mhurhangee/ep-ind-claims huggingface dataset:
Method for production of a ceramic catalyst monolith, comprising the steps of - preparing a ceramic powder formulation - heating the powder formulation - shaping a sample by injecting the fluid powder formulation into an injection mould, such that the fluid powder formulation fills all available space in the internal chamber of the mould, followed by cooling the injected powder formulation - de-binding the shaped sample, and - sintering the shaped sample wherein the prepared ceramic powder formulation has temperature controlled rheological properties and comprises a catalytic component, the formulation is heated up to at least the fluid state transition temperature and following the shaping the sample is cooled below the fluid state transition temperature before the de-binding and sintering steps to form a ceramic catalyst monolith, characterised in that the injection mould contains one or more pins, extending from one end to the opposite end of the internal chamber of the mould in order to form internal through-going channels in the catalyst monolith, wherein the pins have a stepwise decrease of the pin diameter. - preparing a ceramic powder formulation - heating the powder formulation - shaping a sample by injecting the fluid powder formulation into an injection mould, such that the fluid powder formulation fills all available space in the internal chamber of the mould, followed by cooling the injected powder formulation - de-binding the shaped sample, and - sintering the shaped sample
A laminate comprising a metal member, and an adhesive and a hydrogenated nitrile rubber formed article laminated on the metal member, wherein the adhesive is formed from a cured product of a composition comprising a resin containing not less than 90 mass % of a novolac type phenol resin having a gelling time, as measured by Japanese Industrial standard K 6910:2007 "gelling time C method", of 50 sec - 150 sec at 150°C, and a curing agent.
A punching device for processing, in particular dried, samples (36-1,...,36-4) applied to a sample card, preferably of liquids containing DNA such as blood, saliva and the like, comprising at least one punching means having a punch and a lower die, wherein the punch is movable between a rest position in which it is away from the lower die and a punching position in which it is close to the lower die, and wherein the punching means has a receiving opening into which a sample card from a sample card container is introducible by means of a movable gripper unit of the punching device and is positionable relative to the punching means, and a punching drive which is couplable or coupled to the punch of the punching means and by which the movement of the punch between the rest position and the punching position is driven, wherein the punching means are set up such that a sample piece punched out of the sample card can be dispensed at an outlet opening of the lower die into a receiving recess in a receiving container arranged beneath the punching means, characterized in that the gripper unit comprises a sample card gripper means and a receiving container gripper means which are fitted on the gripper unit by means of a common frame structure and which are movable jointly by means of a drive unit in three main directions (X, Y, Z) that are orthogonal to one another.
A method of controlling a deactivation timer of a cell in a mobile communication system, the method comprising: configuring, at a user equipment, UE, a first deactivation timer of a first cell and a second deactivation timer of a second cell, wherein the first cell and the second cell belong to a same timing advance group, TAG, wherein the first cell is a timing reference cell of the same TAG, and the timing reference cell is a cell for which random access channel, RACH, configuration is provided by a base station; if the first deactivation timer of first cell expires, checking, at the UE, whether uplink timing of the same TAG is required to be maintained, wherein the step of checking comprises checking whether the second deactivation timer of the second cell is running; and if the uplink timing of the same TAG is required to be maintained, restarting, at the UE, the first deactivation timer of the first cell. configuring, at a user equipment, UE, a first deactivation timer of a first cell and a second deactivation timer of a second cell, wherein the first cell and the second cell belong to a same timing advance group, TAG, wherein the first cell is a timing reference cell of the same TAG, and the timing reference cell is a cell for which random access channel, RACH, configuration is provided by a base station; if the first deactivation timer of first cell expires, checking, at the UE, whether uplink timing of the same TAG is required to be maintained, wherein the step of checking comprises checking whether the second deactivation timer of the second cell is running; and if the uplink timing of the same TAG is required to be maintained, restarting, at the UE, the first deactivation timer of the first cell.
Radiation-selective absorber coating for absorber tubes of parabolic trough collectors, which is applied to the outside of a tube composed of steel, a) having a layer which reflects in the infrared range and is composed of silver, b) having a first barrier layer composed of a thermally produced oxide, which has been applied to the tube composed of steel and is produced by thermal oxidation of the tube composed of steel, c) having a second barrier layer which is arranged above the first barrier layer and under the reflecting layer, d) having at least one absorption layer arranged above the reflective layer and e) having an antireflection layer arranged above the absorption layer, characterized in that f) the second barrier layer consists of an SiO x compound, where x can assume values from 1 to 2, and g) at least one adhesion-improving layer which consists of molybdenum is arranged between the second barrier layer and the reflecting layer composed of silver. a) having a layer which reflects in the infrared range and is composed of silver, b) having a first barrier layer composed of a thermally produced oxide, which has been applied to the tube composed of steel and is produced by thermal oxidation of the tube composed of steel, c) having a second barrier layer which is arranged above the first barrier layer and under the reflecting layer, d) having at least one absorption layer arranged above the reflective layer and e) having an antireflection layer arranged above the absorption layer, characterized in that f) the second barrier layer consists of an SiO x compound, where x can assume values from 1 to 2, and g) at least one adhesion-improving layer which consists of molybdenum is arranged between the second barrier layer and the reflecting layer composed of silver.
An apparatus for manufacturing an absorbent article, the apparatus comprising: a holding pad 20 that rotates along a circling path while velocity of the holding pad 20 is changed to pick up a workpiece W at a pick-up position P and hand over the workpiece W onto a continuous sheet N at a hand-over position; a conveying device 5 that conveys the continuous sheet N at conveying velocity that depends on a size of a product to receive and convey the workpiece W on the continuous sheet N at the hand-over position; and a velocity-changing device 2 that changes circumferential velocity V of the holding pad 20 during a period from a first start time S1 to a second start time S2, when the size of the product is a first size, hand-over of the workpiece W starts at the first start time at an upstream position P1, which is the hand-over position on the circling path, when the size of the product is a second size, hand-over of the workpiece W starts at the second start time at a downstream position P2, which is the hand-over position downstream of the upstream position P1 on the circling path, and the velocity-changing device 2 changing the circumferential velocity V of the holding pad 20 so that the circumferential velocity V is continuously decelerated or continuously accelerated during the period from the first start time S1 to the second start time S2. a holding pad 20 that rotates along a circling path while velocity of the holding pad 20 is changed to pick up a workpiece W at a pick-up position P and hand over the workpiece W onto a continuous sheet N at a hand-over position; a conveying device 5 that conveys the continuous sheet N at conveying velocity that depends on a size of a product to receive and convey the workpiece W on the continuous sheet N at the hand-over position; and a velocity-changing device 2 that changes circumferential velocity V of the holding pad 20 during a period from a first start time S1 to a second start time S2, when the size of the product is a first size, hand-over of the workpiece W starts at the first start time at an upstream position P1, which is the hand-over position on the circling path, when the size of the product is a second size, hand-over of the workpiece W starts at the second start time at a downstream position P2, which is the hand-over position downstream of the upstream position P1 on the circling path, and the velocity-changing device 2 changing the circumferential velocity V of the holding pad 20 so that the circumferential velocity V is continuously decelerated or continuously accelerated during the period from the first start time S1 to the second start time S2.
A terminal comprising: a receiving section that is configured to monitor physical downlink control channel, PDCCH, candidates on a first carrier (CC #0) corresponding to a first subcarrier spacing, SCS, based on a maximum number of the PDCCH candidates and a maximum number of non-overlapping control channel elements, CCEs; characterized by a control section that, when a cross carrier scheduling from the first carrier (CC #0) corresponding to the first SCS to a second carrier (CC #2, CC #3) corresponding to a second SCS different from the first SCS is configured, is configured to determine, based on a number of downlink cells scheduled by the first carrier (CC #0) corresponding to the first SCS, the maximum number of monitored PDCCH candidates and the maximum number of monitored non-overlapping CCEs for the first SCS, wherein the downlink cells scheduled by the first carrier includes a downlink cell that is cross-carrier scheduled to the second carrier corresponding to the second SCS. a receiving section that is configured to monitor physical downlink control channel, PDCCH, candidates on a first carrier (CC #0) corresponding to a first subcarrier spacing, SCS, based on a maximum number of the PDCCH candidates and a maximum number of non-overlapping control channel elements, CCEs; characterized by a control section that, when a cross carrier scheduling from the first carrier (CC #0) corresponding to the first SCS to a second carrier (CC #2, CC #3) corresponding to a second SCS different from the first SCS is configured, is configured to determine, based on a number of downlink cells scheduled by the first carrier (CC #0) corresponding to the first SCS, the maximum number of monitored PDCCH candidates and the maximum number of monitored non-overlapping CCEs for the first SCS, wherein the downlink cells scheduled by the first carrier includes a downlink cell that is cross-carrier scheduled to the second carrier corresponding to the second SCS.
A particle measuring apparatus, comprising: - a distributor unit arranged to provide a first partial flow and a second partial flow by separating the second partial flow from an input flow, - a particle collecting unit to collect particles from the first partial flow by using a first filter for determining the total mass of particles collected by the first filter during a particle collecting time period, and - a particle monitoring unit to form charged particles by charging particles carried by the second partial flow, and to provide an electric current (I b (t)) by collecting the charged particles, - a control unit for controlling operation of the apparatus, characterized in that the control unit is configured to control the flow rate (Q 1) of the first partial flow based on the electric current I p (t). - a distributor unit arranged to provide a first partial flow and a second partial flow by separating the second partial flow from an input flow, - a particle collecting unit to collect particles from the first partial flow by using a first filter for determining the total mass of particles collected by the first filter during a particle collecting time period, and - a particle monitoring unit to form charged particles by charging particles carried by the second partial flow, and to provide an electric current (I b (t)) by collecting the charged particles, - a control unit for controlling operation of the apparatus,
A collision energy-absorbing device, comprising: - a substantially flat front side, - a rear side which is situated at a distance from said front side, - a number of plate-shaped bodies which are arranged at mutual distances in a row between said front side and said rear side, and - a number of absorbing elements which are arranged in the respective interspaces between adjoining plate-shaped bodies, - at least one connection body which is provided at the circumferential edge of said plate-shaped bodies so as to interconnect said bodies, wherein the absorbing device is constructed such that in case of a collision, kinetic energy is absorbed by plastic deformation of the connection body and/or the attachments between the plate-shaped bodies and the connection body. characterized in that the absorbing elements comprise blocks provided with a plurality of honeycomb-shaped openings, which blocks are provided in the interspaces between the plate-shaped bodies, with the through holes of the honeycombs extending from the front side to the rear side of the absorbing device which further comprises at least one wall plate (7a, 7b) which is provided along the circumferential edges of the plate-shaped bodies and which is preformed slightly outwards, at the part situated in between said circumferential edges, in order to deform further in the outward direction in case of a collision. - a substantially flat front side, - a rear side which is situated at a distance from said front side, - a number of plate-shaped bodies which are arranged at mutual distances in a row between said front side and said rear side, and - a number of absorbing elements which are arranged in the respective interspaces between adjoining plate-shaped bodies, - at least one connection body which is provided at the circumferential edge of said plate-shaped bodies so as to interconnect said bodies,
A light emitting device comprising: a first metal reflection layer comprising a phase modulation surface configured to magnetically resonate light incident on the first metal reflection layer; a color conversion layer provided on the phase modulation surface of the first metal reflection layer and comprising a photoluminescent material; a first electrode provided on the color conversion layer opposite to the first metal reflection layer; a white organic light emitting layer provided on the first electrode opposite to the color conversion layer; and a second electrode provided on the white organic light emitting layer opposite to the first electrode, wherein the first metal reflection layer and the second electrode form a microcavity having a resonance wavelength (λ) determined by an optical distance between the first metal reflection layer and the second electrode and a phase delay occurring in the first metal reflection layer and the phase modulation surface comprises a meta structure in which nanopatterns are periodically provided, wherein a size of the nanopatterns is less than the resonance wavelength and the phase delay of light reflected from the first metal reflection layer is determined by a size and pitch of the nanopatterns, and wherein an emission wavelength of the photoluminescent material matches the resonance wavelength. a first metal reflection layer comprising a phase modulation surface configured to magnetically resonate light incident on the first metal reflection layer; a color conversion layer provided on the phase modulation surface of the first metal reflection layer and comprising a photoluminescent material; a first electrode provided on the color conversion layer opposite to the first metal reflection layer; a white organic light emitting layer provided on the first electrode opposite to the color conversion layer; and a second electrode provided on the white organic light emitting layer opposite to the first electrode, wherein the first metal reflection layer and the second electrode form a microcavity having a resonance wavelength (λ) determined by an optical distance between the first metal reflection layer and the second electrode and a phase delay occurring in the first metal reflection layer and the phase modulation surface comprises a meta structure in which nanopatterns are periodically provided, wherein a size of the nanopatterns is less than the resonance wavelength and the phase delay of light reflected from the first metal reflection layer is determined by a size and pitch of the nanopatterns, and wherein an emission wavelength of the photoluminescent material matches the resonance wavelength.
A method for interference reduction, the method being implemented in a first wireless device comprising a primary transmitter, the primary transmitter including a digital-to-analog converter, DAC,, the method characterised by: determining a frequency or frequencies used by one or more receivers (122, 126, 130), wherein the one or more receivers (122, 126, 130) are comprised in the first wireless device and/or in a second wireless device in wireless communication with the first wireless device; selecting a sampling frequency (118, 318) for the DAC, wherein the selected sampling frequency for the DAC is selected so that images within a DAC output signal do not interfere with the frequency or frequencies used by the one or more receivers (122, 126, 130), wherein the DAC has an adjustable sampling frequency (118, 318) so as to be operable at a plurality of sampling frequencies; sele cting a sample rate for an input signal equal to the selected sampling frequency (118, 318) for the DAC, said input signal being provided to the DAC; and adjusting the sample rate of the input signal to the selected sample rate. determining a frequency or frequencies used by one or more receivers (122, 126, 130), wherein the one or more receivers (122, 126, 130) are comprised in the first wireless device and/or in a second wireless device in wireless communication with the first wireless device; selecting a sampling frequency (118, 318) for the DAC, wherein the selected sampling frequency for the DAC is selected so that images within a DAC output signal do not interfere with the frequency or frequencies used by the one or more receivers (122, 126, 130), wherein the DAC has an adjustable sampling frequency (118, 318) so as to be operable at a plurality of sampling frequencies; sele cting a sample rate for an input signal equal to the selected sampling frequency (118, 318) for the DAC, said input signal being provided to the DAC; and adjusting the sample rate of the input signal to the selected sample rate.
A method comprising: (a) generating, via a sensor of a computing device, a signal representing vibrations originating from a blood vessel of a subject; (b) decomposing the signal into one or more first intrinsic oscillatory modes (67, 77) and one or more second intrinsic oscillatory modes (66, 76) wherein the one or more first intrinsic oscillatory modes have respective oscillation frequencies that are less than respective oscillation frequencies of the one or more second intrinsic oscillatory modes; (c) obtaining an intensity spectrum of the one or more first intrinsic oscillatory modes over a range of frequencies, wherein obtaining the intensity spectrum comprises performing a fast Fourier transform upon the one or more first intrinsic oscillatory modes to yield one or more intensities corresponding respectively to one or more frequencies of the vibrations; and (d) using the obtained intensity spectrum to determine a blood volume status of the subj ect. (a) generating, via a sensor of a computing device, a signal representing vibrations originating from a blood vessel of a subject; (b) decomposing the signal into one or more first intrinsic oscillatory modes (67, 77) and one or more second intrinsic oscillatory modes (66, 76) wherein the one or more first intrinsic oscillatory modes have respective oscillation frequencies that are less than respective oscillation frequencies of the one or more second intrinsic oscillatory modes; (c) obtaining an intensity spectrum of the one or more first intrinsic oscillatory modes over a range of frequencies, wherein obtaining the intensity spectrum comprises performing a fast Fourier transform upon the one or more first intrinsic oscillatory modes to yield one or more intensities corresponding respectively to one or more frequencies of the vibrations; and (d) using the obtained intensity spectrum to determine a blood volume status of the subj ect.
A method of joining together tubular sections (10, 11) of a stairlift rail wherein each section of said rail includes a tang projecting from an outer surface thereof, said tang having a plurality of apertures extending along said tang; and wherein the tangs of juxtaposed sections have overlapping parts (30, 31), each of said overlapping parts having a hole (32, 33) there-through such when sections of rail are engaged in juxtaposition the holes are arranged co-axially to define a bore, said method being characterized in that: a pin is inserted into said bore so that a distal end of said pin projects out beyond said bore; and said distal end is deformed to prevent withdrawal of said pin from said bore. a pin is inserted into said bore so that a distal end of said pin projects out beyond said bore; and said distal end is deformed to prevent withdrawal of said pin from said bore.