mhurhangee/ep-ind-claims huggingface dataset:
A power supply module, comprising a lead frame, an integrated circuit, passive devices, and two semiconductor bare chips (3,4), wherein: at least one magnetic device in the passive devices is a discrete magnetic device obtained by assembling a magnetic core (21, 22) and an electrical winding; and one end of the electrical winding is electrically connected to the lead frame, so that the one end of the electrical winding is electrically connected to the integrated circuit and the passive devices except all magnetic devices by means of the lead frame, characterized in that a source of one of the two semiconductor bare chips is electrically connected to a gate of the other semiconductor bare chip; and the other end of the electrical winding is electrically connected to the source of the one semiconductor bare chip directly, and the other end of the electrical winding is further electrically connected to the gate of the other semiconductor bare chip directly. at least one magnetic device in the passive devices is a discrete magnetic device obtained by assembling a magnetic core (21, 22) and an electrical winding; and one end of the electrical winding is electrically connected to the lead frame, so that the one end of the electrical winding is electrically connected to the integrated circuit and the passive devices except all magnetic devices by means of the lead frame, characterized in that a source of one of the two semiconductor bare chips is electrically connected to a gate of the other semiconductor bare chip; and the other end of the electrical winding is electrically connected to the source of the one semiconductor bare chip directly, and the other end of the electrical winding is further electrically connected to the gate of the other semiconductor bare chip directly.
System for controlling the component in a given direction of the motion in a given path of the needles of a needling machine designed to consolidate a fleece or web of fibres, in particular non-woven, by needling comprising at least one needle plate (10; 10'; 10", 10'") having an array of needles and drive systems configured to impart to the at least one needle plate and/or needles a to and fro motion so that the needles follow the said path to pass in one direction then the other, through the fleece or web of fibres moving in front of them in the machine or MD drive direction to consolidate it, the control system being characterised in that it comprises: one drive tie-rod that can be coupled to the needles and/or at least one needle plate and/or a part rigidly connected to the at least one plate or needles to impart a to and fro motion to them in the said one direction, a cam shaft and a rod, the cam shaft driving the rod in rotation in an axis of rotation, and the rod being connected to the tie-rod by means of a part forming an intermediate lever, said lever being a single part or a part consisting of several parts that are not hinged together, and being able to pivot in relation to a pivot pin, in particular parallel to the axis of rotation of the cam shaft, the lever being hinged firstly to the rod, in particular around an axis parallel to the pivot pin and at a distance from it, and secondly to the drive tie-rod, in particular at a point at a distance from the pivot pin, to impart to it the to and fro motion in the said one direction.
A mounting element for releasably receiving a sensor for transferring and/or receiving electrical currents and/or signals relating to a body of an organism, comprising - a mounting element base having a receiving space for receiving the sensor, - the receiving space comprising -- a floor, -- a wall disposed on the floor and disposed on at least three sides, -- an opening formed by at least one tab (21, 22), -- at least one clip closure (23, 24), and - further comprising a cover for the mounting element base, -- an at least three-sided wall being disposed on the inner side thereof, -- the end face thereof being implemented for contacting the end face of the wall of the mounting element base, -- wherein at least one counterpart (28, 29) to the at least one clip closure (23, 24) is disposed on the wall of the inner side of the cover, and - the mounting element base and the cover are connected to each other by a connecting element such that the cover is displaceable relative to the mounting element base, and - the mounting element base and the cover are therefore lockable to each other by means of the at least one clip closure (23, 24) and the at least one counterpart (28, 29) and can also be opened again. - a mounting element base having a receiving space for receiving the sensor, - the receiving space comprising -- a floor, -- a wall disposed on the floor and disposed on at least three sides, -- an opening formed by at least one tab (21, 22), -- at least one clip closure (23, 24), and - further comprising a cover for the mounting element base, -- an at least three-sided wall being disposed on the inner side thereof, -- the end face thereof being implemented for contacting the end face of the wall of the mounting element base, -- wherein at least one counterpart (28, 29) to the at least one clip closure (23, 24) is disposed on the wall of the inner side of the cover, and -- a floor, -- a wall disposed on the floor and disposed on at least three sides, -- an opening formed by at least one tab (21, 22), -- at least one clip closure (23, 24), and - further comprising a cover for the mounting element base, -- an at least three-sided wall being disposed on the inner side thereof, -- the end face thereof being implemented for contacting the end face of the wall of the mounting element base, -- wherein at least one counterpart (28, 29) to the at least one clip closure (23, 24) is disposed on the wall of the inner side of the cover, and - the mounting element base and the cover are connected to each other by a connecting element such that the cover is displaceable relative to the mounting element base, and - the mounting element base and the cover are therefore lockable to each other by means of the at least one clip closure (23, 24) and the at least one counterpart (28, 29) and can also be opened again.
Wearable protection device (10, 110) comprising a plurality of plate members (12a, 12b) adjacent in a side-by-side configuration so as to define a protection front surface, or side, adapted to face an impact, wherein pairs of said plate members (12a, 12b) at least partially overlap each other along a longitudinal direction by means of superposition of a portion of a first plate member of said plate members (12a, 12b) on a front surface of a corresponding portion of a second plate member adjacent in the side-by-side configuration, so as to define a zone of surface discontinuity between adjacent plate members (12a, 12b) on the front surface of said second plate member, said device comprising a plurality of pads (14a, 14b) each of said pads being associated with one of said plate members (12a, 12b) on an opposite side with respect to said protection front surface, characterised in that a first pad associated with the first plate member is structurally separate from a second pad associated with the second plate member so as to define a surface discontinuity or boundary zone between adjacent first pad associated with the first plate member and second pad associated with the second plate member, wherein said surface discontinuity or boundary zone between adjacent first and second pads (14a, 14b) is offset along said longitudinal direction with respect to the zone of surface discontinuity between adjacent plate members (12a, 12b).
A hygiene composition for reduction of malodour comprising (i) 0.001 to 20% one or more polysaccharide selected from algin or pectin preferably pectin by weight of the composition; and (ii) 0.01 to 15% a rhamnolipid, by weight of the composition. (i) 0.001 to 20% one or more polysaccharide selected from algin or pectin preferably pectin by weight of the composition; and (ii) 0.01 to 15% a rhamnolipid, by weight of the composition.
Light sheet microscope, comprising - an illumination apparatus, which generates coherent illumination light for several illumination wavelengths, - a beam-shaping module for generating a light sheet from illumination light, - an illumination objective for the illumination of a specimen with the light sheet, - a detection objective for imaging light which is emitted by the specimen onto a laminar detector, wherein the optical axis of the detection objective forms an angle different from 0° and 180° with the optical axis of the illumination objective, characterized in that - the beam-shaping module comprises a phase-selective element which is arranged in or near to an intermediate image plane and on which several selection areas separated from each other spatially are arranged, wherein in each case one selection area is assigned to one specific illumination wavelength, and wherein a phase distribution predefined for the respective illumination wavelength is impressed on each selection area, and - the beam-shaping module comprises means for the sequential or simultaneous selection of the selection areas in dependence on the respective illumination wavelength, wherein the means for the selection of the selection areas are formed to direct light of the respective illumination wavelength onto the assigned selection area. - an illumination apparatus, which generates coherent illumination light for several illumination wavelengths, - a beam-shaping module for generating a light sheet from illumination light, - an illumination objective for the illumination of a specimen with the light sheet, - a detection objective for imaging light which is emitted by the specimen onto a laminar detector, wherein the optical axis of the detection objective forms an angle different from 0° and 180° with the optical axis of the illumination objective, characterized in that - the beam-shaping module comprises a phase-selective element which is arranged in or near to an intermediate image plane and on which several selection areas separated from each other spatially are arranged, wherein in each case one selection area is assigned to one specific illumination wavelength, and wherein a phase distribution predefined for the respective illumination wavelength is impressed on each selection area, and - the beam-shaping module comprises means for the sequential or simultaneous selection of the selection areas in dependence on the respective illumination wavelength, wherein the means for the selection of the selection areas are formed to direct light of the respective illumination wavelength onto the assigned selection area.
A method for localizing individual emitters in a sample with a first localization step comprising the method steps - illuminating the sample with illumination light, wherein the illumination light induces or modulates light emissions of an emitter; - detecting the light emissions of the emitter; - determining the position of the emitter in the sample from the detected light emissions; and a second localization step with increased accuracy compared to the first localization step, comprising the method steps - illuminating the emitter with an intensity distribution of the illumination light or another illumination light comprising a local minimum in at least one spatial direction at illumination positions which are arranged around the position of the emitter determined in the first localization step; - detecting the light emissions of the emitter for the illumination positions; - determining the position of the emitter from the light emissions detected for the illumination positions; characterized in that the position of the emitter determined in the first localization step comprises a systematic deviation from the position of the same emitter determined in the second localization step, wherein the systematic deviation is defined by an occurrence of deviations between the first localization step and the second localization step which are equal within the measurement accuracy in the case of repeated localizations of one and the same emitter, and in that a position correction compensating for the systematic deviation is used to determine the illumination positions in the second localization step in order to assign the position of an emitter determined in the first localization step to a corresponding position of the emitter in the second localization step. - illuminating the sample with illumination light, wherein the illumination light induces or modulates light emissions of an emitter; - detecting the light emissions of the emitter; - determining the position of the emitter in the sample from the detected light emissions; and a second localization step with increased accuracy compared to the first localization step, comprising the method steps - illuminating the emitter with an intensity distribution of the illumination light or another illumination light comprising a local minimum in at least one spatial direction at illumination positions which are arranged around the position of the emitter determined in the first localization step; - detecting the light emissions of the emitter for the illumination positions; - determining the position of the emitter from the light emissions detected for the illumination positions;
A method to define construction of a green compact including at least one object embedded therein, the method comprising: receiving three-dimensional data defining the at least one object; identifying a planar surface in the at least one object based on the three-dimensional data; defining an orientation of the at least one object so that the planar surface extends at least partially over a Z height of the green compact; and defining a mask pattern per layer to form the at least one object in the defined orientation by an additive manufacturing process with powder material, wherein said mask pattern defines a structure to be formed by deposition of a solidifiable material forming in the green compact discrete volumes to be removed from the green compact at the end of the layer building process for revealing the at least one object, and wherein the orientation of the at least one object is selected to increase a distribution uniformity of said solidifiable material across a Z height of the green compact. receiving three-dimensional data defining the at least one object; identifying a planar surface in the at least one object based on the three-dimensional data; defining an orientation of the at least one object so that the planar surface extends at least partially over a Z height of the green compact; and defining a mask pattern per layer to form the at least one object in the defined orientation by an additive manufacturing process with powder material, wherein said mask pattern defines a structure to be formed by deposition of a solidifiable material forming in the green compact discrete volumes to be removed from the green compact at the end of the layer building process for revealing the at least one object, and wherein the orientation of the at least one object is selected to increase a distribution uniformity of said solidifiable material across a Z height of the green compact.
An optical coherence tomography device comprising: an SS-OCT optical system which includes a wavelength swept optical source configured to sweep an emission wavelength; an optical splitter which is configured to split an interference signal light caused by interference between a measurement light and a reference light into a first interference signal light and a second interference signal light having a phase difference with respect to the first interference signal light; a first balance detector which includes a first detector configured to detect the first interference signal light and a second detector configured to detect the second interference signal light, and which is configured to process detection signals from the first detector and the second detectors to perform balance detection; and a first optical member which is disposed between the optical splitter and one of the first detector and the second detector to generate a fixed pattern noise by one of the first interference signal light and the second interference signal light, characterized by further comprising: a calculation processor which is configured to obtain correction information for correcting a mapping state of a wavenumber component for each sampling point in the first balance detector by calculation based on a signal component corresponding to the fixed pattern noise included in a detection signal output from the first balance detector. an SS-OCT optical system which includes a wavelength swept optical source configured to sweep an emission wavelength; an optical splitter which is configured to split an interference signal light caused by interference between a measurement light and a reference light into a first interference signal light and a second interference signal light having a phase difference with respect to the first interference signal light; a first balance detector which includes a first detector configured to detect the first interference signal light and a second detector configured to detect the second interference signal light, and which is configured to process detection signals from the first detector and the second detectors to perform balance detection; and a first optical member which is disposed between the optical splitter and one of the first detector and the second detector to generate a fixed pattern noise by one of the first interference signal light and the second interference signal light, a calculation processor which is configured to obtain correction information for correcting a mapping state of a wavenumber component for each sampling point in the first balance detector by calculation based on a signal component corresponding to the fixed pattern noise included in a detection signal output from the first balance detector.
An information transmission method to be performed by a user equipment, comprising: receiving indication information sent by a base station, wherein the indication information is used to indicate a first downlink subframe in which a cell-specific reference signal, CRS, is transmitted; determining the first downlink subframe according to the indication information; and communicating with the base station according to the first downlink subframe, the method being characterized in that: the receiving indication information sent by the base station comprises: receiving a downlink control channel that is sent by the base station and that is carried in a downlink subframe 0 and/or a downlink subframe 5, wherein the downlink control channel is used to indicate the first downlink subframe; and the determining the first downlink subframe according to the indication information comprises: determining the first downlink subframe according to the downlink control channel. receiving indication information sent by a base station, wherein the indication information is used to indicate a first downlink subframe in which a cell-specific reference signal, CRS, is transmitted; determining the first downlink subframe according to the indication information; and communicating with the base station according to the first downlink subframe, the method being characterized in that: the receiving indication information sent by the base station comprises: receiving a downlink control channel that is sent by the base station and that is carried in a downlink subframe 0 and/or a downlink subframe 5, wherein the downlink control channel is used to indicate the first downlink subframe; and the determining the first downlink subframe according to the indication information comprises: determining the first downlink subframe according to the downlink control channel. receiving a downlink control channel that is sent by the base station and that is carried in a downlink subframe 0 and/or a downlink subframe 5, wherein the downlink control channel is used to indicate the first downlink subframe; and the determining the first downlink subframe according to the indication information comprises: determining the first downlink subframe according to the downlink control channel.
A method in a User Equipment, UE, for adapting a Secondary Cell, SCell, setup or release, which UE is served by a network node, the method comprising: receiving an SCell setup or release command from the network node, and characterized in adapting the SCell setup or release by delaying the timing of applying said command to at least partly avoid collision with a transmission of disjoint signals on which the UE, is performing a measurement, wherein a disjoint signal is a signal that is not used for performing the measurement in every subframe. receiving an SCell setup or release command from the network node, and characterized in adapting the SCell setup or release by delaying the timing of applying said command to at least partly avoid collision with a transmission of disjoint signals on which the UE, is performing a measurement, wherein a disjoint signal is a signal that is not used for performing the measurement in every subframe.
An apparatus for carrying out an apheresis treatment, wherein the apparatus has an extracorporeal circuit in which a regenerable single adsorber is located for separating substances from blood or for separating substances from plasma acquired by means of a plasma separator, a line is provided for conducting the blood or the plasma which extends to the adsorber and via which blood or plasma is applied to the adsorber, a reservoir is provided for receiving blood or plasma and is arranged upstream of the adsorber in the line or is in communication with the line upstream of the adsorber; and a controller or switching means is provided which is configured such that the reservoir is filled with blood or plasma and the application of blood or plasma to the adsorber is suppressed when the regeneration of the adsorber is carried out, characterized in that a bypass line about the adsorber is provided; and the controller or the switching means is configured such that it instigates the conveying of the blood or of the plasma through the bypass line when the maximum filling quantity in the reservoir has been reached.
An externally structured aqueous isotropic liquid detergent composition comprising: a) at least 10 wt% water, b) at least 3 wt% mixed surfactant system comprising anionic surfactant, c) an activated citrus fibre external structurant, characterised in that the liquid further comprises at least 0.05 wt% of water-swellable clay and that the composition has a viscosity of at least 0.3 Pa.s at 20 s -1 and 25°C. a) at least 10 wt% water, b) at least 3 wt% mixed surfactant system comprising anionic surfactant, c) an activated citrus fibre external structurant,