mhurhangee/patent-ind-claim-en huggingface dataset:
A rotary compressor comprising: a casing ; a plurality of bearings provided in an internal space of the casing; at least one cylinder that is provided between the bearings to form a compression space and has a vane slot ; a rolling piston that is accommodated in the compression space to perform an orbiting movement; at least one vane that is slidably inserted into the vane slot of the cylinder and, along with the rolling piston , separates the compression space into a suction chamber and a discharge chamber (Vd); a discharge cover that covers a noise reducing space to accommodate refrigerant discharged from the compression space; and a bypass flow path that allows the noise reducing space of the discharge cover to be connected to a gap between a sidewall of the vane slot and a side of the vane facing the sidewall, so that the refrigerant discharged to the noise reducing space is supplied to the side of the vane, wherein at least one of the bearings has a discharge port for connecting the discharge chamber (Vd) and the noise reducing space , characterized in that one end of the bypass flow path is accommodated in the noise reducing space , and the other end thereof is formed to pass through the sidewall of the vane slot , and the bypass flow path is formed to sequentially pass through the bearing having the discharge port and the cylinder facing the bearing. a casing ; a plurality of bearings provided in an internal space of the casing; at least one cylinder that is provided between the bearings to form a compression space and has a vane slot ; a rolling piston that is accommodated in the compression space to perform an orbiting movement; at least one vane that is slidably inserted into the vane slot of the cylinder and, along with the rolling piston , separates the compression space into a suction chamber and a discharge chamber (Vd); a discharge cover that covers a noise reducing space to accommodate refrigerant discharged from the compression space; and a bypass flow path that allows the noise reducing space of the discharge cover to be connected to a gap between a sidewall of the vane slot and a side of the vane facing the sidewall, so that the refrigerant discharged to the noise reducing space is supplied to the side of the vane, wherein at least one of the bearings has a discharge port for connecting the discharge chamber (Vd) and the noise reducing space , characterized in that one end of the bypass flow path is accommodated in the noise reducing space , and the other end thereof is formed to pass through the sidewall of the vane slot , and the bypass flow path is formed to sequentially pass through the bearing having the discharge port and the cylinder facing the bearing.
A display device comprising: a display area, DA, having a plurality of sub-pixels, PX; a plurality of pad electrodes in a peripheral area outside the display area; a first organic insulating layer comprising an opening overlapping the plurality of pad electrodes ; and an integrated circuit overlapping the plurality of pad electrodes , and bonded and electrically connected to the plurality of pad electrodes , wherein an edge (211E1-211E4) of the first organic insulating layer defining the opening is outside the integrated circuit to be spaced apart from an edge (40E1-40E4) defining the integrated circuit , characterised in that a distance (d1-d4) between the edge (211E1-211E4) of the first organic insulating layer defining the opening and the edge (40E1-40E4) of the integrated circuit is 40 micrometres, μm, or more. a display area, DA, having a plurality of sub-pixels, PX; a plurality of pad electrodes in a peripheral area outside the display area; a first organic insulating layer comprising an opening overlapping the plurality of pad electrodes ; and an integrated circuit overlapping the plurality of pad electrodes , and bonded and electrically connected to the plurality of pad electrodes , wherein an edge (211E1-211E4) of the first organic insulating layer defining the opening is outside the integrated circuit to be spaced apart from an edge (40E1-40E4) defining the integrated circuit , characterised in that a distance (d1-d4) between the edge (211E1-211E4) of the first organic insulating layer defining the opening and the edge (40E1-40E4) of the integrated circuit is 40 micrometres, μm, or more.
A method for forming optical fiber, characterized in that , the method comprises: melting a fiber preform at 2000 degrees Celsius and above, and drawing the fiber preform into a filament; cooling the filament to 45 to 55 degrees Celsius; coating an acrylic resin having a viscosity of 2000 to 5000cps on the cooled filament, which is solidified by ultraviolet to obtain a primary coated filament; coating an organic silicone resin having a viscosity of 3000 to 8000cps on the primary coated filament, which is solidified by ultraviolet to obtain the optical fiber. melting a fiber preform at 2000 degrees Celsius and above, and drawing the fiber preform into a filament; cooling the filament to 45 to 55 degrees Celsius; coating an acrylic resin having a viscosity of 2000 to 5000cps on the cooled filament, which is solidified by ultraviolet to obtain a primary coated filament; coating an organic silicone resin having a viscosity of 3000 to 8000cps on the primary coated filament, which is solidified by ultraviolet to obtain the optical fiber.
A method comprising: receiving, by a plurality of devices connected to one or more loops and controlled by a loop controller, a first command sent by the loop controller to activate a first isolator of a first device included in the devices; measuring, by the devices, a first set of applied voltages at each of the devices when the first isolator is activated; communicating, by the devices, first status regarding the measured first set of applied voltages to the loop controller, receiving, by the devices, a second command sent by the loop controller to activate a second isolator of a second device included in the devices; measuring, by the devices, a second set of applied voltages at each of the devices when the second isolator is activated; and communicating, by the devices, second status regarding the measured second set of applied voltages to the loop controller. receiving, by a plurality of devices connected to one or more loops and controlled by a loop controller, a first command sent by the loop controller to activate a first isolator of a first device included in the devices; measuring, by the devices, a first set of applied voltages at each of the devices when the first isolator is activated; communicating, by the devices, first status regarding the measured first set of applied voltages to the loop controller, receiving, by the devices, a second command sent by the loop controller to activate a second isolator of a second device included in the devices; measuring, by the devices, a second set of applied voltages at each of the devices when the second isolator is activated; and communicating, by the devices, second status regarding the measured second set of applied voltages to the loop controller.
Analog-to-digital converter comprising a sigma-delta modulator and a sample-time-counter , both controlled by a sample clock , a next-sample-time computation unit configured to compute a sample-time-counter value indicating the sample time when a next digital output sample is requested, a sample-computation-trigger unit connected to the sample-time-counter and to the next-sample-time computation unit configured to compare an instantaneous sample-time-counter value with the sample-time-counter value provided by the next-sample-time computation unit and to trigger a computation unit for calculating and outputting a next digital sample when the instantaneous sample-time-counter value and the sample-time-counter value provided by the next-sample-time computation unit matches, whereas the computation unit comprises a sample buffer configured to store digital output values of the sigma-delta modulator under control of the sample time counter and an output-compute-counter unit configured to address corresponding related indices from a filter coefficient memory and the sample buffer , and an output-sample accumulator , whereas the output-compute-counter unit and output-sample accumulator are triggered if the instantaneous sample-time-counter value and the sample-time-counter value computed by the next-sample-time computation unit match, whereas the output-sample accumulator is configured to compute digital output samples as weighted sums accumulated over a range of samples of the sigma-delta modulator read from the buffer as digital output values and multiplied with respective filter coefficients read sample by sample from the filter coefficient memory .
Transmission arrangement, in particular for a propulsion drive , with a hydrostatic transmission with two hydraulic machines which are arranged in a hydraulic circuit, and with a manual transmission which is coupled in series with the said hydrostatic transmission , with at least two changeable transmission stages , via which an input shaft of the manual transmission can be brought into a stepped-up rotary connection with its output shaft , a hydraulically actuable coupling device being provided for changing the transmission stages , the transmission arrangement being configured in such a way that the coupling device can be fixed in a neutral position (N), in which the stepped-up rotary connection is released, characterized in that the transmission arrangement has a latching means for mechanical fixing, which latching means additionally assists the fixing in the neutral position (N).
A carbon nanotube having (a) an La value of less than 7.0 nm when measured by XRD; (b) a specific surface area of 100 m 2 /g to 196 m 2 /g; (c) a B-A value of 0.70 nm or greater, wherein A is an La value (unit: nm) measured by XRD before graphitization treatment of the carbon nanotube at 2500°C, and B is an La value (unit: nm) measured by XRD after the graphitization treatment; and (d) a D-C value of 0.18 nm or less, wherein C is an Lc value (unit: nm) measured by XRD before graphitization treatment of the carbon nanotube at 2500°C, and D is an Lc value (unit: nm) measured by XRD after the graphitization treatment. (a) an La value of less than 7.0 nm when measured by XRD; (b) a specific surface area of 100 m 2 /g to 196 m 2 /g; (c) a B-A value of 0.70 nm or greater, wherein A is an La value (unit: nm) measured by XRD before graphitization treatment of the carbon nanotube at 2500°C, and B is an La value (unit: nm) measured by XRD after the graphitization treatment; and (d) a D-C value of 0.18 nm or less, wherein C is an Lc value (unit: nm) measured by XRD before graphitization treatment of the carbon nanotube at 2500°C, and D is an Lc value (unit: nm) measured by XRD after the graphitization treatment.
A formulation comprising a cochleate, wherein the cochleate comprises an aminoglycoside antibiotic, for use in a method of treating a subject with a Mycobacteria lung disease, the method comprising orally administering to the subject a therapeutically effective amount of the formulation, and wherein bacterial load in the subject is reduced by at least 90% following treatment.
Heat exchanger comprising: - an exchange bundle ; - a bundle shell substantially defining a hollow parallelepiped, one face of which is open so that the four adjacent faces (32a-32d) form an end edge bordered on the outer surface of the shell by a coupling boundary allowing a collector flange to be accommodated that comprises a portion of generally cylindrical shape, the inner surface of which matches that of the coupling boundary, and has rounded corners, the bundle shell being produced at least as two shell parts (34a-34d); characterized in that the coupling boundary has rounded corners , with the shell parts (34a-34d) being arranged so that, in the vicinity of the coupling boundary , the outer surface of one part substantially extends the outer surface of the other part, the surfaces of the two parts being at the same level in the vicinity of the connection between two shell parts. - an exchange bundle ; - a bundle shell substantially defining a hollow parallelepiped, one face of which is open so that the four adjacent faces (32a-32d) form an end edge bordered on the outer surface of the shell by a coupling boundary allowing a collector flange to be accommodated that comprises a portion of generally cylindrical shape, the inner surface of which matches that of the coupling boundary, and has rounded corners, the bundle shell being produced at least as two shell parts (34a-34d);
Boom working device for attachment to a carrier vehicle , with - at least one boom , the rear end of which can be attached to the carrier vehicle , - an arm end as front end of the boom , - a working head , which is attached to the arm end with its head end facing the arm end , - a load measuring unit with at least one load sensor for detecting the loads acting on the boom , - wherein the load measuring unit is arranged on or in the boom , and - wherein the arm end is pivotable relative to a remainder of the boom , by means of a Z-joint about a Z-axis (Z), characterized in that - the load measuring unit is arranged on or in the remainder of the boom behind the Z-joint , i.e. on the side of the Z-joint facing away from the working head , and - at least one recognition sensor for detecting the fixed working head , at least regarding its type, is arranged on or in the boom . - at least one boom , the rear end of which can be attached to the carrier vehicle , - an arm end as front end of the boom , - a working head , which is attached to the arm end with its head end facing the arm end , - a load measuring unit with at least one load sensor for detecting the loads acting on the boom , - wherein the load measuring unit is arranged on or in the boom , and - wherein the arm end is pivotable relative to a remainder of the boom , by means of a Z-joint about a Z-axis (Z), characterized in that - the load measuring unit is arranged on or in the remainder of the boom behind the Z-joint , i.e. on the side of the Z-joint facing away from the working head , and - at least one recognition sensor for detecting the fixed working head , at least regarding its type, is arranged on or in the boom .
System for processing documents of value, in particular banknotes, having - a processing device that is configured to process documents of value at a specifiable processing rate (R), in particular to separate, transport and/or check them, and to feed them to in each case one of at least two banding devices , in particular based on at least one sorting criterion, - at least two banding devices that are configured to provide at least one stack, which is formed by the documents of value each fed to a banding device , with a banding (B), wherein the banding devices are characterized by a respective maximum banding rate (Blmax - B4max) that indicates the maximum number of documents of value that are able to be banded in the respective banding device per unit of time, characterized by a control device for specifying the processing rate (R) based on i) the maximum banding rates (Blmax - B4max) of the banding devices and ii) at least one frequency parameter (h1 - h4) that characterizes a statistical frequency to be expected or assumed, in particular on the basis of the at least one sorting criterion, with which the documents of value processed by the processing device are distributed to the banding devices . - a processing device that is configured to process documents of value at a specifiable processing rate (R), in particular to separate, transport and/or check them, and to feed them to in each case one of at least two banding devices , in particular based on at least one sorting criterion, - at least two banding devices that are configured to provide at least one stack, which is formed by the documents of value each fed to a banding device , with a banding (B), wherein the banding devices are characterized by a respective maximum banding rate (Blmax - B4max) that indicates the maximum number of documents of value that are able to be banded in the respective banding device per unit of time, characterized by a control device for specifying the processing rate (R) based on i) the maximum banding rates (Blmax - B4max) of the banding devices and ii) at least one frequency parameter (h1 - h4) that characterizes a statistical frequency to be expected or assumed, in particular on the basis of the at least one sorting criterion, with which the documents of value processed by the processing device are distributed to the banding devices .
A splice enclosure assembly comprising: a base defining an interior and at least one cable port leading to the interior of the base ; a tray manager disposed within the interior of the base ; a plurality of splice trays pivotally coupled to the tray manager about parallel pivot axes (PS); and a loop storage tray disposed within the interior over the splice trays , the loop storage tray having a first side and an opposite second side , when a tray body of the loop storage tray is mounted to the tray manager in a closed position, the first side faces away from the splice trays and the second side faces towards the splice trays , the first side of the loop storage tray defining a cable storage channel arrangement for cable slack storage, the cable storage channel arrangement defining a round-about pathway for storing excess length of optical fibers and a pathway for a looped section of the optical fibers, the loop storage tray being pivotally coupled to the tray manager about a storage pivot axis (P1) that is not parallel to the pivot axes (PS) of the splice trays . a base defining an interior and at least one cable port leading to the interior of the base ; a tray manager disposed within the interior of the base ; a plurality of splice trays pivotally coupled to the tray manager about parallel pivot axes (PS); and a loop storage tray disposed within the interior over the splice trays , the loop storage tray having a first side and an opposite second side , when a tray body of the loop storage tray is mounted to the tray manager in a closed position, the first side faces away from the splice trays and the second side faces towards the splice trays , the first side of the loop storage tray defining a cable storage channel arrangement for cable slack storage, the cable storage channel arrangement defining a round-about pathway for storing excess length of optical fibers and a pathway for a looped section of the optical fibers, the loop storage tray being pivotally coupled to the tray manager about a storage pivot axis (P1) that is not parallel to the pivot axes (PS) of the splice trays .
Method for manufacturing a piece for power-assisted bicycle frame equipped with a motive power unit including a bottom-bracket spindle, the piece having a first side and a second side opposite the first side , the piece being a first part of said frame , and which comprises: • a first passage provided to be passed through by a saddle tube, • a second passage provided to be passed through by a directing tube, • an interface part with the motive power unit , and • a first cavity open on at least one of the sides of the piece and provided to receive at least partially a battery to power the motive power unit ; characterized in that the manufacturing method is a metal injection molding method , and in that the piece is one-piece molded and has a wall part having a thickness of less than 4 mm. • a first passage provided to be passed through by a saddle tube, • a second passage provided to be passed through by a directing tube, • an interface part with the motive power unit , and • a first cavity open on at least one of the sides of the piece and provided to receive at least partially a battery to power the motive power unit ;
An axial flow regulator (50; 100), comprising: a valve body (52; 104) comprising an inlet flange (54; 114), an inlet cover (56; 116), an outlet cover (58; 118) attached to the inlet cover (56; 116), and an outlet flange (60; 120), the valve body (52; 104) defining a fluid flow path along an axis (62; 108) therethrough from an inlet in the inlet flange (54; 114) to an outlet in the outlet flange (60; 120); a valve trim disposed in an operative position along the fluid flow path inside the valve body (52; 104), the valve trim configured to control the flow of fluid along the fluid flow path; a flexible diaphragm (28; 124) clamped between the inlet cover (56; 116) and the outlet cover (58; 118) so as to form an in-line actuator disposed transverse to the axis ; characterized in that the axial flow regulator further comprises a lateral access port (68; 102) extending through a portion of the valve body (52; 104), wherein the lateral access port (68; 102) allows access to portions of the valve trim laterally through the valve body (52; 104), and wherein portions of the valve trim can be removed from or inserted into the valve body (52; 104) through the lateral access port (68; 102). a valve body (52; 104) comprising an inlet flange (54; 114), an inlet cover (56; 116), an outlet cover (58; 118) attached to the inlet cover (56; 116), and an outlet flange (60; 120), the valve body (52; 104) defining a fluid flow path along an axis (62; 108) therethrough from an inlet in the inlet flange (54; 114) to an outlet in the outlet flange (60; 120); a valve trim disposed in an operative position along the fluid flow path inside the valve body (52; 104), the valve trim configured to control the flow of fluid along the fluid flow path; a flexible diaphragm (28; 124) clamped between the inlet cover (56; 116) and the outlet cover (58; 118) so as to form an in-line actuator disposed transverse to the axis ; characterized in that the axial flow regulator further comprises a lateral access port (68; 102) extending through a portion of the valve body (52; 104), wherein the lateral access port (68; 102) allows access to portions of the valve trim laterally through the valve body (52; 104), and wherein portions of the valve trim can be removed from or inserted into the valve body (52; 104) through the lateral access port (68; 102).