mhurhangee/patent-ind-claim-en huggingface dataset:
A target launching system for sport shooting comprising, successively in an alignment direction, a first target projection machine, a second target projection machine and a third target projection machine, each of the first machine, the second machine and the third machine comprising: - a launching unit which is movable in rotation relative to a base, - a launching arm movable in rotation relative to the launching unit , characterised in that the base is a base common to the first target projection machine, the second target projection machine and the third target projection machine, and in that it includes a pedestal on which the common base is movable in rotation along a base axis . - a launching unit which is movable in rotation relative to a base, - a launching arm movable in rotation relative to the launching unit , characterised in that the base is a base common to the first target projection machine, the second target projection machine and the third target projection machine, and in that it includes a pedestal on which the common base is movable in rotation along a base axis .
A process for calibrating a sensor for determining the content of a predetermined chemical element in a liquid body, said sensor using X-ray fluorescence technology and comprising an X-ray source , an X-ray detector and a cell intended to contain a sample of liquid body to be analyzed, said cell in turn including a casing that defines an internal volume (V508) for receiving the sample, characterized in that the process includes at least the following steps consisting in : a) establishing , by incorporating the measurements done by the X-ray detector for each energy level (E) that corresponds to a wavelength (λ) characteristic of a chemical component, a first secondary X-ray spectrum (S1) comprising energy levels (E 1 , E 2 , E 3 , E 4 ) corresponding to the components of the material of the casing ; b) storing in a memory the first spectrum (S1), in the form of a data set (D1); c) operating the sensor , while the internal volume (V508) of the casing does not contain a sample of the liquid body and establishing a second secondary X-ray spectrum (S2); d) modifying the second spectrum (S2), using the first spectrum (S1) as a base spectrum, for aligning the notable energy levels (E' 1 , E' 2 , E' 3 , E' 4 ) of the second spectrum on those (E 1 , E 2 , E 3 , E 4 ) of the first spectrum, by identifying which peak of the first spectrum (S1) corresponds to each peak of the second spectrum (S2) and by correcting the values of the notable energy levels (E' 1 , E' 2 , E' 3 , E' 4 ) of the second spectrum to arrange them, on the x-axis E(λ), in the same location as the notable energy levels (E 1 , E 2 , E 3 , E 4 ) of the first spectrum S1; e) recording the modified second spectrum (S2') as reference spectrum for the sensor. a) establishing , by incorporating the measurements done by the X-ray detector for each energy level (E) that corresponds to a wavelength (λ) characteristic of a chemical component, a first secondary X-ray spectrum (S1) comprising energy levels (E 1 , E 2 , E 3 , E 4 ) corresponding to the components of the material of the casing ; b) storing in a memory the first spectrum (S1), in the form of a data set (D1); c) operating the sensor , while the internal volume (V508) of the casing does not contain a sample of the liquid body and establishing a second secondary X-ray spectrum (S2); d) modifying the second spectrum (S2), using the first spectrum (S1) as a base spectrum, for aligning the notable energy levels (E' 1 , E' 2 , E' 3 , E' 4 ) of the second spectrum on those (E 1 , E 2 , E 3 , E 4 ) of the first spectrum, by identifying which peak of the first spectrum (S1) corresponds to each peak of the second spectrum (S2) and by correcting the values of the notable energy levels (E' 1 , E' 2 , E' 3 , E' 4 ) of the second spectrum to arrange them, on the x-axis E(λ), in the same location as the notable energy levels (E 1 , E 2 , E 3 , E 4 ) of the first spectrum S1; e) recording the modified second spectrum (S2') as reference spectrum for the sensor.
A computer implemented method performing the steps: receiving a search query submitted by a user via a web browser of a client device; obtaining data responsive to the search query that indicates a search result document relevant to the search query; identifying metadata associated with the search result document, wherein the metadata comprises data from one or more CSS files, or data determined from one or more previous renderings of the search result document, including data about a layout or formatting characteristics of the search result document; generating a document that includes a link to the search result document, the generated document including the metadata that is associated with the search result document and that indicates the layout or formatting characteristics of the search result document; and providing the generated document for rendering at the web browser of the client device in response to the search query. receiving a search query submitted by a user via a web browser of a client device; obtaining data responsive to the search query that indicates a search result document relevant to the search query; identifying metadata associated with the search result document, wherein the metadata comprises data from one or more CSS files, or data determined from one or more previous renderings of the search result document, including data about a layout or formatting characteristics of the search result document; generating a document that includes a link to the search result document, the generated document including the metadata that is associated with the search result document and that indicates the layout or formatting characteristics of the search result document; and providing the generated document for rendering at the web browser of the client device in response to the search query.
A conjugate for use in a method of treating an ocular disease or disorder in an individual, said conjugate comprising: a) a biologically active polypeptide having a molecular weight of from 5 kDa to 250 kDa, wherein the biologically active polypeptide is an inhibitor of angiogenesis; and b) a biocompatible polymer having a molecular weight of from 500 kDa to 2 MDa, wherein the polypeptide is covalently linked to the polymer directly or via a linker, wherein the molar ratio of the biologically active polypeptide to the polymer is at least about 10:1, wherein the method comprises administering to the individual an effective amount of said conjugate by intravitreal administration; and wherein: i) the biologically active polypeptide is a soluble vascular endothelial growth factor (VEGF) receptor, and the polymer is hyaluronic acid; or ii) the biologically active polypeptide is an antibody specific for VEGF, and the polymer is carboxymethyl cellulose; or iii) the biologically active polypeptide is an antibody specific for VEGF, and the polymer is hyaluronic acid. a) a biologically active polypeptide having a molecular weight of from 5 kDa to 250 kDa, wherein the biologically active polypeptide is an inhibitor of angiogenesis; and b) a biocompatible polymer having a molecular weight of from 500 kDa to 2 MDa, wherein the polypeptide is covalently linked to the polymer directly or via a linker, wherein the molar ratio of the biologically active polypeptide to the polymer is at least about 10:1, wherein the method comprises administering to the individual an effective amount of said conjugate by intravitreal administration; and wherein: i) the biologically active polypeptide is a soluble vascular endothelial growth factor (VEGF) receptor, and the polymer is hyaluronic acid; or ii) the biologically active polypeptide is an antibody specific for VEGF, and the polymer is carboxymethyl cellulose; or iii) the biologically active polypeptide is an antibody specific for VEGF, and the polymer is hyaluronic acid. wherein the polypeptide is covalently linked to the polymer directly or via a linker, wherein the molar ratio of the biologically active polypeptide to the polymer is at least about 10:1, wherein the method comprises administering to the individual an effective amount of said conjugate by intravitreal administration; and wherein: i) the biologically active polypeptide is a soluble vascular endothelial growth factor (VEGF) receptor, and the polymer is hyaluronic acid; or ii) the biologically active polypeptide is an antibody specific for VEGF, and the polymer is carboxymethyl cellulose; or iii) the biologically active polypeptide is an antibody specific for VEGF, and the polymer is hyaluronic acid. i) the biologically active polypeptide is a soluble vascular endothelial growth factor (VEGF) receptor, and the polymer is hyaluronic acid; or ii) the biologically active polypeptide is an antibody specific for VEGF, and the polymer is carboxymethyl cellulose; or iii) the biologically active polypeptide is an antibody specific for VEGF, and the polymer is hyaluronic acid.
Tool , to be mounted on a manipulator and able to grasp flat bases of the pallet type, said tool comprising a chassis , and a gripper for said bases, which is mounted on said chassis , the gripper is able to move in the chassis so as to cooperate with a single edge of a pallet , said gripper comprising a clamping means forming a vice for grasping the edge of a pallet so as to hold it in a cantilevered manner, characterized in that the gripper has a plurality of arms that are secured in rotation in the tool about an axis of rotation located at an edge of the tool , said arms each having, at their free end, a clamp so as to form together the clamping means and in that said tool has, on the one hand, at least one retractable lever mounted so as to be able to move on the chassis at the side opposite the one where the gripper is mounted, and on the other hand, a plurality of suction cups , for grasping an insert, at least one of them being mounted on the gripper and at least one other being mounted on said at least one lever .
A method of reducing static charge of a plastic vessel comprising providing a vapor deposited coating selected from the group consisting of SiCOH, SiO x and SiOH, to an external support surface of the vessel, wherein the vapor deposited coating acts to reduce static charge of the container compared to a reference container that is essentially identical to the vessel except that the reference container has an uncoated external support surface, wherein the vessel further comprises an internal support surface wherein at least a portion of the internal support surface comprises a PECVD trilayer coating set , the trilayer coating set comprising a tie layer deposited onto the internal support surface, a barrier layer deposited onto the tie layer and a pH protective layer deposited onto the barrier layer, wherein the tie layer comprises SiO x C y or SiN x C y , in which x for the tie layer is from about 0.5 to about 2.4 and y for the tie layer is from about 0.6 to about 3, wherein the barrier layer comprises SiO x in which x for the barrier layer is from about 1.5 to about 2.9 and wherein the pH protective layer comprises SiO x C y or SiN x C y in which x for the pH protective layer is from about 0.5 to about 2.4 and y for the protective layer is from about 0.6 to about 3.
A method for processing at least one speech frame, the method being performed by a network node and comprising: receiving (s702) a first ciphered speech frame comprising first voice-data; deciphering (s704) the first ciphered speech frame using a first deciphering parameter, thereby obtaining a first deciphered speech frame comprising the first voice-data, wherein the first deciphered speech frame comprises a set of information elements, IEs, wherein each IE consists of a set of one or more bits; characterised by inputting (s706) a subset of the set of IEs of the first deciphered speech frame into a trained machine learning, ML, model ; and obtaining (s708) from the ML model a first Garbled speech, GS, indicator, wherein the first GS indicator indicates either i) that the ML model has detected GS based on the subset of IEs of the first deciphered speech frame or ii) that the ML model has not detected GS based on the subset of IEs of the first deciphered speech frame. receiving (s702) a first ciphered speech frame comprising first voice-data; deciphering (s704) the first ciphered speech frame using a first deciphering parameter, thereby obtaining a first deciphered speech frame comprising the first voice-data, wherein the first deciphered speech frame comprises a set of information elements, IEs, wherein each IE consists of a set of one or more bits; characterised by inputting (s706) a subset of the set of IEs of the first deciphered speech frame into a trained machine learning, ML, model ; and obtaining (s708) from the ML model a first Garbled speech, GS, indicator, wherein the first GS indicator indicates either i) that the ML model has detected GS based on the subset of IEs of the first deciphered speech frame or ii) that the ML model has not detected GS based on the subset of IEs of the first deciphered speech frame.
A wearable device comprising: a sensor configured to detect a value corresponding to at least one ambient condition relative to the wearable device; an alert indicator ; a transceiver ; and a processor coupled to the transceiver, and the sensor, wherein the processor is configured to wirelessly pair the wearable device with a control panel , remote from the wearable device, through the transceiver, wherein, the processor is configured to receive the value from the sensor and, responsive thereto, the processor is configured to transmit information to the control panel, wherein the processor is configured to compare the value to an alert condition for the sensor stored in a memory of the wearable device, and wherein, when the value matches the alert condition, the processor is configured to include an alert message in the information transmitted to the control panel and the processor is configured to activate the alert indicator. a sensor configured to detect a value corresponding to at least one ambient condition relative to the wearable device; an alert indicator ; a transceiver ; and a processor coupled to the transceiver, and the sensor, wherein the processor is configured to wirelessly pair the wearable device with a control panel , remote from the wearable device, through the transceiver, wherein, the processor is configured to receive the value from the sensor and, responsive thereto, the processor is configured to transmit information to the control panel, wherein the processor is configured to compare the value to an alert condition for the sensor stored in a memory of the wearable device, and wherein, when the value matches the alert condition, the processor is configured to include an alert message in the information transmitted to the control panel and the processor is configured to activate the alert indicator.
An air distribution device comprising a housing , which delimits an air distribution chamber , for at least indirect connection to an air supply system, the housing having an air-inlet cross section , through which supply air can be introduced into the air distribution chamber , the housing having an air outlet with a horizontally arranged air outlet surface , walls of the air outlet being arranged at an acute angle (α) of between 5° and 22° to the air outlet surface and the air outlet surface being formed by a perforated ceiling panel , through which a first partial volume flow of the supply air can be conducted to the air outlet and flow out along an underside of the ceiling panel into a room to be ventilated, characterized in that heat-exchanger elements are arranged on an upper side of the ceiling panel facing away from the room ventilated, wherein at least two nozzles are arranged on the housing above the upper side of the ceiling panel in such a manner that longitudinal axes of the nozzles in each case run parallel to a longitudinal axis of the ceiling panel and parallel to an upper surface of the ceiling panel and the nozzles are located on both sides of an axis of the housing , wherein the axis runs parallel to a transverse of the ceiling panel .
Control valve for maneuvering a hydraulic consumer such as a single acting telescopic cylinder, including a valve housing with an inlet port connected to a pump for delivering of a hydraulic flow, a motor port to which said consumer is connected, an outlet port connected to a tank, and a maneuverable slide provided with port tracks and arranged in the valve housing with a first and a second end , respectively, which slide is adapted to control the hydraulic flow between the inlet port and the consumer and between the consumer and the tank, wherein the valve housing includes a first flow path (I) over the first end of the slide and a second flow path (II) over the second end of the slide, wherein the return flow from the consumer to the tank may be led via said flow paths through the valve housing, wherein the control valve includes a regulating device connected to the slide , which device from a position with maximal velocity at lowering of a load, in which the return flow from the consumer is conveyed via both the first and the second flow paths (I, II) over the first end and the second end of the slide, is arranged to provide a limited lowering velocity through adjustment of the slide in the axial direction and conveying of the flow over the first flow path (I) only, on the first end of the slide, wherein the regulating device includes an actuator unit which is uniformly arranged on the side of the valve housing towards which the first end of the slide is faced, characterized in that the actuator unit is formed of a first and a second pneumatically acting actuator , which are coaxially arranged one after the other, whereof each includes a rod section with a corresponding piston rod that are both movably arranged forth and backwards inside a cylinder section where the first rod section of the actuator forms a positive stop for the second rod section of the actuator.
Cathode arrangement comprising: - a cathode body housing an emission surface for emitting electrons in a longitudinal direction (Z), wherein the emission surface is bounded by an emission perimeter ; - a focusing electrode comprising a shell that defines a cavity in which the cathode body is accommodated, the shell enclosing the cathode body in transverse directions (X, Y), wherein the focusing electrode further comprises a focusing surface with an inner electrode surface facing the emission surface and an electron transmission aperture for focusing the electrons emitted by the emission surface, wherein the aperture is bounded by an aperture perimeter , and wherein the transmission aperture is smaller than the emission surface such that the aperture perimeter transversally extends over the emission surface and beyond the emission perimeter over an overlap distance (d2); characterized in that the focusing electrode is a Pierce electrode , in that the cathode body, during use, rests by means of gravity on the inner electrode surface and is moveably arranged within the Pierce electrode to allow movement relative to the shell over a maximum transversal distance (d1) from a coaxially aligned position (R0) that corresponds with an axis along the longitudinal direction (Z), and in_that the overlap distance (d2) exceeds the maximum transversal distance (d1). - a cathode body housing an emission surface for emitting electrons in a longitudinal direction (Z), wherein the emission surface is bounded by an emission perimeter ; - a focusing electrode comprising a shell that defines a cavity in which the cathode body is accommodated, the shell enclosing the cathode body in transverse directions (X, Y), wherein the focusing electrode further comprises a focusing surface with an inner electrode surface facing the emission surface and an electron transmission aperture for focusing the electrons emitted by the emission surface, wherein the aperture is bounded by an aperture perimeter , and wherein the transmission aperture is smaller than the emission surface such that the aperture perimeter transversally extends over the emission surface and beyond the emission perimeter over an overlap distance (d2); characterized in that the focusing electrode is a Pierce electrode , in that the cathode body, during use, rests by means of gravity on the inner electrode surface and is moveably arranged within the Pierce electrode to allow movement relative to the shell over a maximum transversal distance (d1) from a coaxially aligned position (R0) that corresponds with an axis along the longitudinal direction (Z), and in_that the overlap distance (d2) exceeds the maximum transversal distance (d1).
Method for positioning and/or retaining a filling element or a flat structure in a frame of windows, doors and related apparatuses, wherein the fastening is effected via a glass holder by placing the filling element on an outer shell and then attaching the glass holder on the opposite side of the filling element for fixation to the frame , wherein an expanding element is fastened to a base body of the glass holder via a predetermined breaking point or via an elastic or flexible connection , in particular a tab, wherein the expanding element is inserted into a receiving region between a supporting leg of the glass holder , whereby the expanding element is inserted into a receiving region between a supporting leg and a contact pressure leg and fastened using a fastening means , wherein the supporting leg and the contact pressure leg enclose an angle of between 1° and 65° to one another when the glass holder is not mounted, wherein this angle increases when the expanding element is inserted, wherein a contact pressure force is generated and adjusted by pivoting the contact pressure leg in the direction of the filling element due to a displacement of the expanding element in the direction of a base of the glass holder or in the direction of the frame .