mhurhangee/ep-ind-claims huggingface dataset:
Electric motor assembly having a holding apparatus for fastening an electronic unit, in particular a frequency converter, to an air-cooled electric motor which is provided with cooling fins, in particular a standard motor, a receiving element which is connected to the unit and a plurality of holding elements (3, 4, 14) which are connected to the receiving element, bear against the electric motor and bridge the spacing between the unit and the electric motor being arranged between the unit and the electric motor, the holding elements (3, 4, 14) bearing against and/or in structural clearances (9, 13) of the electric motor in a force-transmitting manner, and the holding elements (3, 4) having laterally protruding projections (6, 10, 11, 21, 22, 26) and, when the holding elements (3, 4) are mounted, the projections (6, 10, 11, 21, 22, 26) facing one another, characterized in that the projections (6, 10, 11, 21, 22, 26) bear against the cooling fins as delimiting contours of the clearances, or the projections which are configured as pin elements are held in a positively locking manner in clearances which are formed in surfaces as threaded blind holes.
Method for monitoring a vulcanization process of a vehicle tire (116, 126) in a tire heating press, wherein at least one sensor value and/or at least one control variable of the tire heating press is acquired, characterized in that the at least one sensor value and/or the at least one control variable is fed to an evaluation device, in that the evaluation device (138, 500) comprises an ML model configured by way of a machine learning method, and in that the evaluation device (138, 500) and/or the ML model outputs a warning notification when an evaluation of the at least one sensor value and/or of the at least one control variable by the evaluation device (138, 500) reveals - that there is a defect or an anomaly with the tire heating press or at least part of the tire heating press, - or that there will be a defect or an anomaly with the tire heating press or at least part of the tire heating press in the foreseeable future. wherein at least one sensor value and/or at least one control variable of the tire heating press is acquired, characterized in that the at least one sensor value and/or the at least one control variable is fed to an evaluation device, in that the evaluation device (138, 500) comprises an ML model configured by way of a machine learning method, and in that the evaluation device (138, 500) and/or the ML model outputs a warning notification when an evaluation of the at least one sensor value and/or of the at least one control variable by the evaluation device (138, 500) reveals - that there is a defect or an anomaly with the tire heating press or at least part of the tire heating press, - or that there will be a defect or an anomaly with the tire heating press or at least part of the tire heating press in the foreseeable future. - that there is a defect or an anomaly with the tire heating press or at least part of the tire heating press, - or that there will be a defect or an anomaly with the tire heating press or at least part of the tire heating press in the foreseeable future.
Method for manufacturing a filter for an ophthalmic lens or an ophthalmic lens comprising such a filter, said lens being intended to be placed in front of the eye of a wearer, said filter being able to improve or maintain the visual comfort and/or visual performance of said wearer, and having photochromic or electrochromic properties permitting the filter to pass from a clear state to a darkened state corresponding to two different levels of transmission of light at at least one wavelength, characterized in that it comprises: a) a step of determining a quantity representative of a dynamic sensitivity of the eye or of both eyes of the wearer to a variation in a light flux, and b) a step, implemented by means of a computational processing unit, of determining at least one optical characteristic of said filter depending on the determined representative quantity, said optical characteristic being a time of passage from one to the next of said clear state and darkened state, and of inducing manufacture of said filter and/or of the ophthalmic lens equipped with said filter. a) a step of determining a quantity representative of a dynamic sensitivity of the eye or of both eyes of the wearer to a variation in a light flux, and b) a step, implemented by means of a computational processing unit, of determining at least one optical characteristic of said filter depending on the determined representative quantity, said optical characteristic being a time of passage from one to the next of said clear state and darkened state, and of inducing manufacture of said filter and/or of the ophthalmic lens equipped with said filter.
An assembly comprising: a piston having a piston inner surface defining a cylindrical cavity and comprising: a first axial portion, a piston face at a first end of the first axial portion, a second axial portion at a second end of the first axial portion, and a helical piston thread defined upon the piston inner surface; a bushing configured to contact the piston inner surface, wherein the bushing comprises a tubular cylindrical body having i) a bushing outer surface configured to concentrically contact the piston inner surface and ii) a bushing inner surface having a helical bushing thread defined upon the bushing inner surface; and a lock nut configured to engage the piston and the bushing, characterized in that the assembly further comprises a) a cylindrical first collection of tines arranged upon an axial end of the bushing and b) a cylindrical second collection of tines arranged upon an axial end of the lock nut configured to rotationally engage the cylindrical first collection of tines. a piston having a piston inner surface defining a cylindrical cavity and comprising: a first axial portion, a piston face at a first end of the first axial portion, a second axial portion at a second end of the first axial portion, and a helical piston thread defined upon the piston inner surface; a first axial portion, a piston face at a first end of the first axial portion, a second axial portion at a second end of the first axial portion, and a helical piston thread defined upon the piston inner surface; a bushing configured to contact the piston inner surface, wherein the bushing comprises a tubular cylindrical body having i) a bushing outer surface configured to concentrically contact the piston inner surface and ii) a bushing inner surface having a helical bushing thread defined upon the bushing inner surface; and a lock nut configured to engage the piston and the bushing, characterized in that the assembly further comprises a) a cylindrical first collection of tines arranged upon an axial end of the bushing and b) a cylindrical second collection of tines arranged upon an axial end of the lock nut configured to rotationally engage the cylindrical first collection of tines.
An absorbent laminate for absorbing a body fluid and usable for a disposable absorbent article, wherein: (a) the absorbent laminate comprises an upper layer absorbent body, a lower layer absorbent body, an upper layer sheet and a lower layer sheet; (b) the lower layer sheet is curled up to the top face of the lower layer absorbent body from both end side parts and layered in a manner that the lower layer absorbent body is wrapped with the lower layer sheet; (c) a part of the lower layer sheet on the top face of the lower layer absorbent body works as a liquid-permeable intermediate sheet; (d) the upper layer absorbent body is between the upper layer sheet and said part of the lower layer sheet on the top face of the lower layer absorbent body; (e) the upper layer absorbent body and the lower layer absorbent body are respectively made of fiber aggregates containing 20% to 80% by weight of highly water-absorbent resin powder; (f) the upper layer absorbent body has two or more opening parts, each having a long narrow rectangular shape extended continuously in the longitudinal direction of the upper layer absorbent body and arranged right and left symmetrically on both sides of the center line (Y-Y) along the longitudinal direction of the upper layer absorbent body, and has fiber aggregates on the center line (Y-Y); and (g) the maximum width of the opening parts is 4% to 40% of the minimum width of the upper layer absorbent body, wherein the maximum width of the opening parts is the maximum value of the total of the widths of the longitudinal opening parts taken along a widthwise cross-section of the upper layer absorbent body. (a) the absorbent laminate comprises an upper layer absorbent body, a lower layer absorbent body, an upper layer sheet and a lower layer sheet; (b) the lower layer sheet is curled up to the top face of the lower layer absorbent body from both end side parts and layered in a manner that the lower layer absorbent body is wrapped with the lower layer sheet; (c) a part of the lower layer sheet on the top face of the lower layer absorbent body works as a liquid-permeable intermediate sheet; (d) the upper layer absorbent body is between the upper layer sheet and said part of the lower layer sheet on the top face of the lower layer absorbent body; (e) the upper layer absorbent body and the lower layer absorbent body are respectively made of fiber aggregates containing 20% to 80% by weight of highly water-absorbent resin powder; (f) the upper layer absorbent body has two or more opening parts, each having a long narrow rectangular shape extended continuously in the longitudinal direction of the upper layer absorbent body and arranged right and left symmetrically on both sides of the center line (Y-Y) along the longitudinal direction of the upper layer absorbent body, and has fiber aggregates on the center line (Y-Y); and (g) the maximum width of the opening parts is 4% to 40% of the minimum width of the upper layer absorbent body, wherein the maximum width of the opening parts is the maximum value of the total of the widths of the longitudinal opening parts taken along a widthwise cross-section of the upper layer absorbent body.
A semiconductor ceramic composition represented by the following general formula, (Ba 1-x-y-w Bi x A y RE w) m (Ti 1-z TM z)O 3, wherein, in the general formula, A is at least one element selected from Na or K, RE is at least one element selected from the group consisting of Y, La, Ce, Pr, Nd, Sm, Gd, Dy and Er, TM is at least one element selected from the group consisting of V, Nb and Ta, w, x, y, z (each in mol) and m (the mole ratio of Ba site to Ti site) satisfy the following inequations to, 0.007 ≤ x ≤ 0.125 x < y ≤ 2.0 x 0 ≤ w + z ≤ 0.010 0.940 ≤ m ≤ 0.999 and Sr is further contained in a proportion of 0.010 mol or more and 0.050 mol or less relative to 1 mol of Ti site in terms of element, and the mole ratio u of Sr and the mole ratio x of Bi satisfy the following inequation, u ≤ 1.8 x − 0.008 wherein, in the general formula, A is at least one element selected from Na or K, RE is at least one element selected from the group consisting of Y, La, Ce, Pr, Nd, Sm, Gd, Dy and Er, TM is at least one element selected from the group consisting of V, Nb and Ta, w, x, y, z (each in mol) and m (the mole ratio of Ba site to Ti site) satisfy the following inequations to, 0.007 ≤ x ≤ 0.125 x < y ≤ 2.0 x 0 ≤ w + z ≤ 0.010 0.940 ≤ m ≤ 0.999 and Sr is further contained in a proportion of 0.010 mol or more and 0.050 mol or less relative to 1 mol of Ti site in terms of element, and the mole ratio u of Sr and the mole ratio x of Bi satisfy the following inequation, u ≤ 1.8 x − 0.008
A controller for controlling a string of N LEDs connected in series and each having a current bypass switch in parallel therewith and configured to be supplied from a current source connected in series with the string of N LEDs and being supplied by a supply voltage, the controller comprising: a respective bypass switch controller for each bypass switch and configured to control the respective bypass switch such that the respective LED has an on-period and an off-period, according to a common duty cycle; a phase control unit configured to set a respective timing of each of the bypass switches such that the fraction of LEDs not bypassed corresponds to the common duty cycle; and a duty cycle adjustor configured to provide a common duty cycle reference signal indicative of the common duty cycle to each bypass switch controller; and thus to adjust the common duty cycle in dependence on the supply voltage; wherein the duty cycle adjustor comprises a comparator configured to compare a voltage across the current source with a headroom voltage, and wherein the duty cycle adjustor is configured to: periodically increase the common duty cycle reference signal, compare the voltage across the current source with the headroom voltage, and decrease the common duty cycle reference signal in response to the voltage across the current source being less than the headroom voltage. a respective bypass switch controller for each bypass switch and configured to control the respective bypass switch such that the respective LED has an on-period and an off-period, according to a common duty cycle; a phase control unit configured to set a respective timing of each of the bypass switches such that the fraction of LEDs not bypassed corresponds to the common duty cycle; and a duty cycle adjustor configured to provide a common duty cycle reference signal indicative of the common duty cycle to each bypass switch controller; and thus to adjust the common duty cycle in dependence on the supply voltage; wherein the duty cycle adjustor comprises a comparator configured to compare a voltage across the current source with a headroom voltage, and wherein the duty cycle adjustor is configured to: periodically increase the common duty cycle reference signal, compare the voltage across the current source with the headroom voltage, and decrease the common duty cycle reference signal in response to the voltage across the current source being less than the headroom voltage. periodically increase the common duty cycle reference signal, compare the voltage across the current source with the headroom voltage, and decrease the common duty cycle reference signal in response to the voltage across the current source being less than the headroom voltage.
A reference signal distribution system, comprising: a power splitter configured to create, from a frequency-divided reference signal, a counterclockwise divided reference signal and a clockwise divided reference signal; at least one ring tap (212, 300); a distribution ring operable to provide the counterclockwise divided reference signal from the power splitter to the ring tap, and to provide the clockwise divided reference signal from the power splitter to the ring tap, wherein the ring tap is configured to produce a phase synchronization signal based on the counterclockwise divided reference signal and the clockwise divided reference signal; and an analog regenerative frequency divider (214, 400) configured to produce a common phase reference signal based in part on the phase synchronization signal. a power splitter configured to create, from a frequency-divided reference signal, a counterclockwise divided reference signal and a clockwise divided reference signal; at least one ring tap (212, 300); a distribution ring operable to provide the counterclockwise divided reference signal from the power splitter to the ring tap, and to provide the clockwise divided reference signal from the power splitter to the ring tap, wherein the ring tap is configured to produce a phase synchronization signal based on the counterclockwise divided reference signal and the clockwise divided reference signal; and an analog regenerative frequency divider (214, 400) configured to produce a common phase reference signal based in part on the phase synchronization signal.
A particle-collecting device for collecting particles from surfaces for particle analysis in the context of testing the technical cleanliness of test bodies, in particular work pieces, conductor boards and/or battery stacks, with a casing and a centrifugal force separator, which comprises a vertical pipe section for forming a whirlpool, wherein the pipe section comprises a suction pipe in a entry area which is intended for suctioning a particle-laden air mixture from a surface of a test body to be tested in such a manner that an aspirated particle/air volume flow rotates in the pipe section in order to form a whirlpool and sinks into a separation area of the pipe section, wherein the particles are centrifuged against the inner pipe section and is thus separated from the air volume flow, the particle-collecting device further comprising a collection container detachably fixed to the centrifugal force separator or the casing in order to collect the separated particles in a measuring state of the collection container, and a submersion pipe, which is disposed on the centrifugal force separator and to which a negative-pressure supply pipe for generating the air volume flow for suctioning the particles is connected, wherein the separation area is designed as a hollow cylinder or a downwardly tapering or widening cone in such a manner that the angle (α) between the generators and the centric axis of the hollow cylinder or cone at an imaginary point of intersection is in a range between 0° to 8°, most preferably between 0° and 4°, most preferably at 0°, characterized in that the collection container forms a collection surface, which has chemically acting adhesion means for fixing the deposited particles.
Test setup for baseband fading simulations, comprising: a base station for generating at least one baseband signal, a remote radio head for generating at least one RF signal from the at least one baseband signal, the remote radio head being adapted to provide both up-conversion and down-conversion between a baseband frequency band of the at least one baseband signal and an RF frequency band of the at least one RF signal, and a baseband fading simulation unit arranged in a bi-directional baseband signal path (11 a, 11 b) between the base station and the remote radio head, the base station and the remote radio head both having the same number of channels, and the baseband fading simulation unit being adapted to perform baseband fading simulations both for an uplink and for a downlink. a base station for generating at least one baseband signal, a remote radio head for generating at least one RF signal from the at least one baseband signal, the remote radio head being adapted to provide both up-conversion and down-conversion between a baseband frequency band of the at least one baseband signal and an RF frequency band of the at least one RF signal, and a baseband fading simulation unit arranged in a bi-directional baseband signal path (11 a, 11 b) between the base station and the remote radio head, the base station and the remote radio head both having the same number of channels, and the baseband fading simulation unit being adapted to perform baseband fading simulations both for an uplink and for a downlink.
A method for preparing a bioactive composition, comprising: lysing platelets of a human blood-derived concentrate containing platelets and plasma, to form a lysed platelet preparation; forming a gel clot from the lysed platelet preparation by adding a clotting agent to convert fibrinogen to fibrin in the lysed platelet preparation; compressing the gel clot to express liquid from the gel clot and separate the liquid from solids of the gel clot, wherein the step of compressing comprises pressing the gel clot between two or more surfaces; wherein no heparin is added during preparation of the bioactive composition. lysing platelets of a human blood-derived concentrate containing platelets and plasma, to form a lysed platelet preparation; forming a gel clot from the lysed platelet preparation by adding a clotting agent to convert fibrinogen to fibrin in the lysed platelet preparation; compressing the gel clot to express liquid from the gel clot and separate the liquid from solids of the gel clot, wherein the step of compressing comprises pressing the gel clot between two or more surfaces; wherein no heparin is added during preparation of the bioactive composition.
A multiwell microplate for holding liquid samples, the multiwell microplate comprising: a frame defining a plurality of wells disposed in a single column, each well having an opening with a length l 1; a moat disposed about the plurality of wells; and a plurality of walls traversing the moat, the walls defining a plurality of compartments, each compartment having a length l 2 selected from a range of greater than l 1 and less than 6l 1, wherein two compartments of the moat are disposed on opposing sides of the single column of wells. a plurality of wells disposed in a single column, each well having an opening with a length l 1; a moat disposed about the plurality of wells; and a plurality of walls traversing the moat, the walls defining a plurality of compartments, each compartment having a length l 2 selected from a range of greater than l 1 and less than 6l 1, wherein two compartments of the moat are disposed on opposing sides of the single column of wells.
A method for demodulating a RF signal comprising the steps of: detecting if an analog to digital converter of a Near Zero Intermediate Frequency (NZIF) receiver is in a clipping state; and if yes: determining and storing a first value (RSSI1) representative of the energy of a received signal demodulated by the Near Zero Intermediate Frequency (NZIF) receiver using a first intermediate frequency; determining and storing a second value (RSSI2) representative of the energy of the received signal demodulated by the Near Zero Intermediate Frequency (NZIF) receiver using a second intermediate frequency corresponding to the opposite value of the first intermediate frequency, selecting the intermediate frequency corresponding to the lowest value of said first and second values. determining and storing a first value (RSSI1) representative of the energy of a received signal demodulated by the Near Zero Intermediate Frequency (NZIF) receiver using a first intermediate frequency; determining and storing a second value (RSSI2) representative of the energy of the received signal demodulated by the Near Zero Intermediate Frequency (NZIF) receiver using a second intermediate frequency corresponding to the opposite value of the first intermediate frequency, selecting the intermediate frequency corresponding to the lowest value of said first and second values.