mhurhangee/ep-ind-claims huggingface dataset:
A clothing treatment agent dispensing assembly for a clothing treatment device, the clothing treatment device comprising a body, wherein the clothing treatment agent dispensing assembly comprises a storage container, a dispensing container, and a liquid guiding tube; the storage container is fixed in the body, and the dispensing container is slidably connected to the body; one end of the liquid guiding tube is in communication with the dispensing container, and the other end of the liquid guiding tube is inserted into the storage container; and a length of the liquid guiding tube is set such that the other end of the liquid guiding tube will not come out of the storage container when the dispensing container moves away from the storage container, wherein the clothing treatment agent dispensing assembly further comprises a push switch, and the push switch is arranged to be capable of locking the dispensing container on the body and/or the storage container after the dispensing container is pushed into the body; and wherein the clothing treatment agent dispensing assembly further comprises a telescopic tube, characterized in that the telescopic tube is a bellows, an end of the liquid guiding tube is fixedly connected to one end of the telescopic tube and the other end of the telescopic tube is fixedly connected to the dispensing container, wherein the telescopic tube is able to be compressed so that the dispensing container is able to move toward the storage container and to unlock the push switch by force, when the liquid guiding tube is not able to move or does not move smoothly enough. wherein the clothing treatment agent dispensing assembly further comprises a push switch, and the push switch is arranged to be capable of locking the dispensing container on the body and/or the storage container after the dispensing container is pushed into the body; and wherein the clothing treatment agent dispensing assembly further comprises a telescopic tube, characterized in that the telescopic tube is a bellows, an end of the liquid guiding tube is fixedly connected to one end of the telescopic tube and the other end of the telescopic tube is fixedly connected to the dispensing container, wherein the telescopic tube is able to be compressed so that the dispensing container is able to move toward the storage container and to unlock the push switch by force, when the liquid guiding tube is not able to move or does not move smoothly enough.
An analyte testing device, comprising: a housing that houses an analyte sensor and a lancet; a linkage mechanism having a first link coupled with the analyte sensor and a second link coupled with the lancet, wherein the first and the second links are coupled to another on the linkage mechanism; and an actuator that functions through the linkage mechanism to (a) eject the analyte sensor at a first position of the housing, and (b) advance the lancet for projection from a second position of the housing in a single motion of the actuator. a housing that houses an analyte sensor and a lancet; a linkage mechanism having a first link coupled with the analyte sensor and a second link coupled with the lancet, wherein the first and the second links are coupled to another on the linkage mechanism; and an actuator that functions through the linkage mechanism to (a) eject the analyte sensor at a first position of the housing, and (b) advance the lancet for projection from a second position of the housing in a single motion of the actuator.
Composition obtained by a method comprising a step of bioconverting a milk substrate using a culture of a Bifidobacterium breve strain, by maintaining said substrate in contact with said culture, under conditions which are unfavourable to producing acid by said Bifidobacterium strain, for use in preventing and/or treating allergy-type manifestations in children, said composition being intended to prevent and/or to treat an allergy against cow's milk proteins.
A method for contextual heart rate monitoring, the method comprising: detecting an ECG signal using a wireless sensor device in a patch form factor; calculating a heart rate reserve, HRR, using the detected ECG signal; detecting an activity level; and generating a warning based upon both the HRR and the activity level, wherein the warning is generated when the HRR is above a first threshold and the activity level is below a fourth threshold, wherein the warning is generated when the HRR is below a second threshold and the activity level is above a third threshold, wherein the first threshold is a high HRR threshold, the second threshold is a low HRR threshold, the third threshold is a high activity level threshold, and the fourth threshold is a low activity level threshold. detecting an ECG signal using a wireless sensor device in a patch form factor; calculating a heart rate reserve, HRR, using the detected ECG signal; detecting an activity level; and generating a warning based upon both the HRR and the activity level, wherein the warning is generated when the HRR is above a first threshold and the activity level is below a fourth threshold, wherein the warning is generated when the HRR is below a second threshold and the activity level is above a third threshold, wherein the first threshold is a high HRR threshold, the second threshold is a low HRR threshold, the third threshold is a high activity level threshold, and the fourth threshold is a low activity level threshold.
A memristive dot product engine with a nulling amplifier, comprising: a number of row lines; a number of column lines intersecting the row lines, a memristive memory element located at each intersection of a row line and a column line, in which each memristive memory element receives: a programming vector signal to represent a number of values within a matrix; a reference vector signal applied to a number of row lines; and an operating vector signal applied to the number of row lines to represent a number of vector values to be multiplied by the matrix; and a nulling amplifier to determine an array output from: a reference output which is based on the reference vector signal; and an operating output which is based on the operating vector signal, wherein the nulling amplifier is to determine an array output by subtracting the reference output from the operating output; the array output representing a dot product of the matrix values and the vector values. a number of row lines; a number of column lines intersecting the row lines, a memristive memory element located at each intersection of a row line and a column line, in which each memristive memory element receives: a programming vector signal to represent a number of values within a matrix; a reference vector signal applied to a number of row lines; and an operating vector signal applied to the number of row lines to represent a number of vector values to be multiplied by the matrix; and a nulling amplifier to determine an array output from: a reference output which is based on the reference vector signal; and an operating output which is based on the operating vector signal, wherein the nulling amplifier is to determine an array output by subtracting the reference output from the operating output; the array output representing a dot product of the matrix values and the vector values. a programming vector signal to represent a number of values within a matrix; a reference vector signal applied to a number of row lines; and an operating vector signal applied to the number of row lines to represent a number of vector values to be multiplied by the matrix; and a reference output which is based on the reference vector signal; and an operating output which is based on the operating vector signal, wherein the nulling amplifier is to determine an array output by subtracting the reference output from the operating output;
A compact roller bearing unit including a direct drive for rotary tables with highly precise axial/radial run-out in the nanometre range for taking up axial and radial loads, wherein a shaft is supported and guided directly in a bearing housing ring of the roller bearing unit without raceways via radial and axial rows (3, 4) of cylindrical rollers arranged in pairs of rows of cylindrical rollers, only one axial joining point area is arranged in the roller bearing unit, the cylindrical rollers are selected by their diameter, the selected cylindrical rollers are arranged distributed in the rows (3, 4) of cylindrical rollers according to a specific gradation of diameters such that they act as a damping chain. a shaft is supported and guided directly in a bearing housing ring of the roller bearing unit without raceways via radial and axial rows (3, 4) of cylindrical rollers arranged in pairs of rows of cylindrical rollers, only one axial joining point area is arranged in the roller bearing unit, the cylindrical rollers are selected by their diameter, the selected cylindrical rollers are arranged distributed in the rows (3, 4) of cylindrical rollers according to a specific gradation of diameters such that they act as a damping chain.
Use of an at least two-layered joint tape in road construction for the production of seams and/or connections, in particular in cover layers of asphalt mix, comprising a joint tape body of a bitumen-containing material and at least one thermally activatable adhesive layer arranged thereon, the adhesive layer being substantially non-tacky in a temperature range from -20°C to 45°C, and in the non-activated state at room temperature of 23°C not providing sufficient adhesion for the production of seams and/or connections to a flank of the seam and/or connection, wherein the use is effected in such a way in that, in a first step, the non-activated joint tape is deposited on a flank of a seam and/or a connection, in a second step, the at least one adhesive layer is thermally activated so that it has a tack which allows sufficient adhesion to a flank of the seam and/or connection for producing seams and/or connections, the activation takes place at a temperature of at least 50°C and the duration of activating the adhesive layer is in a range from 0.1 s to 3 s, and in a third step, the joint tape is pressed against the flank.
Heat exchanger for vehicle applications, comprising - a housing surrounding a conduit block, - wherein inside the conduit block a first fluid path for a first fluid is provided, - wherein outside the conduit block and inside the housing a second fluid path for a second fluid is provided, the second fluid path flowing around the conduit block, - wherein an opening (28, 29) of the housing is surrounded by a seal, characterized in that - the seal is injection-molded onto a seal carrier, which is attached to an opening edge of the housing, the opening edge enclosing the opening (28, 29) of the housing, - the seal carrier comprises a flow guide structure, which protrudes into the second fluid path and in operation of the heat exchanger has a flow guide effect on the second fluid. - a housing surrounding a conduit block, - wherein inside the conduit block a first fluid path for a first fluid is provided, - wherein outside the conduit block and inside the housing a second fluid path for a second fluid is provided, the second fluid path flowing around the conduit block, - wherein an opening (28, 29) of the housing is surrounded by a seal, - the seal is injection-molded onto a seal carrier, which is attached to an opening edge of the housing, the opening edge enclosing the opening (28, 29) of the housing, - the seal carrier comprises a flow guide structure, which protrudes into the second fluid path and in operation of the heat exchanger has a flow guide effect on the second fluid.
A method of reducing stress during curing of a polymerizable material of the type having a cross-linked network with a pre-gel phase and a post-gel phase, characterized in that the method comprises selectively breaking at least a portion of the cross-linked network thereby inducing a stress relief period, wherein the polymerizable material is a photopolymerizable and photocleavable resin.
A method for adjusting a sink rate alert envelope and generating a sink rate alert for an aircraft, the method performed on the aircraft and the method comprising:at a processor on the aircraft: receiving an aircraft altitude value and an aircraft position value for the aircraft; receiving landing zone information associated with a plurality of special landing zones; determining, based on the received aircraft position value and the received landing zone information, that the aircraft is in a landing scenario to land at a special landing zone that is raised to a height above surrounding terrain; modifying an upper boundary of a sink rate alert envelope by an amount proportional the height above the surrounding terrain to define a modified sink rate alert envelope for the landing scenario; receiving sink rate for the aircraft; and generating a sink rate alert during the landing scenario when the received sink rate is outside the modified sink rate alert envelope; at an output device (22,24,34): outputting the sink rate alert to an output device. receiving an aircraft altitude value and an aircraft position value for the aircraft; receiving landing zone information associated with a plurality of special landing zones; determining, based on the received aircraft position value and the received landing zone information, that the aircraft is in a landing scenario to land at a special landing zone that is raised to a height above surrounding terrain; modifying an upper boundary of a sink rate alert envelope by an amount proportional the height above the surrounding terrain to define a modified sink rate alert envelope for the landing scenario; receiving sink rate for the aircraft; and generating a sink rate alert during the landing scenario when the received sink rate is outside the modified sink rate alert envelope;
A method for wireless communication, comprising: determining a first set of parameters for communications using a first transmission time interval, TTI; characterized by determining a second set of parameters for communications using a second TTI, wherein the second TTI has a shorter duration than the first TTI; associating a first parameter for a first channel state information, CSI, process in the second set of parameters with a corresponding parameter for a second CSI process in the first set of parameters such that the first parameter and the corresponding parameter are the same; and performing communications using the first TTI, the second TTI and the first parameter. determining a first set of parameters for communications using a first transmission time interval, TTI; characterized by determining a second set of parameters for communications using a second TTI, wherein the second TTI has a shorter duration than the first TTI; associating a first parameter for a first channel state information, CSI, process in the second set of parameters with a corresponding parameter for a second CSI process in the first set of parameters such that the first parameter and the corresponding parameter are the same; and performing communications using the first TTI, the second TTI and the first parameter.
A wheel determination method, comprising: obtaining a time duration for a wheel to rotate for the predetermined number of revolutions after the wheel being detected as rotating; sampling centrifugal acceleration and tangential acceleration of the wheel within the time duration; determining an overrun-lag relationship between the centrifugal acceleration and the tangential acceleration of the wheel; and determining the wheel to be a left wheel or a right wheel based on the overrun-lag relationship between the centrifugal acceleration and the tangential acceleration of the wheel; characterized in that the determining an overrun-lag relationship between the centrifugal acceleration and the tangential acceleration of the wheel is performed based on serial numbers of sampling time-points corresponding to the centrifugal acceleration and serial numbers of sampling time-points corresponding to the tangential acceleration. obtaining a time duration for a wheel to rotate for the predetermined number of revolutions after the wheel being detected as rotating; sampling centrifugal acceleration and tangential acceleration of the wheel within the time duration; determining an overrun-lag relationship between the centrifugal acceleration and the tangential acceleration of the wheel; and determining the wheel to be a left wheel or a right wheel based on the overrun-lag relationship between the centrifugal acceleration and the tangential acceleration of the wheel; characterized in that the determining an overrun-lag relationship between the centrifugal acceleration and the tangential acceleration of the wheel is performed based on serial numbers of sampling time-points corresponding to the centrifugal acceleration and serial numbers of sampling time-points corresponding to the tangential acceleration.
A heating assembly, comprising: a body defining a heating compartment adapted to receive a vapour generating substance; at least two heaters (24,26) between which the vapour generating substance is placeable within the heating compartment in use; a movement mechanism adapted in use to move at least one of the at least two heaters between a first and second position, the distance between the at least two heaters being less when the at least one heater is in the first position than when in the second position, wherein the distance between the at least two heaters when the at least one heater is in the first position being such that the separation of the at least two heaters applies pressure to the vapour generating substance when located in the heating compartment, the movement mechanism being further adapted in use to move the at least one heater to a third position, the distance between the at least two heaters being less when in the third position than when in the first position; and a switch operable by a user of the assembly, the switch being adapted in use to control the movement of the at least one heater by the movement mechanism. a body defining a heating compartment adapted to receive a vapour generating substance; at least two heaters (24,26) between which the vapour generating substance is placeable within the heating compartment in use; a movement mechanism adapted in use to move at least one of the at least two heaters between a first and second position, the distance between the at least two heaters being less when the at least one heater is in the first position than when in the second position, wherein the distance between the at least two heaters when the at least one heater is in the first position being such that the separation of the at least two heaters applies pressure to the vapour generating substance when located in the heating compartment, the movement mechanism being further adapted in use to move the at least one heater to a third position, the distance between the at least two heaters being less when in the third position than when in the first position; and a switch operable by a user of the assembly, the switch being adapted in use to control the movement of the at least one heater by the movement mechanism.
A method of reducing a risk of drug misuse in a subject comprising: determining a prescribed daily dose of a drug in the subject, wherein the drug comprises oxycodone, controlled-release oxycodone or a metabolite of oxycodone; measuring a concentration of the drug in urine of the subject; measuring parameters associated with the subject consisting of urine specific gravity, urine pH and subject lean body mass; calculating a normalized value as a function of (i) the drug concentration and (ii) the parameters using the following equation: = x ((SG N -1.00)/(SG-1.00) x (LBW/122) x (pH/8.50) 0.56, where is the raw drug concentration in ng/mL, SG N is the normalized urine specific gravity, SG is the specific gravity of the urine, LBW is the lean body weight of the subject, and pH is the pH of the urine; comparing the normalized value to a normalized mean or median estimate corresponding to the prescribed daily dose of the drug; identifying the subject at high risk of drug misuse if the normalized drug concentration falls outside the normalized mean or median estimate corresponding to the prescribed daily dose of the drug; and thereafter altering the daily dose of the drug prescribed to the subject. determining a prescribed daily dose of a drug in the subject, wherein the drug comprises oxycodone, controlled-release oxycodone or a metabolite of oxycodone; measuring a concentration of the drug in urine of the subject; measuring parameters associated with the subject consisting of urine specific gravity, urine pH and subject lean body mass; calculating a normalized value as a function of (i) the drug concentration and (ii) the parameters using the following equation: = x ((SG N -1.00)/(SG-1.00) x (LBW/122) x (pH/8.50) 0.56, where is the raw drug concentration in ng/mL, SG N is the normalized urine specific gravity, SG is the specific gravity of the urine, LBW is the lean body weight of the subject, and pH is the pH of the urine; comparing the normalized value to a normalized mean or median estimate corresponding to the prescribed daily dose of the drug; identifying the subject at high risk of drug misuse if the normalized drug concentration falls outside the normalized mean or median estimate corresponding to the prescribed daily dose of the drug; and thereafter altering the daily dose of the drug prescribed to the subject.
A unidirectional reinforcement for the manufacture of fiber reinforced composites by one of resin transfer molding process and vacuum infusion molding process, the unidirectional reinforcement (2, 4, 34) comprising continuous unidirectional rovings arranged in a longitudinal direction of the reinforcement and bonded to each other by a thermoplastic and/or thermoset binder, the reinforcement having a top surface and a bottom surface and being provided with means for facilitating, when wetting-out a stack of reinforcements (2, 4, 34), the impregnation of the reinforcement (2, 4, 34) with resin in a direction transverse to the direction of the unidirectional rovings, whereby the impregnation facilitating means are thin discrete means (6, 40) for forming flow passages for resin arranged transverse to the unidirectional rovings, the thin discrete flow passage forming means (6, 40) forming to the sides thereof transverse flow passages extending from one longitudinal edge of the unidirectional reinforcement (2, 4, 34) to the opposite longitudinal edge thereof, and that the thin discrete flow passage forming means (6, 40) are secured on the unidirectional rovings by means of additional yarns (42, 46) laid on the unidirectional rovings, running on and transverse to the thin discrete flow passage forming means (6, 40) and being bonded to at least the unidirectional rovings, characterized in that the additional yarns (42,46) are arranged at a lateral distance of 10 to 35 mm from one another.