mhurhangee/ep-ind-claims huggingface dataset:
A window assembly configured to house a sensor, the window assembly comprising: a transparent pane including an inner surface and an opposing outer surface; a mounting bracket including a mounting portion coupled to the inner surface of the transparent pane via an adhesive, the mounting portion defining a total mounting area bounded by a perimeter of the mounting portion, and defining a sensor aperture within the perimeter of the mounting portion, wherein the mounting bracket comprises a first plastic material having at least one of an elastic modulus of 1000 MPa or greater and a Shore D hardness of 70 or greater, and wherein the mounting bracket is configured to support the sensor such that the sensor is aligned with the sensor aperture; and a seal coupled to the mounting bracket along the perimeter of the mounting portion and engaging the inner surface of the transparent pane to inhibit ingress of debris between the mounting portion and the inner surface of the transparent pane, wherein the seal comprises a second plastic material, different than the first plastic material, and having at least one of an elastic modulus of 50 MPa or less and a Shore A hardness of 80 or less. a transparent pane including an inner surface and an opposing outer surface; a mounting bracket including a mounting portion coupled to the inner surface of the transparent pane via an adhesive, the mounting portion defining a total mounting area bounded by a perimeter of the mounting portion, and defining a sensor aperture within the perimeter of the mounting portion, wherein the mounting bracket comprises a first plastic material having at least one of an elastic modulus of 1000 MPa or greater and a Shore D hardness of 70 or greater, and wherein the mounting bracket is configured to support the sensor such that the sensor is aligned with the sensor aperture; and a seal coupled to the mounting bracket along the perimeter of the mounting portion and engaging the inner surface of the transparent pane to inhibit ingress of debris between the mounting portion and the inner surface of the transparent pane, wherein the seal comprises a second plastic material, different than the first plastic material, and having at least one of an elastic modulus of 50 MPa or less and a Shore A hardness of 80 or less.
A control device for an AC rotating machine comprising: a voltage command calculation means that calculates a first-axis voltage command and a second-axis voltage command for two rotating axes, each rotating in synchronization with the rotation of the AC rotating machine, the first axis of the two rotating axes being set to a direction having the same phase as the rotor magnetic flux of the AC rotating machine, and the second axis of the two rotating axes being set to a direction that is perpendicular to the first axis of the two rotating axes; and a voltage applying means that applies a voltage to an AC rotating machine, based on voltage commands outputted by the voltage command calculation means, characterized in that the voltage command calculation means calculates a limit value of the voltage command on the second axis by subtracting a value proportional to the square of the voltage command on the first axis from a predetermined value. a voltage command calculation means that calculates a first-axis voltage command and a second-axis voltage command for two rotating axes, each rotating in synchronization with the rotation of the AC rotating machine, the first axis of the two rotating axes being set to a direction having the same phase as the rotor magnetic flux of the AC rotating machine, and the second axis of the two rotating axes being set to a direction that is perpendicular to the first axis of the two rotating axes; and a voltage applying means that applies a voltage to an AC rotating machine, based on voltage commands outputted by the voltage command calculation means, characterized in that the voltage command calculation means calculates a limit value of the voltage command on the second axis by subtracting a value proportional to the square of the voltage command on the first axis from a predetermined value.
A method of controlling settings of one or more actuatable components of a gas turbine engine to reduce or avoid overshoot of an engine operational parameter during a transient engine manoeuvre, the method including: providing a first matrix which relates reduction in the maximum value of the operational parameter during the transient manoeuvre to settings of the component(s); providing a second matrix which relates maximum values of the operational parameter attained during the transient manoeuvre to: time to attain the maximum value after initiation of the transient manoeuvre, and rate of change of the operational parameter at the time of the maximum value; monitoring the engine in operation to identify a start of a transient manoeuvre; predicting, on the basis of the maximum values of the second matrix, an amount of overshoot of the operational parameter during the identified transient manoeuvre and a time of occurrence of the overshoot; selecting a setting, using the first matrix, to eliminate the predicted overshoot; and applying the selected setting to the component(s) for a predetermined period around the predicted time of occurrence to reduce or avoid the overshoot; characterised in that the operational parameter is a working gas temperature of the engine or a shaft speed of the engine. providing a first matrix which relates reduction in the maximum value of the operational parameter during the transient manoeuvre to settings of the component(s); providing a second matrix which relates maximum values of the operational parameter attained during the transient manoeuvre to: time to attain the maximum value after initiation of the transient manoeuvre, and rate of change of the operational parameter at the time of the maximum value; monitoring the engine in operation to identify a start of a transient manoeuvre; predicting, on the basis of the maximum values of the second matrix, an amount of overshoot of the operational parameter during the identified transient manoeuvre and a time of occurrence of the overshoot; selecting a setting, using the first matrix, to eliminate the predicted overshoot; and applying the selected setting to the component(s) for a predetermined period around the predicted time of occurrence to reduce or avoid the overshoot; characterised in that the operational parameter is a working gas temperature of the engine or a shaft speed of the engine.
A mobile station apparatus configured to periodically transmit feedback information including transmission signal number-of-sequence information, transmission signal precoding information, and reception quality information calculated based on the transmission signal number-of-sequence information and the transmission signal precoding information to a base station apparatus using an uplink control channel, the mobile station apparatus being characterized by: a processing section that is configured to calculate the reception quality information based on beforehand defined transmission signal number-of-sequence information and beforehand defined transmission signal precoding information when the transmission signal precoding information is not transmitted. a processing section that is configured to calculate the reception quality information based on beforehand defined transmission signal number-of-sequence information and beforehand defined transmission signal precoding information when the transmission signal precoding information is not transmitted.
Process for remineralization of water comprising the steps of: a) providing feed water, b) providing an aqueous solution derived from calcium carbonate, wherein the aqueous solution comprises dissolved calcium carbonate and reaction species thereof, and wherein the concentration of calcium carbonate in the solution is from 0.1 to 1 g/L, and c) combining the feed water of step a) and the aqueous solution of step b), wherein the aqueous solution of step b) has been prepared by one of the following steps: A) preparing an aqueous suspension of calcium carbonate in a first step, and introducing either: (i) a carbon dioxide generating compound, (ii) a carbon dioxide generating compound and an acid, or (iii) an acid to an aqueous suspension of calcium carbonate in a second step, or B) introducing in a first step either: (i) a carbon dioxide generating compound, (ii) a carbon dioxide generating compound and an acid, or (iii) an acid in the water to be used for the preparation of the solution, and then introducing calcium carbonate, either in dry form or as a suspension in a second step in the water, or C) introducing a suspension of calcium carbonate and either: (i) a carbon dioxide generating compound, (ii) a carbon dioxide generating compound and an acid, or (iii) an acid simultaneously, wherein the calcium carbonate used for the preparation of the aqueous solution of step b) has a weight median particle size d 50 from 0.1 to 100 μm. a) providing feed water, b) providing an aqueous solution derived from calcium carbonate, wherein the aqueous solution comprises dissolved calcium carbonate and reaction species thereof, and wherein the concentration of calcium carbonate in the solution is from 0.1 to 1 g/L, and c) combining the feed water of step a) and the aqueous solution of step b), A) preparing an aqueous suspension of calcium carbonate in a first step, and introducing either: (i) a carbon dioxide generating compound, (ii) a carbon dioxide generating compound and an acid, or (iii) an acid to an aqueous suspension of calcium carbonate in a second step, or B) introducing in a first step either: (i) a carbon dioxide generating compound, (ii) a carbon dioxide generating compound and an acid, or (iii) an acid in the water to be used for the preparation of the solution, and then introducing calcium carbonate, either in dry form or as a suspension in a second step in the water, or C) introducing a suspension of calcium carbonate and either: (i) a carbon dioxide generating compound, (ii) a carbon dioxide generating compound and an acid, or (iii) an acid simultaneously,
Kit for photovoltaic feeding of a semi-trailer compactor vehicle, wherein said kit includes at least one photovoltaic solar panel and a supporting frame for said at least one photovoltaic panel, characterised in that the kit includes a vibration-damping bracketing system for attaching the frame to the roof of the vehicle, comprising: - at least one proximal bracket and at least one distal bracket with respect to the longitudinal centre line of the vehicle; - at least one nut-bolt-washer arrangement associated with the proximal bracket and with the frame of the solar panel for connecting said frame to the roof of the vehicle, said nut-bolt-washer arrangement comprising a washer made of an elastic material, which is capable of absorbing vibrations and imparts vibration-damping properties to the proximal bracket; - at least one L-shaped counter-bracket and at least one flexible vertical spacer for connecting said frame to the roof of the vehicle, wherein said flexible vertical spacer has a first end and a second end, wherein the first end is fixedly attached to the counter-bracket and to the frame of the solar panel, and the second end is fixedly attached to the distal vibration-damping bracket, said vertical spacer imparting vibration-damping properties to the distal bracket. - at least one proximal bracket and at least one distal bracket with respect to the longitudinal centre line of the vehicle; - at least one nut-bolt-washer arrangement associated with the proximal bracket and with the frame of the solar panel for connecting said frame to the roof of the vehicle, said nut-bolt-washer arrangement comprising a washer made of an elastic material, which is capable of absorbing vibrations and imparts vibration-damping properties to the proximal bracket; - at least one L-shaped counter-bracket and at least one flexible vertical spacer for connecting said frame to the roof of the vehicle, wherein said flexible vertical spacer has a first end and a second end, wherein the first end is fixedly attached to the counter-bracket and to the frame of the solar panel, and the second end is fixedly attached to the distal vibration-damping bracket, said vertical spacer imparting vibration-damping properties to the distal bracket.
An arrangement converter (120; 300), comprising: first (120a; 300a) and second (120b; 300b) end faces; and a plurality of optical waveguides each having one end fixed on the first end face (120a; 300a) and the other end fixed on the second end face (120b; 300b), each of the plurality of optical waveguides having a core region and a cladding region surrounding the core region, wherein an array on the first end face (120a; 300a), defined by the one ends of the plurality of optical waveguides, is different from that on the second end face (120b; 300b) defined by the other ends of the plurality of optical waveguides, all of the core regions on the first end face (120a; 300a) of the plurality of optical waveguides are two-dimensionally arrayed and all of the core regions on the second end face (120b; 300b) of the plurality of optical waveguides are one-dimensionally arrayed, each of the plurality of optical waveguides has a shape which has a cross-sectional area that decreases from the first end face (120a; 300a) toward the second end face (120b; 300b), and in each of the plurality of optical waveguides the cladding region surrounding the core region and outer diameters of the respective core regions of the plurality of optical waveguides are smaller on the second end face (120b; 300b) than on the first end face (120a; 300a). first (120a; 300a) and second (120b; 300b) end faces; and a plurality of optical waveguides each having one end fixed on the first end face (120a; 300a) and the other end fixed on the second end face (120b; 300b), each of the plurality of optical waveguides having a core region and a cladding region surrounding the core region, wherein an array on the first end face (120a; 300a), defined by the one ends of the plurality of optical waveguides, is different from that on the second end face (120b; 300b) defined by the other ends of the plurality of optical waveguides, all of the core regions on the first end face (120a; 300a) of the plurality of optical waveguides are two-dimensionally arrayed and all of the core regions on the second end face (120b; 300b) of the plurality of optical waveguides are one-dimensionally arrayed, each of the plurality of optical waveguides has a shape which has a cross-sectional area that decreases from the first end face (120a; 300a) toward the second end face (120b; 300b), and in each of the plurality of optical waveguides the cladding region surrounding the core region and outer diameters of the respective core regions of the plurality of optical waveguides are smaller on the second end face (120b; 300b) than on the first end face (120a; 300a).
A radiographic image capturing apparatus comprising: a two-dimensional array of radiation detecting elements; a connector couplable to an external connector; a connector coupling detector to detect coupling or uncoupling between the external connector and the connector of the radiographic image capturing apparatus; a power supply detector to detect an available state or an unavailable state of external electric power fed through the external connector; and a controller to control a turned-on state and a turned-off state of the radiographic image capturing apparatus, wherein at a timing when the power supply detector detects a change from the available state to the unavailable state of the external electric power, the controller turns off the radiographic image capturing apparatus in the turned-on state if the connector coupling detector detects the coupling between the external connector and the connector of the radiographic image capturing apparatus, or the controller maintains the turned-on state of the radiographic image capturing apparatus if the connector coupling detector detects the uncoupling between the external connector and the connector of the radiographic image capturing apparatus. a two-dimensional array of radiation detecting elements; a connector couplable to an external connector; a connector coupling detector to detect coupling or uncoupling between the external connector and the connector of the radiographic image capturing apparatus; a power supply detector to detect an available state or an unavailable state of external electric power fed through the external connector; and a controller to control a turned-on state and a turned-off state of the radiographic image capturing apparatus, wherein at a timing when the power supply detector detects a change from the available state to the unavailable state of the external electric power, the controller turns off the radiographic image capturing apparatus in the turned-on state if the connector coupling detector detects the coupling between the external connector and the connector of the radiographic image capturing apparatus, or the controller maintains the turned-on state of the radiographic image capturing apparatus if the connector coupling detector detects the uncoupling between the external connector and the connector of the radiographic image capturing apparatus.
An apparatus for producing an object, the apparatus comprising: an additive printing device for producing a three-dimensional object, the three-dimensional object being produced from a dimensionally accurate nominal model having object specifications; a coordinate measuring machine for measuring at least one dimension of the object during a printing process of the object; a controller operatively coupled with the coordinate measuring machine, the controller being configured to control the measuring device to measure the object at one or more prescribed points during the printing process; and a checker operatively coupled with the additive printing device and the coordinate measuring machine, the coordinate measuring machine producing at least one dimensional measurement of the object during the printing process, the checker being configured to alter subsequent manufacturing by the additive printing device as a function of the at least one dimensional measurement. an additive printing device for producing a three-dimensional object, the three-dimensional object being produced from a dimensionally accurate nominal model having object specifications; a coordinate measuring machine for measuring at least one dimension of the object during a printing process of the object; a controller operatively coupled with the coordinate measuring machine, the controller being configured to control the measuring device to measure the object at one or more prescribed points during the printing process; and a checker operatively coupled with the additive printing device and the coordinate measuring machine, the coordinate measuring machine producing at least one dimensional measurement of the object during the printing process, the checker being configured to alter subsequent manufacturing by the additive printing device as a function of the at least one dimensional measurement.
An implant system for a recipient patient, said implant system comprising a magnetic arrangement, the arrangement comprising: a planar coil housing containing a signal coil for transcutaneous communication of an implant communication signal; a first attachment magnet within the plane of the coil housing, rotatable therein, and having a magnetic dipole parallel to the plane of the coil housing for transcutaneous magnetic interaction with a corresponding second attachment magnet, wherein the coil housing is an implant coil housing for implantation under the skin of the patient and wherein the signal coil is a receiver coil, and wherein said first attachment magnet has a planar disc shape or a cut away disc shape. a planar coil housing containing a signal coil for transcutaneous communication of an implant communication signal; a first attachment magnet within the plane of the coil housing, rotatable therein, and having a magnetic dipole parallel to the plane of the coil housing for transcutaneous magnetic interaction with a corresponding second attachment magnet, wherein the coil housing is an implant coil housing for implantation under the skin of the patient and wherein the signal coil is a receiver coil, and wherein said first attachment magnet has a planar disc shape or a cut away disc shape.
A device intended for opening bags, in particular bags containing materials for agriculture and industry, the device comprising a central axis oriented along a vertical direction, whose upper portion comprises at least one tip adapted to pierce a bag, the device further comprising at least one blade adapted to cut off a bag and secured to a lower portion of the central axis, the or each blade having a sharp edge oriented towards the upper portion of the central axis, characterized in that the device also comprises immobilization means arranged to immobilize a free portion of each blade opposite to the lower portion of the central axis.
A method for accessing a flash memory device, wherein a type of access to the flash memory device comprises a write operation and a read operation, a form of the write operation comprises a fast write and a slow write, and the method comprises: receiving (S602, 802) a first write access request for a to-be-accessed storage area; obtaining (S206, S806) a historical access type of the to-be-accessed storage area, wherein the historical access type is an access type of access to the to-be-accessed storage area before the first write access request; and when (S610, S810) the historical access type of the to-be-accessed storage area is a write operation, writing (S612, S812) to-be-written data of the first write access request to the to-be-accessed storage area in a form of the fast write; wherein the form of the write operation further comprises a normal write, and a write speed of the normal write is greater than a write speed of the slow write and is less than a write speed of the fast write; and the method further comprises: when the historical access type of the to-be-accessed storage area is not a write operation, writing (S 614, S814) the to-be-written data of the first write access request to the to-be-accessed storage area in a form of the normal write, and updating the historical access type of the to-be-accessed storage area. receiving (S602, 802) a first write access request for a to-be-accessed storage area; obtaining (S206, S806) a historical access type of the to-be-accessed storage area, wherein the historical access type is an access type of access to the to-be-accessed storage area before the first write access request; and when (S610, S810) the historical access type of the to-be-accessed storage area is a write operation, writing (S612, S812) to-be-written data of the first write access request to the to-be-accessed storage area in a form of the fast write; wherein the form of the write operation further comprises a normal write, and a write speed of the normal write is greater than a write speed of the slow write and is less than a write speed of the fast write; and the method further comprises: when the historical access type of the to-be-accessed storage area is not a write operation, writing (S 614, S814) the to-be-written data of the first write access request to the to-be-accessed storage area in a form of the normal write, and updating the historical access type of the to-be-accessed storage area.