mhurhangee/ep-ind-claims huggingface dataset:
A universal liner assembly for use with a shell having an inner surface, comprising: a liner component having an outer surface; and a band (20, 120, 220, 320) integrally formed around a portion of the outer surface of the liner component such that, in use, the band is adapted to interface with the inner surface of the shell and lock the liner component within the shell, regardless of the material of the liner component, further characterized in that the band comprises axial locking features in the form of asperities that engage the inner surface of the shell in use, and wherein the asperities comprise cheese grater type teeth. a liner component having an outer surface; and a band (20, 120, 220, 320) integrally formed around a portion of the outer surface of the liner component such that, in use, the band is adapted to interface with the inner surface of the shell and lock the liner component within the shell, regardless of the material of the liner component, further characterized in that the band comprises axial locking features in the form of asperities that engage the inner surface of the shell in use, and wherein the asperities comprise cheese grater type teeth.
A composition, consisting of: 16 to 50 weight percent cobalt; 20 to 35 weight percent nickel; 15 to 25 weight percent chromium; 7 to 15 weight percent aluminum; 0.1 to 1 weight percent yttrium; 0.2 to 1 weight percent hafnium; 0.5 to 1 weight percent gadolinium; and 0.5 to 4 weight percent silicon; wherein the weight percentages are based on the total weight of the composition. 16 to 50 weight percent cobalt; 20 to 35 weight percent nickel; 15 to 25 weight percent chromium; 7 to 15 weight percent aluminum; 0.1 to 1 weight percent yttrium; 0.2 to 1 weight percent hafnium; 0.5 to 1 weight percent gadolinium; and 0.5 to 4 weight percent silicon;
Aircraft (10; 100), comprising a fuselage (12; 112; 212), at least one pair of wings (14; 114a, 114b) and a battery assembly for providing power to electrical systems of the aircraft (10; 100; 200), wherein: - the battery assembly comprises a number of individual battery modules (18; 118) which are directly or indirectly coupled to one another; - the fuselage (12; 112) is provided with a mounting assembly (16; 116) with a number of mounting positions (16a, 16b, 16c; 116a, 116b, 116c) for each holding one of the battery modules (18; 118; 218); and wherein - the number of mounting positions (16a, 16b, 16c; 116a, 116b, 116c) is larger than the number of battery modules (18; 118) such that in a mounted state of all battery modules, at least one of the mounting positions (16a, 16b, 16c; 116a, 116b, 116c) remains vacant (20; 120) thus defining a placement configuration of the battery modules (18; 118) and the vacant mounting positions (20; 120); characterized by: at least one dummy module, preferably one dummy module per vacant mounting position (20; 120), and in that the at least one dummy module comprises connection points identical to the battery modules (18; 118) as well as internal wiring in order to establish coupling between neighboring battery modules (18; 118). - the battery assembly comprises a number of individual battery modules (18; 118) which are directly or indirectly coupled to one another; - the fuselage (12; 112) is provided with a mounting assembly (16; 116) with a number of mounting positions (16a, 16b, 16c; 116a, 116b, 116c) for each holding one of the battery modules (18; 118; 218); - the number of mounting positions (16a, 16b, 16c; 116a, 116b, 116c) is larger than the number of battery modules (18; 118) such that in a mounted state of all battery modules, at least one of the mounting positions (16a, 16b, 16c; 116a, 116b, 116c) remains vacant (20; 120) thus defining a placement configuration of the battery modules (18; 118) and the vacant mounting positions (20; 120);
A computer-implemented method executed by at least one processor, the method comprising: Receiving, by the at least one processor, instructions from an agent directing the one or more processors to inject a voice modulated statement into a call; Obtaining, by the at least one processor and based on data associated with the instructions, text data representing the statement; in response to receiving the instructions, obtaining, by the at least one processor, a voice modulated statement, the voice modulated statement being computer generated speech of the text data modulated with an agent's voice; and causing, by the at least one processor, a network device to insert the voice modulated statement into the call. Receiving, by the at least one processor, instructions from an agent directing the one or more processors to inject a voice modulated statement into a call; Obtaining, by the at least one processor and based on data associated with the instructions, text data representing the statement; in response to receiving the instructions, obtaining, by the at least one processor, a voice modulated statement, the voice modulated statement being computer generated speech of the text data modulated with an agent's voice; and causing, by the at least one processor, a network device to insert the voice modulated statement into the call.
A system, comprising: a first server, comprising: a stored-program processing circuit, a first network interface circuit, and a first memory module, wherein: the first memory module comprises: a first memory die, and a controller, the controller being connected: to the first memory die through a memory interface, to the stored-program processing circuit through a cache-coherent interface, and to the first network interface circuit, the system further comprising: a second server, and a network switch connected to the first server and to the second server; wherein the controller of the first memory module is configured to: receive data, from the second server; store the data in the first memory module; and send, to the stored-program processing circuit, a command for invalidating a cache line. a first server, comprising: a stored-program processing circuit, a first network interface circuit, and a first memory module, a stored-program processing circuit, a first network interface circuit, and a first memory module, wherein: the first memory module comprises: a first memory die, and a controller, the controller being connected: to the first memory die through a memory interface, to the stored-program processing circuit through a cache-coherent interface, and to the first network interface circuit, the system further comprising: a second server, and a network switch connected to the first server and to the second server; wherein the controller of the first memory module is configured to: receive data, from the second server; store the data in the first memory module; and send, to the stored-program processing circuit, a command for invalidating a cache line. the first memory module comprises: a first memory die, and a controller, a first memory die, and a controller, the controller being connected: to the first memory die through a memory interface, to the stored-program processing circuit through a cache-coherent interface, and to the first network interface circuit, to the first memory die through a memory interface, to the stored-program processing circuit through a cache-coherent interface, and to the first network interface circuit, the system further comprising: a second server, and a network switch connected to the first server and to the second server; wherein the controller of the first memory module is configured to: receive data, from the second server; store the data in the first memory module; and send, to the stored-program processing circuit, a command for invalidating a cache line. a second server, and a network switch connected to the first server and to the second server; wherein the controller of the first memory module is configured to: receive data, from the second server; store the data in the first memory module; and send, to the stored-program processing circuit, a command for invalidating a cache line. receive data, from the second server; store the data in the first memory module; and send, to the stored-program processing circuit, a command for invalidating a cache line.
A switch mode power supply (100,200) comprising: a primary side configured to couple to a mains supply and a secondary side configured to couple to a device, an isolation transformer comprising a primary coil and a secondary coil and arranged to isolate the primary side from the secondary side, and a noise filter (160,260,360,410,460) coupled between a primary ground at the primary side and a secondary ground at the secondary side, the noise filter having a conductance value that varies with frequency; characterised in that the noise filter conductance comprises a peak conductance in a peak conductance frequency region, and wherein the noise filter is configured to reduce the common-mode noise of the switch mode power supply at frequencies occurring in the peak conductance frequency region; and wherein the noise filter further comprises a series arrangement of an inductor (252,352,462) and a capacitor (254,354,454) and a second capacitor (256,356,406,456) in parallel with the series arrangement of the inductor and the capacitor, and wherein the peak conductance frequency region comprises a frequency equal to the frequency of operation of a touch screen controller in a mobile device. a primary side configured to couple to a mains supply and a secondary side configured to couple to a device, an isolation transformer comprising a primary coil and a secondary coil and arranged to isolate the primary side from the secondary side, and a noise filter (160,260,360,410,460) coupled between a primary ground at the primary side and a secondary ground at the secondary side, the noise filter having a conductance value that varies with frequency; characterised in that the noise filter conductance comprises a peak conductance in a peak conductance frequency region, and wherein the noise filter is configured to reduce the common-mode noise of the switch mode power supply at frequencies occurring in the peak conductance frequency region; and wherein the noise filter further comprises a series arrangement of an inductor (252,352,462) and a capacitor (254,354,454) and a second capacitor (256,356,406,456) in parallel with the series arrangement of the inductor and the capacitor, and wherein the peak conductance frequency region comprises a frequency equal to the frequency of operation of a touch screen controller in a mobile device.
A controller for a microscope, the controller configured to: receive image data representing tissue; identify a wound using the image data; wherein identifying the wound is based on at least two images of the tissue with different spectral content; determine the presence of hemoglobin based on the at least two images and identify the wound based on an area where hemoglobin is present or determine the oxygen saturation of the hemoglobin and identify the wound based on the oxygen saturation; and output a control signal for the microscope, the control signal instructing the microscope to adjust its field of view to the wound. receive image data representing tissue; identify a wound using the image data; wherein identifying the wound is based on at least two images of the tissue with different spectral content; determine the presence of hemoglobin based on the at least two images and identify the wound based on an area where hemoglobin is present or determine the oxygen saturation of the hemoglobin and identify the wound based on the oxygen saturation; and output a control signal for the microscope, the control signal instructing the microscope to adjust its field of view to the wound.
Apparatus, comprising: a display; and a processor, configured: to navigate a catheter to a particular location within a body of a subject, using each one of a plurality of electrodes coupled to the body of the subject; to identify, subsequently, from a signal that represents an impedance between a given pair of the electrodes, that a phrenic nerve of the subject was stimulated by a pacing current passed from the catheter into tissue of the subject at the particular location; and to generate an output on the display, in response to the identifying. a display; and a processor, configured: to navigate a catheter to a particular location within a body of a subject, using each one of a plurality of electrodes coupled to the body of the subject; to identify, subsequently, from a signal that represents an impedance between a given pair of the electrodes, that a phrenic nerve of the subject was stimulated by a pacing current passed from the catheter into tissue of the subject at the particular location; and to generate an output on the display, in response to the identifying. to navigate a catheter to a particular location within a body of a subject, using each one of a plurality of electrodes coupled to the body of the subject; to identify, subsequently, from a signal that represents an impedance between a given pair of the electrodes, that a phrenic nerve of the subject was stimulated by a pacing current passed from the catheter into tissue of the subject at the particular location; and to generate an output on the display, in response to the identifying.
A gimbal load mounting assembly, configured to slidably mount to a gimbal frame (11, 111-113) to adjust a center of gravity of a load mounted to the gimbal load mounting assembly, wherein the gimbal load mounting assembly comprises a first seating body, a second seating body that can slidably connect with the first seating body, and a fastener, the first seating body is configured to connect with the gimbal frame (11, 111-113) and slide in a first direction, the second seating body is configured to mount the load, the second seating body can slide on the first seating body in a second direction, the fastener is connected with the first seating body and can simultaneously lock a mounting location of the first seating body relative to the gimbal frame (11, 111-113) and a mounting location of the second seating body relative to the first seating body; characterized in that the gimbal load mounting assembly further comprises a first adjusting member, the first adjusting member can be disposed on one of the first seating body and the gimbal frame (11, 111-113) and can drive the first seating body to move, to adjust a relative location of the first seating body relative to the gimbal frame (11, 111-113).
An LXRβ agonist, or a pharmaceutically acceptable salt thereof, for use in a method of treating cancer in a subject having at least one ε4 allele from polymorphisms at rs7412 or rs429358 or ε3 alleles from polymorphisms at rs7412 and rs429358 in the ApoE gene on chromosome 19, the method comprising administering an effective amount of the LXRβ agonist, or a pharmaceutically acceptable salt thereof, to the subject, preferably wherein the LXRβ agonist is 2-[3-[ -3-[[2-chloro-3-(trifluoromethyl)phenyl]methyl-(2,2-diphenylethyl)amino]butoxy]phenyl]acetic acid, or a pharmaceutically acceptable salt thereof.
A compound of structural Formula II: or a salt thereof, wherein: L is chosen from a bond and methylene; W is chosen from Y is chosen from: R 2c is chosen from C 1 -C 4 alkoxy and C 1 -C 4 cycloalkoxy; R 2d is chosen from null and C 1 -C 4 alkoxy; R 2e is C 1 -C 4 alkyl; Z is n is 1 or 2 (forming an azetidin-1-yl or pyrrolidin-1-yl); R 4 and R 5 are independently chosen from C 1 -C 3 alkyl; and R 6 is chosen from Hand C 1 -C 4 alkyl. L is chosen from a bond and methylene; W is chosen from Y is chosen from: R 2c is chosen from C 1 -C 4 alkoxy and C 1 -C 4 cycloalkoxy; R 2d is chosen from null and C 1 -C 4 alkoxy; R 2e is C 1 -C 4 alkyl; Z is n is 1 or 2 (forming an azetidin-1-yl or pyrrolidin-1-yl); R 4 and R 5 are independently chosen from C 1 -C 3 alkyl; and R 6 is chosen from Hand C 1 -C 4 alkyl.
A vehicle control means for controlling movement of an implement attached to the vehicle having a first hydraulic circuit for moving the implement or a tool attached to the implement, a second hydraulic circuit for moving the tool or the implement and at least one further hydraulic circuit (HC2,HC3,HC4) for moving an additional consumer (16,17) relating to the tool or implement, wherein said control means comprises a lever having a first and a second axis of operation wherein in a first mode of operation the first and the second axes of operation control manual movement of the first, second and the at least one further hydraulic circuits (HC2,HC3,HC4) and wherein in a second mode of operation the first and second axes of operation control programmed functions associated with the first and second hydraulic circuits (HC1,HC5).
A motion control apparatus comprising: a. a sprinkler; b. an external energy source coupled to the sprinkler, said external energy source providing kinetic energy to the sprinkler; c. an energy conversion module mechanically coupled to the sprinkler; d. an electronic circuit coupled to the energy conversion module, wherein said electronic circuit comprises a microcontroller; e. an electrical energy storage module coupled to the electronic circuit; f. a mechanism controller coupled to the electronic circuit; and g. at least one sensor module coupled to both the electronic circuit and the sprinkler to sense the movement of the sprinkler, to determine speed of the sprinkler and transmit speed information to the electronic circuit; characterized in that the motion control apparatus further comprises a wireless communications module coupled to said microcontroller, wherein the wireless communication module is configured to receive commands wirelessly to control motion of the movable mechanism and in that the energy conversion module converts the kinetic energy generated by rotational motion of the sprinkler into electrical energy. a. a sprinkler; b. an external energy source coupled to the sprinkler, said external energy source providing kinetic energy to the sprinkler; c. an energy conversion module mechanically coupled to the sprinkler; d. an electronic circuit coupled to the energy conversion module, wherein said electronic circuit comprises a microcontroller; e. an electrical energy storage module coupled to the electronic circuit; f. a mechanism controller coupled to the electronic circuit; and g. at least one sensor module coupled to both the electronic circuit and the sprinkler to sense the movement of the sprinkler, to determine speed of the sprinkler and transmit speed information to the electronic circuit;
Damping layer element for a damping layer for flooring, the element comprising: - a frame which forms a first face of said element, said frame comprising a plurality of through openings; said frame developing substantially on a plane comprising a longitudinal direction and a transversal direction; - a plurality of support bodies which protrude from said frame at opposite side with respect to said first face, each support body being arranged at a respective through opening of said plurality of through openings and bridging with structural continuity two attachment regions belonging to said frame and mutually opposite with respect to said respective through opening, wherein said two attachment regions are mutually opposite along the longitudinal direction, wherein, in a vertical plane perpendicular to said first face and comprising the longitudinal direction, each support body has between the two attachment regions an arc development with concavity facing towards said frame for at least part of said arc development, wherein each support body comprises two end portions respectively adjacent to said two attachment regions, wherein, in said vertical plane, each end portion of one or more support bodies forms, together with said first face of the frame at the respective attachment region, a respective attachment angle facing towards the respective support body, wherein said attachment angle is greater than or equal to 0° and less than or equal to 45°. - a frame which forms a first face of said element, said frame comprising a plurality of through openings; said frame developing substantially on a plane comprising a longitudinal direction and a transversal direction; - a plurality of support bodies which protrude from said frame at opposite side with respect to said first face, each support body being arranged at a respective through opening of said plurality of through openings and bridging with structural continuity two attachment regions belonging to said frame and mutually opposite with respect to said respective through opening, wherein said two attachment regions are mutually opposite along the longitudinal direction, wherein, in a vertical plane perpendicular to said first face and comprising the longitudinal direction, each support body has between the two attachment regions an arc development with concavity facing towards said frame for at least part of said arc development, wherein each support body comprises two end portions respectively adjacent to said two attachment regions, wherein, in said vertical plane, each end portion of one or more support bodies forms, together with said first face of the frame at the respective attachment region, a respective attachment angle facing towards the respective support body, wherein said attachment angle is greater than or equal to 0° and less than or equal to 45°.
Machine for the production of knitwear (50, 60, 70) having a multiplicity of loop-forming elements and having at least one loop-forming position (15, 15.1, 15.2, 15.3) to which a spinning installation (12, 12.1, 12.2, 12.3) is assigned, said spinning installation (12, 12.1, 12.2, 12.3) producing a fibre strand or a yarn from a roving and feeding said fibre strand or yarn to the loop-forming elements, wherein the spinning installation (12, 12.1, 12.2, 12.3) has drive installations (30, 31, 30.1, 31.1, 30.2, 31.2, 30.3, 31.3) which are actuatable in such a manner that by way of the spinning installation (12, 12.1, 12.2, 12.3) a fibre strand or a yarn of variable thickness is producible from the roving and is feedable to the loop-forming elements, wherein at least two loop-forming positions (15, 15.1, 15.2, 15.3) to which in each case one spinning installation is assigned are provided, wherein the thicknesses of the fibre strands or yarns produced by two neighbouring spinning installations (12, 12.1, 12.2, 12.3) can be dissimilar, characterized in that the drive installations (30, 31, 30.1, 31.1, 30.2, 31.2, 30.3, 31.3) of the spinning installations (12, 12.1, 12.2, 12.3) are actuatable in such a manner that the thickness of the fibre strand or yarn varies between the loop-forming elements supplied by the same spinning installation (12, 12.1, 12.2, 12.3) such that patterns in which the fibre strand thickness or yarn thickness within one stitch course varies from loop to loop are generatable.
A manual inflator, comprising in combination: a body having a boss for receiving a gas cylinder and having an indicator window; and a pierce pin assembly reciprocatably mounted within a bore in said body, said pierce pin assembly comprising an actuator of a first color that is in alignment with at least a portion of said indicator window at least when a fully-charged gas cylinder is received in said boss allowing the first color to be visualized through said indicator window and a cap of a second color that is in alignment with at least a portion of said indicator window at least when either a gas cylinder is not received in said boss or a non fully-charged gas cylinder is received in said boss, characterised in that a portion of said actuator covers a portion of said cap to conceal the second color at least when a fully-charged gas cylinder is received in said boss.