mhurhangee/ep-ind-claims huggingface dataset:
A tapping device for at least one bag-in-box packaging equipped with a tap valve, comprising at least one accommodating area for the bag-in-box packaging, wherein the accommodating area has at least one loading opening, at least one device door (6, 21) that closes the loading opening of the accommodating area, which device door has at least one trigger of an operating apparatus (12, 22) that corresponds to the tap valve, and at least one beverage outlet (9, 30) associated with the tap valve, wherein the operating apparatus (12, 22) has at least one operating element (14, 26) that acts from above on certain parts of the tap valve in order to operate the tap valve, and wherein at least one valve accommodating bearing (7, 32) is provided in the area of the loading opening, which at least one valve accommodating bearing has bearing surfaces for wings of the tap valve protruding at least on both sides of the valve housing (11, 28), characterized in that the valve accommodating bearing (7, 32) is formed as an insert which is accommodated in a holder on the device housing in a replaceable manner.
A spoke wheel comprising an assembly of spokes and corresponding nipples (10; 20; 30) for connecting a wheel hub and a rim to each other and wherein the nipples are held axially in corresponding seats of the rim by means of axial locking means, and sealing means are provided between the nipples and the corresponding seats of the rim, wherein said sealing means act between a stem of the corresponding nipple and a wall of the corresponding seat with a coupling between nipple and seat substantially of the cylinder/piston type, characterized in that said axial locking means comprises a belt (22; 22'; 22") closed in a ring on the rim behind the nipples so as to hold them in the respective seats, and said seat comprises a portion provided in a collar extending and protruding from the rim radially in the direction of said hub.
A method for cumulative differential chemical assay identification, the method comprising the computer executed steps of: by a computer, receiving a plurality of fluorescence values measured during DNA melting, the DNA melting involving a test sample, each one of said fluorescence values pertaining to a respective one of a first series of physical parameter values; by a computer, calculating a plurality of pairwise differences, each difference being between a respective one of said measured fluorescence values and a respective one of reference fluorescence values of a reference sample, each one of said reference fluorescence values pertaining to a respective one of a second series of physical parameter values; by a computer, calculating a cumulative index, by selecting a first difference among said calculated pairwise differences, selecting and adding to said first difference a plurality of ones of said pairwise differences, and in said selecting correcting distortion in the measured fluorescence values by selecting each one of the added differences according to a proximity standard applied on each two differences selected in a sequence, the proximity standard being based on proximity of physical parameter values and on each selected difference being smallest in a respective group consisting of calculated ones of the differences; and by a computer, determining similarity between said test sample and said reference sample, using said calculated cumulative index. by a computer, receiving a plurality of fluorescence values measured during DNA melting, the DNA melting involving a test sample, each one of said fluorescence values pertaining to a respective one of a first series of physical parameter values; by a computer, calculating a plurality of pairwise differences, each difference being between a respective one of said measured fluorescence values and a respective one of reference fluorescence values of a reference sample, each one of said reference fluorescence values pertaining to a respective one of a second series of physical parameter values; by a computer, calculating a cumulative index, by selecting a first difference among said calculated pairwise differences, selecting and adding to said first difference a plurality of ones of said pairwise differences, and in said selecting correcting distortion in the measured fluorescence values by selecting each one of the added differences according to a proximity standard applied on each two differences selected in a sequence, the proximity standard being based on proximity of physical parameter values and on each selected difference being smallest in a respective group consisting of calculated ones of the differences; and by a computer, determining similarity between said test sample and said reference sample, using said calculated cumulative index.
A printer comprising: an inktank; a print head performing printing by using ink in the ink tank; a light source configured to irradiate the ink tank with light; a photoelectric conversion device configured to detect light incident from the ink tank in a period during which the light source emits light; and a processing unit configured to determine ink characteristics of ink in the ink tank based on characteristics of a light amount detected by the photoelectric conversion device, characterized in that the photoelectric conversion device configured to detect light having a first wavelength and light having a second wavelength, the light having the first wavelength and the light having the second wavelength being in different first and second wavelength bands respectively, and the processing unit configured to determine the ink characteristics for a single ink based on a relationship between first characteristics of a light amount of the light having the first wavelength and second characteristics of a light amount of the light having the second wavelength. an inktank; a print head performing printing by using ink in the ink tank; a light source configured to irradiate the ink tank with light; a photoelectric conversion device configured to detect light incident from the ink tank in a period during which the light source emits light; and a processing unit configured to determine ink characteristics of ink in the ink tank based on characteristics of a light amount detected by the photoelectric conversion device, characterized in that the photoelectric conversion device configured to detect light having a first wavelength and light having a second wavelength, the light having the first wavelength and the light having the second wavelength being in different first and second wavelength bands respectively, and the processing unit configured to determine the ink characteristics for a single ink based on a relationship between first characteristics of a light amount of the light having the first wavelength and second characteristics of a light amount of the light having the second wavelength.
A zoom optical system including a first lens group having a negative optical power, a second lens group having a positive optical power, a third lens group having a negative optical power, and a fourth lens group having a positive optical power and constituted of a positive lens element in this order from an object side, the interval between the first lens group and the second lens group is decreased in zooming from a wide angle end to a telephoto end, wherein a positive lens element in the third lens group or in a lens group closer to an image side than the third lens group satisfies the following conditional expression: vp < 40 where vp is a minimum value of the Abbe number of the positive lens element, and the second lens group satisfies the following conditional expressions and ': 0.7 < f 2 / fw < 2.0 0.4 < f 2 / ft < 0.8 where f2 is a composite focal length of the second lens group, fw is a composite focal length of the whole zoom optical system at the wide angle end, and where ft is a composite focal length of the entirety of the zoom optical system at the telephoto end.
A transceiver (110, 120) having self-interference suppression, comprising, within one transceiver device: two or more transmitters (211, 221) comprising one or more signal generators for transmitting transmit signals having transmit center frequencies in a selected first subchannel; and one or more receivers (212, 222) having receiver inputs for simultaneously receiving a desired receive signal in a second subchannel and an undesired accumulated interference signal due to said transmitted signals; at least one of said transmitters also comprising a precompensation circuit (310, 320), adapted to modify the amplitude and phase of the transmit signals, such that said accumulated interference signal at the receiver(s) inputs is reduced; and an estimation circuit is used to help determine the precompensation circuit operation; wherein the estimation circuit is adapted to estimate a transfer function of the transmitted transmit signals onto the receiver input and to model it as a linear relationship, resulting in a propagation matrix; the precompensation circuit (310, 320) also being adapted to use the right singular vector of the associated propagation matrix to modify the transmit signals. two or more transmitters (211, 221) comprising one or more signal generators for transmitting transmit signals having transmit center frequencies in a selected first subchannel; and one or more receivers (212, 222) having receiver inputs for simultaneously receiving a desired receive signal in a second subchannel and an undesired accumulated interference signal due to said transmitted signals; at least one of said transmitters also comprising a precompensation circuit (310, 320), adapted to modify the amplitude and phase of the transmit signals, such that said accumulated interference signal at the receiver(s) inputs is reduced; and an estimation circuit is used to help determine the precompensation circuit operation; wherein the estimation circuit is adapted to estimate a transfer function of the transmitted transmit signals onto the receiver input and to model it as a linear relationship, resulting in a propagation matrix; the precompensation circuit (310, 320) also being adapted to use the right singular vector of the associated propagation matrix to modify the transmit signals.
A computer-implemented method for identifying a single photon emitting molecule from photon emissions recorded in image data, comprising: a) inputting a time sequence of intensity of a spot from the image data; characterised by: b) forming a line chart of time and intensity of the spot according to the time sequence, wherein the line chart consists of a plurality of line segments; c) dividing the line chart into a plurality of grids in an array, counting the number of the line segments and/or ends of the line segments in each grid; d) subjecting the divided line chart to an erosion with a line structuring element according to numbers corresponding to the grids to transform the divided line chart to a simplified image, the simplified image containing grids with a first value or a second value; e) subjecting the simplified image to run-length coding to indicate connected domains; f) calculating an area of each connected domain and determining that the connected domain corresponds to a single molecule if the area of the connected domain is greater than a first predetermined threshold. a) inputting a time sequence of intensity of a spot from the image data; characterised by: b) forming a line chart of time and intensity of the spot according to the time sequence, wherein the line chart consists of a plurality of line segments; c) dividing the line chart into a plurality of grids in an array, counting the number of the line segments and/or ends of the line segments in each grid; d) subjecting the divided line chart to an erosion with a line structuring element according to numbers corresponding to the grids to transform the divided line chart to a simplified image, the simplified image containing grids with a first value or a second value; e) subjecting the simplified image to run-length coding to indicate connected domains; f) calculating an area of each connected domain and determining that the connected domain corresponds to a single molecule if the area of the connected domain is greater than a first predetermined threshold.
A method of memory reduction for fixed point matrix multiply on a computing device, comprising: implementing a partial matrix multiplication using a first block of fixed point data of a first matrix and a second block of fixed point data of a second matrix using full precision resulting in a first intermediate result; down converting the first intermediate result by converting fixed point data of the first intermediate result to fixed point data using a lower precision resulting in a first down converted intermediate result with a down converted intermediate precision size; implementing a partial matrix multiplication using a third block of fixed point data of the first matrix and a fourth block of fixed point data of the second matrix using full precision resulting in a second intermediate result; down converting the second intermediate result by converting fixed point data of the second intermediate result to fixed point data using the lower precision resulting in a second down converted intermediate result with the down converted intermediate precision size; and adding the first down converted intermediate result and the second down converted intermediate result using saturating addition capping a size of a resulting output portion of a resultant matrix to an output precision, wherein the method further comprises determining the down converted intermediate precision size for the first down converted intermediate result and for the second down converted intermediate result based on a specified level of accuracy. implementing a partial matrix multiplication using a first block of fixed point data of a first matrix and a second block of fixed point data of a second matrix using full precision resulting in a first intermediate result; down converting the first intermediate result by converting fixed point data of the first intermediate result to fixed point data using a lower precision resulting in a first down converted intermediate result with a down converted intermediate precision size; implementing a partial matrix multiplication using a third block of fixed point data of the first matrix and a fourth block of fixed point data of the second matrix using full precision resulting in a second intermediate result; down converting the second intermediate result by converting fixed point data of the second intermediate result to fixed point data using the lower precision resulting in a second down converted intermediate result with the down converted intermediate precision size; and adding the first down converted intermediate result and the second down converted intermediate result using saturating addition capping a size of a resulting output portion of a resultant matrix to an output precision, wherein the method further comprises determining the down converted intermediate precision size for the first down converted intermediate result and for the second down converted intermediate result based on a specified level of accuracy.
A manual coffee dose adjustment device, comprising: a holder for a blade; characterized in that the first blade is adjustable; the first blade having a threaded portion; the threaded portion being received by a cooperating and rotating index wheel; and the index wheel being retained by the holder. a holder for a blade; characterized in that the first blade is adjustable; the first blade having a threaded portion; the threaded portion being received by a cooperating and rotating index wheel; and the index wheel being retained by the holder.
Method for minimizing a deviation of a physical parameter of a blow-molded container from a target value, the method comprising: - determining a physical parameter of a container assigned to a machine parameter value of a blow molding machine, - based on the physical parameter and the target value, determining a change in a machine parameter, - based on an iteration process, determining an optimal machine parameter value for achieving a minimum deviation from the target value of the physical parameter of a blow-molded container, the iteration process comprising a - first iteration step for determining a deviation from the target value of the physical parameter of a blow-molded container based on the change in the machine parameter value, and a - second iteration step for determining an adjusted change in a machine parameter value based on the determined deviation of the physical parameter of a blow-molded container from the target value, - obtaining the optimal machine parameter value; the method furthermore comprising controlling the blow molding machine based on the obtained optimal machine parameter value. - determining a physical parameter of a container assigned to a machine parameter value of a blow molding machine, - based on the physical parameter and the target value, determining a change in a machine parameter, - based on an iteration process, determining an optimal machine parameter value for achieving a minimum deviation from the target value of the physical parameter of a blow-molded container, the iteration process comprising a - first iteration step for determining a deviation from the target value of the physical parameter of a blow-molded container based on the change in the machine parameter value, and a - second iteration step for determining an adjusted change in a machine parameter value based on the determined deviation of the physical parameter of a blow-molded container from the target value, - obtaining the optimal machine parameter value;
Multiregulating device for gas appliances, in particular for gas ovens, with a gas input, a gas output and a regulating region for regulating a gas volume flow, wherein an open-closed valve is arranged between the gas input and the regulating region, which can be actuated by means of a magnetically active body of the multiregulating device, wherein the magnetically active body is coupled to a rotatable component of the multiregulating device in order to influence the valve, wherein the open-closed valve has a movable shut-off body which, when the open-closed valve is closed, rests against a valve seat with a seal and in doing so closes off an opening in the valve seat, wherein the open-closed valve has a spring which, when the open-closed valve is closed, presses the shut-off body against the valve seat, wherein, in order to open the open-closed valve, the shut-off body raises from the valve seat by means of the force of the magnetically active body counter to the force of the spring, wherein the multiregulating device additionally has a target value encoder which likewise can be adjusted by means of the rotatable component of the multiregulating device, wherein the regulating region has a temperature regulator which is characterised in that a capillary tube couples a temperature sensor to a bellows, so that a gap is formed in an intermediate space between the adjustable target value encoder and a seal seat of the bellows, and wherein a bypass is arranged in parallel with the target value encoder.
A dual-flow turbojet engine comprising: - a low-pressure shaft supported by at least two low-pressure bearings (BP#1-BP#4), - a high-pressure shaft supported by at least one front high-pressure bearing (HP#1) and one rear high-pressure bearing (HP#2), - a fan shaft supported by at least two fan bearings (S#1, S#2), and - a reduction mechanism, coupling the low-pressure shaft and the fan shaft, the turbojet engine further comprising at most six enclosures (A-F) housing the low-pressure bearings (BP#1-BP#4), the high-pressure bearings (HP#1, HP#2), the fan bearings (S#1, S#2) and the reduction mechanism, the low-pressure shaft being supported by at least three low-pressure bearings (BP#1-BP#4), the fan bearings (S#1, S#2), the reduction mechanism and at least one low-pressure bearing (BP#1) being housed in a same enclosure, which is ventilated, and the rear high-pressure bearing (HP#2) and two further low-pressure bearings (BP#2, BP#3), which are rear low-pressure bearings, being housed in non-ventilated enclosures (C, D, E). - a low-pressure shaft supported by at least two low-pressure bearings (BP#1-BP#4), - a high-pressure shaft supported by at least one front high-pressure bearing (HP#1) and one rear high-pressure bearing (HP#2), - a fan shaft supported by at least two fan bearings (S#1, S#2), and - a reduction mechanism, coupling the low-pressure shaft and the fan shaft,
A fastening element for fastening a cover plate in a fitting groove of a window, a door or the like, comprising a base body which is configured as a component separate from the cover plate; a coupling section for coupling the base body to the cover plate in a fixed position, said coupling section being fastenable to the base body or being formed in one piece with it; and at least one resilient latch element (18, 20) for engaging behind a nose of the fitting groove, said latch element being arranged at the base body, characterized by a blocking element which is guided in or at the base body and which is movable between a release position allowing a movement of the latch element (18, 20) and a blocked position blocking a movement of the latch element (18, 20).
Method of operating a user equipment in a radio access network, the method comprising: - receiving, from a radio node in the radio access network, a transient configuration, the transient configuration indicating a transient protection interval to be inserted in a time domain between a first signaling and a second signaling to be transmitted by the user equipment, wherein the transient protection interval is a silent interval or an interval filled with transient signaling, and wherein the second signaling has a duration covering N symbol time intervals, N being smaller than 5 and - transmitting, during a transmission period, the first signaling having a first set of transmission characteristics, and the second signaling having second set of transmission characteristics, wherein transmitting comprises including the transient protection interval in the time domain between the first signaling and the second signaling, - the method being characterized in that the first and second set of transmission characteristics respectively comprises a transmission strength, wherein the first set of transmission characteristics differs from the second set of transmission characteristics in transmission strength. - receiving, from a radio node in the radio access network, a transient configuration, the transient configuration indicating a transient protection interval to be inserted in a time domain between a first signaling and a second signaling to be transmitted by the user equipment, wherein the transient protection interval is a silent interval or an interval filled with transient signaling, and wherein the second signaling has a duration covering N symbol time intervals, N being smaller than 5 and - transmitting, during a transmission period, the first signaling having a first set of transmission characteristics, and the second signaling having second set of transmission characteristics, wherein transmitting comprises including the transient protection interval in the time domain between the first signaling and the second signaling, - the method being characterized in that the first and second set of transmission characteristics respectively comprises a transmission strength, wherein the first set of transmission characteristics differs from the second set of transmission characteristics in transmission strength.