mhurhangee/patent-ind-claim-en huggingface dataset:
An indwelling catheter, wherein: a maximum value of a catheter repulsive force when the catheter is pushed by 1.5 mm in a dry state in air at 25°C is 0.10 N or more; a maximum value of the catheter repulsive force when the catheter is pushed by 1.5 mm when immersed in warm water at 37°C is 0.01 to 0.25 N; a ratio of said maximum value of the catheter repulsive force in a dry state at 25°C to said maximum value of the catheter repulsive force when immersed in warm water at 37°C is 3.5 or more; and said maximum value of the catheter repulsive force when immersed in warm water at 37°C is 0.027 N or less after 5 minutes from indwelling, the indwelling catheter contains a polyurethane resin; the polyurethane resin mainly contains a diisocyanate, a diol chain extending agent, and a polyglycol; a weight ratio of the diisocyanate to the polyglycol is 0.99 to 1.36; and the polyurethane resin has an average hard segment chain length of 1.00 to 3.01, and the average hard segment chain length is calculated by the following formula, in which M PCL , M MDI and M BD are the molecular weights of the polyglycol, diisocynate and diol respectively, and X is the weight fraction of the soft segment (polyglycol): M PCL 1 − X X − M MDI M MDI + M BD + 1 a maximum value of a catheter repulsive force when the catheter is pushed by 1.5 mm in a dry state in air at 25°C is 0.10 N or more; a maximum value of the catheter repulsive force when the catheter is pushed by 1.5 mm when immersed in warm water at 37°C is 0.01 to 0.25 N; a ratio of said maximum value of the catheter repulsive force in a dry state at 25°C to said maximum value of the catheter repulsive force when immersed in warm water at 37°C is 3.5 or more; and said maximum value of the catheter repulsive force when immersed in warm water at 37°C is 0.027 N or less after 5 minutes from indwelling, the indwelling catheter contains a polyurethane resin; the polyurethane resin mainly contains a diisocyanate, a diol chain extending agent, and a polyglycol; a weight ratio of the diisocyanate to the polyglycol is 0.99 to 1.36; and the polyurethane resin has an average hard segment chain length of 1.00 to 3.01, and the average hard segment chain length is calculated by the following formula, in which M PCL , M MDI and M BD are the molecular weights of the polyglycol, diisocynate and diol respectively, and X is the weight fraction of the soft segment (polyglycol): M PCL 1 − X X − M MDI M MDI + M BD + 1
A sheet to form a protective film for chips comprising a release sheet and a protective film forming layer formed on a detachable surface of the release sheet, wherein said protective film forming layer comprises a thermosetting or energy ray-curable component and a binder polymer component and is colored, wherein said thermosetting or energy ray-curable component is a thermosetting component alone; characterized in that the binder polymer component is composed of an acrylic polymer; and wherein said thermosetting component is incorporated in the protective film forming layer at 100 to 1500 parts by weight per 100 parts by weight of the binder polymer component.
A positive-working lithographic printing plate precursor which comprises on a support having a hydrophilic surface or which is provided with a hydrophilic layer, a heat and/or light-sensitive coating comprising an infrared absorbing agent and a binder including a monomeric unit including a oxalylamide moiety and a monomeric unit including a group which is able to be deprotonated in an aqueous solution.
A medicament comprising a) a therapeutically effective amount of the compound of the formula [(A 1 )(A 2 )](Na) y • x H 2 O (I) wherein A 1 is S-N-valeryl-N-{[2'-(1H-tetrazole-5-yl)-biphenyl-4-yl]-methyl}-valine in its anionic form; A 2 is -5-biphenyl-4-yl-4-(3-carboxy-propionylamino)-2-methyl-pentanoic acid ethyl ester in its anionic form; Na is a sodium ion; y is 1 to 3; and x is 0 to 3; or b) a combination comprising a therapeutically effective amount of a 1:1 molar ratio of (i) valsartan or a pharmaceutically acceptable salt thereof; and (ii) sacubitril or a pharmaceutically acceptable salt thereof, for the use of preventing or delaying time to first occurrence of cardiovascular mortality and/or cardiovascular hospitalizations in a patient suffering from chronic systolic heart failure with reduced ejection fraction. a) a therapeutically effective amount of the compound of the formula [(A 1 )(A 2 )](Na) y • x H 2 O (I) wherein A 1 is S-N-valeryl-N-{[2'-(1H-tetrazole-5-yl)-biphenyl-4-yl]-methyl}-valine in its anionic form; A 2 is -5-biphenyl-4-yl-4-(3-carboxy-propionylamino)-2-methyl-pentanoic acid ethyl ester in its anionic form; Na is a sodium ion; y is 1 to 3; and x is 0 to 3; or A 1 is S-N-valeryl-N-{[2'-(1H-tetrazole-5-yl)-biphenyl-4-yl]-methyl}-valine in its anionic form; A 2 is -5-biphenyl-4-yl-4-(3-carboxy-propionylamino)-2-methyl-pentanoic acid ethyl ester in its anionic form; Na is a sodium ion; y is 1 to 3; and x is 0 to 3; b) a combination comprising a therapeutically effective amount of a 1:1 molar ratio of (i) valsartan or a pharmaceutically acceptable salt thereof; and (ii) sacubitril or a pharmaceutically acceptable salt thereof, (i) valsartan or a pharmaceutically acceptable salt thereof; and (ii) sacubitril or a pharmaceutically acceptable salt thereof,
A method of uplink timing alignment by a network access equipment in a Long Term Evolution network comprising: instructing a user equipment (UE) to send a sounding reference signal comprising a constant-amplitude and a zero-auto correlation sequence during a time interval; receiving an uplink transmission from the UE in the time interval; evaluating the time interval to determine if a sounding reference signal transmission comprising a constant-amplitude and a zero-auto correlation sequence was received from the UE in the time interval; and calculating an uplink timing alignment adjustment based on the sounding reference signal transmission comprising a constant-amplitude and a zero-auto correlation sequence, if received, and if no sounding reference signal comprising a constant-amplitude and a zero-auto correlation sequence is received from the UE during the time interval, calculating the uplink timing alignment adjustment based on data received from the UE on a physical uplink shared channel, PUSCH, in the time interval, said data comprising a demodulation reference symbol. instructing a user equipment (UE) to send a sounding reference signal comprising a constant-amplitude and a zero-auto correlation sequence during a time interval; receiving an uplink transmission from the UE in the time interval; evaluating the time interval to determine if a sounding reference signal transmission comprising a constant-amplitude and a zero-auto correlation sequence was received from the UE in the time interval; and calculating an uplink timing alignment adjustment based on the sounding reference signal transmission comprising a constant-amplitude and a zero-auto correlation sequence, if received, and if no sounding reference signal comprising a constant-amplitude and a zero-auto correlation sequence is received from the UE during the time interval, calculating the uplink timing alignment adjustment based on data received from the UE on a physical uplink shared channel, PUSCH, in the time interval, said data comprising a demodulation reference symbol.
A hydrophilic polyurethane foam sponge. characterized in that it comprises an antimicrobial composition including an acetate salt solution humectant.
A process for producing a glucosyl stevia composition, comprising the steps of: adding starch into water to form a starch suspension; adding a mixture of α-amylase and a first portion of CGTase into the starch suspension and incubating the starch suspension, resulting in a liquefied starch suspension; inactivating the α-amylase by low pH heat treatment; adding steviol glycosides into the liquefied starch suspension, resulting in a reaction mixture; adding a second portion of CGTase into the reaction mixture and incubating the reaction mixture as a first transglucosylation step; removing non-reactant maltooligosaccharides by contacting the reaction mixture with a macroporous adsorbent resin to obtain a mixture of α-1, 4-glucosyl derivatives; subjecting the mixture of α- 1,4-glucosyl derivatives to a second transglucosylation step by CGTase in the presence of starch as a glucose donor to produce the glucosyl stevia composition; wherein the glucosyl stevia composition comprises steviol glycosides and their derivatives having up to twenty α- 1, 4-glucosyl residues. adding starch into water to form a starch suspension; adding a mixture of α-amylase and a first portion of CGTase into the starch suspension and incubating the starch suspension, resulting in a liquefied starch suspension; inactivating the α-amylase by low pH heat treatment; adding steviol glycosides into the liquefied starch suspension, resulting in a reaction mixture; adding a second portion of CGTase into the reaction mixture and incubating the reaction mixture as a first transglucosylation step; removing non-reactant maltooligosaccharides by contacting the reaction mixture with a macroporous adsorbent resin to obtain a mixture of α-1, 4-glucosyl derivatives; subjecting the mixture of α- 1,4-glucosyl derivatives to a second transglucosylation step by CGTase in the presence of starch as a glucose donor to produce the glucosyl stevia composition;
An electric brake device for a vehicle, the device comprising a first brake mechanism for braking a first wheel , a second brake mechanism for braking a second wheel , a third brake mechanism for braking a third wheel , a fourth brake mechanism for braking a fourth wheel , and at least three control units , wherein each control unit controls at least any one of the four brake mechanisms , characterized in that the brake device is arranged in such a way that, in case of failure of at least one of the three control units , at least one of the non-defective other control units temporarily reduces the braking force of its target brake mechanism or mechanisms.
A battery safety evaluation system comprising: a battery comprising: a battery housing defining an interior battery compartment; and an internal sensing element attached to the interior battery compartment, wherein the internal sensing element is configured to capture internal data representative of an internal battery condition event; an external sensing element attached to the battery housing, wherein the external sensing element is configured to capture external data representative of an external battery condition event; and a controller communicatively connected to the internal sensing element and the external sensing element, wherein the controller determines a cause of a battery condition based at least in part on a time sequence of events generated from the internal data captured by the internal sensing element and representative of the internal battery condition event and the external data captured by the external sensing element and representative of the external battery condition event. a battery comprising: a battery housing defining an interior battery compartment; and an internal sensing element attached to the interior battery compartment, wherein the internal sensing element is configured to capture internal data representative of an internal battery condition event; a battery housing defining an interior battery compartment; and an internal sensing element attached to the interior battery compartment, wherein the internal sensing element is configured to capture internal data representative of an internal battery condition event; an external sensing element attached to the battery housing, wherein the external sensing element is configured to capture external data representative of an external battery condition event; and a controller communicatively connected to the internal sensing element and the external sensing element, wherein the controller determines a cause of a battery condition based at least in part on a time sequence of events generated from the internal data captured by the internal sensing element and representative of the internal battery condition event and the external data captured by the external sensing element and representative of the external battery condition event.
A method for reporting a precoding matrix index to a base station from a user equipment in a wireless communication system, the method comprising: estimating a channel with the base station; selecting a first precoding matrix from a first codebook based on the estimated channel, wherein the first precoding matrix comprises at least one first vector; selecting a second precoding matrix from a second codebook based on the estimated channel; periodically reporting, to the base station with a first period, an index of the first precoding matrix; and periodically reporting, to the base station with a second period, an index of the second precoding matrix, wherein the second codebook is obtained by excluding, from the first codebook, every precoding matrix included in the first codebook and comprising the at least one first vector, wherein every precoding matrix included in the first codebook and not comprising the at least one first vector is included in the second codebook, wherein the first codebook comprises precoding matrices up to rank-4, wherein the first precoding matrix provides a maximum capacity of the channel in a line of sight, LoS, path among every precoding matrix included in the first codebook, wherein the second precoding matrix provides a maximum capacity of the channel in a non LoS, NLoS, path among every precoding matrix included in the second codebook, and wherein the first period is longer than the second period. estimating a channel with the base station; selecting a first precoding matrix from a first codebook based on the estimated channel, wherein the first precoding matrix comprises at least one first vector; selecting a second precoding matrix from a second codebook based on the estimated channel; periodically reporting, to the base station with a first period, an index of the first precoding matrix; and periodically reporting, to the base station with a second period, an index of the second precoding matrix, wherein the second codebook is obtained by excluding, from the first codebook, every precoding matrix included in the first codebook and comprising the at least one first vector, wherein every precoding matrix included in the first codebook and not comprising the at least one first vector is included in the second codebook, wherein the first codebook comprises precoding matrices up to rank-4, wherein the first precoding matrix provides a maximum capacity of the channel in a line of sight, LoS, path among every precoding matrix included in the first codebook, wherein the second precoding matrix provides a maximum capacity of the channel in a non LoS, NLoS, path among every precoding matrix included in the second codebook, and wherein the first period is longer than the second period.
An intelligent cabinet system , comprising: a first object ; a second object movable relative to the first object a locking mechanism comprising a locking member ; and a controller configured to communicate with an electronic device for receiving a first control signal from the electronic device ; wherein the second object is movable relative to the first object from a retracted position to an open position; wherein when the electronic device transmits the first control signal to the controller , and when the second object is moved relative to the first object from the retracted position along an opening direction, the controller is configured to control the locking member of the locking mechanism to move from a first predetermined position to a second predetermined position according to the first control signal, in order to block the second object at a predetermined extension position by the locking member ; characterized in that the predetermined extension position is located between the retracted position and the open position. a first object ; a second object movable relative to the first object a locking mechanism comprising a locking member ; and a controller configured to communicate with an electronic device for receiving a first control signal from the electronic device ; wherein the second object is movable relative to the first object from a retracted position to an open position; wherein when the electronic device transmits the first control signal to the controller , and when the second object is moved relative to the first object from the retracted position along an opening direction, the controller is configured to control the locking member of the locking mechanism to move from a first predetermined position to a second predetermined position according to the first control signal, in order to block the second object at a predetermined extension position by the locking member ; characterized in that the predetermined extension position is located between the retracted position and the open position.
Method for testing a locking device from an access hatch to a spare wheel compartment provided in a trunk of a vehicle , said method being implemented by at least one on-board computer in said vehicle , said method comprising the following steps: - receiving a request to activate a service configured to allow access to the inside of a trunk of said vehicle ; - detection of an opening of a sash giving access to the interior of said safe ; - transmission of a control for locking said locking device of said access hatch to prevent any access to said compartment . - receiving a request to activate a service configured to allow access to the inside of a trunk of said vehicle ; - detection of an opening of a sash giving access to the interior of said safe ; - transmission of a control for locking said locking device of said access hatch to prevent any access to said compartment .
Torque sensor unit for measuring a torque introduced into an upper steering shaft of a motor vehicle, wherein the upper steering shaft can be connected to a lower steering shaft via a torsion bar , wherein the torque sensor unit has two inductive sensors , wherein a first inductive sensor can be connected to the upper steering shaft for measuring the rotational position of the upper steering shaft and a second inductive sensor can be connected to the lower steering shaft for measuring the rotational position of the lower steering shaft , and wherein an evaluation unit is designed to process the signals of the two inductive sensors and to calculate the torque therefrom by means of the angular difference existing between the rotational positions of the two steering shafts , characterized in that the inductive sensors has in each case a carrier plate which can be connected to the corresponding steering shaft in a rotationally fixed manner and a printed circuit board which is spatially fixed with respect to the carrier plate , a single electrically conductive track being provided on the carrier plate and a sensing device with two coils being provided on the printed circuit board with two coils , which are part of a resonant circuit, are arranged on the printed circuit board , the two coils being arranged at an angle of 90 degrees to one another, and the sensing device being designed to sense the electrically conductive track in order to generate an angle-dependent sensor signal when the corresponding steering shaft rotates.
A method of operating a generator connected to a power supply network , in particular a synchronous generator, during a network fault in the power supply network , that results in a back-swing effect, in particular during an electric short-circuit, wherein the generator is coupled to an internal combustion engine , preferably by means of a coupling device , and wherein electric excitation of the generator is at least temporarily reduced in dependence on the value of at least one operating parameter of the generator prior to the network fault and/or during the network fault, characterised in that - to temporarily reducing of the electric excitation of the generator a limitation of a maximum exciter voltage (S3) is done by a excitation device of the generator , wherein in dependence on the value of at least one operating parameter an determined, reduced maximum voltage (S3s) is forwarded as maximum exciter voltage (S3) to a voltage regulator of the excitation device , to reduce the exciter current (I E ) provided by the excitation device for the exciter windings on the rotor of the generator and that - the mechanical power of the internal combustion engine is increased in order to compensate for the increase in electric power fed into the power supply network by the generator or - if the reaction time of the corresponding control members of the internal combustion engine in relation to the time duration of the network fault is too great - control members of the internal combustion engine , through which the mechanical power delivered by the internal combustion engine can be changed, are kept in their positions so that at least the mechanical power introduced by the internal combustion engine remains at the level that prevailed prior to the network fault. - to temporarily reducing of the electric excitation of the generator a limitation of a maximum exciter voltage (S3) is done by a excitation device of the generator , wherein in dependence on the value of at least one operating parameter an determined, reduced maximum voltage (S3s) is forwarded as maximum exciter voltage (S3) to a voltage regulator of the excitation device , to reduce the exciter current (I E ) provided by the excitation device for the exciter windings on the rotor of the generator and that - the mechanical power of the internal combustion engine is increased in order to compensate for the increase in electric power fed into the power supply network by the generator or - if the reaction time of the corresponding control members of the internal combustion engine in relation to the time duration of the network fault is too great - control members of the internal combustion engine , through which the mechanical power delivered by the internal combustion engine can be changed, are kept in their positions so that at least the mechanical power introduced by the internal combustion engine remains at the level that prevailed prior to the network fault.