mhurhangee/patent-ind-claim-en huggingface dataset:
A luminaire for emitting ultraviolet radiation, the luminaire comprising: - an ultraviolet radiation source having a field of irradiation , - an optical sensor having a field of view , the optical sensor being configured to detect motion or presence of an object in the field of view and to output a signal indicative of detected motion or presence of the object, - a control unit configured to control the ultraviolet radiation source based on the signal from the optical sensor , the control unit being connected to the ultraviolet radiation source and being configured to switch off the ultraviolet radiation source upon receipt of the signal indicative of detected motion or presence of the object; and - an optical system , characterized in that the ultraviolet radiation source and the optical sensor are both located upstream of the optical system , wherein the optical system is configured to shape the field of irradiation of the ultraviolet radiation source and the field of view of the optical sensor such that the field of irradiation of the ultraviolet radiation source falls within the field of view of the optical sensor downstream of the optical system . - an ultraviolet radiation source having a field of irradiation , - an optical sensor having a field of view , the optical sensor being configured to detect motion or presence of an object in the field of view and to output a signal indicative of detected motion or presence of the object, - a control unit configured to control the ultraviolet radiation source based on the signal from the optical sensor , the control unit being connected to the ultraviolet radiation source and being configured to switch off the ultraviolet radiation source upon receipt of the signal indicative of detected motion or presence of the object; and - an optical system , characterized in that the ultraviolet radiation source and the optical sensor are both located upstream of the optical system , wherein the optical system is configured to shape the field of irradiation of the ultraviolet radiation source and the field of view of the optical sensor such that the field of irradiation of the ultraviolet radiation source falls within the field of view of the optical sensor downstream of the optical system . characterized in that the ultraviolet radiation source and the optical sensor are both located upstream of the optical system , wherein the optical system is configured to shape the field of irradiation of the ultraviolet radiation source and the field of view of the optical sensor such that the field of irradiation of the ultraviolet radiation source falls within the field of view of the optical sensor downstream of the optical system .
A medicament for use in a method of treating a respiratory ailment selected from obstructive pulmonary disease, asthma, bronchitis and tuberculosis, wherein the medicament is to be administered to a patient via a hand-held, portable inhalator device, the device comprising: a mouthpiece comprising a chamber; a medication source in fluid communication with the chamber; an aperture configured to permit egress of fluid out of the chamber; a trigger configured to dispense medication front the medication source into the chamber and wherein the method comprises placing the mouth of the patient about the mouthpiece and exhaling into the mouthpiece and out of the aperture for a predetermined period of time at a threshold level of positive pressure to achieve a qualifying breath; and dispensing a quantity of medication into the chamber after the qualifying breath. selected from obstructive pulmonary disease, asthma, bronchitis and tuberculosis, wherein the medicament is to be administered to a patient via a hand-held, portable inhalator device, the device comprising: a mouthpiece comprising a chamber; a medication source in fluid communication with the chamber; an aperture configured to permit egress of fluid out of the chamber; a trigger configured to dispense medication front the medication source into the chamber and wherein the method comprises placing the mouth of the patient about the mouthpiece and exhaling into the mouthpiece and out of the aperture for a predetermined period of time at a threshold level of positive pressure to achieve a qualifying breath; and dispensing a quantity of medication into the chamber after the qualifying breath.
A process for the preparation of ethylene glycol wherein a gas phase composition comprising C 1-3 -oxygenate compounds is hydrogenated in the presence of a catalyst and hydrogen.
Flywheel comprising a first flywheel mass for connection with a crankshaft, a second flywheel mass for connection with a gearbox, a spiral spring unit for resiliently connecting said primary and secondary flywheel mass , a damping unit in parallel to said spiral spring unit with respect to said second flywheel mass , and a gap provided to increase the damping torque of said damping unit acting between said primary and secondary flywheel mass at a predefined angular displacement of said primary flywheel mass with respect to said secondary flywheel mass .
A receiver of positioning signals from at least a satellite constellation , said receiver comprising: - a port to access information on absolute and/or relative values of a position measurement precision in a configuration of said receiver, said configuration being defined by elements chosen from a group comprising processors for processing positioning signals, antennae for receiving said signals, a list of constellations and a list of external links to data for correcting the positioning signals; and - processing circuits to process raw positioning, velocity and time data for a satellite axis; - processing circuits to calculate an information characterizing a precision and/or a confidence index of said calculation of a position of the receiver based on the information on absolute and/or relative values of said position measurement precision in the configuration of said receiver and the result of the processing of the raw positioning, velocity and time data for the satellite axes, - wherein the information characterizing the precision and/or the confidence index of the calculation of the position of the receiver is calculated further based on information on a hardware configuration of said receiver relating to an antenna and/or a processor for processing positioning signals of said receiver, said information on the hardware configuration being provided by a database characterizing permanent and variable elements of said hardware configuration. - a port to access information on absolute and/or relative values of a position measurement precision in a configuration of said receiver, said configuration being defined by elements chosen from a group comprising processors for processing positioning signals, antennae for receiving said signals, a list of constellations and a list of external links to data for correcting the positioning signals; and - processing circuits to process raw positioning, velocity and time data for a satellite axis; - processing circuits to calculate an information characterizing a precision and/or a confidence index of said calculation of a position of the receiver based on the information on absolute and/or relative values of said position measurement precision in the configuration of said receiver and the result of the processing of the raw positioning, velocity and time data for the satellite axes, - wherein the information characterizing the precision and/or the confidence index of the calculation of the position of the receiver is calculated further based on information on a hardware configuration of said receiver relating to an antenna and/or a processor for processing positioning signals of said receiver, said information on the hardware configuration being provided by a database characterizing permanent and variable elements of said hardware configuration.
A method of manufacturing an optoelectronic or photovoltaic device, comprising the following successive steps: a) forming, by pulsed laser deposition (PLD), an active layer comprising a perovskite material on the upper side of a first charge transport layer ; b) depositing, by PLD, a second charge-transport layer of an inorganic material on the upper face of the active layer, wherein steps a) and b) are carried out in a vacuum, i.e. at a pressure below atmospheric pressure, the method including no vacuum break between steps a) and b), characterized in that the active layer is a stack of multiple quantum wells consisting of alternating quantum well layers of said perovskite material and barrier layers of another semiconductor material. a) forming, by pulsed laser deposition (PLD), an active layer comprising a perovskite material on the upper side of a first charge transport layer ; b) depositing, by PLD, a second charge-transport layer of an inorganic material on the upper face of the active layer, wherein steps a) and b) are carried out in a vacuum, i.e. at a pressure below atmospheric pressure, the method including no vacuum break between steps a) and b), characterized in that the active layer is a stack of multiple quantum wells consisting of alternating quantum well layers of said perovskite material and barrier layers of another semiconductor material.
A method for controlling an illuminator illuminating a scene monitored by a camera , the method comprising: determining (S402, S404) whether an object of interest belonging to a specific class of objects, is present in the scene; upon at least one object of interest being determined to be present in the scene, setting (S408) a saturation threshold to a first value; upon no object of interest being determined to be present in the scene, setting (S410) the saturation threshold to a second value being lower than the first value; identifying (S412) saturated pixels in an image of the scene captured by the camera ; determining (S414) a ratio between a saturated area comprising the saturated pixels and a total area of the image; and upon the ratio being above the saturation threshold, decreasing (S418) the power of the illuminator. determining (S402, S404) whether an object of interest belonging to a specific class of objects, is present in the scene; upon at least one object of interest being determined to be present in the scene, setting (S408) a saturation threshold to a first value; upon no object of interest being determined to be present in the scene, setting (S410) the saturation threshold to a second value being lower than the first value; identifying (S412) saturated pixels in an image of the scene captured by the camera ; determining (S414) a ratio between a saturated area comprising the saturated pixels and a total area of the image; and upon the ratio being above the saturation threshold, decreasing (S418) the power of the illuminator.
A method of rendering a scene in a graphics system, the method comprising: identifying a first draw call within a current render ; analysing at least a last shader in a series of shaders used by the first draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to a current fragment location ; and in response to determining that the last shader used by the first draw call does sample from the identified buffers using screen space coordinates that correspond to the current fragment location, adding the first draw call to both a merged control stream comprising draw calls from the previous render and a control stream for a current render; for a subsequent draw call in the current render, analysing at least a last shader in a series of shaders used by the subsequent draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to the current fragment location ; and in response to determining that the subsequent draw call does not sample from the identified buffers using screen space coordinates that correspond to the current fragment location, discarding the merged control stream. identifying a first draw call within a current render ; analysing at least a last shader in a series of shaders used by the first draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to a current fragment location ; and in response to determining that the last shader used by the first draw call does sample from the identified buffers using screen space coordinates that correspond to the current fragment location, adding the first draw call to both a merged control stream comprising draw calls from the previous render and a control stream for a current render; for a subsequent draw call in the current render, analysing at least a last shader in a series of shaders used by the subsequent draw call to identify any buffers sampled by the last shader that are to be written by a previous render that has still to be sent for execution on the GPU and to determine whether the last shader samples from the identified buffers using screen space coordinates that correspond to the current fragment location ; and in response to determining that the subsequent draw call does not sample from the identified buffers using screen space coordinates that correspond to the current fragment location, discarding the merged control stream.
A draper platform for mounting on a feeder house of an agricultural combine, the draper platform comprising: a frame ; a center belt conveyor to carry cut crop material rearwardly towards a center opening in the frame through which crop may be fed into a feeder house; a left side belt conveyor to carry cut crop material to the center belt conveyor ; a right side belt conveyor to carry cut crop material to the center belt conveyor ; at least one elongate reciprocating knife assembly extending along a front edge of each of the center belt conveyor , the left side belt conveyor and the right side belt conveyor ; a conveyor drum above the center belt conveyor ; and a central roller baffle comprising a rotatable support rotatably supported above the conveyor drum and a crop driver mounted to the rotatable support , characterized in that the central roller baffle is reconfigurable, that the crop driver is removably mounted to the rotatable support and that the rotatable support and the crop driver are configured such that the crop driver is selectively mountable to the rotatable support in either of a first orientation and a second orientation, and wherein the crop driver is configured to differently interact with the cut crops during rotation of the rotatable support in each of the first and second orientations by offering a first level of crop driving aggressiveness when in the first orientation and a second greater level of crop aggressiveness when mounted in the second orientation. a frame ; a center belt conveyor to carry cut crop material rearwardly towards a center opening in the frame through which crop may be fed into a feeder house; a left side belt conveyor to carry cut crop material to the center belt conveyor ; a right side belt conveyor to carry cut crop material to the center belt conveyor ; at least one elongate reciprocating knife assembly extending along a front edge of each of the center belt conveyor , the left side belt conveyor and the right side belt conveyor ; a conveyor drum above the center belt conveyor ; and a central roller baffle comprising a rotatable support rotatably supported above the conveyor drum and a crop driver mounted to the rotatable support , characterized in that the central roller baffle is reconfigurable, that the crop driver is removably mounted to the rotatable support and that the rotatable support and the crop driver are configured such that the crop driver is selectively mountable to the rotatable support in either of a first orientation and a second orientation, and wherein the crop driver is configured to differently interact with the cut crops during rotation of the rotatable support in each of the first and second orientations by offering a first level of crop driving aggressiveness when in the first orientation and a second greater level of crop aggressiveness when mounted in the second orientation.
A target for reactive sputter deposition of electrically insulating layers in a coating chamber, characterized in that the target at least in a surface region comprising at least a first region (B M1 ) and a second region (B M2 ), wherein • the first region (B M1 ) is made of a first material (M 1 ), which is composed of one or more elements that can react with a reactive gas in such a way that an M 1 -containing composite material resulting from the reaction corresponds to the composition of the desired layer material for coating substrates that are to be coated, and • the second region (B M2 ) is made of a second material (M 2 ), which is composed of one or more elements that are inert against the above-mentioned reactive gas or that can react with the above-mentioned reactive gas in such a way that an M 2 -containing composite material resulting from the reaction has a higher electrical conductivity in comparison to the M 1 -containing composite material, and • wherein the second material (M 2 ) differs from the first material (M 1 ) in at least one element, wherein the target surface has at least one bevel, which is defined by a set angle (W) characterized in that in the beveled target surface region, there is a "mixing region" in which the first material (M 1 ) and the second material (M 2 ) are situated next to each other. • the first region (B M1 ) is made of a first material (M 1 ), which is composed of one or more elements that can react with a reactive gas in such a way that an M 1 -containing composite material resulting from the reaction corresponds to the composition of the desired layer material for coating substrates that are to be coated, and • the second region (B M2 ) is made of a second material (M 2 ), which is composed of one or more elements that are inert against the above-mentioned reactive gas or that can react with the above-mentioned reactive gas in such a way that an M 2 -containing composite material resulting from the reaction has a higher electrical conductivity in comparison to the M 1 -containing composite material, and • wherein the second material (M 2 ) differs from the first material (M 1 ) in at least one element, wherein the target surface has at least one bevel, which is defined by a set angle (W) characterized in that in the beveled target surface region, there is a "mixing region" in which the first material (M 1 ) and the second material (M 2 ) are situated next to each other.
An antitumor pharmaceutical combination comprising: (i) a compound ABX196 of formula (I) and, (ii) at least one chemotherapeutic agent and/or at least one immunotherapeutic agent, for use in the treatment of cancer, wherein said at least one immunotherapeutic agent is not an antigen, wherein said at least one immunotherapeutic agent is an antibody specific of PD-1, wherein said at least one chemotherapeutic agent is selected from the group consisting of doxorubicin, idarubicin, epirubicin and sorafenib, and provided that, when the chemotherapeutic agent is selected from the group consisting of doxorubicin, idarubicin and epirubicin, said cancer is melanoma. (i) a compound ABX196 of formula (I) and, (ii) at least one chemotherapeutic agent and/or at least one immunotherapeutic agent, for use in the treatment of cancer, wherein said at least one immunotherapeutic agent is not an antigen, wherein said at least one immunotherapeutic agent is an antibody specific of PD-1, wherein said at least one chemotherapeutic agent is selected from the group consisting of doxorubicin, idarubicin, epirubicin and sorafenib, and provided that, when the chemotherapeutic agent is selected from the group consisting of doxorubicin, idarubicin and epirubicin, said cancer is melanoma.
An automatic fluid injection device comprising: - an upper body comprising: at least one injection system that is controlled by power supply means and that is triggered by a user interface , such as at least one actuator button; and an insertion mechanism for inserting an injection needle , - a base body for coming into contact with an injection zone and comprising: at least one fluid reservoir , each containing an injection piston ; and a needle assembly including said injection needle , said device being characterized in that said injection system comprises: - at least one elongate spring metal strip , each strip being wound on a respective reel before actuation, - a drive mechanism for unwinding said at least one strip against a respective piston so as to perform the injection, and for rewinding said strip on said reel after injection. - an upper body comprising: at least one injection system that is controlled by power supply means and that is triggered by a user interface , such as at least one actuator button; and an insertion mechanism for inserting an injection needle , - a base body for coming into contact with an injection zone and comprising: at least one fluid reservoir , each containing an injection piston ; and a needle assembly including said injection needle , - at least one elongate spring metal strip , each strip being wound on a respective reel before actuation, - a drive mechanism for unwinding said at least one strip against a respective piston so as to perform the injection, and for rewinding said strip on said reel after injection.
A subscriber identity module devised to check an OTA message from a sender incoming at the subscriber identity module for compliance with a Minimum Security Level MSL by checking the OTA message as to conformity with an MSL stored in the subscriber identity module, and processing the OTA message according to a result of the check, characterized in that the stored MSL is formed while employing an origin information item which provides information about a permissible, possible origin of OTA message, and an MSL parameter of the OTA message is formed while employing an origin information item which provides information about the origin of the OTA message, wherein upon the check as to conformity the origin of the OTA message is verified with the help of the MSL parameter of the OTA message, and wherein the stored MSL and the MSL parameter of the OTA message are formed by means of a cryptographic checksum upon whose forming a cryptographic key is employed, and wherein the subscriber identity module and the sender have the cryptographic key.