mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for maintaining a selected preload, comprising: an actuator configured to create a force between a first member and a second member wherein the first member and the second member are configured to pivot relative to each other, the force generating the selected preload between the members, wherein the first member is a wing of a tiltrotor aircraft and the second member is a proprotor that is configured to rotate between a horizontal position and a vertical position relative to the wing or wherein the second member is a wing of a tiltrotor aircraft and the first member is a proprotor that is configured to rotate between a horizontal position and a vertical position relative to the wing ; a downstop striker configured to be attached to the first member; a downstop configured to be attached to the second member and configured to receive the downstop striker ; and a load cell configured to generate an output signal representing the force, characterised in that the load cell is configured to attach the downstop to the first member. an actuator configured to create a force between a first member and a second member wherein the first member and the second member are configured to pivot relative to each other, the force generating the selected preload between the members, wherein the first member is a wing of a tiltrotor aircraft and the second member is a proprotor that is configured to rotate between a horizontal position and a vertical position relative to the wing or wherein the second member is a wing of a tiltrotor aircraft and the first member is a proprotor that is configured to rotate between a horizontal position and a vertical position relative to the wing ; a downstop striker configured to be attached to the first member; a downstop configured to be attached to the second member and configured to receive the downstop striker ; and a load cell configured to generate an output signal representing the force, characterised in that the load cell is configured to attach the downstop to the first member.
An applicator for delivering a sensor control device , the applicator comprising: a housing ; a sensor carrier coupled to the housing, the sensor carrier including a first lock interface ; a sheath , slidably coupled to the housing to move between an extended position and a collapsed position, the sheath including a first lock arm having an attached distal end and a free proximal end , the free proximal end including a first lock arm interface disposed on an inner surface of the first lock arm and a first sharp edge disposed on an outer surface of the first lock arm; and a cap threadably coupled to the housing, the cap including an inner surface having a first plurality of crush ribs ; wherein the inner surface of the cap is configured to urge the first lock arm inwardly when the cap is coupled to the housing such that the first lock arm interface engages the first lock interface; and wherein the first sharp edge is configured to engage the first plurality of crush ribs during a shock event. a housing ; a sensor carrier coupled to the housing, the sensor carrier including a first lock interface ; a sheath , slidably coupled to the housing to move between an extended position and a collapsed position, the sheath including a first lock arm having an attached distal end and a free proximal end , the free proximal end including a first lock arm interface disposed on an inner surface of the first lock arm and a first sharp edge disposed on an outer surface of the first lock arm; and a cap threadably coupled to the housing, the cap including an inner surface having a first plurality of crush ribs ; wherein the inner surface of the cap is configured to urge the first lock arm inwardly when the cap is coupled to the housing such that the first lock arm interface engages the first lock interface; and wherein the first sharp edge is configured to engage the first plurality of crush ribs during a shock event.
An array substrate having a plurality of subpixel areas, the array substrate in each of the plurality of subpixel areas comprising: a first electrode layer and a second electrode layer configured to form a fringe field for driving liquid crystal molecules; an insulating layer between the first electrode layer and the second electrode layer ; and a common electrode signal line (CL); wherein the second electrode layer is a comb-shaped electrode and comprises a plurality of branches ; wherein teeth are defined such that each of the plurality of teeth (T) comprises only one of the plurality of branches; adjacent teeth (T) of the plurality of teeth (T) are spaced apart by a first slit (S1), the first slit (S1) extending substantially throughout one dimension of the second electrode layer of one of the plurality of subpixel areas; the adjacent teeth (T) separated from each other at their first end (E1) and connected to each other at their second end (E2); the second electrode layer further comprising a bar connecting the adjacent teeth (T) of the plurality of teeth (T) at their second end (E2); wherein the bar is located in a peripheral region of the second electrode layer ; and characterized in that a projection of the common electrode signal line (CL) on a base substrate of the array substrate at least partially overlaps with projections of the plurality of teeth (T) at at their first ends (E1) on the base substrate . a first electrode layer and a second electrode layer configured to form a fringe field for driving liquid crystal molecules; an insulating layer between the first electrode layer and the second electrode layer ; and a common electrode signal line (CL); wherein the second electrode layer is a comb-shaped electrode and comprises a plurality of branches ; wherein teeth are defined such that each of the plurality of teeth (T) comprises only one of the plurality of branches; adjacent teeth (T) of the plurality of teeth (T) are spaced apart by a first slit (S1), the first slit (S1) extending substantially throughout one dimension of the second electrode layer of one of the plurality of subpixel areas; the adjacent teeth (T) separated from each other at their first end (E1) and connected to each other at their second end (E2); the second electrode layer further comprising a bar connecting the adjacent teeth (T) of the plurality of teeth (T) at their second end (E2); wherein the bar is located in a peripheral region of the second electrode layer ; and characterized in that a projection of the common electrode signal line (CL) on a base substrate of the array substrate at least partially overlaps with projections of the plurality of teeth (T) at at their first ends (E1) on the base substrate .
A piling construction management method using, after forming a piling hole (H1) with a set depth in the ground (G), before erecting a piling in the piling hole (H1), a penetration testing device (M1, M2, or M3) including a knocking block integrated with a penetration shaft projecting downward, a drive hammer that strikes the knocking block in free-fall, and a lifting mechanism that lifts the drive hammer after falling and releases the same at a prescribed height, wherein the penetration shaft of the penetration testing device (M1, M2, or M3) disposed inside the piling hole (H1) is made to reach a hole bottom (Hb1), and from the number of impacts by the drive hammer required for the penetration shaft to penetrate to a prescribed depth from the hole bottom (Hb1), a support strength of the hole bottom (Hb1) is determined, and when the support strength is equal to or more than a prescribed value, a piling is erected in the piling hole (H1), and on the other hand, when the support strength is less than the prescribed value, the piling hole (H1) is dug again to be deeper, a support strength of a hole bottom (Hb2) after being dug again is determined in the same manner with the penetration testing device (M1, M2, or M3), and when the support strength reaches the prescribed value or more, a piling with a length corresponding to a depth of a piling hole (H2) after being dug again is erected in the piling hole (H2), characterized in that each of the penetration testing devices (M1 to M3) is configured such that a cylindrical hammer casing incorporating the lifting mechanism and the drive hammer is held movably up and down inside a vertical cylindrical outer casing , the knocking block is fixed to a lower end of the hammer casing , and the penetration shaft penetrates through a lower end side of the outer casing and projects downward to the outside, wherein each of the penetration testing devices (M1 to M3) incorporates an encoder that measures a sinkage amount of the hammer casing .
An open form disposable absorbent article comprising: a first waist region , a second waist region , a crotch region disposed between the first waist region and second waist region ; a waist edge in the first waist region ; at least one waistband in the first waist region adjacent the waist edge ; and at least one fastener in the second waist region ; wherein the first waist region has a resiliency of greater than about 5 mJ and a stiffness of less than about 10N; wherein a nonwoven material and at least two elastic strands are combined under a first strain and the waistband is attached to the open form disposable absorbent article under an applied waistband strain, wherein the difference between the first strain and the applied waistband strain results in a waistband having a Full Waistband Consolidation of greater than 40%; and wherein the waistband is attached on a body-facing surface of the open form disposable absorbent article; the open form disposable absorbent article further including a leg gasketing system , and the waistband overlapping the leg gasketing system .
A semiconductor device bonding wire comprising: a core material whose components include copper as a main component; an outer layer provided on said core material, said outer layer containing a metal M that differs from said core material in one or both of component and composition, and copper, wherein said metal M is at least one of Pd and Au, and said outer layer is 0.021 to 0.12μm in thickness, characterized in that said outer layer contains at least one element selected from among Bi, P, Se and Tl, and an elemental concentration of said at least one element on a surface of said outer layer is in a range of from 0.01 to 5mol% in total. a core material whose components include copper as a main component; an outer layer provided on said core material, said outer layer containing a metal M that differs from said core material in one or both of component and composition, and copper, wherein said metal M is at least one of Pd and Au, and said outer layer is 0.021 to 0.12μm in thickness, characterized in that said outer layer contains at least one element selected from among Bi, P, Se and Tl, and an elemental concentration of said at least one element on a surface of said outer layer is in a range of from 0.01 to 5mol% in total.
An electrode assembly, in which a positive electrode, a separator, a negative electrode are wound in a state of being stacked, wherein the positive electrode comprises a first positive electrode and a second positive electrode, each of the first positive electrode and the second positive electrode is manufactured by applying a positive electrode active material on a surface of a positive electrode collector, wherein the positive electrode active material is not applied on one end to form a positive electrode non-coating portion on which the positive electrode collector is exposed, the positive electrode non-coating portions of the first positive electrode and the second positive electrode are bonded to be connected to each other, and wherein a capacity per unit area of the first positive electrode and a capacity per unit area of the second positive electrode are different from each other. wherein the positive electrode comprises a first positive electrode and a second positive electrode, each of the first positive electrode and the second positive electrode is manufactured by applying a positive electrode active material on a surface of a positive electrode collector, wherein the positive electrode active material is not applied on one end to form a positive electrode non-coating portion on which the positive electrode collector is exposed, the positive electrode non-coating portions of the first positive electrode and the second positive electrode are bonded to be connected to each other, and wherein a capacity per unit area of the first positive electrode and a capacity per unit area of the second positive electrode are different from each other.
A mapping and resource allocation method for Relay link-Physical Downlink Shared Channel, R-PDSCH, in Long Term Evolution, LTE, system and Long Term Evolution-Advanced, LTE-A, system, the method comprising: when resources allocated for a Relay link-Physical Downlink Control Channel, R-PDCCH, overlap with resources allocated for a R-PDSCH, mapping the data of the R-PDSCH on all or partial allocated resources which are not occupied by the R-PDCCH or sending the data of the R-PDSCH on all or partial allocated resources which are not occupied by the R-PDCCH; wherein a grouping-tree resource allocation mode is used to allocate resources for the R-PDSCH; the grouping-tree resource allocation mode comprises: grouping resource blocks, or resource block pairs or frequency resources, and performing tree-shaped resource allocation on the grouped resources, wherein bit number of position information is ┌log 2 ( n· ( n +1)/2)┐ when the grouping-tree resource allocation mode is adopted, where n refers to number of available groups, and ┌ ┐ refers to ceiling. when resources allocated for a Relay link-Physical Downlink Control Channel, R-PDCCH, overlap with resources allocated for a R-PDSCH, mapping the data of the R-PDSCH on all or partial allocated resources which are not occupied by the R-PDCCH or sending the data of the R-PDSCH on all or partial allocated resources which are not occupied by the R-PDCCH; wherein a grouping-tree resource allocation mode is used to allocate resources for the R-PDSCH; the grouping-tree resource allocation mode comprises: grouping resource blocks, or resource block pairs or frequency resources, and performing tree-shaped resource allocation on the grouped resources, wherein bit number of position information is ┌log 2 ( n· ( n +1)/2)┐ when the grouping-tree resource allocation mode is adopted, where n refers to number of available groups, and ┌ ┐ refers to ceiling.
An electric work vehicle comprising: a traveling vehicle body ; a hood provided to the traveling vehicle body ; a wheel unit having wheels on the right and left sides of the traveling vehicle body ; a motor for supplying rotational drive force to the wheel unit ; a battery for supplying electric power to the motor , the battery including: a first battery disposed at a right/left center of the traveling vehicle body ; and second batteries disposed in symmetricity across the right/left center; characterized in that the first battery is disposed beneath or inside the hood , and the second batteries are disposed on respective right and left fenders that are respectively on the right and left sides of the traveling vehicle body . a traveling vehicle body ; a hood provided to the traveling vehicle body ; a wheel unit having wheels on the right and left sides of the traveling vehicle body ; a motor for supplying rotational drive force to the wheel unit ; a battery for supplying electric power to the motor , the battery including: a first battery disposed at a right/left center of the traveling vehicle body ; and second batteries disposed in symmetricity across the right/left center; a first battery disposed at a right/left center of the traveling vehicle body ; and second batteries disposed in symmetricity across the right/left center; characterized in that the first battery is disposed beneath or inside the hood , and the second batteries are disposed on respective right and left fenders that are respectively on the right and left sides of the traveling vehicle body .
A method for controlling operations of an electronic device , comprising: using a rotary knob having a single rotatable part , wherein the method is characterised by using the rotary knob having a single rotatable part to select a first circuit to perform operations of the electronic device during a first time and to select a second circuit to perform operations of the electronic device during a second time; and using the single rotatable part of the rotary knob to additionally change preset functions for the first circuit during the first time and the second circuit during the second time, where a degree of rotation of the single rotatable part corresponds to a desired preset function input selected from a plurality of possible preset function inputs, wherein the first circuit is selected by: placing the single rotatable part of the rotary knob in a first home position ; and maintaining the single rotatable part in the first home position for a given amount of time so as to cause the electronic device to switch operations from a second circuit to the first circuit , wherein the second circuit is selected by: placing the single rotatable part of the rotary knob in a second home position ; and maintaining the single rotatable part of the rotary knob in the second home position for the given amount of time so as to cause the electronic device to switch operations from the first circuit to the second circuit . using a rotary knob having a single rotatable part , wherein the method is characterised by using the rotary knob having a single rotatable part to select a first circuit to perform operations of the electronic device during a first time and to select a second circuit to perform operations of the electronic device during a second time; and using the single rotatable part of the rotary knob to additionally change preset functions for the first circuit during the first time and the second circuit during the second time, where a degree of rotation of the single rotatable part corresponds to a desired preset function input selected from a plurality of possible preset function inputs, wherein placing the single rotatable part of the rotary knob in a first home position ; and maintaining the single rotatable part in the first home position for a given amount of time so as to cause the electronic device to switch operations from a second circuit to the first circuit , wherein the second circuit is selected by: placing the single rotatable part of the rotary knob in a second home position ; and maintaining the single rotatable part of the rotary knob in the second home position for the given amount of time so as to cause the electronic device to switch operations from the first circuit to the second circuit . placing the single rotatable part of the rotary knob in a second home position ; and maintaining the single rotatable part of the rotary knob in the second home position for the given amount of time so as to cause the electronic device to switch operations from the first circuit to the second circuit .
A transport carriage for cargo having a loading platform which is able to reach under the cargo in the loaded state of the transport carriage, and a strapping system which permits a securing of the cargo on the loading platform and comprises at least one tensioning means which may be guided at least in sections around the cargo loaded onto the platform by means of a common conveying device in order to tension the loaded cargo against the loading platform, characterized in that the loading platform at its front ends is defined by transverse side parts which comprise the conveying device of the strapping system.
An apparatus for moving objects, having a plurality of transport movers individually movable by means of magnetic conveying technology and/or linear motor technology for the transport of the objects; having a path system for the transport movers in which the transport movers are movable along at least one predefined path in a transport direction (T); and having a control device for controlling the movements of the transport movers in the path system , wherein the transport movers each comprise at least one runner cooperating with the path system ; at least one carrier for objects; and at least one holder attached to the runner for the carrier , wherein the holder comprises at least one receiver for the carrier into which a guide section of the carrier can be inserted, and wherein the carrier is adjustable relative to the runner between a lower transport position and an upper functional position and in so doing is guided by the holder , and wherein the carrier can be inserted into the holder in a plurality of different orientations and is respectively non-rotatable relative to the holder in the inserted state, wherein the carrier is raised into the functional position by cooperation with a cam contour of the path system .
An inner-blood-retinal-barrier (iBRB) or blood-brain-barrier (BBB) tight junction protein; and/or a circadian clock protein; for use in the prevention and/or treatment of age-related macular degeneration wherein: (a) the inner-blood- retinal-barrier (iBRB) or blood-brain-barrier (BBB) tight junction protein is selected from the claudin family of proteins; and (b) the circadian clock protein is selected from period-1 (Per-1), period-2 (Per-2), period-3 (Per-3), cryptochrome-1 (Cry-1), cryptochrome-2 (Cry-2), Clock, brain and muscle aryl hydrocarbon receptor nuclear translocator like-1 (BMAL-1), brain and muscle aryl hydrocarbon receptor nuclear translocator like-2 (BMAL-2), Rev-ErbA alpha (NR1 D1), and combinations each thereof. (a) the inner-blood- retinal-barrier (iBRB) or blood-brain-barrier (BBB) tight junction protein is selected from the claudin family of proteins; and (b) the circadian clock protein is selected from period-1 (Per-1), period-2 (Per-2), period-3 (Per-3), cryptochrome-1 (Cry-1), cryptochrome-2 (Cry-2), Clock, brain and muscle aryl hydrocarbon receptor nuclear translocator like-1 (BMAL-1), brain and muscle aryl hydrocarbon receptor nuclear translocator like-2 (BMAL-2), Rev-ErbA alpha (NR1 D1), and combinations each thereof.
An article engaging carrier for packaging at least one article (B, B1, B2), the carrier comprising a top panel with at least one article-engaging feature (RT1, RT2) and at least one shoulder panel hingedly connected to the top panel and disposed obliquely with respect to the top panel , the at least one article-engaging feature (RT1, RT2) comprising an article-receiving aperture and an annular series of engaging tabs formed around the article-receiving aperture, the annular series of engaging tabs comprising at least one first tab and at least one second tab , characterised in that the at least one first tab is hingedly connected in part to the top panel and in part to the at least one shoulder panel , the at least one first tab has a first radial length (LT1), the at least one second tab is hingedly connected only to the top panel and has a second radial length (LT), wherein the first radial length (LT1) is greater than the second radial length (LT).