mhurhangee/patent-ind-claim-en huggingface dataset:
A display apparatus , comprising: a first substrate ; a driving circuit layer positioned on the first substrate , and the driving circuit layer comprising a plurality of thin film transistors in an array; a pixel definition layer disposed on a side of the driving circuit layer away from the first substrate and comprising a plurality of pixel holes in an array, and each pixel hole receiving an organic light emitter , and each of the organic light emitters being connected to one thin film transistor ; a common electrode layer disposed on a side of the pixel definition layer away from the driving circuit layer ; a second substrate disposed closer to a side of the common electrode layer away from the pixel definition layer than a side of the common electrode layer in contact with the pixel definition layer ; and a capping layer disposed between the second substrate and the common electrode layer ; characterized in that : the display apparatus defining a body area and a light transmitting area , and the light transmitting area is at least partially surrounded by the body area , and in the light transmitting area , a plurality of light shielding blocks are disposed between the second substrate and each one of the organic light emitters , and the light shielding blocks are at least partially corresponding to one thin film transistor . a first substrate ; a driving circuit layer positioned on the first substrate , and the driving circuit layer comprising a plurality of thin film transistors in an array; a pixel definition layer disposed on a side of the driving circuit layer away from the first substrate and comprising a plurality of pixel holes in an array, and each pixel hole receiving an organic light emitter , and each of the organic light emitters being connected to one thin film transistor ; a common electrode layer disposed on a side of the pixel definition layer away from the driving circuit layer ; a second substrate disposed closer to a side of the common electrode layer away from the pixel definition layer than a side of the common electrode layer in contact with the pixel definition layer ; and a capping layer disposed between the second substrate and the common electrode layer ; characterized in that : the display apparatus defining a body area and a light transmitting area , and the light transmitting area is at least partially surrounded by the body area , and in the light transmitting area , a plurality of light shielding blocks are disposed between the second substrate and each one of the organic light emitters , and the light shielding blocks are at least partially corresponding to one thin film transistor . the display apparatus defining a body area and a light transmitting area , and the light transmitting area is at least partially surrounded by the body area , and in the light transmitting area , a plurality of light shielding blocks are disposed between the second substrate and each one of the organic light emitters , and the light shielding blocks are at least partially corresponding to one thin film transistor .
An apparatus comprising: an extruder having a plurality of manifolds and a plurality of nozzles , each manifold being configured to store thermoplastic material and each manifold being operatively connected to at least one nozzle in the plurality of nozzles through which thermoplastic material from the manifold can be emitted and no two of the manifolds are operatively connected to a same nozzle; characterized by a faceplate having a plurality of apertures , each aperture in the faceplate being configured to receive thermoplastic material extruded from a nozzle in the plurality of nozzles in a one-to-one correspondence to enable the extruded thermoplastic material to pass through the aperture, wherein the extruder and the faceplate are configured to move relative to an object in more than one direction, and wherein the faceplate and the plurality of nozzles are configured for rotation about an axis perpendicular to the faceplate. an extruder having a plurality of manifolds and a plurality of nozzles , each manifold being configured to store thermoplastic material and each manifold being operatively connected to at least one nozzle in the plurality of nozzles through which thermoplastic material from the manifold can be emitted and no two of the manifolds are operatively connected to a same nozzle; characterized by a faceplate having a plurality of apertures , each aperture in the faceplate being configured to receive thermoplastic material extruded from a nozzle in the plurality of nozzles in a one-to-one correspondence to enable the extruded thermoplastic material to pass through the aperture, wherein the extruder and the faceplate are configured to move relative to an object in more than one direction, and wherein the faceplate and the plurality of nozzles are configured for rotation about an axis perpendicular to the faceplate.
A method for preparing a functionalized polyorganosiloxane comprising: 1) combining starting materials comprising A) a boron - containing Lewis acid, and B) an organosilicon compound having an average, per molecule of at least 1 silicon bonded group of the formula -OR 2 ; wherein each R 2 is an independently selected monovalent hydrocarbon group of 1 to 6 carbon atoms, thereby forming a catalyzed mixture; and thereafter 2) adding the catalyzed mixture into a starting material comprising C) an organohydrogensiloxane having at least 1 silicon bonded hydrogen atom per molecule, thereby preparing a product comprising the functionalized polyorganosiloxane and a by-product comprising HR 2 . 1) combining starting materials comprising A) a boron - containing Lewis acid, and B) an organosilicon compound having an average, per molecule of at least 1 silicon bonded group of the formula -OR 2 ; wherein each R 2 is an independently selected monovalent hydrocarbon group of 1 to 6 carbon atoms, thereby forming a catalyzed mixture; and thereafter 2) adding the catalyzed mixture into a starting material comprising C) an organohydrogensiloxane having at least 1 silicon bonded hydrogen atom per molecule, thereby preparing a product comprising the functionalized polyorganosiloxane and a by-product comprising HR 2 . A) a boron - containing Lewis acid, and B) an organosilicon compound having an average, per molecule of at least 1 silicon bonded group of the formula -OR 2 ; wherein each R 2 is an independently selected monovalent hydrocarbon group of 1 to 6 carbon atoms, thereby forming a catalyzed mixture; and thereafter 2) adding the catalyzed mixture into a starting material comprising C) an organohydrogensiloxane having at least 1 silicon bonded hydrogen atom per molecule, thereby preparing a product comprising the functionalized polyorganosiloxane and a by-product comprising HR 2 .
Vehicle wheel , preferably a structural motor vehicle wheel, said wheel having a cylindrical rim , a hub and a web connecting said hub to said cylindrical rim , the web being provided with a plurality of cutouts (108 1 , 108 2 ), said wheel comprising at least one removable insert provided with a first part , called aerodynamic, arranged in at least one cutout (108 1 ), and comprising at least one aerodynamic blade configured to move the air from one side of said wheel to the other side of said wheel ; at least one, in particular each, perforation (108 1 , 108 2 ) and at least one blade extending, radially, respectively along a first axis (A1) and a second axis (A2) arranged respectively at a first distance (d1) and at a second non-zero distance (d2) from the center (c) of the hub, characterized in that the at least one insert comprises a second part , called shuttering, arranged in one of the openings (108 2 ) and configured to close off said openings (108 2 ), the aerodynamic part of said insert being arranged in another openings (108 1 ), adjacent to said cutout (108 2 ) receiving the closure part .
A method for receiving data by a user equipment, UE, supporting half duplex transmission, in a wireless communication system, the method comprising: receiving a first time division duplex, TDD, uplink-downlink configuration information for a first cell and a second TDD uplink-downlink configuration information for a second cell ; characterised by determining whether a subframe in the first cell is a special subframe and a simultaneous subframe in the second cell is a downlink subframe according to the first and second TDD uplink-downlink configuration information; and determining not to receive at least one of physical downlink shared channel, PDSCH, enhanced physical downlink control channel, EPDCCH, physical multicast channel, PMCH, or positioning reference signal, PRS, in the second cell in the subframe , if the subframe in the first cell is the special subframe , the simultaneous subframe in the second cell is the downlink subframe , and a demodulation of a downlink, DL, grant in the downlink subframe is failed. receiving a first time division duplex, TDD, uplink-downlink configuration information for a first cell and a second TDD uplink-downlink configuration information for a second cell ; characterised by determining whether a subframe in the first cell is a special subframe and a simultaneous subframe in the second cell is a downlink subframe according to the first and second TDD uplink-downlink configuration information; and determining not to receive at least one of physical downlink shared channel, PDSCH, enhanced physical downlink control channel, EPDCCH, physical multicast channel, PMCH, or positioning reference signal, PRS, in the second cell in the subframe , if the subframe in the first cell is the special subframe , the simultaneous subframe in the second cell is the downlink subframe , and a demodulation of a downlink, DL, grant in the downlink subframe is failed.
Conditioned jack for actuating a valve pin (S) of an injector for apparatus for injection molding of plastic materials, comprising a cylinder having at least one thrust chamber delimited on one side by a first bottom and on the other side by a second bottom and within which a piston is movable which is provided with a least one stem sealingly slidable axially through the second bottom for connection to at least said one valve pin (S), a support of the cylinder for securing the jack to the molding apparatus (H), and a flow circuit for a conditioning fluid of the jack , characterised in that said flow circuit is entirely formed within a bushing which constitutes said second bottom , is separable from the cylinder and is provided with inner and outer annular sealing gaskets of respectively the cylinder and the stem .
An apparatus for use in a vehicle to display a side rear view of the vehicle , the apparatus comprising: at least one camera mountable on the vehicle to take an image of a side rear view of the vehicle , the image comprising a first partial image and a second partial image , the first and second partial images divided by a reference line ; at least one display configured to display the side rear view of the vehicle , a screen of the at least one display comprising a first display area for the first partial image to be displayed and a second display area for a third partial image resulting from scaling the second partial image with a scaling factor to be displayed, wherein the scaling factor is variable depending on a width from the reference line to an opposite end of a second vehicle captured in the second partial image ; and a control unit configured to: detect an object of the second vehicle in the second partial image to measure the width from the reference line to the opposite end of the second vehicle to determine the scaling factor based on the measured factor; and scale the second partial image with the scaling factor to produce the third partial image. at least one camera mountable on the vehicle to take an image of a side rear view of the vehicle , the image comprising a first partial image and a second partial image , the first and second partial images divided by a reference line ; at least one display configured to display the side rear view of the vehicle , a screen of the at least one display comprising a first display area for the first partial image to be displayed and a second display area for a third partial image resulting from scaling the second partial image with a scaling factor to be displayed, wherein the scaling factor is variable depending on a width from the reference line to an opposite end of a second vehicle captured in the second partial image ; and a control unit configured to: detect an object of the second vehicle in the second partial image to measure the width from the reference line to the opposite end of the second vehicle to determine the scaling factor based on the measured factor; and scale the second partial image with the scaling factor to produce the third partial image. detect an object of the second vehicle in the second partial image to measure the width from the reference line to the opposite end of the second vehicle to determine the scaling factor based on the measured factor; and scale the second partial image with the scaling factor to produce the third partial image.
An integrated air cap/nozzle (40; 140; 340; 440; 540; 640) for a liquid spray gun, wherein the integrated air cap/nozzle comprises: a cap body comprising: a nozzle body (50; 150; 350; 650) comprising a nozzle aperture , a nozzle outlet end (56; 156; 656) located within the nozzle aperture , and a liquid nozzle opening (52; 152; 352; 652) located within the nozzle outlet end (56; 156; 656) through which liquid exits during operation of the liquid spray gun; and a center air outlet (54; 154; 354; 654) located in a gap defined between the nozzle aperture and the nozzle outlet end (56; 156; 656), through which center air discharges when a liquid is sprayed through the liquid nozzle opening; wherein the liquid nozzle opening and the center air outlet are formed in a front wall (60; 160a, 160b) of the cap body. a cap body comprising: a nozzle body (50; 150; 350; 650) comprising a nozzle aperture , a nozzle outlet end (56; 156; 656) located within the nozzle aperture , and a liquid nozzle opening (52; 152; 352; 652) located within the nozzle outlet end (56; 156; 656) through which liquid exits during operation of the liquid spray gun; and a center air outlet (54; 154; 354; 654) located in a gap defined between the nozzle aperture and the nozzle outlet end (56; 156; 656), through which center air discharges when a liquid is sprayed through the liquid nozzle opening; a nozzle body (50; 150; 350; 650) comprising a nozzle aperture , a nozzle outlet end (56; 156; 656) located within the nozzle aperture , and a liquid nozzle opening (52; 152; 352; 652) located within the nozzle outlet end (56; 156; 656) through which liquid exits during operation of the liquid spray gun; and a center air outlet (54; 154; 354; 654) located in a gap defined between the nozzle aperture and the nozzle outlet end (56; 156; 656), through which center air discharges when a liquid is sprayed through the liquid nozzle opening; wherein the liquid nozzle opening and the center air outlet are formed in a front wall (60; 160a, 160b) of the cap body.
Conveyor roller for an environment loaded with cleaning fluid, such as, for example, spray water and/or jet water, comprising - a roller body with a cavity formed therein, - a first bearing shaft and a second bearing shaft, - a torque transmission element arranged on an outer surface of the roller body, - wherein the torque transmission element is connected to the outer surface of the roller body in an integrally bonded and force-fitting manner; the conveyor roller comprising an electric drive unit which is arranged in the cavity of the roller body and has a stator and a rotor, wherein the rotor and the stator are connected to the roller body and to the first and second bearing shaft in such a manner that a relative rotation between rotor and stator brings about a relative rotation between the roller body, on the one hand, and the first and second bearing shaft, on the other hand, wherein an adhesive is arranged between an inner surface of the torque transmission element and the outer surface of the roller body , characterized in that an outer surface of the torque transmission element is designed with projections and/or depressions. - a roller body with a cavity formed therein, - a first bearing shaft and a second bearing shaft, - a torque transmission element arranged on an outer surface of the roller body, - wherein the torque transmission element is connected to the outer surface of the roller body in an integrally bonded and force-fitting manner;
A molecular sieve blend for dehydration of a gaseous or liquid hydrocarbon feed stream comprising a hydrophilic zeolite, wherein the zeolite has a SiO 2 /Al 2 O 3 ratio of less than 10; a hydrophobic silicon based binder; and a seed, agglomerated with the zeolite and the silicon based binder to form the molecular sieve blend, wherein the seed comprises the zeolite and a clay binder; wherein the seed forms a core or nuclei of the molecular sieve blend; and wherein the amount of the clay binder present in the molecular sieve blend comprises from 0.5% to 5% of the blend by weight, wherein the classification of a silicon based binder as hydrophobic is carried out according to the test as described in Example 4 in the description.
Method for stabilizing a vehicle combination , comprising a towing vehicle and a trailer , wherein, when there is a non-wheel-brake-induced deceleration of the towing vehicle , the trailer is braked by applying a braking pressure (p B ) to the wheels of the trailer and the braking pressure (pa) is applied to the wheels of the unbraked trailer when a deceleration threshold value (S BM , S MR , S M ) is exceeded by a deceleration (BM M , M R ) determined at the towing vehicle and brought about by a motor and/or by a retarder and/or when a bending angle threshold value (S KW ) is exceeded by a determined bending angle (KW) between the towing vehicle and the trailer , characterized in that a time period (tp B ) for which the braking pressure (p B ) is applied to the wheels of the trailer is determined in dependence on a gradient (G F ) of a roadway on which the vehicle combination is moving and/or the determined radius of bend (r).
Mechanism for a piece of seating furniture, in particular synchronizing mechanism for a correlated seat/backrest movement of a piece of seating furniture, in particular an office chair, having a base support which is able to be placed on a chair column , having a seat support and having a backrest support , wherein the backrest support is connected to the seat support in such a way that a pivoting movement of the backrest support from a home position into a rearwardly pivoted position induces a movement of the seat support relative to the base support , wherein a spring mechanism is provided, said spring mechanism having at least one spring element which influences the pivoting resistance of the backrest and of which one end is operatively connected to at least one functional element , wherein the at least one functional element is supported against a supporting device which has both a first supporting element , arranged on the seat support , and a second supporting element , arranged on the base support , wherein at least one of said supporting elements is configured to be adjustable, in particular variable in terms of location and/or position, and wherein the at least one functional element is supported against both supporting elements at the same time, and wherein, by way of the adjustment of the at least one adjustable supporting element , an angle included by supporting surfaces of the two supporting elements is variable, wherein, due to this variation in the angle, when the backrest support is pivoted, the movement of the functional element and thus the functioning of the spring element changes in a manner dependent on said angle.
A method of controlling wireless transmissions in a wireless communication system, the method comprising: an access point (10; 450; 550; 600) contending with at least one further access point (10; 450; 550; 600) for a set of transmission resources; in response to winning contention for the set of transmission resources, the access point (10; 450; 550; 600) sharing at least a subset of the transmission resources with the at least one further access point (10; 450; 550; 600); the access point (10; 450; 550; 600) exchanging information with the at least one further access point (10; 450; 550; 600), the exchanged information comprising information on one or more wireless stations served by the at least one further access point (10; 450; 550; 600) and/or information on one or more wireless stations served by the access point (10; 450; 550; 600); and based on the exchanged information, the access point (10; 450; 550; 600) coordinating wireless transmissions on the shared subset of transmission resources. an access point (10; 450; 550; 600) contending with at least one further access point (10; 450; 550; 600) for a set of transmission resources; in response to winning contention for the set of transmission resources, the access point (10; 450; 550; 600) sharing at least a subset of the transmission resources with the at least one further access point (10; 450; 550; 600); the access point (10; 450; 550; 600) exchanging information with the at least one further access point (10; 450; 550; 600), the exchanged information comprising information on one or more wireless stations served by the at least one further access point (10; 450; 550; 600) and/or information on one or more wireless stations served by the access point (10; 450; 550; 600); and based on the exchanged information, the access point (10; 450; 550; 600) coordinating wireless transmissions on the shared subset of transmission resources.
A self-position estimation method comprising: detecting a relative position of each target existing around a moving body relative to the moving body (S1); estimating a movement amount of the moving body S2); correcting the relative position on a basis of the movement amount of the moving body and accumulating the corrected relative position as target position data (S3); characterised by : detecting a slope amount of a traveling road of the moving body (S4); selecting, from among the accumulated target position data, the target position data of one or more targets in one or more sections having a slope amount less than a threshold value (S8); and collating the selected target position data with map information indicating positions of the targets on a two-dimensional map to estimate a present position of the moving body (S9). detecting a relative position of each target existing around a moving body relative to the moving body (S1); estimating a movement amount of the moving body S2); correcting the relative position on a basis of the movement amount of the moving body and accumulating the corrected relative position as target position data (S3); characterised by : detecting a slope amount of a traveling road of the moving body (S4); selecting, from among the accumulated target position data, the target position data of one or more targets in one or more sections having a slope amount less than a threshold value (S8); and collating the selected target position data with map information indicating positions of the targets on a two-dimensional map to estimate a present position of the moving body (S9). detecting a slope amount of a traveling road of the moving body (S4); selecting, from among the accumulated target position data, the target position data of one or more targets in one or more sections having a slope amount less than a threshold value (S8); and collating the selected target position data with map information indicating positions of the targets on a two-dimensional map to estimate a present position of the moving body (S9).