mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the realization of door and window frames made of plastic material, comprising: - at least a step of providing at least a profiled element made of plastic material for the realization of door and window frames; - at least a step of providing at least a reinforcing element made of metal material, said profiled element having at least a containment seat of said reinforcing element ; - at least a step of inserting said reinforcing element inside said containment seat ; - at least a step of fixing said reinforcing element to said profiled element by means of fixing means between at least a portion of the profiled element and at least a portion of the reinforcing element ; wherein said fixing step comprises at least a heating step of said portion of the reinforcing element by means of electromagnetic induction means , said fixing means being adapted to cooperate with at least one of said portion of the profiled element and said heated portion of the reinforcing element for the fixing of said portion of the reinforcing element to said portion of the profiled element ; wherein said heating step comprises a softening step of said portion of the profiled element wherein said heated portion of the reinforcing element is arranged in contact with said portion of the profiled element , said heated portion of the reinforcing element being adapted to yield heat to said portion of the profiled element to obtain said softened portion of the profiled element ; characterized in that : - said fixing means comprise at least a through hole formed on said portion of the reinforcing element ; and - said fixing step comprises at least a pressure step of said softened portion of the profiled element at least partially inside said through hole , said pressure step being subsequent to said softening step. - at least a step of providing at least a profiled element made of plastic material for the realization of door and window frames; - at least a step of providing at least a reinforcing element made of metal material, said profiled element having at least a containment seat of said reinforcing element ; - at least a step of inserting said reinforcing element inside said containment seat ; - at least a step of fixing said reinforcing element to said profiled element by means of fixing means between at least a portion of the profiled element and at least a portion of the reinforcing element ; - said fixing means comprise at least a through hole formed on said portion of the reinforcing element ; and - said fixing step comprises at least a pressure step of said softened portion of the profiled element at least partially inside said through hole , said pressure step being subsequent to said softening step.
A compound of Formula (I): wherein B is a 3-indole - unsubstituted or substituted with -(R 1 ) m ; wherein m is 0, 1, or 2; and each R 1 is independently halogen, -OH, -O-C 1-4 alkyl, or C 1-4 alkyl optionally substituted with one or more halogen or -O-C 1-4 alkyl groups; R 2 is C 1-5 alkyl, unsubstituted or substituted or substituted with one or more halo substituents; R 3 is H or C 1-4 alkyl; A is a thiazole; the bicyclic moiety CD is a pyrazolopyrrolidine, pyrazolopiperidine, isoxazolopiperidine, triazolopiperazine, pyrazolopiperazine, imidazopiperazine, pyridonopiperazine, pyrimidonopiperazine, optionally substituted with one or more halogen or OC 1-4 alkyl, - OH (including its keto form =O), -CN, CF 3 , CHF 2 , CH 2 F, C 1-4 alkyl, C 1-4 branched alkyl, or a pharmaceutically acceptable salt thereof. B is a 3-indole - unsubstituted or substituted with -(R 1 ) m ; wherein m is 0, 1, or 2; and each R 1 is independently halogen, -OH, -O-C 1-4 alkyl, or C 1-4 alkyl optionally substituted with one or more halogen or -O-C 1-4 alkyl groups; R 2 is C 1-5 alkyl, unsubstituted or substituted or substituted with one or more halo substituents; R 3 is H or C 1-4 alkyl; A is a thiazole; the bicyclic moiety CD is a pyrazolopyrrolidine, pyrazolopiperidine, isoxazolopiperidine, triazolopiperazine, pyrazolopiperazine, imidazopiperazine, pyridonopiperazine, pyrimidonopiperazine, optionally substituted with one or more halogen or OC 1-4 alkyl, - OH (including its keto form =O), -CN, CF 3 , CHF 2 , CH 2 F, C 1-4 alkyl, C 1-4 branched alkyl, or a pharmaceutically acceptable salt thereof.
Wheel for a motor vehicle, comprising a rim and a tire mounted thereon and filled with air, wherein a material that adsorbs molecules contained in the air is provided in the interior of the wheel , wherein the material is present as loose bulk material held in a holding means or as pressed material , characterised in that two holding means each extending through 180° or two segments of pressed material each extending through 180° are provided, which are arranged around the rim base and complement each other to form an annular shape.
A laser panel, wherein, the laser panel is used for display; the laser panel comprises multiple independent laser source modules; each set of the laser source modules comprises plural light sources; the plural light sources are all fabricated by inkjet printing; at least two of the plural light sources are capable of emitting light in different colors under same excitation conditions; the each set of the laser source modules comprises RGB three light sources; characterized in that the ink of the inkjet printing comprises luminescent dyes and matrix materials. the laser panel is used for display; the laser panel comprises multiple independent laser source modules; each set of the laser source modules comprises plural light sources; the plural light sources are all fabricated by inkjet printing; at least two of the plural light sources are capable of emitting light in different colors under same excitation conditions; the each set of the laser source modules comprises RGB three light sources;
A cartridge for a slicing food processing machine which disposes stock underneath a food product , wherein said cartridge comprises: a base member ; a stock roller drag brake rotatably attached to the base member ; a nip roller rotatably attached to the base member ; and a chute attached to the base member . a base member ; a stock roller drag brake rotatably attached to the base member ; a nip roller rotatably attached to the base member ; and a chute attached to the base member .
Medico-surgical apparatus adapted for fitting with the machine end of a tracheostomy tube , the apparatus including a housing having both a one-way speaking valve and two HME elements , the housing including a coupling adapted for fitting with the machine end of the tracheostomy tube , a body portion extending transversely of the coupling, an HME element (28 and 29) at opposite ends of the body portion and a cavity aligned with the coupling , characterized in that the speaking valve is angularly displaceably received in the cavity for displacement between a first position where flow through the HME elements is enabled preferentially to flow through the speaking valve and a second position in which flow through the speaking valve is enabled preferentially to flow through the HME elements .
A gas turbine engine (20; 62) comprising: a core engine configured to rotate an output shaft (40; 50), and compress and communicate the airflow from a core flow path (C) into a combustor section for expansion through a turbine section ; and a case comprising: a radially outer ring and a radially inner ring connected by a plurality of circumferentially spaced apart struts and defining an annular flow path therebetween; the radially inner ring including a radial ring flange extending in a radial direction from the radially inner ring ; characterized in a heat shield attached to the radial ring flange , the heat shield comprising a radial heat shield flange extending in a circumferential direction forming a ring, and a plurality of guide pins , the heat shield comprises a plurality of bosses extending from a first axial side of the radial heat shield flange , wherein one or more of the plurality of guide pins extends from a corresponding one or more of the plurality of bosses and each of the plurality of guide pins are located axially downstream of the radial ring flange and on an opposite side of the radial heat shield flange from the radial ring flange , and the heat shield further comprises a conical portion extending radially inward from a radially inner edge of the radial heat shield flange . a core engine configured to rotate an output shaft (40; 50), and compress and communicate the airflow from a core flow path (C) into a combustor section for expansion through a turbine section ; and a case comprising: a radially outer ring and a radially inner ring connected by a plurality of circumferentially spaced apart struts and defining an annular flow path therebetween; the radially inner ring including a radial ring flange extending in a radial direction from the radially inner ring ; characterized in a heat shield attached to the radial ring flange , the heat shield comprising a radial heat shield flange extending in a circumferential direction forming a ring, and a plurality of guide pins , a radially outer ring and a radially inner ring connected by a plurality of circumferentially spaced apart struts and defining an annular flow path therebetween; the radially inner ring including a radial ring flange extending in a radial direction from the radially inner ring ; characterized in a heat shield attached to the radial ring flange , the heat shield comprising a radial heat shield flange extending in a circumferential direction forming a ring, and a plurality of guide pins , the heat shield comprises a plurality of bosses extending from a first axial side of the radial heat shield flange , wherein one or more of the plurality of guide pins extends from a corresponding one or more of the plurality of bosses and each of the plurality of guide pins are located axially downstream of the radial ring flange and on an opposite side of the radial heat shield flange from the radial ring flange , and the heat shield further comprises a conical portion extending radially inward from a radially inner edge of the radial heat shield flange .
A method performed by a wireless device , the method comprising: receiving a first key configured to decode positioning integrity assistance information; receiving encrypted positioning integrity assistance information; decrypting the encrypted positioning integrity assistance information using the key; and performing positioning measurements using the decrypted positioning integrity assistance information, wherein performing positioning measurements includes: determining an estimated position of the wireless device; and estimating an integrity level associated with the estimated position in accordance with the positioning integrity assistance information. receiving a first key configured to decode positioning integrity assistance information; receiving encrypted positioning integrity assistance information; decrypting the encrypted positioning integrity assistance information using the key; and performing positioning measurements using the decrypted positioning integrity assistance information, wherein performing positioning measurements includes: determining an estimated position of the wireless device; and estimating an integrity level associated with the estimated position in accordance with the positioning integrity assistance information. determining an estimated position of the wireless device; and estimating an integrity level associated with the estimated position in accordance with the positioning integrity assistance information.
A photosensitive force sensor comprising: a force sensing device configured to be disposed on a surface of a substrate , wherein the force sensing device is photosensitive; a housing configured to be disposed on at least a portion of the surface of the substrate , wherein the housing is configured to enclose the force sensing device , and wherein the housing defines an aperture configured to provide a coupling interface ; and an actuator configured to be disposed partially within the housing and partially within the aperture , wherein the actuator is (a) in mechanical contact with the force sensing device , (b) a rigid body, and the actuator is (c) configured to provide a light path from a light source external to the housing to the force sensing device . a force sensing device configured to be disposed on a surface of a substrate , wherein the force sensing device is photosensitive; a housing configured to be disposed on at least a portion of the surface of the substrate , wherein the housing is configured to enclose the force sensing device , and wherein the housing defines an aperture configured to provide a coupling interface ; and an actuator configured to be disposed partially within the housing and partially within the aperture , wherein the actuator is (a) in mechanical contact with the force sensing device , (b) a rigid body, and the actuator is (c) configured to provide a light path from a light source external to the housing to the force sensing device .
A bottle closure assembly for use in the efficient production of sparkling wines comprising: (i) a stopper for sealing engagement within the finish and/or neck portion(s) of a bottle ; (ii) a passage within said stopper extending longitudinally from a wine-side opening at one end thereof; and (iii) a valve member located within said passage ; wherein the valve member is selectively gravity-responsive thus allowing passage of liquid and/or solid and/or gaseous materials to be permitted or prevented dependent upon the orientation of the bottle closure assembly , wherein the passage comprises an enlarged chamber , and wherein the valve member is eccentrically weighted and is rotatable under gravity relative to the enlarged chamber . (i) a stopper for sealing engagement within the finish and/or neck portion(s) of a bottle ; (ii) a passage within said stopper extending longitudinally from a wine-side opening at one end thereof; and (iii) a valve member located within said passage ; wherein the valve member is selectively gravity-responsive thus allowing passage of liquid and/or solid and/or gaseous materials to be permitted or prevented dependent upon the orientation of the bottle closure assembly , wherein the passage comprises an enlarged chamber , and wherein the valve member is eccentrically weighted and is rotatable under gravity relative to the enlarged chamber .
Probe card for a testing apparatus of electronic devices comprising at least one probe head which houses a plurality of contact probes , each contact probe having at least one contact tip suitable to abut against contact pads of a device to be tested, characterized in comprising a supporting plate associated with a stiffener via an interface plate , with clearance between said supporting plate and said interface plate , further comprising a plurality of first connecting elements connecting said supporting plate and said interface plate , said first connecting elements being housed in a floating manner in a plurality of respective seats made in said supporting plate , and a plurality of second connecting elements connecting said interface plate and said stiffener and connecting said probe head and said stiffener , wherein there is no clearance between said interface plate and said stiffener and between said probe head and said stiffener .
A power relay assembly comprising: a support plate having at least one electrical element mounted on one surface thereof and including a plastic material having a heat dissipation property and an insulation property; at least one bus bar electrically connected to the electrical element; characterized by comprising an electromagnetic wave shielding unit configured to shield electromagnetic waves generated from the electrical element, and in that the at least one bus bar including at least one portion buried inside the support plate, wherein said at least one portion is formed to contact the plastic material having a heat dissipation property and an insulation property, wherein the electromagnetic wave shielding unit is buried inside the support plate and is arranged to be spaced apart from said at least one portion of the bus bar by a predetermined distance (d), and is formed of a metal material having thermal conductivity. a support plate having at least one electrical element mounted on one surface thereof and including a plastic material having a heat dissipation property and an insulation property; at least one bus bar electrically connected to the electrical element; characterized by comprising an electromagnetic wave shielding unit configured to shield electromagnetic waves generated from the electrical element, and in that the at least one bus bar including at least one portion buried inside the support plate, wherein said at least one portion is formed to contact the plastic material having a heat dissipation property and an insulation property, wherein the electromagnetic wave shielding unit is buried inside the support plate and is arranged to be spaced apart from said at least one portion of the bus bar by a predetermined distance (d), and is formed of a metal material having thermal conductivity.
A hearing device comprising: - a first microphone for provision of a first microphone input signal ; - a sound impulse suppression module configured for detecting a sound impulse in the first microphone input signal; - a processor for processing the first microphone input signal in a processing set of frequency bands to obtain an electrical output signal ; and - a receiver for converting the electrical output signal to an audio output signal, wherein the sound impulse suppression module is configured to apply a detection scheme on the first microphone input signal , wherein the detection scheme defines a detection set of frequency bands, wherein the frequency bands of the detection set cover a part of the frequency bands of the processing set, and wherein a sound impulse is detected based on the detection set of frequency bands. - a first microphone for provision of a first microphone input signal ; - a sound impulse suppression module configured for detecting a sound impulse in the first microphone input signal; - a processor for processing the first microphone input signal in a processing set of frequency bands to obtain an electrical output signal ; and - a receiver for converting the electrical output signal to an audio output signal, wherein the sound impulse suppression module is configured to apply a detection scheme on the first microphone input signal , wherein the detection scheme defines a detection set of frequency bands, wherein the frequency bands of the detection set cover a part of the frequency bands of the processing set, and wherein a sound impulse is detected based on the detection set of frequency bands.
A method of wireless communication at a communication device, comprising: detecting that a user equipment, UE, is to use multiple subframes to send uplink control information, and sending an indication of the detection that the UE is to use the multiple subframes to send the uplink control information; receiving systematic bits associated with acknowledgement information in each of multiple downlink-centric self-contained subframes to enable immediate hybrid automatic repeat request, HARQ, scheduling; receiving parity bits associated with the acknowledgement information in an uplink-centric self-contained subframe that is sequentially subsequent to the multiple downlink-centric self-contained subframes; processing the received systematic bits jointly with the received parity bits to decode the systematic bits. detecting that a user equipment, UE, is to use multiple subframes to send uplink control information, and sending an indication of the detection that the UE is to use the multiple subframes to send the uplink control information; receiving systematic bits associated with acknowledgement information in each of multiple downlink-centric self-contained subframes to enable immediate hybrid automatic repeat request, HARQ, scheduling; receiving parity bits associated with the acknowledgement information in an uplink-centric self-contained subframe that is sequentially subsequent to the multiple downlink-centric self-contained subframes; processing the received systematic bits jointly with the received parity bits to decode the systematic bits.
Method for operating a lift-tilt apparatus for a waste collection vehicle, comprising the following steps: • monitoring a space in front of the container receiving means of a lift-tilt apparatus by means of at least one sensor device , • detecting a waste container in the space in front of the container receiving means , characterized in that the method also comprises the following step: • establishing a standby state of at least one hydraulic pump for operating the lift-tilt apparatus , before the waste container is provided in front of the container receiving means. • monitoring a space in front of the container receiving means of a lift-tilt apparatus by means of at least one sensor device , • detecting a waste container in the space in front of the container receiving means , • establishing a standby state of at least one hydraulic pump for operating the lift-tilt apparatus , before the waste container is provided in front of the container receiving means.
A computer system configured to perform adaptive radiotherapy treatment planning, the computer system comprising: a processor and a non-transitory computer-readable medium having stored thereon instructions that, when executed by the processor, cause the processor to perform the functions of: obtaining treatment image data associated with a first imaging modality, wherein the treatment image data is acquired during a treatment phase of a patient; obtaining planning image data associated with a second imaging modality, wherein the planning image data is acquired prior to the treatment phase to generate a treatment plan for the patient; determining whether a difference between the treatment image data and the planning image data exceeds a threshold; in response to determination that the difference exceeds the threshold, transforming the treatment image data associated with the first imaging modality to generate transformed image data associated with the second imaging modality; and processing, using a first deep learning engine, the transformed image data to generate output data for updating the treatment plan; otherwise, processing, using a second deep learning engine, the treatment image data and the planning image data to generate output data for updating the treatment plan. obtaining treatment image data associated with a first imaging modality, wherein the treatment image data is acquired during a treatment phase of a patient; obtaining planning image data associated with a second imaging modality, wherein the planning image data is acquired prior to the treatment phase to generate a treatment plan for the patient; determining whether a difference between the treatment image data and the planning image data exceeds a threshold; in response to determination that the difference exceeds the threshold, transforming the treatment image data associated with the first imaging modality to generate transformed image data associated with the second imaging modality; and processing, using a first deep learning engine, the transformed image data to generate output data for updating the treatment plan; transforming the treatment image data associated with the first imaging modality to generate transformed image data associated with the second imaging modality; and processing, using a first deep learning engine, the transformed image data to generate output data for updating the treatment plan; otherwise, processing, using a second deep learning engine, the treatment image data and the planning image data to generate output data for updating the treatment plan.