mhurhangee/ep-ind-claims huggingface dataset:
A touch screen arrangement (202, 502) comprising: - a flexible, optionally transparent, substrate film of plastics, said substrate comprising support electronics, such as roll-to-roll processed printed electronics including a number of printed conductors, for providing power, control and/or communications connection to further electronic components, - a number of emitters and detectors arranged on said substrate into contact with the support electronics, for emitting and detecting light, respectively, and - a lightguide of plastics moulded onto the substrate such that said emitters and detectors, and optionally at least part of said support electronics, are substantially embedded in the over-moulded lightguide material, the properties of the lightguide including the refractive index of the lightguide material being selected and the emitters and detectors being configured so as to enable, when in use, total internal reflection -type propagation of light within the lightguide between the emitters and detectors and recognition of a touch on the basis of a drop in the TIR performance as determined from the detected light, wherein the touch screen arrangement is adapted to recognize the touch from a FTIR (frustrated TIR) -induced drop in the light intensity level as captured by one or more detectors in contrast to an adaptively determined basic reception level, which is config-ured over time, optionally in intervals or constantly, according to changes in the intensity of the light detected by said one or more detectors, during a TIR condition. - a flexible, optionally transparent, substrate film of plastics, said substrate comprising support electronics, such as roll-to-roll processed printed electronics including a number of printed conductors, for providing power, control and/or communications connection to further electronic components, - a number of emitters and detectors arranged on said substrate into contact with the support electronics, for emitting and detecting light, respectively, and - a lightguide of plastics moulded onto the substrate such that said emitters and detectors, and optionally at least part of said support electronics, are substantially embedded in the over-moulded lightguide material, the properties of the lightguide including the refractive index of the lightguide material being selected and the emitters and detectors being configured so as to enable, when in use, total internal reflection -type propagation of light within the lightguide between the emitters and detectors and recognition of a touch on the basis of a drop in the TIR performance as determined from the detected light, wherein the touch screen arrangement is adapted to recognize the touch from a FTIR (frustrated TIR) -induced drop in the light intensity level as captured by one or more detectors in contrast to an adaptively determined basic reception level, which is config-ured over time, optionally in intervals or constantly, according to changes in the intensity of the light detected by said one or more detectors, during a TIR condition.
An electroluminescent device comprising: - an inorganic luminescence diode chip having a radiation exit area, - a plurality of contact webs which are provided for current spreading purposes and are arranged on the radiation exit area, - a contact structure, which is arranged outside the radiation exit area and is electrically conductively connected to the contact webs, wherein contact structure is arranged on a web, wherein the web is arranged alongside the luminescence diode chip, - a first contact area arranged on a side of the web facing away from the luminescence diode chip, and - a conductive area, by means of which the first contact area is connected to the contact structure, characterized in that a second contact area is arranged on a side of the web facing away from the luminescence diode chip, wherein the second contact area extends below the web as far as the luminescence diode chip. - an inorganic luminescence diode chip having a radiation exit area, - a plurality of contact webs which are provided for current spreading purposes and are arranged on the radiation exit area, - a contact structure, which is arranged outside the radiation exit area and is electrically conductively connected to the contact webs, wherein contact structure is arranged on a web, wherein the web is arranged alongside the luminescence diode chip, - a first contact area arranged on a side of the web facing away from the luminescence diode chip, and - a conductive area, by means of which the first contact area is connected to the contact structure,
A pharmaceutical preparation comprising - 10 to 200 μg/ml of fragments of an antigenic structure which induces allergic reaction - 2 to 6% (w/v) mannitol - 0.5 to 2% (w/v) trehalose - water, wherein the amount of heat shock proteins is less than 1 ng/ml, wherein the fragments of an antigenic structure are hydrolyzed allergens prepared by enzymatic hydrolysis of the antigenic structure, and wherein at least 70% by weight of the fragments are between 1,000 and 10,000 Da. - 10 to 200 μg/ml of fragments of an antigenic structure which induces allergic reaction - 2 to 6% (w/v) mannitol - 0.5 to 2% (w/v) trehalose - water,
Household dishwasher with a door and a receptacle for items to be washed (12, 13, 14), wherein the receptacle for items to be washed (12, 13, 14) is configured to move automatically as a function of a movement of the door, characterised by a third sensor, which is configured to detect an approach of the door to the receptacle for items to be washed (12, 13, 14).
Method for producing a seal for a turbomachine in a mould, notably a seal for a turbomachine, the seal being notably suitable to erode when in contact with the rotor of a turbomachine, characterized in that the method comprises the following steps: (a) preheating the mould; then (b) filling the mould with a mixture, notably a powdery mixture; (d) compacting the mixture in the mould so as to solidify the mixture in the mould, wherein during step (a) preheating, the internal surface of the cavity of the mould which is intended to receive the mixture is covered with an aluminium foil. (a) preheating the mould; then (b) filling the mould with a mixture, notably a powdery mixture; (d) compacting the mixture in the mould so as to solidify the mixture in the mould,
A control apparatus for a vibration-type actuator, wherein the vibration-type actuator includes a plurality of vibrators ( 8a and 8b) each having a contact portion ( 6a, 6b) contacting an object to be driven, such that, responsive to a common alternating current signal to the plurality of vibrators, the plurality of vibrators ( 8a and 8b) move, through the contact portions ( 6a, 6b), the object relative to the vibrators ( 8a and 8b), to generate an elliptical motion of the contact portions, and the control apparatus comprises a frequency determining unit for setting a frequency ( fr) of the alternating current signal, characterized in that the frequency determining unit sets the frequency ( fr) of the alternating current signal for changing an ellipticity of the elliptical motion to be within an overlapping frequency range ( c) in which frequency ranges ( a and b) of ellipticity changing each set for each of the plurality of vibrators ( 8a and 8b) are overlapped, and the frequency ranges ( a and b) of changing the ellipticity are set for each of the vibrators ( 8a and 8b) as a frequency range between an upper limit and a lower limit, wherein the lower limit is a value of the resonant frequency corresponding to the phase difference of 0 degree, and the upper limit is larger than the lower limit and is a maximum frequency at which the vibrator can be driven for achieving relative movement of the object.
A bearer handover method, characterized by comprising: receiving, by a first base station (1000, 2000), first information sent by a network node, the network node comprising a mobility management entity, MME, or a second base station, wherein the first information comprises a first bearer identifier and dedicated information, and the dedicated information indicates that a first bearer corresponding to the first bearer identifier supports a handover to a sidelink radio bearer, and wherein the dedicated information is an explicit indication information that further comprises one or more pieces of the following information: a dedicated quality of service class identifier QCI, a dedicated allocation and retention priority ARP identifier, and a service identifier being an identifier of a service that supports a handover to the sidelink radio bearer, and instructing, by the first base station based on the first bearer identifier and the dedicated information, an user equipment to hand over the first bearer to the sidelink radio bearer. receiving, by a first base station (1000, 2000), first information sent by a network node, the network node comprising a mobility management entity, MME, or a second base station, wherein the first information comprises a first bearer identifier and dedicated information, and the dedicated information indicates that a first bearer corresponding to the first bearer identifier supports a handover to a sidelink radio bearer, and wherein the dedicated information is an explicit indication information that further comprises one or more pieces of the following information: a dedicated quality of service class identifier QCI, a dedicated allocation and retention priority ARP identifier, and a service identifier being an identifier of a service that supports a handover to the sidelink radio bearer, and instructing, by the first base station based on the first bearer identifier and the dedicated information, an user equipment to hand over the first bearer to the sidelink radio bearer.
Method for operating a weighing scale with a scales pan, at least six position sensors and a weighing mechanism, wherein the weighing mechanism comprises six electromagnetic mechanisms each with at least one permanent magnet and each with at least one plunger coil, and wherein, during the weighing process, the electromagnetic mechanisms generate, by the currents flowing in the respective plunger coils and based on the respective orientation and position thereof relative to the scales pan, compensation forces (F c1 - F c6) on the scales pan in the six degrees of freedom, consisting of the following steps: - measuring the position of the scales pan in all three dimensions by means of the at least six position sensors; - simultaneously regulating the currents flowing in the respective plunger coils so that the compensation forces (F c1 - F c6) hold, by the sum of the respective torques thereof, the scales pan in a predefined, free floating and constant position relative to translations and rotations in the six degrees of freedom; - using the amounts of the currents flowing in the respective plunger coils to compute the weighing results. - measuring the position of the scales pan in all three dimensions by means of the at least six position sensors; - simultaneously regulating the currents flowing in the respective plunger coils so that the compensation forces (F c1 - F c6) hold, by the sum of the respective torques thereof, the scales pan in a predefined, free floating and constant position relative to translations and rotations in the six degrees of freedom; - using the amounts of the currents flowing in the respective plunger coils to compute the weighing results.
An inline deposition control apparatus for a vacuum deposition apparatus having more than one deposition sources for depositing more than one deposition layers on a substrate, comprising: one or more light sources (142, 240) adapted to illuminate the substrate having the more than one deposition layers; a receiver (144, 240) adapted for receiving light reflected at, or transmitted through, the substrate having the more than one deposition layers; a detection arrangement connected to the receiver and adapted for spectrally resolved detection of a measurement signal provided by the receiver, wherein the measurement signal is selected from at least one of: light reflected at the substrate having the more than one deposition layers, and light transmitted through the substrate having the more than one deposition layers; an evaluation unit adapted to determine the respective thicknesses of the more than one deposition layers of the substrate based on the spectrally resolved measurement signal received as input from the detection arrangement; and a controller connected to the evaluation unit and connectable to the vacuum deposition apparatus for feed-back control of the deposition of the more than one deposition layers based on the determined respective thicknesses of the more than one deposition layers. one or more light sources (142, 240) adapted to illuminate the substrate having the more than one deposition layers; a receiver (144, 240) adapted for receiving light reflected at, or transmitted through, the substrate having the more than one deposition layers; a detection arrangement connected to the receiver and adapted for spectrally resolved detection of a measurement signal provided by the receiver, wherein the measurement signal is selected from at least one of: light reflected at the substrate having the more than one deposition layers, and light transmitted through the substrate having the more than one deposition layers; an evaluation unit adapted to determine the respective thicknesses of the more than one deposition layers of the substrate based on the spectrally resolved measurement signal received as input from the detection arrangement; and a controller connected to the evaluation unit and connectable to the vacuum deposition apparatus for feed-back control of the deposition of the more than one deposition layers based on the determined respective thicknesses of the more than one deposition layers.
An integrated circuit comprising: a sequence generator (134, 136; 234, 236) configured to generate a series of challenges (sj); a hidden output generator (104; 204; 304; 404) configured to generate a series of hidden outputs (130; 330; 430) which is not disclosed outside of the integrated circuit, each hidden output is a function of a corresponding challenge in the series of challenges; and bit reduction circuitry (126; 258) configured to generate a response sequence (128; 228) including a plurality of response parts, each response part in the response sequence is a nonlinear function of a corresponding plurality of hidden outputs. a sequence generator (134, 136; 234, 236) configured to generate a series of challenges (sj); a hidden output generator (104; 204; 304; 404) configured to generate a series of hidden outputs (130; 330; 430) which is not disclosed outside of the integrated circuit, each hidden output is a function of a corresponding challenge in the series of challenges; and bit reduction circuitry (126; 258) configured to generate a response sequence (128; 228) including a plurality of response parts, each response part in the response sequence is a nonlinear function of a corresponding plurality of hidden outputs.
A circuit, comprising: - a supply node (VDD_CAN) configured to receive a power supply, - a control node configured to receive a control signal with a first value and a second value, - an output node (CANH) configured to provide a drive signal to a CAN bus as a function of said control signal, - an output transistor coupled to the output node (CANH) to provide said CAN bus drive signal via the current path through the output transistor, - a current mirror in a current line from the supply node (VDD_CAN) to the output node (CANH) through the output transistor, the current line comprising an intermediate portion between the current mirror and the output transistor, wherein the current mirror is coupled (14, 16) to the control node, the current mirror configured to be switched, as a function of said control signal between: - a first mode, with said CAN bus drive signal applied to the output node (CANH) via the output transistor, and - a second mode, with the output transistor providing a high output impedance at the output node (CANH), wherein the circuit comprises a high-voltage diode arranged in the intermediate portion of the current line between the current mirror and the output transistor and characterized in that the circuit comprises a class AB stage active between the supply node (VDD CAN) and the control terminal of the output transistor, the class AB stage configured to facilitate current flow through the output transistor in said first mode. - a supply node (VDD_CAN) configured to receive a power supply, - a control node configured to receive a control signal with a first value and a second value, - an output node (CANH) configured to provide a drive signal to a CAN bus as a function of said control signal, - an output transistor coupled to the output node (CANH) to provide said CAN bus drive signal via the current path through the output transistor, - a current mirror in a current line from the supply node (VDD_CAN) to the output node (CANH) through the output transistor, the current line comprising an intermediate portion between the current mirror and the output transistor, wherein the current mirror is coupled (14, 16) to the control node, the current mirror configured to be switched, as a function of said control signal between: - a first mode, with said CAN bus drive signal applied to the output node (CANH) via the output transistor, and - a second mode, with the output transistor providing a high output impedance at the output node (CANH), wherein the circuit comprises a high-voltage diode arranged in the intermediate portion of the current line between the current mirror and the output transistor and characterized in that the circuit comprises a class AB stage active between the supply node (VDD CAN) and the control terminal of the output transistor, the class AB stage configured to facilitate current flow through the output transistor in said first mode. - a first mode, with said CAN bus drive signal applied to the output node (CANH) via the output transistor, and - a second mode, with the output transistor providing a high output impedance at the output node (CANH),
A refrigeration cycle apparatus comprising: a partition plate that partitions an inside of a housing of an outdoor unit into a blower chamber and a machine chamber; a reactor attached to the partition plate on a side of the machine chamber; a fixing member (51d, 51e) that fixes the reactor to the partition plate; and a plate-like first heat transfer member provided between the reactor and the partition plate, wherein the first heat transfer member is provided between the partition plate and the reactor, thermal resistance of the first heat transfer member is smaller than thermal resistance of the fixing member (51d, 51e), characterized in that grooves wider than the first heat transfer member are formed in a portion of the partition plate facing the first heat transfer member. a partition plate that partitions an inside of a housing of an outdoor unit into a blower chamber and a machine chamber; a reactor attached to the partition plate on a side of the machine chamber; a fixing member (51d, 51e) that fixes the reactor to the partition plate; and a plate-like first heat transfer member provided between the reactor and the partition plate, wherein the first heat transfer member is provided between the partition plate and the reactor, thermal resistance of the first heat transfer member is smaller than thermal resistance of the fixing member (51d, 51e), characterized in that grooves wider than the first heat transfer member are formed in a portion of the partition plate facing the first heat transfer member.
Capsule comprising a preferably rotationally symmetrical capsule body having a side wall and a base and having a cover, which covers the capsule body and is intended for forming at least one chamber which contains a substance for preparing a liquid food, wherein the base, as seen in relation to the longitudinal centre axis of the capsule, is subdivided into at least one outer base portion and into at least one inner base portion, and the at least one outer base portion and the at least one inner base portion are connected to one another in a movable manner, in particular in the direction of the longitudinal centre axis of the capsule, via at least one connecting portion, wherein a preferably impermeable membrane is fitted over the base, within the chamber and is connected to the at least one outer base portion, wherein displacement of the at least one inner base portion in the direction of the chamber makes it possible to produce a through-passage in the membrane in order for a liquid to be channelled through, characterized in that the at least one inner base portion forms a bearing surface for the membrane.
A cuvette configured to hold a plurality of ophthalmic lenses, the cuvette comprising: a carousel comprising a plurality of cells, wherein: each cell is configured to hold an ophthalmic lens submerged in a solution; each cell comprises at least one channel configured to allow solution to flow therethrough; and the carousel is rotatable within the cuvette, a first window configured to allow light to enter a cell, a second window forming a surface of a cell opposite the first window, the second window configured to allow the light to exit a cell, wherein a cell is positionable to allow light to propagate through the first window and a second window via rotation of the carousel; an intake portion configured to allow solution to enter the cuvette; a drain portion configured to allow solution to exit the cuvette; and an enclosure that is positioned around the carousel, characterized in that the enclosure is configured both to prevent solution from leaking out of the cuvette and to circulate the solution among the plurality of cells. a carousel comprising a plurality of cells, wherein: each cell is configured to hold an ophthalmic lens submerged in a solution; each cell comprises at least one channel configured to allow solution to flow therethrough; and the carousel is rotatable within the cuvette, each cell is configured to hold an ophthalmic lens submerged in a solution; each cell comprises at least one channel configured to allow solution to flow therethrough; and the carousel is rotatable within the cuvette, a first window configured to allow light to enter a cell, a second window forming a surface of a cell opposite the first window, the second window configured to allow the light to exit a cell, wherein a cell is positionable to allow light to propagate through the first window and a second window via rotation of the carousel; an intake portion configured to allow solution to enter the cuvette; a drain portion configured to allow solution to exit the cuvette; and an enclosure that is positioned around the carousel, characterized in that the enclosure is configured both to prevent solution from leaking out of the cuvette and to circulate the solution among the plurality of cells.