mhurhangee/patent-ind-claim-en huggingface dataset:
A saddled vehicle comprising a head pipe , a fuel tank , a pair of right and left main frames extending rearward and downward from the head pipe and the fuel tank positioned behind the head pipe and above the main frames , a battery case , in which at least a battery (B) is stored and which is positioned between the head pipe and the fuel tank , and a tank cover for covering from above the whole of the fuel tank and the battery case , wherein the fuel tank and the battery case are disposed to partially overlap with each other in a side view of a vehicle body, and a rear portion of the battery case is stored in a recessed portion formed in a front portion of the fuel tank in the center in a vehicle width direction, characterized by a maintenance lid formed with a through hole for exposing a fuel filler cap of the fuel tank to an upper side of the vehicle body is detachably provided to the tank cover , wherein the battery case is disposed below the maintenance lid . a head pipe , a fuel tank , a pair of right and left main frames extending rearward and downward from the head pipe and the fuel tank positioned behind the head pipe and above the main frames , a battery case , in which at least a battery (B) is stored and which is positioned between the head pipe and the fuel tank , and a tank cover for covering from above the whole of the fuel tank and the battery case , wherein the fuel tank and the battery case are disposed to partially overlap with each other in a side view of a vehicle body, and a rear portion of the battery case is stored in a recessed portion formed in a front portion of the fuel tank in the center in a vehicle width direction, characterized by a maintenance lid formed with a through hole for exposing a fuel filler cap of the fuel tank to an upper side of the vehicle body is detachably provided to the tank cover , wherein the battery case is disposed below the maintenance lid .
Holding system for a twist nail consisting of a movable spherical body which receives within it a twist nail having a thread and is arranged in an opening of a holding plate , characterised in that the spherical body is held by an upper holding plate and a lower holding plate and has a holding connection with a thread , by means of which a rotary movement applied to the holding connection is transferrable to the thread of the twist nail .
A blue organic light emitting device, comprising: a first electrode (EL1); a second electrode (EL2) facing the first electrode; a first charge generating layer (CGL1) between the first electrode and the second electrode; a first emission layer (EML1) between the first electrode and the first charge generating layer, the first emission layer arranged to emit first blue light having a first wavelength region; a second emission layer (EML2) between the first charge generating layer and the second electrode, the second emission layer arranged to emit second blue light having a second wavelength region different from the first wavelength region characterized in that : the device further comprises a second charge generating layer (CGL2) between the second emission layer and the second electrode; and a third emission layer (EML3) between the second charge generating layer and the second electrode, the third emission layer to emit third blue light having a third wavelength region, the third wavelength region being different from each of the first wavelength region and the second wavelength region. a first electrode (EL1); a second electrode (EL2) facing the first electrode; a first charge generating layer (CGL1) between the first electrode and the second electrode; a first emission layer (EML1) between the first electrode and the first charge generating layer, the first emission layer arranged to emit first blue light having a first wavelength region; a second emission layer (EML2) between the first charge generating layer and the second electrode, the second emission layer arranged to emit second blue light having a second wavelength region different from the first wavelength region characterized in that : the device further comprises a second charge generating layer (CGL2) between the second emission layer and the second electrode; and a third emission layer (EML3) between the second charge generating layer and the second electrode, the third emission layer to emit third blue light having a third wavelength region, the third wavelength region being different from each of the first wavelength region and the second wavelength region.
A bone implant, having a main body with an open-cell porous lattice structure in its outer region, said lattice structure being formed from a plurality of regularly arranged unit cells , wherein the unit cells are embodied as an assembled structure and are constructed from an interior space and a plurality of interconnected bars surrounding the interior space , wherein the porous lattice structure is provided with a coating which promotes bone growth, comprising calcium phosphate, characterized in that the calcium phosphate coating has a hydroxyapatite content of less than or equal to 1 wt%, and forms an inner pore coating extending deep into the porous lattice structure , and the calcium phosphate coating has a crystal phase which comprises brushite and monetite, and which is at least 90 wt%, wherein the brushite fraction is not less than is 65 wt%. the calcium phosphate coating has a hydroxyapatite content of less than or equal to 1 wt%, and forms an inner pore coating extending deep into the porous lattice structure , and the calcium phosphate coating has a crystal phase which comprises brushite and monetite, and which is at least 90 wt%, wherein the brushite fraction is not less than is 65 wt%.
A method for rotating a sleeve for bobbins of a textile machine , - wherein the sleeve is removed from a sleeve magazine oriented in a first direction , - is rotated substantially through 90° transversely to its sleeve axis in a second direction , - and is transported further in the second direction with a transport device , - a first side of the sleeve contacts a transport device , in particular a conveyor belt, which is moved transversely to the first direction in the second direction , - wherein the transport device moves this first side transversely to the sleeve axis, characterized in that - the first and the second direction are perpendicular to one another and form a plane which is parallel to a ground on which the textile machine is located, - a retaining element or a second transport device , in particular a second conveyor belt, is provided, with which at the same time a second side of the sleeve is not moved relative to the first side or is moved at least more slowly transversely to the sleeve axis, so that the sleeve performs the rotation transversely to the sleeve axis, and - the retaining element is a turntable which causes the rotation of the sleeve as an obstacle for the sleeve . - wherein the sleeve is removed from a sleeve magazine oriented in a first direction , - is rotated substantially through 90° transversely to its sleeve axis in a second direction , - and is transported further in the second direction with a transport device , - a first side of the sleeve contacts a transport device , in particular a conveyor belt, which is moved transversely to the first direction in the second direction , - wherein the transport device moves this first side transversely to the sleeve axis, characterized in that - the first and the second direction are perpendicular to one another and form a plane which is parallel to a ground on which the textile machine is located, - a retaining element or a second transport device , in particular a second conveyor belt, is provided, with which at the same time a second side of the sleeve is not moved relative to the first side or is moved at least more slowly transversely to the sleeve axis, so that the sleeve performs the rotation transversely to the sleeve axis, and - the retaining element is a turntable which causes the rotation of the sleeve as an obstacle for the sleeve .
A backpack blower comprising: a frame operable to be supported by a user and including a back plate configured to be positioned proximate a back of the user; a housing supported by the frame and at least partially defining a chamber ; a motor supported by the frame; and an impeller driven by the motor about a rotational axis to generate an air flow within the chamber and having an impeller outlet ; wherein the chamber defines a channel region having an inlet and having a cross-sectional shape with an axial height and a transverse width , the axial height being greater than the transverse width, the axial height increasing from a first position proximate the back plate to a second position spaced from the back plate; characterized in that the impeller outlet is axially closer to the midpoint of the axial height of the channel region than the channel inlet . a frame operable to be supported by a user and including a back plate configured to be positioned proximate a back of the user; a housing supported by the frame and at least partially defining a chamber ; a motor supported by the frame; and an impeller driven by the motor about a rotational axis to generate an air flow within the chamber and having an impeller outlet ; wherein the chamber defines a channel region having an inlet and having a cross-sectional shape with an axial height and a transverse width , the axial height being greater than the transverse width, the axial height increasing from a first position proximate the back plate to a second position spaced from the back plate; characterized in that the impeller outlet is axially closer to the midpoint of the axial height of the channel region than the channel inlet .
A method for forming high aspect ratio fins comprising: - forming a patterned hard mask with a hard mask etching process, wherein the patterned hard mask comprises one or more isolated features and one or more nested features; - etching through a substrate disposed below the patterned hard mask to a first depth with a first substrate etching process, wherein the first substrate etching process transfers the isolated features and the nested features of the patterned hard mask into the substrate to form one or more isolated fins and one or more nested fins; and - etching through the substrate to a second depth with a second substrate etching process that is different than the first substrate etching process; wherein a first substrate etch chemistry utilized in the first substrate etching process provides a greater lateral passivation rate for the isolated fins than for the nested fins, and wherein a second substrate etch chemistry utilized in the second substrate etching process provides a greater lateral etch rate for the isolated fins than for the nested fins; and wherein the hard mask etching process further utilizes a gas mixture including O 2 , A r , and CH 3 F, with chemistry comprising a hydrogen to oxygen ratio between approximately 2.5:1 and 3.5:1. wherein the hard mask etching process further comprises varying a flow rate of the gases used in the hard mask etching process across the surface of the hard mask layer, wherein the flow rate of the gases used in the hard mask etching process is lower proximate to an edge of the hard mask layer relative to the flow rate of the gases used in the hard mask etching process proximate the center of the hard mask layer. - forming a patterned hard mask with a hard mask etching process, wherein the patterned hard mask comprises one or more isolated features and one or more nested features; - etching through a substrate disposed below the patterned hard mask to a first depth with a first substrate etching process, wherein the first substrate etching process transfers the isolated features and the nested features of the patterned hard mask into the substrate to form one or more isolated fins and one or more nested fins; and - etching through the substrate to a second depth with a second substrate etching process that is different than the first substrate etching process; wherein the hard mask etching process further utilizes a gas mixture including O 2 , A r , and CH 3 F, with chemistry comprising a hydrogen to oxygen ratio between approximately 2.5:1 and 3.5:1. wherein the hard mask etching process further comprises varying a flow rate of the gases used in the hard mask etching process across the surface of the hard mask layer, wherein the flow rate of the gases used in the hard mask etching process is lower proximate to an edge of the hard mask layer relative to the flow rate of the gases used in the hard mask etching process proximate the center of the hard mask layer.
Internal receptacle for a working vessel of a household appliance for preparing food , comprising a base provided to rest inside the working vessel , and a tank carried by the base , the tank having a bottom and a side wall , the base including a circumferential wall surrounding a free space that can be accessed by a lower opening , the internal receptacle having at least one free passage connecting the free space to an outer lateral face of the internal receptacle , characterised in that the base has an upper wall , in that at least one through-passage passes through the upper wall , and in that said at least one through-passage belongs to said at least one free passage .
A control method comprising: wirelessly communicating with a plurality of imaging devices ; displaying, in a multi-view screen, identifiers corresponding respectively to the plurality of imaging devices, on the basis of the communication, and images captured by the plurality of imaging devices and wirelessly communicated the plurality of imaging devices; and characterised by when a status change occurs in at least one of the plurality of imaging devices, displaying, in the multi-view screen, an object to indicate the status change in association with an image corresponding to the at least one of the plurality of imaging devices; wherein the status change in the at least one of the plurality of imaging devices includes an occurrence of a malfunction in the at least one of the plurality of imaging devices; wherein malfunctions include a first malfunction and a second malfunction, and a display time differs between the object to indicate the first malfunction and the object to indicate the second malfunction; wherein the first malfunction is an ongoing malfunction and the object to indicate the first malfunction is continually displayed while the ongoing malfunction is occurring; and wherein the second malfunction is an isolated malfunction and the object to indicate the second malfunction is continually displayed until a designated time elapses. wirelessly communicating with a plurality of imaging devices ; displaying, in a multi-view screen, identifiers corresponding respectively to the plurality of imaging devices, on the basis of the communication, and images captured by the plurality of imaging devices and wirelessly communicated the plurality of imaging devices; and characterised by when a status change occurs in at least one of the plurality of imaging devices, displaying, in the multi-view screen, an object to indicate the status change in association with an image corresponding to the at least one of the plurality of imaging devices; wherein the status change in the at least one of the plurality of imaging devices includes an occurrence of a malfunction in the at least one of the plurality of imaging devices; wherein malfunctions include a first malfunction and a second malfunction, and a display time differs between the object to indicate the first malfunction and the object to indicate the second malfunction; wherein the first malfunction is an ongoing malfunction and the object to indicate the first malfunction is continually displayed while the ongoing malfunction is occurring; and wherein the second malfunction is an isolated malfunction and the object to indicate the second malfunction is continually displayed until a designated time elapses.
An electrolyser, preferably alkaline water electrolyser, comprising: a first end plate and a second end plate; a plurality of cells serially stacked in-between the first end plate and the second end plate; wherein each cell comprises: a bipolar-plate assembly , comprising a bipolar plate placed between a first cell frame and a first gasket ; wherein the first gasket is assembled to overlap a predefined part of the first cell frame and a predefined part of the bipolar plate ; a cell-membrane assembly , comprising a cell membrane placed between a second cell frame and a second gasket ; wherein the second gasket is assembled to overlap a predefined part of the second cell frame and a predefined part of the cell membrane ; a plurality of electrodes, and a plurality of spacers; wherein a first electrode and a first spacer are placed in-between the bipolar plate of the bipolar-plate assembly and the cell membrane of the cell-membrane assembly ; and wherein a second electrode and a second spacer are placed in-between the cell membrane of the cell-membrane assembly and the bipolar plate of the bipolar-plate assembly of an adjacent cell. a first end plate and a second end plate; a plurality of cells serially stacked in-between the first end plate and the second end plate; wherein each cell comprises: a bipolar-plate assembly , comprising a bipolar plate placed between a first cell frame and a first gasket ; wherein the first gasket is assembled to overlap a predefined part of the first cell frame and a predefined part of the bipolar plate ; a cell-membrane assembly , comprising a cell membrane placed between a second cell frame and a second gasket ; wherein the second gasket is assembled to overlap a predefined part of the second cell frame and a predefined part of the cell membrane ; a plurality of electrodes, and a plurality of spacers; wherein a first electrode and a first spacer are placed in-between the bipolar plate of the bipolar-plate assembly and the cell membrane of the cell-membrane assembly ; and wherein a second electrode and a second spacer are placed in-between the cell membrane of the cell-membrane assembly and the bipolar plate of the bipolar-plate assembly of an adjacent cell. a bipolar-plate assembly , comprising a bipolar plate placed between a first cell frame and a first gasket ; wherein the first gasket is assembled to overlap a predefined part of the first cell frame and a predefined part of the bipolar plate ; a cell-membrane assembly , comprising a cell membrane placed between a second cell frame and a second gasket ; wherein the second gasket is assembled to overlap a predefined part of the second cell frame and a predefined part of the cell membrane ; a plurality of electrodes, and a plurality of spacers; wherein a first electrode and a first spacer are placed in-between the bipolar plate of the bipolar-plate assembly and the cell membrane of the cell-membrane assembly ; and wherein a second electrode and a second spacer are placed in-between the cell membrane of the cell-membrane assembly and the bipolar plate of the bipolar-plate assembly of an adjacent cell.
An implantable medical device configured to deliver pacing therapy, the implantable medical device comprising: a device body configured to position within a heart, wherein the device body comprises a proximal body portion and a distal body portion and defines a longitudinal axis (L) extending through the proximal body portion and the distal body portion, the proximal body portion is configured to rotate around the longitudinal axis relative to distal body portion; and a leadlet mechanically coupled to the device body, wherein the leadlet mechanically supports an electrode , and wherein in response to the proximal body portion rotating relative to the distal body portion, the device body is configured to alter an extension length of the leadlet. a device body configured to position within a heart, wherein the device body comprises a proximal body portion and a distal body portion and defines a longitudinal axis (L) extending through the proximal body portion and the distal body portion, the proximal body portion is configured to rotate around the longitudinal axis relative to distal body portion; and a leadlet mechanically coupled to the device body, wherein the leadlet mechanically supports an electrode , and wherein in response to the proximal body portion rotating relative to the distal body portion, the device body is configured to alter an extension length of the leadlet.
An apparatus of the tobacco industry for rejection of defective rod-like articles (Rd) from a mass flow of rod-like articles (R) on a conveyor, comprising a monitoring unit adapted to optically determine geometrical parameters of rod-like articles (R), and at least one rejecting unit adapted to remove a defective rod-like article (Rd) from the mass flow of rod-like articles (R), the unit configured for being placed downstream of the mass flow of the rod-like articles (R) in the moving direction of the conveyor from the monitoring unit , a controller , wherein the monitoring unit has optical recorders adapted to record images of opposite front surfaces of the mass flow of rod-like articles (R) on a conveyor, moreover wherein the controller is adapted to identify defective rod-like articles (Rd) in the mass flow, and determine the position of the defective rod-like articles (Rd) in the mass flow, based on the recorded images, and with criteria concerning the geometrical parameters of the opposite front surfaces of rod-like articles (R), and adapted to generate control signals for a rejecting unit to move a pushing element to the position enabling to push out the defective rod-like article (Rd), and the rejecting unit comprises at least one pushing element adapted to reject the defective rod-like article (Rd), the rejection unit is adapted to move along together with the mass flow into a position enabling it to push out the defective rod-like article (Rd) and to move along together with the mass flow during the course of rejection in response to the controls signal as received from the controller . a monitoring unit adapted to optically determine geometrical parameters of rod-like articles (R), and at least one rejecting unit adapted to remove a defective rod-like article (Rd) from the mass flow of rod-like articles (R), the unit configured for being placed downstream of the mass flow of the rod-like articles (R) in the moving direction of the conveyor from the monitoring unit , a controller , wherein the monitoring unit has optical recorders adapted to record images of opposite front surfaces of the mass flow of rod-like articles (R) on a conveyor, moreover the controller is adapted to identify defective rod-like articles (Rd) in the mass flow, and determine the position of the defective rod-like articles (Rd) in the mass flow, based on the recorded images, and with criteria concerning the geometrical parameters of the opposite front surfaces of rod-like articles (R), and adapted to generate control signals for a rejecting unit to move a pushing element to the position enabling to push out the defective rod-like article (Rd), and the rejecting unit comprises at least one pushing element adapted to reject the defective rod-like article (Rd), the rejection unit is adapted to move along together with the mass flow into a position enabling it to push out the defective rod-like article (Rd) and to move along together with the mass flow during the course of rejection in response to the controls signal as received from the controller .