mhurhangee/patent-ind-claim-en huggingface dataset:
A display device which is controllable by an integrated remote controller , comprising: a storage unit for storing control code sets corresponding to each of a plurality of remote controllers ; a communication unit ; a display and a processor configured to: receive a first remote controller signal from a remote controller capable of controlling an external device through the communication unit ; detect a control code set corresponding to the remote controller from among the stored control code sets based on the received first remote controller signal, and transmit the detected control code set to an integrated remote controller ; characterized in that the processor is further configured to control the display to display location information of the integrated remote controller while transmitting the detected control code set to the integrated remote controller . a storage unit for storing control code sets corresponding to each of a plurality of remote controllers ; a communication unit ; a display and a processor configured to: receive a first remote controller signal from a remote controller capable of controlling an external device through the communication unit ; detect a control code set corresponding to the remote controller from among the stored control code sets based on the received first remote controller signal, and transmit the detected control code set to an integrated remote controller ; receive a first remote controller signal from a remote controller capable of controlling an external device through the communication unit ; detect a control code set corresponding to the remote controller from among the stored control code sets based on the received first remote controller signal, and transmit the detected control code set to an integrated remote controller ; characterized in that the processor is further configured to control the display to display location information of the integrated remote controller while transmitting the detected control code set to the integrated remote controller .
A portable medical device comprising a unit to carry out a medical procedure, a monitoring unit to monitor said medical procedure and a communication unit configured to pair with another device to send data of said monitoring unit, the portable medical device being packaged with passive electronically readable information to enable said another device to carry out said pairing, the portable medical device further including a battery isolator that disconnects a battery from the communication unit, the battery isolator being configured to be displaced upon opening of a packaging containing the portable medical device, thereby activating the portable medical device upon opening of the packaging.
A method of extracting a substance comprising the following steps in the following order, wherein any one or more of the steps described are performed by an automated robotic system : (i) placing a substrate on which a substance has been adsorbed into a container in the form of an extraction basket; (ii) attaching first and second closures to first and second ends of the container respectively in order to seal the substrate with the substance within the container ; (iii) storing the container and maintaining the temperature of the container at a predetermined temperature; (iv) removing the first and second closures to first and second ends of the container and replacing the first and second closures with first and second plungers which first and second plungers are releasably and sealably engageable with the first and second ends of the container respectively; (v) feeding a solvent into the container whilst restricting its exit by means of an electrically-controlled back-pressure regulator to achieve a predetermined pressure of the solvent in the container , wherein the solvent has a critical point and the predetermined pressure is above the critical point of the solvent; (vi) transitioning the solvent into a supercritical fluid within the container by heating to a temperature above its critical point as well pressurising to a pressure above its critical point; (vii) releasing the solvent and an extract comprising extracted substances into a separator ; (viii) reducing the temperature and pressure in the separator to remove a gaseous portion of the solvent from the extract; and (ix) collecting the extract remaining from the separator . (i) placing a substrate on which a substance has been adsorbed into a container in the form of an extraction basket; (ii) attaching first and second closures to first and second ends of the container respectively in order to seal the substrate with the substance within the container ; (iii) storing the container and maintaining the temperature of the container at a predetermined temperature; (iv) removing the first and second closures to first and second ends of the container and replacing the first and second closures with first and second plungers which first and second plungers are releasably and sealably engageable with the first and second ends of the container respectively; (v) feeding a solvent into the container whilst restricting its exit by means of an electrically-controlled back-pressure regulator to achieve a predetermined pressure of the solvent in the container , wherein the solvent has a critical point and the predetermined pressure is above the critical point of the solvent; (vi) transitioning the solvent into a supercritical fluid within the container by heating to a temperature above its critical point as well pressurising to a pressure above its critical point; (vii) releasing the solvent and an extract comprising extracted substances into a separator ; (viii) reducing the temperature and pressure in the separator to remove a gaseous portion of the solvent from the extract; and (ix) collecting the extract remaining from the separator .
A full-width temple device for a loom comprising: a base body (10; 61; 70) comprising a base plate (10a; 61a; 70a) provided over a weaving width near a cloth fell (CF); a cover provided on the base plate; and a temple bar accommodated in a space defined by the base plate and the cover, and configured to hold a woven fabric over a full width thereof by the base plate, the cover and the temple bar, where the temple bar is a ring bar temple (13; 71) constituted by a rod-shaped inner bar and ring temples provided continuously to both sides of the inner bar and having shaft parts (19; 71a) for support at both ends, characterised in that : wherein the base body (10; 61; 70) has support parts (10b; 61b; 70b) at both end portions for supporting the ring bar temple (13; 71) on the shaft parts (19; 71a), and wherein the full-width temple device comprises attachment members (30; 50; 60; 73) each detachably attached to each of the support parts and comprising a plate-shaped shaft fixing part (30; 51) having an engaging part (32; 60b; 73a) formed to engage with a circumferential surface of the shaft part (19; 71a). wherein the base body (10; 61; 70) has support parts (10b; 61b; 70b) at both end portions for supporting the ring bar temple (13; 71) on the shaft parts (19; 71a), and wherein the full-width temple device comprises attachment members (30; 50; 60; 73) each detachably attached to each of the support parts and comprising a plate-shaped shaft fixing part (30; 51) having an engaging part (32; 60b; 73a) formed to engage with a circumferential surface of the shaft part (19; 71a).
A decorative panel mount structure for an air-conditioning apparatus, said mount structure comprising a decorative panel and a mount unit , said mount structure being for mounting said decorative panel on an underside of an air-conditioning apparatus main body which has an opening on the underside by using said mount unit , wherein the decorative panel includes a screw insertion hole , claw engagement holes formed on both sides of the screw insertion hole , wherein the mount unit is for being disposed on the underside of the decorative panel , and includes a decorative panel mount fitting having a screw engagement hole for communicating with the screw insertion hole and a claw for being fitted into the claw engagement hole and a decorative panel mount screw , and is configured to be held by the decorative panel without being dropped off when the claw of the decorative panel mount fitting is fitted into the claw engagement hole of the decorative panel and the decorative panel mount screw is engaged with the screw engagement hole of the decorative panel mount fitting with a head being oriented downward, and the decorative panel is for being mounted on an air-conditioning apparatus main body when the decorative panel mount screw held on the decorative panel by the decorative panel mount fitting is screwed into a screw fastening hole of the air-conditioning apparatus main body via the screw insertion hole of the decorative panel .
A shaped abrasive agglomerate particle comprising shaped abrasive particles bonded in a vitreous matrix , wherein the shaped abrasive particles have a longest particle lineal dimension on a surface and a shortest particle dimension (t) perpendicular to the longest particle lineal dimension , wherein the longest particle lineal dimension is at least twice the shortest particle dimension (t), wherein the shaped abrasive agglomerate particle has a longest agglomerate lineal dimension on a surface (L) and a shortest agglomerate dimension (t) perpendicular to the longest agglomerate lineal dimension (L), and wherein the longest agglomerate lineal dimension (L) is at least twice the shortest agglomerate dimension (t).
A method to produce a fan shroud made of plastic, particularly for vehicle radiators, comprising a base part having at least one opening , and at least one flap pivotally mounted thereon, wherein the fan shroud has at least one pivot bearing with at least two bearing bushings and corresponding bearing pins for the flap , all bearing bushings completely enclose the bearing pins , and the bearing pins are facing away from one another, wherein the whole fan shroud is produced from a base part and flap made of the same plastic injection-molded part, in a mold in an injection-molding process, a vertical position of the flap with respect to the surface of the base part forms a mold parting plane parallel to the surface of the base part , and the pivot bearing of the flap is produced in that sleeve-shaped protrusions of mold slides of the injection mold engage between the bearing pins and bearing bushings , such that the outer surface of the sleeve forms the inner surface of the bearing bushing and the inner surface of the sleeve forms the outer circumference of the bearing pin , characterized in that, upon forming, the flap extends, particularly eccentrically, to on either side of the axis of the pivot bearing , and creates surface regions acting differently on either side with respect to a pivot force exerted against the flap by means of air flow, wherein the flap at least partially overlaps, from opposite directions, the edge of the opening on either side of the pivot bearing axis .
An infrastructure apparatus for a distributed radio access network, RAN, said infrastructure apparatus comprising: a remote radio head, RRH, including: a network interface configured to operatively couple the RRH to one or more other components of the distributed RAN via a fronthaul communication network ; a radiofrequency, RF, transmitter and receiver ; and a user equipment component, RRH-UE, wherein the RRH-UE is physically and functionally integrated into the RRH , the RRH-UE further communicatively coupled to the distributed RAN using a wireless communication protocol supported thereby; wherein the RRH-UE is configured to: obtain timing information indicative of latency between the RRH-UE and one of the other components of the distributed RAN; and provide said timing information to the RRH , wherein the RRH is configured to interpret said timing information as being indicative of latency between the RRH and said one of the other components of the distributed RAN, and further wherein the RRH is configured to adjust timing of transmissions thereof based on said timing information. a remote radio head, RRH, including: a network interface configured to operatively couple the RRH to one or more other components of the distributed RAN via a fronthaul communication network ; a radiofrequency, RF, transmitter and receiver ; and a network interface configured to operatively couple the RRH to one or more other components of the distributed RAN via a fronthaul communication network ; a radiofrequency, RF, transmitter and receiver ; and a user equipment component, RRH-UE, wherein the RRH-UE is physically and functionally integrated into the RRH , the RRH-UE further communicatively coupled to the distributed RAN using a wireless communication protocol supported thereby; wherein the RRH-UE is configured to: obtain timing information indicative of latency between the RRH-UE and one of the other components of the distributed RAN; and provide said timing information to the RRH , obtain timing information indicative of latency between the RRH-UE and one of the other components of the distributed RAN; and provide said timing information to the RRH , wherein the RRH is configured to interpret said timing information as being indicative of latency between the RRH and said one of the other components of the distributed RAN, and further wherein the RRH is configured to adjust timing of transmissions thereof based on said timing information.
Coupling device (DC) for electrically coupling an electrical connection (LE) to an electrically conductive element (EC), said element (EC) being a part of a metal body or a metal structure of a vehicle, characterized in that it comprises i) a first electrically insulating part (P1) having a first surface intended to be placed against said element (EC), a thickness and a dielectric value, and ii) a second electrically conductive part (P2), having a second surface placed at least partly against said first part (P1), and intended to physically contact said electrical connection (LE) and to define with said first part (P1) and said element (EC) a capacitive type assembly having an equivalent capacitance depending on said second surface, said thickness and said dielectric value, said first part (P1) and said second part (P2) are flexible.
An absorbable iron-based alloy stent, comprising an iron-based alloy substrate and a degradable polyester in contact with the surface of the substrate, characterized in that the degradable polyester has a weight average molecular weight in the range of 20,000 to 1,000,000 and a polydispersity index in the range of 1.2 to 30, characterized in that a stent strut thickness of the iron-based alloy substrate is more than or equal to 30 μm and less than 100 μm, and a thickness of the degradable polyester coating is in the range of 3 μm to 35 μm, or in that a stent strut thickness of the iron-based alloy substrate is more than or equal to 100 μm and less than 300 μm, and a thickness of the degradable polyester coating is in the range of 10 μm to 60 μm.
An apparatus comprising: a frame ; a speaker rigidly attached to the frame, where the speaker comprises a display module and two vibrating deformable plate elements attached to a bottom surface of the display module and configured to at least partially bend, when actuated, the display module to generate sound waves; and said two vibrating deformable plate elements attached to a bottom surface of the display module comprise a first substantially rectangular vibrating deformable plate element extending at the bottom of the display surface over a center point of the bottom surface of the display module and a second vibrating deformable plate element ; characterized in that the second vibrating deformable plate element is an L-shaped vibrating deformable plate element where an incomplete corner of the L-shaped vibrating deformable plate element is adapted to face a corner of the first substantially rectangular vibrating deformable plate element extending over the center point of the bottom surface of the display module . a frame ; a speaker rigidly attached to the frame, where the speaker comprises a display module and two vibrating deformable plate elements attached to a bottom surface of the display module and configured to at least partially bend, when actuated, the display module to generate sound waves; and said two vibrating deformable plate elements attached to a bottom surface of the display module comprise a first substantially rectangular vibrating deformable plate element extending at the bottom of the display surface over a center point of the bottom surface of the display module and a second vibrating deformable plate element ; characterized in that the second vibrating deformable plate element is an L-shaped vibrating deformable plate element where an incomplete corner of the L-shaped vibrating deformable plate element is adapted to face a corner of the first substantially rectangular vibrating deformable plate element extending over the center point of the bottom surface of the display module .
An hydraulic single-tube telescopic vibration damper comprising a prestressed gas volume that presses on one of two working chambers , which are filled with a hydraulic medium and lie on either side of a piston that is guided displaceably in a cylinder , via a hydraulic channel and that is provided primarily in order to equalise the volume difference between the working chambers resulting from a displacement of the piston in the cylinder on account of a piston rod penetrating just one of the working chambers , wherein, depending on the direction of movement (D, Z) of the piston , the gas volume is connected with the aid of a valve to the working chamber into which, on account of the piston movement, hydraulic medium flows from the other working chamber through a damper valve provided in at least one damper channel and/or in which the lower hydraulic pressure compared to the other working chamber prevails, characterised in that the aforesaid valve is designed in the form of a single switchover valve that is provided in the hydraulic channel , which is connected only to the two working chambers and not to a damper channel , which switchover valve, in both of its possible switch positions, connects exclusively the working chamber in which the lower hydraulic pressure value prevails to the single provided gas volume in a controlled manner on the basis of the pressure difference in the working chambers .
A rail vehicle , comprising: Bogies , wherein the bogies have a straddle recess suitable for straddling a rail ; and a vehicle body , wherein the vehicle body is connected to the bogies and pulled by the bogies to travel along the rail , and the vehicle body comprises a plurality of compartments hinged sequentially along a length direction of the rail , wherein the vehicle body further comprises an escape port and an escape cover plate , the escape port is disposed on an inner floor of the compartment at the at least one end, and the escape cover plate collaborates with the escape door and can be disposed on the inner floor of the compartment at the at least one end to enable the escape cover plate to open and close the escape port , wherein the escape door can be actively opened, and the escape door drives the escape cover plate to open the escape port ; or the escape cover plate can be actively opened, and the escape cover plate drives the escape door to be opened, wherein an escape ladder leading to an escape passage is disposed in the escape port , and the vehicle body further comprises a stretching/retraction driving device used to drive stretching/retraction of the escape ladder. Bogies , wherein the bogies have a straddle recess suitable for straddling a rail ; and a vehicle body , wherein the vehicle body is connected to the bogies and pulled by the bogies to travel along the rail , and the vehicle body comprises a plurality of compartments hinged sequentially along a length direction of the rail , wherein the vehicle body further comprises an escape port and an escape cover plate , the escape port is disposed on an inner floor of the compartment at the at least one end, and the escape cover plate collaborates with the escape door and can be disposed on the inner floor of the compartment at the at least one end to enable the escape cover plate to open and close the escape port , wherein the escape door can be actively opened, and the escape door drives the escape cover plate to open the escape port ; or the escape cover plate can be actively opened, and the escape cover plate drives the escape door to be opened, wherein an escape ladder leading to an escape passage is disposed in the escape port , and the vehicle body further comprises a stretching/retraction driving device used to drive stretching/retraction of the escape ladder.
A method of encoding a point cloud to generate a bitstream of compressed point cloud data, the point cloud being located within a space recursively split and containing the points of the point cloud, each point having a respective attribute, the method being characterized by : in a top-down coding process with respect to the recursively split space, for a volume containing sub-volumes that contain a plurality of points, determining a predicted geometry-weighted sum of attributes for each occupied sub-volume of the volume based on a prediction operation based on at least a geometry-weighted sum of attributes for the volume; applying a transform to the predicted geometry-weighted sums of attributes to produce predicted coefficients and applying the transform to corresponding original geometry-weighted sums of attributes for the occupied sub-volumes to produce original coefficients, wherein the transform conforms to a DC coefficient property whereby the DC coefficient that results from the transform of a set of geometry-weighted sums of attributes for child volumes is a geometry-weighted sum of attributes for the volume, wherein the geometry-weighted sum of attribute values is defined as A node / w node , where w node is the number of points in a sub-volume at a specific depth and A node is the sum of attribute values in a given node corresponding to the sub-volume at the specific depth; determining a plurality of AC coefficients from the difference between the original coefficients and the predicted coefficients, wherein residual coefficients include one DC coefficient and the plurality of AC coefficients; and encoding the plurality of AC coefficients and, if the volume corresponds to a root node the DC coefficient, to output the bitstream of compressed point cloud data. applying a transform to the predicted geometry-weighted sums of attributes to produce predicted coefficients and applying the transform to corresponding original geometry-weighted sums of attributes for the occupied sub-volumes to produce original coefficients, wherein the transform conforms to a DC coefficient property whereby the DC coefficient that results from the transform of a set of geometry-weighted sums of attributes for child volumes is a geometry-weighted sum of attributes for the volume, wherein the geometry-weighted sum of attribute values is defined as A node / w node , where w node is the number of points in a sub-volume at a specific depth and A node is the sum of attribute values in a given node corresponding to the sub-volume at the specific depth; determining a plurality of AC coefficients from the difference between the original coefficients and the predicted coefficients, wherein residual coefficients include one DC coefficient and the plurality of AC coefficients; and encoding the plurality of AC coefficients and, if the volume corresponds to a root node the DC coefficient, to output the bitstream of compressed point cloud data.