mhurhangee/ep-ind-claims huggingface dataset:
A saddle-straddling type motor vehicle comprising: a vehicle body frame that includes a head pipe and a pair of right and left main frames extending to the rearward of the vehicle from the head pipe; a fuel tank fixed to the vehicle body frame; a tank cover provided to at least partially overlap with the fuel tank when seen in plan view; and a pair of right and left side covers provided to overlap with the pair of main frames when seen in side view, wherein the tank cover includes a pair of right and left outer side portions positioned outside of outer surfaces of the pair of main frames when seen in plan view, and supporters, respectively provided at the pair of outer side portions, that respectively support the pair of side covers, and the pair of side covers is arranged to cover at least part of the pair of outer side portions from outside in a vehicle width direction, and to ensure a large space between the pair of side covers and the pair of main frames, a vehicle component member (60, CA) is arranged in the space between the pair of side covers and the pair of main frames, the saddle-straddling type motor vehicle further comprises a head light main body (90, 91) provided in front of the head pipe, characterized in that the vehicle component member (60, CA) is an electric component; and the pair of side covers are arranged to be spaced apart from the head light main body (90,91). a vehicle body frame that includes a head pipe and a pair of right and left main frames extending to the rearward of the vehicle from the head pipe; a fuel tank fixed to the vehicle body frame; a tank cover provided to at least partially overlap with the fuel tank when seen in plan view; and a pair of right and left side covers provided to overlap with the pair of main frames when seen in side view, wherein the tank cover includes a pair of right and left outer side portions positioned outside of outer surfaces of the pair of main frames when seen in plan view, and supporters, respectively provided at the pair of outer side portions, that respectively support the pair of side covers, and the pair of side covers is arranged to cover at least part of the pair of outer side portions from outside in a vehicle width direction, and to ensure a large space between the pair of side covers and the pair of main frames, a vehicle component member (60, CA) is arranged in the space between the pair of side covers and the pair of main frames, the saddle-straddling type motor vehicle further comprises a head light main body (90, 91) provided in front of the head pipe, characterized in that the vehicle component member (60, CA) is an electric component; and the pair of side covers are arranged to be spaced apart from the head light main body (90,91).
Device for removing a coating from a coated optical fiber, the coated optical fiber having a cladding, a core and an axis, the cladding surrounding the core and the coating surrounding the cladding, the device comprising: - means for heating and clamping said coated optical fiber; - protective means for preventing said heating and clamping means from contacting the coated optical fiber; - driving means for driving said protective means (3; 11, 12) to cover the coated optical fiber, the protective means adapted for being inserted between said coated optical fiber and said heating and clamping means, the protective means being further adapted to adhere to said coating; and - moving means for performing a relative movement, in an axial or perpendicular direction of the optical fiber axis, of said protective means and heating and clamping means. - means for heating and clamping said coated optical fiber; - protective means for preventing said heating and clamping means from contacting the coated optical fiber; - driving means for driving said protective means (3; 11, 12) to cover the coated optical fiber, the protective means adapted for being inserted between said coated optical fiber and said heating and clamping means, the protective means being further adapted to adhere to said coating; and - moving means for performing a relative movement, in an axial or perpendicular direction of the optical fiber axis, of said protective means and heating and clamping means.
A compound according to the general formula I wherein R 1 represents heteroaryl, said heteroaryl optionally being substituted with one or more substituents independently selected from R 2; wherein said heteroaryl is selected from the group consisting of wherein X 1, X 2, X 3 and X 4 are each independently selected from the group consisting of C, CH, N, NH, S and O; and wherein Y 1, Y 2, Y 3, Y 4, Y 5, Y 6, Y 7, Y 8, Y 9 and Y 10 are each independently selected from the group consisting of C, CH and N; wherein R 1 represents G 1 and at least one of X 1 or X 4 is selected from the group consisting of N, NH, S and O; or R 1 represents G 2 and at least one of Y 1 or Y 5 represents N; or R 1 represents G 3 and the point of attachment to 3-O-ingenol occurs through X 1 or X 3, and X 2 is selected from the group consisting of N, NH, S and O; or R 1 represents G 3 and the point of attachment to 3-O-ingenol occurs through X 2, and at least one of X 1 and X 3 is selected from the group consisting of N, NH, S and O; or R 1 represents G 4 and the point of attachment to 3-O-ingenol occurs through Y 1, and Y 2 represents N; or R 1 represents G 4 and the point of attachment to 3-O-ingenol occurs through Y 2, and at least one of Y 1 and Y 3 represents N; or R 1 represents G 5 and the point of attachment to 3-O-ingenol occurs through Y 1, and Y 2 represents N; or R 1 represents G 5 and the point of attachment to 3-O-ingenol occurs through Y 2, and at least one of Y 1 and Y 3 represents N; R 2 represents halogen, cyano, (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, (C 2 -C 6)alkenyl, (C 1 -C 6)alkoxy or (C 3 -C 6)cycloalkyl; and pharmaceutically acceptable salts, hydrates or solvates thereof. wherein X 1, X 2, X 3 and X 4 are each independently selected from the group consisting of C, CH, N, NH, S and O; and wherein Y 1, Y 2, Y 3, Y 4, Y 5, Y 6, Y 7, Y 8, Y 9 and Y 10 are each independently selected from the group consisting of C, CH and N; wherein R 1 represents G 1 and at least one of X 1 or X 4 is selected from the group consisting of N, NH, S and O; or R 1 represents G 2 and at least one of Y 1 or Y 5 represents N; or R 1 represents G 3 and the point of attachment to 3-O-ingenol occurs through X 1 or X 3, and X 2 is selected from the group consisting of N, NH, S and O; or R 1 represents G 3 and the point of attachment to 3-O-ingenol occurs through X 2, and at least one of X 1 and X 3 is selected from the group consisting of N, NH, S and O; or R 1 represents G 4 and the point of attachment to 3-O-ingenol occurs through Y 1, and Y 2 represents N; or R 1 represents G 4 and the point of attachment to 3-O-ingenol occurs through Y 2, and at least one of Y 1 and Y 3 represents N; or R 1 represents G 5 and the point of attachment to 3-O-ingenol occurs through Y 1, and Y 2 represents N; or R 1 represents G 5 and the point of attachment to 3-O-ingenol occurs through Y 2, and at least one of Y 1 and Y 3 represents N; R 2 represents halogen, cyano, (C 1 -C 4)alkyl, halo(C 1 -C 4)alkyl, (C 2 -C 6)alkenyl, (C 1 -C 6)alkoxy or (C 3 -C 6)cycloalkyl; and pharmaceutically acceptable salts, hydrates or solvates thereof.
A method comprising: establishing, by a user equipment, in the following also referred to as UE, a multicast radio bearer, in the following also referred to as MRB, with a base station in a wireless network for one or more multicast and broadcast services, in the following also referred to as MBSs, wherein an MRB configuration enables feedback for the one or more MBSs and wherein the base station and the UE has a unicast connection for feedback; initiating, by the UE, a join procedure to join an MBS session, wherein the MBS session is active; receiving, by the UE, one or more configuration values for packet data convergence protocol, in the following also referred to as PDCP, state variables from the base station in the wireless network after the UE initiates the join procedure, wherein the PDCP state variables control PDCP transceiving for the MBS session (731; 903); configuring, by the UE, PDCP state variables based on the received one or more configuration values (718, 719; 904); and transmitting, by the UE, feedback to the base station regarding reception of information of the MBS session. establishing, by a user equipment, in the following also referred to as UE, a multicast radio bearer, in the following also referred to as MRB, with a base station in a wireless network for one or more multicast and broadcast services, in the following also referred to as MBSs, wherein an MRB configuration enables feedback for the one or more MBSs and wherein the base station and the UE has a unicast connection for feedback; initiating, by the UE, a join procedure to join an MBS session, wherein the MBS session is active; receiving, by the UE, one or more configuration values for packet data convergence protocol, in the following also referred to as PDCP, state variables from the base station in the wireless network after the UE initiates the join procedure, wherein the PDCP state variables control PDCP transceiving for the MBS session (731; 903); configuring, by the UE, PDCP state variables based on the received one or more configuration values (718, 719; 904); and transmitting, by the UE, feedback to the base station regarding reception of information of the MBS session.
Amperometric electrochemical gas sensing apparatus for sensing NO 2 and O 3 in a sample gas, the apparatus comprising: a first working electrode which is a carbon electrode and at which both NO 2 and O 3 are reducible to thereby generate a current; a second working electrode which is a carbon electrode and at which both NO 2 and O 3 are reducible to thereby generate a current; and an O 3 filter covering the surface of the second working electrode which would otherwise be exposed to the sample gas, but the O 3 filter not covering the surface of the first working electrode which is exposed to the sample gas, wherein said apparatus is configured such that, in operation, the first working electrode and the O 3 filter are simultaneously in direct communication with the sample gas. a first working electrode which is a carbon electrode and at which both NO 2 and O 3 are reducible to thereby generate a current; a second working electrode which is a carbon electrode and at which both NO 2 and O 3 are reducible to thereby generate a current; and an O 3 filter covering the surface of the second working electrode which would otherwise be exposed to the sample gas, but the O 3 filter not covering the surface of the first working electrode which is exposed to the sample gas,
An apparatus for communicating a signal to or from a downhole tool, the apparatus comprising: a drill pipe configured to be rotated to drill a borehole; a tubular under axial tension and secured in the drill pipe; a retention device (21, 22) secured to the tubular and configured to maintain the tubular under the axial tension, the retention device (21, 22) comprising a portion extending from a body of the retention device (21, 22) in a direction that is non-inward-radial with respect to a longitudinal axis of the drill pipe; and a transmission line disposed in the tubular and in an opening of the retention device (21, 22) and in communication with the downhole tool. a drill pipe configured to be rotated to drill a borehole; a tubular under axial tension and secured in the drill pipe; a retention device (21, 22) secured to the tubular and configured to maintain the tubular under the axial tension, the retention device (21, 22) comprising a portion extending from a body of the retention device (21, 22) in a direction that is non-inward-radial with respect to a longitudinal axis of the drill pipe; and a transmission line disposed in the tubular and in an opening of the retention device (21, 22) and in communication with the downhole tool.
A flexible implantable body for drug release comprising: a polymer film comprising a bioresorbable polymer and having a first surface and an opposing second surface, the flexible polymer film having a plurality of apertures extending from the first surface to the second surface; wherein the film includes multiple drugs such that there is at least a first drug and a second drug different from the first drug; wherein the multiple drugs have a different release rate from the film such that the first drug is associated with a first release profile that is different from a second release profile of the second drug; characterized in that a plurality of raised lips protrudes from the first surface such that each of the plurality of apertures is surrounded by one of the plurality of raised lips (14 a) and the first drug comprises a plurality of discrete eluting drug components, the drug components having a diameter under 20 microns; wherein a first quantity of the discrete eluting drug components is in contact with a surface of the film upon implantation, and the first quantity is configured to burst release upon implantation. a polymer film comprising a bioresorbable polymer and having a first surface and an opposing second surface, the flexible polymer film having a plurality of apertures extending from the first surface to the second surface; wherein the film includes multiple drugs such that there is at least a first drug and a second drug different from the first drug; wherein the multiple drugs have a different release rate from the film such that the first drug is associated with a first release profile that is different from a second release profile of the second drug; characterized in that a plurality of raised lips protrudes from the first surface such that each of the plurality of apertures is surrounded by one of the plurality of raised lips (14 a) and the first drug comprises a plurality of discrete eluting drug components, the drug components having a diameter under 20 microns; wherein a first quantity of the discrete eluting drug components is in contact with a surface of the film upon implantation, and the first quantity is configured to burst release upon implantation.
A circuit comprising: • first and second input terminals (RF1, RF2) connected to an antenna; • a first supply rail energized from the first input terminal for providing a first supply voltage (rfvdd); • a shunt regulator (204, 106) operable to regulate the first supply voltage by establishing a shunt current (I S) between the first and second input terminals (RF1, RF2); • a rectifier circuit (202, 206, 212) connected for energizing the first supply rail and the shunt regulator from an alternating signal provided by the antenna; and • a second supply rail for providing a second supply voltage (vdd); characterized in that it comprises: • a switching circuit (208, 210) coupled to the shunt regulator and operable by a switch control signal to direct the shunt current (I S) to flow to the second supply rail or to bypass the second supply rail to the second input terminal; and • a regulator circuit (104, 108) configured for regulating the second supply voltage (vdd) in switched mode through the switch control signal. • first and second input terminals (RF1, RF2) connected to an antenna; • a first supply rail energized from the first input terminal for providing a first supply voltage (rfvdd); • a shunt regulator (204, 106) operable to regulate the first supply voltage by establishing a shunt current (I S) between the first and second input terminals (RF1, RF2); • a rectifier circuit (202, 206, 212) connected for energizing the first supply rail and the shunt regulator from an alternating signal provided by the antenna; and • a second supply rail for providing a second supply voltage (vdd); characterized in that it comprises: • a switching circuit (208, 210) coupled to the shunt regulator and operable by a switch control signal to direct the shunt current (I S) to flow to the second supply rail or to bypass the second supply rail to the second input terminal; and • a regulator circuit (104, 108) configured for regulating the second supply voltage (vdd) in switched mode through the switch control signal.
System for contactless data and energy supply of bus subscriber modules that can be lined up next to each other on a subbase, whereby the subbase has an energy transmission interface and a data transmission interface and where the bus subscriber modules in each case have a corresponding energy transmission interface and a corresponding data transmission interface, characterized in that the subbase is made as a mounting rail, which is provided with one supply bar that extends along the main extension direction of the mounting rail and which displays the energy transmission interface and the data transmission interface wherein the assembly rail is made as mounting rail with a hat-shaped cross-section upon which one can arrest the bus subscriber modules and which can be lined up against each other in a grid-free manner, and has a free space, whereby the supply bar is integrated at least partly or preferably inserted in the free space.
A heatsink comprising: a thermally conductive body including a plurality of fins configured to conduct and dissipate heat, the body being configured to receive a circuit board containing a plurality of heat-producing electrical components along a width of the body; a pivot mechanism pivotally coupled to the body and configured and disposed to contact the plurality of heat-producing electrical components; and a bias device connected to the body and the pivot mechanism and configured to change from a first state to a second state to cause the pivot mechanism to rotate relative to the body to move a contact portion of the pivot mechanism toward the body; the heatsink being configured to receive the heat-producing electrical components between the contact portion of the pivot mechanism and the body; the bias device being configured to bias the contact portion of the pivot mechanism to urge the heat-producing electrical components against the body when the bias device is in the second state; characterized in that the bias device comprises a first member pivotally coupled to a second member, the first member pivotally coupled to the body at a first pivot point, the second member pivotally coupled to a first portion of a pivot arm of the pivot mechanism at a second pivot point, and a combined length of the first and second members is greater than a distance between the first and second pivot points when the bias device is in the first state. a thermally conductive body including a plurality of fins configured to conduct and dissipate heat, the body being configured to receive a circuit board containing a plurality of heat-producing electrical components along a width of the body; a pivot mechanism pivotally coupled to the body and configured and disposed to contact the plurality of heat-producing electrical components; and a bias device connected to the body and the pivot mechanism and configured to change from a first state to a second state to cause the pivot mechanism to rotate relative to the body to move a contact portion of the pivot mechanism toward the body; the heatsink being configured to receive the heat-producing electrical components between the contact portion of the pivot mechanism and the body; the bias device being configured to bias the contact portion of the pivot mechanism to urge the heat-producing electrical components against the body when the bias device is in the second state; characterized in that the bias device comprises a first member pivotally coupled to a second member, the first member pivotally coupled to the body at a first pivot point, the second member pivotally coupled to a first portion of a pivot arm of the pivot mechanism at a second pivot point, and a combined length of the first and second members is greater than a distance between the first and second pivot points when the bias device is in the first state.
A feeder maintenance device comprising: an attachment section configured to have a feeder attached, the feeder being used on a mounting device that mounts components on a board; a cleaning section (30, 40, 49, 34, 44) configured to clean a specified section of the feeder; and a control section configured to manage history information including at least one of a usage count of a consumable part used in the cleaning section (30, 40, 49, 34, 44) or a measurement value of the consumable part used in the cleaning section (30, 40, 49, 34, 44), and to report information on a usage state of the consumable part based on the history information. an attachment section configured to have a feeder attached, the feeder being used on a mounting device that mounts components on a board; a cleaning section (30, 40, 49, 34, 44) configured to clean a specified section of the feeder; and a control section configured to manage history information including at least one of a usage count of a consumable part used in the cleaning section (30, 40, 49, 34, 44) or a measurement value of the consumable part used in the cleaning section (30, 40, 49, 34, 44), and to report information on a usage state of the consumable part based on the history information.
A fluorescent nanoparticle comprising: a core, the core comprising a fluorescent silane compound and having a diameter of 25 nm to 200 nm; a silica shell on the core, wherein the silica shell has a thickness from 25 nm to 800 nm and wherein the silica shell covers from 10 to 100 percent of the surface area of the core; and a ligand, the ligand conjugated with or coated on the surface of the fluorescent nanoparticle to form a ligated-fluorescent nanoparticle, the ligand covering 0.1 to 100 percent of the surface area of the core, characterized in that the core comprises organosilane having the general formula R (4-n)SiX n,where X is ethoxy, methoxy, or 2-methoxy-ethoxy; R is a monovalent organic radical of from 1 to 12 carbon atoms; and n is an integer of from 0 to 3, and wherein the monovalent organic radical comprises a mercapto functional organic group, and characterized in that the diameter of the fluorescent nanoparticle is 50 nm to 1,000 nm. a core, the core comprising a fluorescent silane compound and having a diameter of 25 nm to 200 nm; a silica shell on the core, wherein the silica shell has a thickness from 25 nm to 800 nm and wherein the silica shell covers from 10 to 100 percent of the surface area of the core; and a ligand, the ligand conjugated with or coated on the surface of the fluorescent nanoparticle to form a ligated-fluorescent nanoparticle, the ligand covering 0.1 to 100 percent of the surface area of the core, characterized in that the core comprises organosilane having the general formula R (4-n)SiX n,where X is ethoxy, methoxy, or 2-methoxy-ethoxy; R is a monovalent organic radical of from 1 to 12 carbon atoms; and n is an integer of from 0 to 3, and wherein the monovalent organic radical comprises a mercapto functional organic group, and characterized in that the diameter of the fluorescent nanoparticle is 50 nm to 1,000 nm.