mhurhangee/patent-ind-claim-en huggingface dataset:
A container section comprising a convex external surface , a removable resilient cover for covering said external surface and a retention frame for removably retaining said resilient cover on said external surface , in which said resilient cover comprises a plurality of pairs of adjoining edges (5, 6; 37, 38; 39, 40; 41, 42; 43, 44; 45, 46; 47, 48; 49, 50) which are angularly displaced from one another when said resilient cover is arranged flat, and which are adjacent to one another when said resilient cover assumes a three dimensional shape corresponding to said external surface , in which said retention frame comprises a plurality of guard portions , each one of which overlies one of said pairs of edges (5, 6; 37, 38; 39, 40; 41, 42; 43, 44; 45, 46; 47, 48; 49, 50) when said retention frame retains said resilient cover on said external surface , in which said external surface comprises a panel with a flange portion extending from a periphery thereof, in which said flange portion comprises a plurality of sides , in which disposed between each adjoining side is one of a plurality of first curved portions , in which said resilient cover comprises a central section which substantially corresponds in size and shape with said panel , and a first set of extension portions , each of which extends from said central section and covers a substantial part of one of said plurality of sides of said flange portion , characterized in that said resilient cover comprises a second set of extension portions , each of which extends from said central section and substantially covers one of said plurality of first curved portions , and in which each of said plurality of pairs of adjoining edges (5, 6; 37, 38; 39, 40; 41, 42; 43, 44; 45, 46; 47, 48; 49, 50) of said resilient cover comprises an edge of one of said first set of extension portions and an adjoining edge of one of said second set of extension portions .
A solid-state image sensor that executes photoelectric conversion for a subject image formed through an optical system, comprising: a plurality of pixels disposed in a two-dimensional pattern and each equipped with a photoelectric conversion unit that generates and stores an electrical charge corresponding to incident light, wherein: each pixel is either a first pixel or a second pixel , the first pixel is configured to output a signal obtained through photoelectric conversion executed on a light flux received from an area of an exit pupil of the optical system, which is not offset from a center of the exit pupil, and the second pixel is configured to output a signal obtained through photoelectric conversion executed on a light flux received from an area of the exit pupil of the optical system, which is offset from the center of the exit pupil; wherein the plurality of pixels are divided into a plurality of pixel blocks set in a two-dimensional pattern; the pixel blocks each assume a single color and include m x n pixels disposed in a two-dimensional pattern with m pixels and n pixels among the plurality of pixels set respectively along a columnar direction and along a row direction, assuming that m and n each represent an integer equal or greater than 2; at least one of the pixels in each pixel block is the first pixel; color filters assuming a single color are disposed at first pixels belonging to a common pixel block; and at least one pixel among the m x n pixels in at least one pixel block among the plurality of pixel blocks is the second pixel at which a color filter is disposed, said color filter assuming the same color of the color filter disposed at the first pixel. each pixel is either a first pixel or a second pixel , the first pixel is configured to output a signal obtained through photoelectric conversion executed on a light flux received from an area of an exit pupil of the optical system, which is not offset from a center of the exit pupil, and the second pixel is configured to output a signal obtained through photoelectric conversion executed on a light flux received from an area of the exit pupil of the optical system, which is offset from the center of the exit pupil; wherein the plurality of pixels are divided into a plurality of pixel blocks set in a two-dimensional pattern; the pixel blocks each assume a single color and include m x n pixels disposed in a two-dimensional pattern with m pixels and n pixels among the plurality of pixels set respectively along a columnar direction and along a row direction, assuming that m and n each represent an integer equal or greater than 2; at least one of the pixels in each pixel block is the first pixel; color filters assuming a single color are disposed at first pixels belonging to a common pixel block; and at least one pixel among the m x n pixels in at least one pixel block among the plurality of pixel blocks is the second pixel at which a color filter is disposed, said color filter assuming the same color of the color filter disposed at the first pixel.
A filamentous fungal biomat comprising at least one cell layer, wherein the biomat has a cell density of at least 25 g dry weight/L media and is 1 mm to 30 mm thick, wherein the biomat is produced by a surface fermentation method, comprising growth on the surface of an aqueous media comprising nutrients in dissolved or submerged form.
Slide bearing arrangement comprising a rail and a carriage , wherein the rail has a rail body elongated in a longitudinal direction, on one transverse side of which a cylindrical guide section is provided which is connected to the rail body via a web section of the rail, wherein the carriage has a carriage body in which a cylindrical passage corresponding to the guide section is provided for receiving the guide section , wherein the carriage body has a longitudinal slot connected to the passage and corresponding to the web section for receiving the web section , wherein the inner side of the passage , with which the carriage slidingly contacts the guide section in the longitudinal direction in an operating state of the slide bearing arrangement, is formed by a sliding element made of a sliding material, characterized in that the entire carriage , comprising the carriage body and the sliding element, is manufactured as a one-piece carriage part from plastic, wherein at least the inner side of the passage is formed by a tribopolymer and wherein, in particular, at least 80 % by volume of the carriage part are provided with fiber reinforcement.
A method for producing an active highly phosphorylated recombinant human lysosomal sulfatase enzyme, comprising the steps of: (a) culturing a Chinese Hamster Ovary (CHO)-derived END3 complementation group cell or derivative thereof defective in endosomal acidification; (b) preparing a first mammalian expression vector capable of expressing said active highly phosphorylated recombinant human lysosomal sulfatase enzyme in said END3 complementation group cell or derivative thereof defective in endosomal acidification; (c) preparing a second mammalian expression vector capable of expressing recombinant human sulfatase modifying factor 1 (SUMF1) in said END3 complementation group cell or derivative thereof defective in endosomal acidification; (d) transfecting said END3 complementation group cell or derivative thereof defective in endosomal acidification with said first and second expression vectors; (e) selecting and cloning of a transfectant of said END3 complementation group cell or derivative thereof defective in endosomal acidification that expresses said active highly phosphorylated recombinant human lysosomal sulfatase enzyme; and (f) optimizing a cell culture process method for manufacturing said highly phosphorylated recombinant human lysosomal sulfatase enzyme, wherein the recombinant human lysosomal sulfatase enzyme is selected from the group consisting of arylsulfatase A (ARSA), arylsulfatase B (ARSB), iduronate-2-sulfatase (IDS), sulfamidase/heparin-N-sulfatase (SGSH), N-acetylglucosamine-sulfatase (G6S) and N-acetylgalactosamine-6-sulfatase (GALNS), and wherein the method produces an enzyme having at least 50% conversion of the active site cysteine residue to Cα -formylglycine (FG1y); and has greater than 0.5 bis-phosphorylated oligomannose chains per protein chain. (a) culturing a Chinese Hamster Ovary (CHO)-derived END3 complementation group cell or derivative thereof defective in endosomal acidification; (b) preparing a first mammalian expression vector capable of expressing said active highly phosphorylated recombinant human lysosomal sulfatase enzyme in said END3 complementation group cell or derivative thereof defective in endosomal acidification; (c) preparing a second mammalian expression vector capable of expressing recombinant human sulfatase modifying factor 1 (SUMF1) in said END3 complementation group cell or derivative thereof defective in endosomal acidification; (d) transfecting said END3 complementation group cell or derivative thereof defective in endosomal acidification with said first and second expression vectors; (e) selecting and cloning of a transfectant of said END3 complementation group cell or derivative thereof defective in endosomal acidification that expresses said active highly phosphorylated recombinant human lysosomal sulfatase enzyme; and (f) optimizing a cell culture process method for manufacturing said highly phosphorylated recombinant human lysosomal sulfatase enzyme,
A solar cell module , comprising: a first substrate ; a second substrate opposite to the first substrate; a cell unit disposed between the first substrate and the second substrate; a first thermosetting resin layer disposed between the cell unit and the first substrate; and a second thermosetting resin layer disposed between the cell unit and the second substrate; characterized in that it further comprises: a first thermoplastic resin layer disposed between the cell unit and the first thermosetting resin layer; and a second thermoplastic resin layer disposed between the cell unit and the second thermosetting resin layer. a first substrate ; a second substrate opposite to the first substrate; a cell unit disposed between the first substrate and the second substrate; a first thermosetting resin layer disposed between the cell unit and the first substrate; and a second thermosetting resin layer disposed between the cell unit and the second substrate; characterized in that it further comprises: a first thermoplastic resin layer disposed between the cell unit and the first thermosetting resin layer; and a second thermoplastic resin layer disposed between the cell unit and the second thermosetting resin layer.
Barrel intended to be mounted on a target -launching machine , said barrel comprising at least one tower for storing targets in a stack, said at least one storage tower being delimited at least partially by a rod , characterised in that the rod comprises a first portion and a second portion configured to be mobile relative to the first portion at least in translation along a longitudinal axis of the rod between a position deployed along the storage tower and an at least partially retracted position.
A light emission control device comprising: a light emission controller which controls a light emitter and performs normal control and wake-up control, the normal control being control for causing the light emitter to emit light having a color temperature and luminance according to an instruction of a user, the wake-up control being control for causing the light emitter to emit light at increasing luminance over time to wake up the user who is sleeping, characterized in that maximum luminance of light emitted by the light emitter in the wake-up control is prohibited in the normal control and is greater than maximum luminance of light emitted by the light emitter in the normal control. a light emission controller which controls a light emitter and performs normal control and wake-up control, the normal control being control for causing the light emitter to emit light having a color temperature and luminance according to an instruction of a user, the wake-up control being control for causing the light emitter to emit light at increasing luminance over time to wake up the user who is sleeping, characterized in that maximum luminance of light emitted by the light emitter in the wake-up control is prohibited in the normal control and is greater than maximum luminance of light emitted by the light emitter in the normal control.
Motorised drive device for a home automation installation for closure or solar protection comprising at least: - an electromechanical actuator , the electromechanical actuator comprising an electric motor and a casing , - an electronic control unit , the electronic control unit being capable of setting the electric motor of the electromechanical actuator in operation, the electronic control unit being arranged inside the casing of the actuator and comprising a communication module , - an autonomous power supply device , the autonomous power supply device comprising at least a battery , the electromechanical actuator being electrically connected to the battery , characterised in that - the motorised drive device further comprises a monitoring unit for monitoring a quantity of the power supply to the electromechanical actuator by the battery , - the monitoring unit is independent of the battery and of the electromechanical actuator and external to the battery and to the electromechanical actuator , - the monitoring unit is electrically connected, on the one hand, to the battery and, on the other hand, to the electromechanical actuator , - the monitoring unit comprises a housing , which is separate from a housing of the battery and separate from the casing of the electromechanical actuator , and - the monitoring unit comprises another wireless communication module , the other wireless communication module being configured to communicate with a remote unit . - an electromechanical actuator , the electromechanical actuator comprising an electric motor and a casing , - an electronic control unit , the electronic control unit being capable of setting the electric motor of the electromechanical actuator in operation, the electronic control unit being arranged inside the casing of the actuator and comprising a communication module , - an autonomous power supply device , the autonomous power supply device comprising at least a battery , the electromechanical actuator being electrically connected to the battery , - the motorised drive device further comprises a monitoring unit for monitoring a quantity of the power supply to the electromechanical actuator by the battery , - the monitoring unit is independent of the battery and of the electromechanical actuator and external to the battery and to the electromechanical actuator , - the monitoring unit is electrically connected, on the one hand, to the battery and, on the other hand, to the electromechanical actuator , - the monitoring unit comprises a housing , which is separate from a housing of the battery and separate from the casing of the electromechanical actuator , and - the monitoring unit comprises another wireless communication module , the other wireless communication module being configured to communicate with a remote unit .
A method of communicating between a device and at least one RFID tag (21-26), comprising: transmitting, by the device , a resource allocation request to a cellular network to request an allocation of resources for transmission of a signal to find the at least one RFID tag (21-26); receiving, by the device , an allocation of resources for transmission of the signal to find the at least one RFID tag (21-26), the resources being allocated by the cellular network ; and transmitting, by the device , the signal to find the at least one RFID tag (21-26) using the resources allocated by the cellular network , the signal having a frequency in a frequency band licensed to the cellular network , receiving, by the device , a tag response from the at least one RFID tag (21-26) in response to the signal transmitted by the device , determining a position based on the tag response , including determining a tag position of the at least one RFID tag (21-26) from which the tag response was received by using a tag identifier included in the tag response to query a data base for the tag position of the at least one RFID tag (21-26), and determining the position of the device based on the tag position, wherein the tag response is received in the frequency band licensed to the cellular network . transmitting, by the device , a resource allocation request to a cellular network to request an allocation of resources for transmission of a signal to find the at least one RFID tag (21-26); receiving, by the device , an allocation of resources for transmission of the signal to find the at least one RFID tag (21-26), the resources being allocated by the cellular network ; and transmitting, by the device , the signal to find the at least one RFID tag (21-26) using the resources allocated by the cellular network , the signal having a frequency in a frequency band licensed to the cellular network , receiving, by the device , a tag response from the at least one RFID tag (21-26) in response to the signal transmitted by the device , determining a position based on the tag response , including determining a tag position of the at least one RFID tag (21-26) from which the tag response was received by using a tag identifier included in the tag response to query a data base for the tag position of the at least one RFID tag (21-26), and determining the position of the device based on the tag position, wherein the tag response is received in the frequency band licensed to the cellular network .
Ceiling formwork system comprising - a ceiling formwork comprising at least one formwork element with a frame , - at least one side protector mounted on the ceiling formwork in an end position, and - a mounting rail wherein the side protector comprises the following: a) a railing ; and b) a pivoting frame to which the railing is connected and which is indirectly connected to the frame from the bottom side of the ceiling formwork , wherein the pivoting frame can be pivoted from an installation position about an axis of rotation (A) into the end position in which end position the ceiling formwork is laterally secured by the railing , and the pivoting frame is pivotably connected to the mounting rail about the axis of rotation (A), wherein the mounting rail is connected to the frame , characterized in that the mounting rail has a horizontal alignment or orientation. - a ceiling formwork comprising at least one formwork element with a frame , - at least one side protector mounted on the ceiling formwork in an end position, and - a mounting rail a) a railing ; and b) a pivoting frame to which the railing is connected and which is indirectly connected to the frame from the bottom side of the ceiling formwork , wherein the pivoting frame can be pivoted from an installation position about an axis of rotation (A) into the end position in which end position the ceiling formwork is laterally secured by the railing , and the pivoting frame is pivotably connected to the mounting rail about the axis of rotation (A), wherein the mounting rail is connected to the frame , characterized in that the mounting rail has a horizontal alignment or orientation.
A transmission method of system information, comprising: receiving , by a user equipment (UE), a system message sent by a network side device, wherein the system message comprises part of system information of the network side device and indication information about whether the network side device has on-demand system information; if the indication information indicates that the network side device has the on-demand system information, determining system information of the network-side device other than the part of system information comprised in the system message as the on-demand system information; sending , by the UE, a request message to the network side device, wherein the request message is used to request system information required by the UE, wherein the system information required by the UE is part or all of system information of the determined on-demand system information; and receiving , by the UE, the system information required by the UE in the on-demand system information sent by the network side device. receiving , by a user equipment (UE), a system message sent by a network side device, wherein the system message comprises part of system information of the network side device and indication information about whether the network side device has on-demand system information; if the indication information indicates that the network side device has the on-demand system information, determining system information of the network-side device other than the part of system information comprised in the system message as the on-demand system information; sending , by the UE, a request message to the network side device, wherein the request message is used to request system information required by the UE, wherein the system information required by the UE is part or all of system information of the determined on-demand system information; and receiving , by the UE, the system information required by the UE in the on-demand system information sent by the network side device.
An extra-cardiovascular implantable cardiac device comprising: a high voltage therapy module including: a high voltage capacitor ; a high voltage charging circuit that includes a transformer configured to charge the high voltage capacitor; switching circuitry configured to couple the high voltage capacitor across a pacing load that includes extra-cardiovascular electrodes; and a variable shunt resistance in parallel with the pacing load; and a control module coupled to the high voltage therapy module and configured to: apply an electrical current to enable the switching circuitry; set the variable shunt resistance to a value that keeps the switching circuitry enabled during delivery one or more pacing pulses to the pacing load; and control the high voltage therapy module to generate and deliver the one or more extra-cardiovascular pacing pulses via the extra-cardiovascular electrodes. a high voltage therapy module including: a high voltage capacitor ; a high voltage charging circuit that includes a transformer configured to charge the high voltage capacitor; switching circuitry configured to couple the high voltage capacitor across a pacing load that includes extra-cardiovascular electrodes; and a variable shunt resistance in parallel with the pacing load; and a high voltage capacitor ; a high voltage charging circuit that includes a transformer configured to charge the high voltage capacitor; switching circuitry configured to couple the high voltage capacitor across a pacing load that includes extra-cardiovascular electrodes; and a variable shunt resistance in parallel with the pacing load; and a control module coupled to the high voltage therapy module and configured to: apply an electrical current to enable the switching circuitry; set the variable shunt resistance to a value that keeps the switching circuitry enabled during delivery one or more pacing pulses to the pacing load; and control the high voltage therapy module to generate and deliver the one or more extra-cardiovascular pacing pulses via the extra-cardiovascular electrodes. apply an electrical current to enable the switching circuitry; set the variable shunt resistance to a value that keeps the switching circuitry enabled during delivery one or more pacing pulses to the pacing load; and control the high voltage therapy module to generate and deliver the one or more extra-cardiovascular pacing pulses via the extra-cardiovascular electrodes.