlet of the outlet nozzle and for guiding an end portion of a control line (25.1 to 25.4) for switching the switchover valve to the switchover valve, - a connecting flange with a first flange opening (37.1) for feeding the coolant into the segmented pipe and a second flange opening (37.2) for guiding the control line (25.1 to 25.4) into the segmented pipe, wherein - the connecting flange is arranged at a first end of the segmented pipe and the switchover valve is arranged at a second end of the segmented pipe, - the segmented pipe has an outer pipe and an inner pipe running in the outer pipe, wherein the coolant is guided between the outer pipe and the inner pipe and the inner pipe forms or surrounds the end portion of the control line (25.1 to 25.4).
An apparatus for detecting the presence of a microorganism, comprising: a specimen collection container comprising an open top end, a bottom end, and a sidewall extending therebetween defining an interior therein; a closure engageable with the specimen collection container to seal the open top end; characterized in that the apparatus further comprises a mechanical separator disposed within the interior and adapted for separating a fluid sample into first and second phases within the specimen collection container, the mechanical separator having (i) at least one feature selected from the group consisting of at least two regions of differing densities and, a density gradient, (ii) a one-way valve, and (iii) at least a first portion radially deformable between a first position in which fluid may pass between the inner surface of the sidewall of the specimen collection container and the mechanical separator to a second position in which at least a portion of the mechanical separator contacts the inner surface of the sidewall to prevent fluid from passing between the inner surface of the sidewall of the specimen collection container and the mechanical separator; and a sensing element capable of detecting the presence of a microorganism disposed within the interior of the specimen collection container. a specimen collection container comprising an open top end, a bottom end, and a sidewall extending therebetween defining an interior therein; a closure engageable with the specimen collection container to seal the open top end; characterized in that the apparatus further comprises a mechanical separator disposed within the interior and adapted for separating a fluid sample into first and second phases within the specimen collection container, the mechanical separator having (i) at least one feature selected from the group consisting of at least two regions of differing densities and, a density gradient, (ii) a one-way valve, and (iii) at least a first portion radially deformable between a first position in which fluid may pass between the inner surface of the sidewall of the specimen collection container and the mechanical separator to a second position in which at least a portion of the mechanical separator contacts the inner surface of the sidewall to prevent fluid from passing between the inner surface of the sidewall of the specimen collection container and the mechanical separator; and a sensing element capable of detecting the presence of a microorganism disposed within the interior of the specimen collection container.
A method for identifying and quantifying an overrepresented nucleic acid impurity in a composition comprising a parvoviral vector and wherein the method comprises the steps of: a) subjecting the composition to total nucleic acid sequencing to obtain random reads of nucleotide sequences, wherein the nucleic acid sequencing comprises high-throughput sequencing; b) comparing the random reads from step a) with a nucleotide sequence of a biological component used in the process for producing the composition whereby a match between a random read and a nucleotide sequence of a biological component identifies a nucleic acid impurity; c) determining the average number of reads per parvoviral vector; and d) determining the number of reads per nucleotide of an identified nucleic acid impurity, wherein a nucleic acid impurity is identified as an overrepresented impurity when the distribution of reads is not random and the overrepresented impurity comprises 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20 or 50 times the average number of reads of the biological component, or when the number of reads per nucleotide of a nucleic acid impurity is at least 0.001, 0.01, 0.1, 0.2, 0.3, 0.4, 0.5, 0.6, 0.7, 0.8, 0.9, 1.0, 2.0, 3.0, 5.0, 7.0 or 10% of the average number of reads per parvoviral vector. a) subjecting the composition to total nucleic acid sequencing to obtain random reads of nucleotide sequences, wherein the nucleic acid sequencing comprises high-throughput sequencing; b) comparing the random reads from step a) with a nucleotide sequence of a biological component used in the process for producing the composition whereby a match between a random read and a nucleotide sequence of a biological component identifies a nucleic acid impurity; c) determining the average number of reads per parvoviral vector; and d) determining the number of reads per nucleotide of an identified nucleic acid impurity, wherein a nucleic acid impurity is identified as an overrepresented impurity when the distribution of reads is not random and the overrepresented impurity comprises 2, 3, 4, 5, 6, 7, 8, 9, 10, 15, 20 or 50 times the average number of reads of the biological component, or when the number of reads per nucleotide of a nucleic acid impurity is at least 0.001, 0.01, 0.1, 0.2, 0.3, 0.4, 0.5, 0.6, 0.7, 0.8, 0.9, 1.0, 2.0, 3.0, 5.0, 7.0 or 10% of the average number of reads per parvoviral vector.
A semiconductor device comprising a semiconductor element having a pn junction exposure portion and a glass layer formed from a glass composition, the glass layer being formed so as to cover the pn junction exposure portion, wherein the glass composition is made of fine glass particles and contains at least SiO 2, B 2 O 3, Al 2 O 3, ZnO and at least two oxides of alkaline earth metals selected from a group consisting of CaO, MgO and BaO, and substantially contains none of Pb, As, Sb, Li, Na and K, the content of SiO 2 falls within a range of 49.5 mol% to 64.3 mol%, the content of B 2 O 3 falls within a range of 8.4 mol% to 17.9 mol%, the content of Al 2 O 3 falls within a range of 3.7 mol% to 14.8 mol%, the content of ZnO falls within a range of 3.9 mol% to 14.2 mol%, and the content of the oxide of alkaline earth metal falls within a range of 7.4 mol% to 12.9 mol%, and an average linear expansion coefficient of the glass composition within a temperature range of 50°C to 550°C falls within a range of 3.33×10 -6 to 4.13×10 -6 K -1.
Power converter comprising: - a rectifier module connected upstream to several inputs (in1, in2, in3) supplied by a current source; - a power supply bus connected downstream of the rectifier module and provided with a positive line and a negative line; - an inductor (L1, L2) connected to the positive line or to the negative line of the power supply bus; - the rectifier module comprising several switching legs connected between the positive line and the negative line of the power supply bus, each switching leg comprising a top transistor (T2, T4, T6) and a bottom transistor (T1, T3, T5) in series and a connection middle-point (M1, M2, M3) located between the top transistor and the bottom transistor and linked to an input (in1, in2, in3); - the transistors (T1 - T6) being normally-on field effect transistors and each being controlled by a gate control device (CT1, CT2), characterized in that the power converter comprises: - a normally-open auxiliary switch placed in series with the switching legs and connected to the positive line of the power supply bus; - a control device for controlling the auxiliary switch. - a rectifier module connected upstream to several inputs (in1, in2, in3) supplied by a current source; - a power supply bus connected downstream of the rectifier module and provided with a positive line and a negative line; - an inductor (L1, L2) connected to the positive line or to the negative line of the power supply bus; - the rectifier module comprising several switching legs connected between the positive line and the negative line of the power supply bus, each switching leg comprising a top transistor (T2, T4, T6) and a bottom transistor (T1, T3, T5) in series and a connection middle-point (M1, M2, M3) located between the top transistor and the bottom transistor and linked to an input (in1, in2, in3); - the transistors (T1 - T6) being normally-on field effect transistors and each being controlled by a gate control device (CT1, CT2), - a normally-open auxiliary switch placed in series with the switching legs and connected to the positive line of the power supply bus; - a control device for controlling the auxiliary switch.
Use of a powder composition in suspension thermal spray coating processes, the powder composition comprising primary particles having at least one dispersing agent deposited thereon, wherein the amount of dispersing agent deposited on said powder represents from 0.1% up to 10% by weight of the powder, the composition resulting in a homogeneous, stable suspension when combined with a liquid carrier for use in suspension thermal spray processes.
A performance information processing device comprising: a performance information reception section (27, 28) that receives first performance information of a music performance executed by a user; a memory that successively records the first performance information; a reproduction section that repeatedly reproduces second performance information having a given time period; and a recording instruction section that receives a recording instruction given by the user, characterized in that the performance information processing device further comprises a buffer section that temporarily stores a segment of the first performance information recorded in the memory in synchronism with the given time period of the second performance information; and a control section configured to record, in response to the recording instruction, the temporarily-stored segment of the first performance information for the given time period into a recording section, wherein the reproduction section repeatedly reproduces the segment of the first performance information, recorded in the recording section, in synchronism with repeated reproduction of the second performance information. a performance information reception section (27, 28) that receives first performance information of a music performance executed by a user; a memory that successively records the first performance information; a reproduction section that repeatedly reproduces second performance information having a given time period; and a recording instruction section that receives a recording instruction given by the user, characterized in that the performance information processing device further comprises a buffer section that temporarily stores a segment of the first performance information recorded in the memory in synchronism with the given time period of the second performance information; and a control section configured to record, in response to the recording instruction, the temporarily-stored segment of the first performance information for the given time period into a recording section, wherein the reproduction section repeatedly reproduces the segment of the first performance information, recorded in the recording section, in synchronism with repeated reproduction of the second performance information.
A food processing system for sorting, weighing, conveying and marinating solid food products, said food processing system comprising a weighing system having a receiving section for receiving solid food products in bulk, and an discharge section for selectively discharging a batch of said solid food products, a marinating receptacle comprising: an inlet for selectively receiving said batch of said solid food products, a supply tube for supplying an amount of a marinade to said marinating receptacle, an agitator for agitating said batch of said solid food products and said amount of marinade within said marinating receptacle, and an outlet for discharging said batch of said solid food products together with said amount of marinade, and, a packing station for packing said batch of said solid food products and said amount of said marinade into an individual package, characterized in that said food processing system comprises a first plurality of marinating receptacles, and said food processing system includes a transport system in order to allow said weighing system to discharge batches of solid food product into said different receptacles. an inlet for selectively receiving said batch of said solid food products, a supply tube for supplying an amount of a marinade to said marinating receptacle, an agitator for agitating said batch of said solid food products and said amount of marinade within said marinating receptacle, and an outlet for discharging said batch of said solid food products together with said amount of marinade,
Method for operating an actuator, especially an autonomous actuator, for manoeuvring a movable element for closing, protecting from the sun, occulting or screening, the actuator and/or the movable element comprising a photovoltaic panel intended to recharge an accumulator of electrical energy for powering a motor of the actuator, characterized in that said operating method comprises, as a result of an order to move the movable element sent by a user, a phase of determining at least one first position of the actuator and/or of the movable element, in which position(s) the exposure of the photovoltaic panel to light radiation allows the accumulator of electrical energy to be charged, and the method being such that, following an order to move the actuator and/or the movable element to a desired position, the actuator implements the following steps: - checking the state of charge of the accumulator of electrical energy, - depending on the state of charge, - moving the actuator and/or the movable element to the desired position, or - moving the actuator and/or the movable element to the first position, the first position being a position avoiding configurations in which a small amount of solar radiation reaches the photovoltaic panel. - checking the state of charge of the accumulator of electrical energy, - depending on the state of charge, - moving the actuator and/or the movable element to the desired position, or - moving the actuator and/or the movable element to the first position, the first position being a position avoiding configurations in which a small amount of solar radiation reaches the photovoltaic panel. - moving the actuator and/or the movable element to the desired position, or - moving the actuator and/or the movable element to the first position, the first position being a position avoiding configurations in which a small amount of solar radiation reaches the photovoltaic panel.
A polypeptide having the following properties and: the polypeptide comprises an amino acid sequence having 75% or more identity and 95% or more similarity to the amino acid sequence shown in SEQ ID NO: 1 and is an amino acid sequence different from the amino acid sequence of SEQ ID NO: 7; and the polypeptide exhibits, at any temperature from 45 to 60°C, 40% or more of the maximal activity value of hydrolytic activity and/or transglycosylation activity on complex sugar chains. the polypeptide comprises an amino acid sequence having 75% or more identity and 95% or more similarity to the amino acid sequence shown in SEQ ID NO: 1 and is an amino acid sequence different from the amino acid sequence of SEQ ID NO: 7; and the polypeptide exhibits, at any temperature from 45 to 60°C, 40% or more of the maximal activity value of hydrolytic activity and/or transglycosylation activity on complex sugar chains.
Boundary layer sensor for determining a thickness of a boundary layer on a surface of a body around which there is a flow, said sensor having at least a first device for determining a temperature, at least a second device for determining a temperature and at least a third device for determining a temperature, each being designed to be arranged at a predefinable distance (X1, X2, X3) from the surface of the body around which there is a flow during the operation of the boundary layer sensor, the predefinable distance X2 of the second device for determining the temperature being selected in such a way that this distance is between the first distance X1 and the third distance X3 of the first and third device (31, 33) for determining the temperature, the boundary layer sensor further comprising an evaluation device which is designed to determine the boundary layer thickness and/or the convective heat transfer coefficient from the three temperatures or the temperature differences, characterized in that at least the second and the third device for determining a temperature (32, 33) are applied to a printed circuit board, which is applied to a measuring element. at least a first device for determining a temperature, at least a second device for determining a temperature and at least a third device for determining a temperature, each being designed to be arranged at a predefinable distance (X1, X2, X3) from the surface of the body around which there is a flow during the operation of the boundary layer sensor, the predefinable distance X2 of the second device for determining the temperature being selected in such a way that this distance is between the first distance X1 and the third distance X3 of the first and third device (31, 33) for determining the temperature, the boundary layer sensor further comprising an evaluation device which is designed to determine the boundary layer thickness and/or the convective heat transfer coefficient from the three temperatures or the temperature differences, characterized in that at least the second and the third device for determining a temperature (32, 33) are applied to a printed circuit board, which is applied to a measuring element.
A film-shaped fired material, comprising: sinterable metal particles; and a binder component, characterised in that the material exhibits the following property: a time after the start of a temperature increase, at which a negative gradient is the highest, in a thermogravimetric curve (TG curve) measured from 40°C to 600°C at a temperature-rising-rate of 10°C/min in an air atmosphere and a maximum peak time in a time range of 0 seconds to 2160 seconds after the start of a temperature increase in a differential thermal analysis curve (DTA curve) measured from 40°C to 600°C at a temperature-rising-rate of 10°C/min in an air atmosphere using alumina particles as a reference sample satisfy a relationship of "A1 < B1 < A1 + 200 seconds" and a relationship of "A1 <2000 seconds". sinterable metal particles; and a binder component, characterised in that the material exhibits the following property: a time after the start of a temperature increase, at which a negative gradient is the highest, in a thermogravimetric curve (TG curve) measured from 40°C to 600°C at a temperature-rising-rate of 10°C/min in an air atmosphere and a maximum peak time in a time range of 0 seconds to 2160 seconds after the start of a temperature increase in a differential thermal analysis curve (DTA curve) measured from 40°C to 600°C at a temperature-rising-rate of 10°C/min in an air atmosphere using alumina particles as a reference sample satisfy a relationship of "A1 < B1 < A1 + 200 seconds" and a relationship of "A1 <2000 seconds".