mhurhangee/patent-ind-claim-en huggingface dataset:
An anti-fuse memory cell, comprising a base, wherein the base is provided with an N-well and a non-N-well region; the non-N-well region is provided with a first NMOS transistor (Q1); a gate of the first NMOS transistor is used for inputting a first selection signal (WSNm); the N-well is provided with a PMOS transistor (Q2) and a varactor (Q3); a gate of the PMOS transistor and a gate of the varactor are both connected to a drain of the first NMOS transistor; and the N-well, a drain, a source and a substrate of the PMOS transistor and a drain a source, and a substrate of the varactor are all connected to a controllable power supply (VPD); the source of the PMOS transistor is adjacent to the source of the varactor; the drain of the PMOS transistor is adjacent to the drain of the varactor; an active region of the PMOS transistor is adjacent to an active region of the varactor; the gate of the PMOS transistor is adjacent to the gate of the varactor or the PMOS transistor and the varactor share one gate, and at least one of the drain and the source of the varactor is N-type implanted and reused as a N-well tap of the PMOS transistor; and the PMOS transistor has no dedicated N-well tap.
Method for customizing a blowing machine , comprising a plurality of multi-part mold carriers each carrying a multi-part blow mold , characterized by the following steps: in that at least two working areas are provided on the blowing machine , wherein different processes for customizing the blowing machine are carried out at each working area ; in that the mold carrier is opened before or at at least one working area ; in that at another working area the plurality of parts of the blow mold (22 1 , 22 2 , 22 3 ) are removed from the mold carrier and are replaced by parts of a blow mold of a different type; in that the mold carriers are closed; in that the opening and/or the closing of the mold carriers is carried out by means of a cam element; and in that at each of the at least two working areas the intended processes are carried out automatically. in that at least two working areas are provided on the blowing machine , wherein different processes for customizing the blowing machine are carried out at each working area ; in that the mold carrier is opened before or at at least one working area ; in that at another working area the plurality of parts of the blow mold (22 1 , 22 2 , 22 3 ) are removed from the mold carrier and are replaced by parts of a blow mold of a different type; in that the mold carriers are closed; in that the opening and/or the closing of the mold carriers is carried out by means of a cam element; and in that at each of the at least two working areas the intended processes are carried out automatically.
Autopolymerisable 2-component prosthetic base material comprising A) at least one liquid monomer component, B) at least one powdered component, characterised in that component (A) comprises (i) at least methyl (meth)acrylate, (ii) at least one N-alkyl or N-alkenyl substituted acryloyloxy carbamate having a molecular mass of less than or equal to 250 g/mol, (iii) optionally, at least one at least di-functional urethane (meth)acrylate, (iv) at least one di-, tri, tetra- or multi-functional monomer not being urethane (meth)acrylate, (v) optionally, polymeric particles having a primary particle size of less than 800 nm, (vi) at least one initiator or at least one component of an initiator system for autopolymerisation, and component (B) comprises (i) at least one powdered component of polymeric particles comprising at least three different fractions of particle sizes of polymeric particles, as well as (ii) at least one initiator or at least one component of an initiator system for autopolymerisation. A) at least one liquid monomer component, B) at least one powdered component, characterised in that component (A) comprises (i) at least methyl (meth)acrylate, (ii) at least one N-alkyl or N-alkenyl substituted acryloyloxy carbamate having a molecular mass of less than or equal to 250 g/mol, (iii) optionally, at least one at least di-functional urethane (meth)acrylate, (iv) at least one di-, tri, tetra- or multi-functional monomer not being urethane (meth)acrylate, (v) optionally, polymeric particles having a primary particle size of less than 800 nm, (vi) at least one initiator or at least one component of an initiator system for autopolymerisation, and component (B) comprises (i) at least one powdered component of polymeric particles comprising at least three different fractions of particle sizes of polymeric particles, as well as (ii) at least one initiator or at least one component of an initiator system for autopolymerisation. (i) at least methyl (meth)acrylate, (ii) at least one N-alkyl or N-alkenyl substituted acryloyloxy carbamate having a molecular mass of less than or equal to 250 g/mol, (iii) optionally, at least one at least di-functional urethane (meth)acrylate, (iv) at least one di-, tri, tetra- or multi-functional monomer not being urethane (meth)acrylate, (v) optionally, polymeric particles having a primary particle size of less than 800 nm, (vi) at least one initiator or at least one component of an initiator system for autopolymerisation, (i) at least one powdered component of polymeric particles comprising at least three different fractions of particle sizes of polymeric particles, as well as (ii) at least one initiator or at least one component of an initiator system for autopolymerisation.
A method for determining the concentration of a second target gas while in the presence of a first target gas, the method comprising: operating a first sensor under a first operating condition, wherein the first sensor is part of a sensor assembly ; operating a second sensor under a second operating condition, wherein the second sensor is part of the sensor assembly ; and wherein: the second operating condition is different from the first operating condition, and the first operating condition comprises a first bias voltage and the second operating condition comprises a second bias voltage, the second bias voltage being different from the first bias voltage, wherein the first sensor comprises a first filter and the second sensor comprises a second filter different from the first filter, and wherein the first sensor comprises a membrane configured to hold the first filter; detecting at least one target gas by the first sensor; detecting at least one target gas by the second sensor; processing a signal output from the first sensor with a signal output from the second sensor; and determining a concentration of the first target gas and determining a concentration of the second target gas based on the processed output signals. operating a first sensor under a first operating condition, wherein the first sensor is part of a sensor assembly ; operating a second sensor under a second operating condition, wherein the second sensor is part of the sensor assembly ; and wherein: the second operating condition is different from the first operating condition, and the first operating condition comprises a first bias voltage and the second operating condition comprises a second bias voltage, the second bias voltage being different from the first bias voltage, wherein the first sensor comprises a first filter and the second sensor comprises a second filter different from the first filter, and wherein the first sensor comprises a membrane configured to hold the first filter; the second operating condition is different from the first operating condition, and the first operating condition comprises a first bias voltage and the second operating condition comprises a second bias voltage, the second bias voltage being different from the first bias voltage, wherein the first sensor comprises a first filter and the second sensor comprises a second filter different from the first filter, and wherein the first sensor comprises a membrane configured to hold the first filter; detecting at least one target gas by the first sensor; detecting at least one target gas by the second sensor; processing a signal output from the first sensor with a signal output from the second sensor; and determining a concentration of the first target gas and determining a concentration of the second target gas based on the processed output signals.
A breather apparatus comprising: a flow portion through which blowby gas of an engine flows; a chassis into which the blowby gas that has flowed through the flow portion flows; an outflow opening through which gas flows out from inside the chassis ; and a gas-liquid separation mechanism that separates moisture included in the blowby gas, wherein the gas-liquid separation mechanism separates the outflow opening and an inflow opening through which the blowby gas flows in from the flow portion from each other by a prescribed distance and has the outflow opening arranged farther upward than a fluid passage through which the moisture flows, and the gas-liquid separation mechanism includes a gas passage through which the blowby gas flows to the outflow opening from the inflow opening without passing through an air cleaner element ; and an inflow gas-liquid separation mechanism that separates the moisture while the blowby gas is guided to the inside of the chassis from the flow portion , characterized by an intake opening being formed in the chassis and taking external air into the chassis , whereby the inflow gas-liquid separation mechanism is provided at a position opposite the intake opening across the outflow opening . a flow portion through which blowby gas of an engine flows; a chassis into which the blowby gas that has flowed through the flow portion flows; an outflow opening through which gas flows out from inside the chassis ; and a gas-liquid separation mechanism that separates moisture included in the blowby gas, wherein the gas-liquid separation mechanism separates the outflow opening and an inflow opening through which the blowby gas flows in from the flow portion from each other by a prescribed distance and has the outflow opening arranged farther upward than a fluid passage through which the moisture flows, and the gas-liquid separation mechanism includes a gas passage through which the blowby gas flows to the outflow opening from the inflow opening without passing through an air cleaner element ; and an inflow gas-liquid separation mechanism that separates the moisture while the blowby gas is guided to the inside of the chassis from the flow portion , characterized by an intake opening being formed in the chassis and taking external air into the chassis , whereby the inflow gas-liquid separation mechanism is provided at a position opposite the intake opening across the outflow opening .
An apparatus for treating air, comprising: an outer case defining the exterior of the apparatus, wherein the outer case includes a top surface with a display for displaying various information to a user, wherein the display has a water supply port formed therethrough and an air discharge port provided along the perimeter thereof for discharging air; a water tub , disposed within the outer case, for receiving water therein; an inner case arranged within the outer case for accommodating a blower located at the upper side of the inner case for generating an airstream from the water tub side toward the air discharge port ; wherein the inner case has an air channel, along which air flows, and a water channel, along which the water injected through the water supply port is guided to the water tub ; and a water supply guide provided between the outer and the inner case, for allowing water supplied through the water supply port to flow to the water tub , wherein the water channel is partitioned from the air channel. an outer case defining the exterior of the apparatus, wherein the outer case includes a top surface with a display for displaying various information to a user, wherein the display has a water supply port formed therethrough and an air discharge port provided along the perimeter thereof for discharging air; a water tub , disposed within the outer case, for receiving water therein; an inner case arranged within the outer case for accommodating a blower located at the upper side of the inner case for generating an airstream from the water tub side toward the air discharge port ; wherein the inner case has an air channel, along which air flows, and a water channel, along which the water injected through the water supply port is guided to the water tub ; and a water supply guide provided between the outer and the inner case, for allowing water supplied through the water supply port to flow to the water tub , wherein the water channel is partitioned from the air channel.
A method for reducing sample rate of a streaming protocol in a mesh network, the method comprising: receiving , by a source node in the mesh network, an input data stream; generating , by the source node, a plurality of sample frames from the received input data stream, each of the plurality of sample frames having a sample rate that can be handled by the mesh network; and transmitting the plurality of the sample frames to one or more sink nodes, for reconstruction of the input data stream, wherein the source node transmits the plurality of sample frames to the one or more sink nodes along with a meta-data including one or more reconstruction parameters associated with the input data stream; wherein reconstruction of the input data stream is performed through interpolation of the plurality of sample frames using the one or more reconstruction parameters included in the meta-data. receiving , by a source node in the mesh network, an input data stream; generating , by the source node, a plurality of sample frames from the received input data stream, each of the plurality of sample frames having a sample rate that can be handled by the mesh network; and transmitting the plurality of the sample frames to one or more sink nodes, for reconstruction of the input data stream, wherein the source node transmits the plurality of sample frames to the one or more sink nodes along with a meta-data including one or more reconstruction parameters associated with the input data stream; wherein reconstruction of the input data stream is performed through interpolation of the plurality of sample frames using the one or more reconstruction parameters included in the meta-data.
A double closed-loop regulated device for regulating a flow of oxygen for automated oxygen therapy, the device comprising an oxygen flow path (5a-c) for passing a flow of oxygen from a source of oxygen via the device for providing a controlled flow of oxygen, the device comprising a valve and a flowmeter arranged consecutively on the oxygen flow path (5a-c), and a controller configured for controlling a provided flow of oxygen through the valve by adjusting the valve in response to feedback from the flowmeter and a sensor for measuring sets of physiological data comprising patient SpO 2 and pulse rate, the sensor configured for being operatively connected to the controller ; the controller further configured for: - providing a first flow of oxygen for a first set time t 1 and, in response to a first set of physiological data comprising patient SpO 2 and pulse rate received from the sensor , establishing a second set time t 2 ; - providing a variable second flow of oxygen for the second set time t 2 while receiving a second set of physiological data comprising patient SpO 2 and pulse rate from the sensor ; - establishing a third set time t 3 in response to the second set of physiological data received; and - providing a third flow of oxygen for the third set time t 3 without receiving feedback from the sensor . - providing a first flow of oxygen for a first set time t 1 and, in response to a first set of physiological data comprising patient SpO 2 and pulse rate received from the sensor , establishing a second set time t 2 ; - providing a variable second flow of oxygen for the second set time t 2 while receiving a second set of physiological data comprising patient SpO 2 and pulse rate from the sensor ; - establishing a third set time t 3 in response to the second set of physiological data received; and - providing a third flow of oxygen for the third set time t 3 without receiving feedback from the sensor .
An apparatus for detecting foreign substances in a textile material, in particular a strand-like material such as a yarn , or a flow of pieces of textile material , comprising a first light source for emitting visible light, a second light source for emitting radiation in the infrared spectrum, a first detector sensitive to visible light reflected from the textile material and configured to generate a corresponding first detector signal, and a second detector sensitive to radiation in the infrared spectrum reflected from the textile material and configured to generate a corresponding second detector signal, the light sources and detectors being arranged to illuminate and view the same section of the textile material, and a signal processing section configured to • determine a weighted difference of the two detector signals, that is, of a sample value Sv of a visible light detector and a sample value Si of an infrared light detector , by determining a deviation of the ratio Sv/Si of the two detector signals from a predetermined reference ratio Y, and to indicate the presence of a probable contaminant when the deviation exceeds a threshold value; characterised in that the signal processing section is configured to, if the deviation exceeds the threshold value, use of the following quantities for deciding whether a contaminant is present and should be eliminated: • a deviation Dv of the visible light value Sv from a predetermined reference value Yv; • a deviation Di of the infrared light value Si from a predetermined reference value Yi; • a ratio Dv/Di of the two preceding deviations; wherein the ratio Dv/Di is compared with a predetermined spectral behaviour of different materials for categorising the contaminants; wherein if the absolute value of the deviation Dv exceeds a predetermined second threshold value, then the presence of certain types of contaminants is confirmed; and if the absolute value of the deviation Di exceeds a predetermined third threshold value, then the presence of other types of contaminants is confirmed. • determine a weighted difference of the two detector signals, that is, of a sample value Sv of a visible light detector and a sample value Si of an infrared light detector , by determining a deviation of the ratio Sv/Si of the two detector signals from a predetermined reference ratio Y, and to indicate the presence of a probable contaminant when the deviation exceeds a threshold value; • a deviation Dv of the visible light value Sv from a predetermined reference value Yv; • a deviation Di of the infrared light value Si from a predetermined reference value Yi; • a ratio Dv/Di of the two preceding deviations;
An intravesical drug delivery device comprising: a first housing portion loaded with a drug formulation which comprises a drug ; and a second housing portion loaded with an excipient , wherein the device is configured to release the drug according to a first release profile and is configured to release the excipient according to a second release profile which differs from the first release profile, wherein the excipient is a drug solubilizing agent, drug stabilizing agent, or permeation enhancing agent configured to facilitate release or delivery of the drug. a first housing portion loaded with a drug formulation which comprises a drug ; and a second housing portion loaded with an excipient , wherein the device is configured to release the drug according to a first release profile and is configured to release the excipient according to a second release profile which differs from the first release profile, wherein the excipient is a drug solubilizing agent, drug stabilizing agent, or permeation enhancing agent configured to facilitate release or delivery of the drug.
A process for clarifying sugar juice in a sugar mill comprising adding to the sugar juice prior to reaching the juice clarifier tank a composition comprising a mixture of at least one particulate sulfur reagent containing at least one sulfur atom and at least three oxygen atoms, selected from sodium metabisulfite, sodium hydro sulfite or a mixture thereof; at least one particulate phosphorous reagent containing at least one phosphorous atom and at least three oxygen atoms in the chemical formula, selected from monosodium phosphate or monoammonium phosphate; at least one particulate silica reagent; and optionally one or more particulate solids selected from the group consisting of (A) a particulate carbonaceous reagent, (B) a particulate aluminum reagent, (C) a particulate filter aid, (D) a polymer decolorant, (E) a particulate ammonium reagent having at least one ammonium group (NH4) in the chemical formula, and (F) a bleaching earth, wherein the sugar juice is acidic.
Locking device for locking an essential functional component of a motor vehicle, in particular for locking a steering shaft , with a first housing part in which a locking bolt is accommodated movably between a locking position (I) for locking the functionally essential component and a release position (II) for releasing the functionally essential component , and a second housing part in which means for moving the locking bolt between the locking position (I) and the release position (II) are accommodated, wherein a security unit is provided on the first housing part , which in an engagement position (A) prevents movement of the locking bolt when the first housing part is changed in its arrangement relative to the second housing part , and in a retracted position (B) releases a movement of the locking bolt when the first housing part is arranged on the second housing part , characterized in that, a reinforcing element is provided on the first housing part and/or on the second housing part in order to protect the security unit against manipulation, wherein the reinforcing element is designed as a bolt or a wire element .
Flap device for an internal combustion engine comprising a flow housing delimiting a flow duct , a flap body rotatably arranged in the flow duct , a shaft on which the flap body is fastened, an actuator via which the shaft and the flap body can be rotated in the flow duct , an actuator housing in which the actuator is arranged, wherein a protrusion which extends in the direction of the actuator housing is formed on the flow housing and a receiving element which extends in the direction of the flow housing is formed on the actuator housing and abuts radially on the protrusion of the flow housing , characterized in that a circumferential groove is formed between the protrusion of the flow housing and the receiving element of the actuator housing , and wherein the protrusion of the flow housing protrudes into the receiving element of the actuator housing and, with the interposition of a seal , abuts axially against a shoulder-shaped end of the receiving element of the actuator housing .