mhurhangee/patent-ind-claim-en huggingface dataset:
Use of an IL-17 receptor specific antibody which IL-17 receptor antibody binds to the IL-17 receptor polypeptide of SEQ ID NO:1 in the manufacture of a medicament for treatment of rheumatoid arthritis, wherein the IL-17 receptor-specific antibody inhibits receptor binding of IL-17, and wherein the antibody does not transduce a signal via the IL-17 receptor.
Apparatus for cutting at least one sheet of material, comprising: - a cutting area ; - conveying means adapted to feed the sheet into said cutting area along a forward direction (Y); - a coating film roll adapted to coat and hold the sheet on said conveying means ; and - a support for said coating film roll , said support being configured to move with respect to the conveying means in a direction which is parallel to the forward direction (Y), characterized in that it comprises feeding means adapted to feed the sheet on the conveying means , said feeding means comprising a movable plane that is configured to move towards and away from said conveying means , wherein the support of the coating film roll is connected to said feeding means . - a cutting area ; - conveying means adapted to feed the sheet into said cutting area along a forward direction (Y); - a coating film roll adapted to coat and hold the sheet on said conveying means ; and - a support for said coating film roll , said support being configured to move with respect to the conveying means in a direction which is parallel to the forward direction (Y),
Disc brake caliper suitable for being associated with a brake disc, said caliper being of the floating type comprising a caliper body and a bracket ; said bracket comprising means for fastening the caliper to a relative support; said caliper body sliding in relation to the bracket in an axial direction ; said caliper comprising means of coupling between said caliper body and said bracket suitable to permit the relative sliding between them, parallel to the axial direction ; wherein the coupling means comprise at least one guide pin and at least one guide seat placed respectively on said bracket and said caliper body or respectively on said caliper body and on said bracket ; wherein said coupling means comprise: - at least one bushing placed between said guide pin and said guide seat ; and - axial retention means for said at least one bushing suitable to limit or prevent the axial sliding of said at least one bushing with respect to said guide seat ; characterized in that the axial retention means comprise inner retention means and outer retention means ; and wherein the outer retention means comprise a circumferential seat and a corresponding stop ring . said caliper comprising means of coupling between said caliper body and said bracket suitable to permit the relative sliding between them, parallel to the axial direction ; wherein the coupling means comprise at least one guide pin and at least one guide seat placed respectively on said bracket and said caliper body or respectively on said caliper body and on said bracket ; wherein said coupling means comprise: - at least one bushing placed between said guide pin and said guide seat ; and - axial retention means for said at least one bushing suitable to limit or prevent the axial sliding of said at least one bushing with respect to said guide seat ; - at least one bushing placed between said guide pin and said guide seat ; and - axial retention means for said at least one bushing suitable to limit or prevent the axial sliding of said at least one bushing with respect to said guide seat ; characterized in that the axial retention means comprise inner retention means and outer retention means ; and wherein the outer retention means comprise a circumferential seat and a corresponding stop ring .
A transmitter for a frequency domain duplexing, FDD, network system configured to: receive spectral information from one or more neighbor receiver nodes, the spectral information including a power at each of a plurality of transmit frequencies within a current band of operation; for each of the one or more neighbor receiver nodes , compute an energy per bit (E b ) to noise power spectral density (N 0 ) ratio, SNR, at each of the plurality of transmit frequencies within the current band of operation, forming an SNR curve; for each of the plurality of transmit frequencies , identify minimum SNR values among SNR values on the SNR curves of the one or more neighbor receiver nodes, the minimum SNR values forming a composite minimum curve; based on the composite minimum curve , determine whether an SNR of a current transmit frequency is above a first threshold associated with a predetermined operating SNR, or a second threshold associated with a maximum of the composite minimum curve; and based on determining whether the SNR of the current transmit frequency is above the first threshold or the second threshold, determine whether a new transmit frequency is selected to replace the current transmit frequency. receive spectral information from one or more neighbor receiver nodes, the spectral information including a power at each of a plurality of transmit frequencies within a current band of operation; for each of the one or more neighbor receiver nodes , compute an energy per bit (E b ) to noise power spectral density (N 0 ) ratio, SNR, at each of the plurality of transmit frequencies within the current band of operation, forming an SNR curve; for each of the plurality of transmit frequencies , identify minimum SNR values among SNR values on the SNR curves of the one or more neighbor receiver nodes, the minimum SNR values forming a composite minimum curve; based on the composite minimum curve , determine whether an SNR of a current transmit frequency is above a first threshold associated with a predetermined operating SNR, or a second threshold associated with a maximum of the composite minimum curve; and based on determining whether the SNR of the current transmit frequency is above the first threshold or the second threshold, determine whether a new transmit frequency is selected to replace the current transmit frequency.
A multipoint connection apparatus connected to a plurality of video-and-audio terminals, the multipoint connection apparatus comprising: a video-and-audio-signal receiving unit configured to receive video and audio signals output from the video/audio terminals , respectively; an audio-volume-level calculating unit configured to calculate volume levels from the respective video and audio signals; an audio-volume-display-image generating unit configured to generate audio-volume display images indicating audio volume based on the respective audio volume levels calculated by the audio-volume-level calculating unit; a layout-setting-information receiving unit configured to receive pieces of layout setting information, each received from a layout-setting-information transmitting unit in a video-and-audio terminal , and indicating information about arrangement of videos to be displayed on the corresponding video-and-audio terminal and being specified by the user of the terminal in advance; a combined video-and-audio-signal generating unit configured to generate a combined video-and-audio signal for each of the video-and-audio terminals by combining the video images and the audio volume display images based on the piece of layout setting information for the corresponding video-and-audio terminal , the video images corresponding to the video and audio signals; and a transmitting unit configured to transmit the combined video-and-audio signal to the corresponding video-and-audio terminal . a video-and-audio-signal receiving unit configured to receive video and audio signals output from the video/audio terminals , respectively; an audio-volume-level calculating unit configured to calculate volume levels from the respective video and audio signals; an audio-volume-display-image generating unit configured to generate audio-volume display images indicating audio volume based on the respective audio volume levels calculated by the audio-volume-level calculating unit; a layout-setting-information receiving unit configured to receive pieces of layout setting information, each received from a layout-setting-information transmitting unit in a video-and-audio terminal , and indicating information about arrangement of videos to be displayed on the corresponding video-and-audio terminal and being specified by the user of the terminal in advance; a combined video-and-audio-signal generating unit configured to generate a combined video-and-audio signal for each of the video-and-audio terminals by combining the video images and the audio volume display images based on the piece of layout setting information for the corresponding video-and-audio terminal , the video images corresponding to the video and audio signals; and a transmitting unit configured to transmit the combined video-and-audio signal to the corresponding video-and-audio terminal .
Optical article having a substrate constituent and optional coatings, wherein the substrate constituent is an uncoated organic glass substrate made of an optical material comprising a polymer matrix, and said uncoated organic glass substrate comprises an external layer in which particles are embedded into the polymer matrix, the refractive index of the particles R p being lower than the refractive index of the polymer matrix R s , such that Rp + 0.1 < Rs.
A driver circuit for driving data values on a differential output including a positive output node and a negative output node, the driver circuit comprising: a voltage-mode driver module configured to drive voltages on the positive output node and the negative output node based on values on an input of the voltage-mode driver module ; and a first current-mode driver module including: a head current source operable to source a first current; a tail current source operable to sink a second current; and switches configured to selectively couple the head current source to the negative output node and the tail current source to the positive output node or couple the head current source to the positive output node and couple the tail current source to the negative output node based on values on an input of the first current-mode driver module, wherein the magnitudes of the first current and the second current are independently selectable, and wherein the first current-mode driver is configured to correct skew between the positive and negative signal components of the differential output by injecting a different amount of current to the output node, depending on whether the current is sourced or sunk. a voltage-mode driver module configured to drive voltages on the positive output node and the negative output node based on values on an input of the voltage-mode driver module ; and a first current-mode driver module including: a head current source operable to source a first current; a tail current source operable to sink a second current; and switches configured to selectively couple the head current source to the negative output node and the tail current source to the positive output node or couple the head current source to the positive output node and couple the tail current source to the negative output node based on values on an input of the first current-mode driver module, a head current source operable to source a first current; a tail current source operable to sink a second current; and switches configured to selectively couple the head current source to the negative output node and the tail current source to the positive output node or couple the head current source to the positive output node and couple the tail current source to the negative output node based on values on an input of the first current-mode driver module, wherein the magnitudes of the first current and the second current are independently selectable, and wherein the first current-mode driver is configured to correct skew between the positive and negative signal components of the differential output by injecting a different amount of current to the output node, depending on whether the current is sourced or sunk.
Plaster profile strip having a base part and a leg which projects from the base part , wherein the free edge of the leg forms a plaster edge, wherein the leg is divided in the direction of the longitudinal extension of the plaster profile strip , forming a web projecting from the base part , and wherein an adjustable connection is provided between the web and the leg for adjusting the effective height of the plaster profile strip , characterized in that the leg has a longitudinally extending groove at its edge adjacent to the web of the base part , and in that the web of the base part engages in the groove , in particular in a frictionally engaged manner, and in that a cavity for accommodating butt connectors is provided in that region in which the leg or the web is connected to the base part .
A liquid crystal display, comprising: a first semiconductor layer (SE1); an insulating layer (GI1, GI2) on the first semiconductor layer (SE1); a second semiconductor layer (SE2) on the insulating layer (GI1, GI2); a data line (DL) connected to a first source area (SA1) of the first semiconductor layer (SE1); and a drain electrode (D) connected to a second drain area (DA2) of the second semiconductor layer (SE2), wherein a first drain area (DA1) of the first semiconductor layer (SE1) is connected to a second source area (SA2) of the second semiconductor layer (SE2), and wherein a gate line (GL) and a first channel area (A1) between the first source and drain areas (SA1, DA1) of the first semiconductor layer (SE1) are overlapping each other and the gate line (GL) and a second channel area (A2) between the second source and drain areas (SA2, DA2) of the second semiconductor layer (SE2) are overlapping each other. a first semiconductor layer (SE1); an insulating layer (GI1, GI2) on the first semiconductor layer (SE1); a second semiconductor layer (SE2) on the insulating layer (GI1, GI2); a data line (DL) connected to a first source area (SA1) of the first semiconductor layer (SE1); and a drain electrode (D) connected to a second drain area (DA2) of the second semiconductor layer (SE2), wherein a first drain area (DA1) of the first semiconductor layer (SE1) is connected to a second source area (SA2) of the second semiconductor layer (SE2), and wherein a gate line (GL) and a first channel area (A1) between the first source and drain areas (SA1, DA1) of the first semiconductor layer (SE1) are overlapping each other and the gate line (GL) and a second channel area (A2) between the second source and drain areas (SA2, DA2) of the second semiconductor layer (SE2) are overlapping each other.
A system comprising: at least one carriage assembly having a supporting surface configured to support a flexible body along a first direction, the at least one carriage assembly also configured to grasp a first end of opposite ends of the flexible body ; a preparation station configured to at least partially flatten a printing surface of the flexible body by engaging a second end of the opposite ends of the flexible body and moving the second end of the flexible body in a second direction oriented away from the first end of the flexible body that is grasped by the at least one carriage assembly and oriented transverse to the first direction during a time period that the first end of the flexible body is grasped by the at least one carriage assembly , wherein the preparation station is configured to at least partially flatten the printing surface of the flexible body prior to printing an image on the printing surface of the flexible body; characterised in that the system further comprises a conveyance assembly configured to be coupled with the at least one carriage assembly and to move the at least one carriage assembly along a third direction that is transversely oriented with respect to the first and second directions. at least one carriage assembly having a supporting surface configured to support a flexible body along a first direction, the at least one carriage assembly also configured to grasp a first end of opposite ends of the flexible body ; a preparation station configured to at least partially flatten a printing surface of the flexible body by engaging a second end of the opposite ends of the flexible body and moving the second end of the flexible body in a second direction oriented away from the first end of the flexible body that is grasped by the at least one carriage assembly and oriented transverse to the first direction during a time period that the first end of the flexible body is grasped by the at least one carriage assembly , wherein the preparation station is configured to at least partially flatten the printing surface of the flexible body prior to printing an image on the printing surface of the flexible body; characterised in that the system further comprises a conveyance assembly configured to be coupled with the at least one carriage assembly and to move the at least one carriage assembly along a third direction that is transversely oriented with respect to the first and second directions.
Method for producing a cavity valve comprising providing a valve body which has a cavity , wherein the valve body has a circular opening having an opening edge surface on a bottom side; providing a circular valve cover with a cover edge surface ; welding the valve body to the valve cover by friction welding of the opening edge surface to the cover edge surface ; characterized by inductive heating of the opening edge surface and the cover edge surface before the welding of the valve body to the valve cover . providing a valve body which has a cavity , wherein the valve body has a circular opening having an opening edge surface on a bottom side; providing a circular valve cover with a cover edge surface ; welding the valve body to the valve cover by friction welding of the opening edge surface to the cover edge surface ; characterized by inductive heating of the opening edge surface and the cover edge surface before the welding of the valve body to the valve cover .
An array substrate , comprising: a base substrate having a first surface and a second surface opposite to the first surface; and a stacked structure disposed on the first surface of the base substrate, the stacked structure comprising: a contact pad disposed on the first surface of the base substrate, wherein the base substrate defines a first via hole at a position corresponding to the contact pad, the first via hole penetrating the first surface and the second surface of the base substrate; a common-electrode layer connected with the contact pad; and a gate line isolated from the common-electrode layer and the contact pad; and the array substrate further comprising: a common-electrode line disposed on the second surface of the base substrate, wherein an orthographic projection of the gate line on a plane where the common-electrode line is located at least partially overlaps with the common-electrode line; and a conductive structure connected with the contact pad, and connected to the common-electrode line through the first via hole. a base substrate having a first surface and a second surface opposite to the first surface; and a stacked structure disposed on the first surface of the base substrate, the stacked structure comprising: a contact pad disposed on the first surface of the base substrate, wherein the base substrate defines a first via hole at a position corresponding to the contact pad, the first via hole penetrating the first surface and the second surface of the base substrate; a common-electrode layer connected with the contact pad; and a gate line isolated from the common-electrode layer and the contact pad; and a common-electrode layer connected with the contact pad; and a gate line isolated from the common-electrode layer and the contact pad; and the array substrate further comprising: a common-electrode line disposed on the second surface of the base substrate, wherein an orthographic projection of the gate line on a plane where the common-electrode line is located at least partially overlaps with the common-electrode line; and a conductive structure connected with the contact pad, and connected to the common-electrode line through the first via hole. a common-electrode line disposed on the second surface of the base substrate, wherein an orthographic projection of the gate line on a plane where the common-electrode line is located at least partially overlaps with the common-electrode line; and a conductive structure connected with the contact pad, and connected to the common-electrode line through the first via hole.
An apparatus for preparing a screen for screen printing including: a housing having a screen bed for placement of a pre-stretched, ultraviolet sensitive emulsion coated screen in a rectangular frame, the frame including a first end, a second end opposing the first end, a first side and a second side opposing the first side, and a registration system attached to the screen bed for positioning the frame, characterized in that : the registration system includes a first retainer for contacting a first end of the frame, a second retainer perpendicular to the first retainer for contacting a side of the frame perpendicular to the first end, and a biasing mechanism having a spring-loaded barrier ; wherein the spring-loaded barrier comprises a first planar plate for contacting the second end of the frame, wherein the first planar plate is configured to span a substantial portion of the second end of the frame and comprises a lower edge adjacent the screen bed and an upper edge opposing the lower edge; and wherein the barrier further comprises a second planar plate extending from the upper edge of the first planar plate in a direction perpendicular to the first planar plate and configured to extend over the second end of the frame. the registration system includes a first retainer for contacting a first end of the frame, a second retainer perpendicular to the first retainer for contacting a side of the frame perpendicular to the first end, and a biasing mechanism having a spring-loaded barrier ; wherein the spring-loaded barrier comprises a first planar plate for contacting the second end of the frame, wherein the first planar plate is configured to span a substantial portion of the second end of the frame and comprises a lower edge adjacent the screen bed and an upper edge opposing the lower edge; and wherein the barrier further comprises a second planar plate extending from the upper edge of the first planar plate in a direction perpendicular to the first planar plate and configured to extend over the second end of the frame.