mhurhangee/patent-ind-claim-en huggingface dataset:
A pouch-shaped secondary battery comprising: an electrode assembly ; and a pouch-shaped case configured to receive the electrode assembly , wherein the pouch-shaped case has therein a gas pocket configured such that at least a portion of the gas pocket is maintained in a folded state and such that, when gas is generated in the pouch-shaped case, the gas pocket is unfolded to form a space configured to collect the gas, the pouch-shaped case is configured to have a quadrangular planar structure in which a perimetric surface of this quadrangular plane comprises a single surface that is folded and three surfaces that are attached by sealing, the gas pocket is formed at the single surface that is folded, the pouch-shaped case comprises a case main body , in which the electrode assembly is mounted, and the gas pocket formed at one side of the case main body , and the gas pocket is configured to have a structure in which the gas pocket is bent from the case main body and is then in tight contact with the case main body . an electrode assembly ; and a pouch-shaped case configured to receive the electrode assembly , wherein the pouch-shaped case has therein a gas pocket configured such that at least a portion of the gas pocket is maintained in a folded state and such that, when gas is generated in the pouch-shaped case, the gas pocket is unfolded to form a space configured to collect the gas, the pouch-shaped case is configured to have a quadrangular planar structure in which a perimetric surface of this quadrangular plane comprises a single surface that is folded and three surfaces that are attached by sealing, the gas pocket is formed at the single surface that is folded, the pouch-shaped case comprises a case main body , in which the electrode assembly is mounted, and the gas pocket formed at one side of the case main body , and the gas pocket is configured to have a structure in which the gas pocket is bent from the case main body and is then in tight contact with the case main body .
A method of constructing and supplying a protective textile sleeve comprising: braiding a plurality of yarns with one another to form a seamless tubular wall (12, 112, 212, ...1412) extending lengthwise along a central longitudinal axis , with at least some of the yarns being provided as heat-settable yarns (20, 120, 220, ...1420); compressing the wall (12, 112, 212, ...1412) to a decreased length (L1), increased cross-sectional area first state; heat-setting the heat-settable yarns (20, 120, 220, ...1420) while the wall (12, 112, 212, ...1412) is in the first state so as to cause the wall to remain substantially in the first state absent some externally applied force; cutting the wall (12, 112, 212, ...1412) to an as shipped, bulk supply length; and disposing the bulk length of the wall (12, 112, 212, ...1412) into a package , wherein the bulk length is adapted to be subsequently cut upon being removed from the package to form a plurality of discrete use length sleeves. braiding a plurality of yarns with one another to form a seamless tubular wall (12, 112, 212, ...1412) extending lengthwise along a central longitudinal axis , with at least some of the yarns being provided as heat-settable yarns (20, 120, 220, ...1420); compressing the wall (12, 112, 212, ...1412) to a decreased length (L1), increased cross-sectional area first state; heat-setting the heat-settable yarns (20, 120, 220, ...1420) while the wall (12, 112, 212, ...1412) is in the first state so as to cause the wall to remain substantially in the first state absent some externally applied force; cutting the wall (12, 112, 212, ...1412) to an as shipped, bulk supply length; and disposing the bulk length of the wall (12, 112, 212, ...1412) into a package , wherein the bulk length is adapted to be subsequently cut upon being removed from the package to form a plurality of discrete use length sleeves.
A motion control system of a soft exosuit comprising: an actuator having an actuation member; an anchor element attachment, wherein the actuation member has a proximal end attached to the actuator configured to be placed on a first side of a joint and a distal end attached to an anchor element attachment point configured to be placed on a second side of the joint; a first sensor configured to output signals defining a motion cycle; a second sensor is configured to output signals representing a tensile force in the at least one actuation member; and a controller configured to receive the output signals from the first and second sensors and automatically actuate the actuator , during a first portion of the motion cycle, to apply a force greater than a predetermined threshold tensile force to the anchor element attachment point via the actuation member to generate a beneficial moment about the joint and to actuate the actuator, and wherein the controller is configured to actuate the actuator during at least a second portion of the motion cycle to reduce the force at the anchor element attachment point to a level at or below the predetermined threshold tensile force to avoid generating a detrimental moment about the joint, and wherein a positive tension is maintained in the soft exosuit during the motion cycle. an actuator having an actuation member; an anchor element attachment, wherein the actuation member has a proximal end attached to the actuator configured to be placed on a first side of a joint and a distal end attached to an anchor element attachment point configured to be placed on a second side of the joint; a first sensor configured to output signals defining a motion cycle; a second sensor is configured to output signals representing a tensile force in the at least one actuation member; and a controller configured to receive the output signals from the first and second sensors and automatically actuate the actuator , during a first portion of the motion cycle, to apply a force greater than a predetermined threshold tensile force to the anchor element attachment point via the actuation member to generate a beneficial moment about the joint and to actuate the actuator, and wherein the controller is configured to actuate the actuator during at least a second portion of the motion cycle to reduce the force at the anchor element attachment point to a level at or below the predetermined threshold tensile force to avoid generating a detrimental moment about the joint, and wherein a positive tension is maintained in the soft exosuit during the motion cycle.
A wheel assembly , comprising: a wheel having an axle ; and a constant force mechanism coupled to the wheel , characterised by a constant force mechanism comprising: a horizontal support ; a horizontal carriage associated with the horizontal support ; a vertical support oriented perpendicular with respect to the horizontal support ; a vertical carriage associated with the vertical support ; and a rigid arm that is pivotally coupled with the horizontal carriage , the vertical carriage , and the axle , wherein the rigid arm is coupled with the vertical carriage at a point intermediate where the rigid arm is coupled with the horizontal carriage and the axle , wherein a first resistance device is adapted to urge the horizontal carriage along the horizontal support , and wherein a second resistance device is adapted to urge the vertical carriage along the vertical support . a wheel having an axle ; and a constant force mechanism coupled to the wheel , characterised by a constant force mechanism comprising: a horizontal support ; a horizontal carriage associated with the horizontal support ; a vertical support oriented perpendicular with respect to the horizontal support ; a vertical carriage associated with the vertical support ; and a rigid arm that is pivotally coupled with the horizontal carriage , the vertical carriage , and the axle , a horizontal support ; a horizontal carriage associated with the horizontal support ; a vertical support oriented perpendicular with respect to the horizontal support ; a vertical carriage associated with the vertical support ; and a rigid arm that is pivotally coupled with the horizontal carriage , the vertical carriage , and the axle , wherein the rigid arm is coupled with the vertical carriage at a point intermediate where the rigid arm is coupled with the horizontal carriage and the axle , wherein a first resistance device is adapted to urge the horizontal carriage along the horizontal support , and wherein a second resistance device is adapted to urge the vertical carriage along the vertical support .
A sling bar assembly comprising: a lift engagement member for selectively coupling to a subject support lift ; opposing sling bar members slidably engaged with the lift engagement member , wherein the sling bar members each comprise a sling hook positioned at an outboard end of each of the sling bar members in a lateral direction, and wherein at least one of the sling bar members defines a cavity extending into the sling bar member , a sling bar frame coupled to the lift engagement member and positioned between the opposing sling bar members ; an engagement member fixed to and extending outward from the sling bar frame and positionable within the cavity ; and a lateral governor positioned between and engaged with the opposing sling bar members , wherein the lateral governor moves the opposing sling bar members in opposing directions, wherein the cavity comprises a groove extending in the lateral direction, and the engagement member is movably engaged with the groove. a lift engagement member for selectively coupling to a subject support lift ; opposing sling bar members slidably engaged with the lift engagement member , wherein the sling bar members each comprise a sling hook positioned at an outboard end of each of the sling bar members in a lateral direction, and wherein at least one of the sling bar members defines a cavity extending into the sling bar member , a sling bar frame coupled to the lift engagement member and positioned between the opposing sling bar members ; an engagement member fixed to and extending outward from the sling bar frame and positionable within the cavity ; and a lateral governor positioned between and engaged with the opposing sling bar members , wherein the lateral governor moves the opposing sling bar members in opposing directions, wherein the cavity comprises a groove extending in the lateral direction, and the engagement member is movably engaged with the groove.
A method for towing a marine seismic acquisition array in a body of water , comprising: towing a plurality of laterally spaced apart sensor streamers behind a survey vessel in the water, a lateral spacing between adjacent streamers represented by L; characterized by towing at least two laterally spaced apart seismic energy sources behind the survey vessel, a lateral spacing between the at least two sources represented by kL, wherein k is a constant and wherein k is at most equal to the number of streamers; and steering the sensor streamers to have a selected spread angle between a first portion of the streamers extending behind the survey vessel and a second portion of the streamers extending behind the survey vessel, and using seismic data from overlapping common depth point lines acquired laterally between the lateral positions of the sources to reduce infill acquisition. towing a plurality of laterally spaced apart sensor streamers behind a survey vessel in the water, a lateral spacing between adjacent streamers represented by L; characterized by towing at least two laterally spaced apart seismic energy sources behind the survey vessel, a lateral spacing between the at least two sources represented by kL, wherein k is a constant and wherein k is at most equal to the number of streamers; and steering the sensor streamers to have a selected spread angle between a first portion of the streamers extending behind the survey vessel and a second portion of the streamers extending behind the survey vessel, and using seismic data from overlapping common depth point lines acquired laterally between the lateral positions of the sources to reduce infill acquisition.
A diverter damper for controlling a gas flow in a gas duct of large cross section, said diverter damper comprising: - a housing having an inlet and two outlets , - a pivotable flap which in a first extreme position closes a first outlet and in a second extreme position closes a second outlet, - a drive shaft connected to the pivotable flap, wherein the drive shaft extends at least partly between two opposite housing walls and through at least one of the two opposite housing walls, - at least one actuator mechanism that is located outside the housing near or against the at least one housing wall through which the drive shaft extends, said drive shaft comprises at least one hollow actuator pipe end part , said actuator pipe end part extends through the at least one housing wall such that said pipe end part is located both inside the housing where said end part is connected to the flap and outside the housing where the end part is connected to said actuator mechanism, characterized in that said actuator mechanism comprises at least one cylinder piston unit connected to said drive shaft for pivoting the flap into one of the extreme positions or into a position between the extreme positions, wherein outside the housing the end part of the actuator pipe comprises at least one connection flange forming a lever arm for providing a connection between the actuator pipe and the at least one cylinder piston unit, which connection flange is in one-piece with the actuator pipe end part. - a housing having an inlet and two outlets , - a pivotable flap which in a first extreme position closes a first outlet and in a second extreme position closes a second outlet, - a drive shaft connected to the pivotable flap, wherein the drive shaft extends at least partly between two opposite housing walls and through at least one of the two opposite housing walls, - at least one actuator mechanism that is located outside the housing near or against the at least one housing wall through which the drive shaft extends, said drive shaft comprises at least one hollow actuator pipe end part , said actuator pipe end part extends through the at least one housing wall such that said pipe end part is located both inside the housing where said end part is connected to the flap and outside the housing where the end part is connected to said actuator mechanism, characterized in that said actuator mechanism comprises at least one cylinder piston unit connected to said drive shaft for pivoting the flap into one of the extreme positions or into a position between the extreme positions, wherein outside the housing the end part of the actuator pipe comprises at least one connection flange forming a lever arm for providing a connection between the actuator pipe and the at least one cylinder piston unit, which connection flange is in one-piece with the actuator pipe end part.
An integrated current sensor using a Z-axis magnetoresistive gradiometer and a lead frame current, comprising a Z axis gradiometer and a lead frame primary coil , wherein the Z axis gradiometer is a magnetoresistive Z-axis gradient sensor, comprising a substrate , two elongated soft magnetic flux concentrators (A1 and B1) having a separate gradient feature interval Lg and placed upon the substrate, and magnetoresistive sensor strings located on the upper surface or the lower surface of the soft magnetic flux concentrators and at two side positions equidistant from a long-axis centerline of the soft magnetic flux concentrators, such that the combined magnetoresistive sensing unit detects the magnetic field perpendicular to the long-axis center line of the soft magnetic flux concentrators, and it is configured as a gradiometer sensor bridge; the lead frame primary coil comprises an elongated current detection band placed directly above or below the Z axis gradiometer, the two soft magnetic flux concentrators (A1 and B1) are symmetrically placed on two sides of a band center line of the elongated current detection band that is parallel to the long-axis center line of the soft magnetic flux concentrators, and the direction of a detection current in the elongated current detection band is parallel to the direction of the long-axis center line of the soft magnetic flux concentrators; and further comprising a secondary coil, wherein the secondary coil comprises two subcoils connected in series and having opposite coiling directions, and each of the subcoils comprises two straight wires symmetrically located on two sides of the long-axis center line of the soft magnetic flux concentrators and having opposite feedback current directions.
A computer-implemented method for detecting a flying spot on an edge of a depth image, comprising the steps of: collecting (S101) image data of the depth image; calculating (S102) a normal vector of each pixel of the depth image according to the image data; calculating (S 103), according to the normal vector, an edge point of the depth image with an edge detection operator; taking (S104) the edge point as a seed point and acquiring a first normal vector of the seed point; acquiring a second normal vector of each of neighboring pixels of the seed point; calculating an absolute value of a product of the first normal vector and the second normal vector; and determining whether the absolute value is less than a preset threshold; and determining the seed point as the flying spot based on a determination that the absolute value is less than the preset threshold. collecting (S101) image data of the depth image; calculating (S102) a normal vector of each pixel of the depth image according to the image data; calculating (S 103), according to the normal vector, an edge point of the depth image with an edge detection operator; taking (S104) the edge point as a seed point and acquiring a first normal vector of the seed point; acquiring a second normal vector of each of neighboring pixels of the seed point; calculating an absolute value of a product of the first normal vector and the second normal vector; and determining whether the absolute value is less than a preset threshold; and determining the seed point as the flying spot based on a determination that the absolute value is less than the preset threshold.
A single-screw extruder , comprising - a cylindrical rotor member having diameter (D) and length (L) and comprising a feeding zone , - the rotor member arranged in a barrel , - the cylindrical surface of the rotor member carrying cavity/cavities and/or projection(s) arranged in helically extending rows, - the helically extending row(s) of the rotor member having a pitch (P) and depth (d) in the feeding zone of the rotor member, and the extruder further comprising - a drive system for the rotation of the rotor member in the barrel , characterized in that the relation of the depth (d) to the diameter (D) of the rotor member, i.e. d:D, is not more than 1:20, and that the relation of the pitch (P) of the rotor member to the diameter (D) of the rotor member, i.e. P:D, is not more than 1:4. - a cylindrical rotor member having diameter (D) and length (L) and comprising a feeding zone , - the rotor member arranged in a barrel , - the cylindrical surface of the rotor member carrying cavity/cavities and/or projection(s) arranged in helically extending rows, - the helically extending row(s) of the rotor member having a pitch (P) and depth (d) in the feeding zone of the rotor member, and the extruder further comprising - a drive system for the rotation of the rotor member in the barrel , the relation of the depth (d) to the diameter (D) of the rotor member, i.e. d:D, is not more than 1:20, and that the relation of the pitch (P) of the rotor member to the diameter (D) of the rotor member, i.e. P:D, is not more than 1:4.
An OLED device having an optical resonance layer , comprising: a white light OLED and a color filter film , so as to form a red (R) sub-pixel, a green (G) sub-pixel, a blue (B) sub-pixel and a white (W) sub-pixel, wherein the optical resonance layer is disposed only in a region corresponding to the green sub-pixel between the white light OLED and the color filter film , wherein a flat layer is arranged on the color filter film , and the optical resonance layer is arranged on the flat layer , wherein the optical resonance layer is a single-layer medium structure having only a first medium layer , wherein a transparent electrode is disposed on the optical resonance layer , and the white light OLED and a reflection electrode are disposed on the transparent electrode , characterized in that the refractive index of the optical resonance layer is higher than the refractive index of the transparent electrode , and a filling layer is disposed between the flat layer and the transparent electrode in the same plane as the optical resonance layer parallel to the flat layer to fill a gap in the regions without the optical resonance layer .
A container having an opening and a closure movable between a first position in which the opening is closed and a second position in which the opening is exposed, the closure comprising a closure flap located within the container and a pivot arm , the pivot arm having a first end secured to the closure flap and a second end having a weighted portion , the pivot arm being pivotally mounted within the container at a pivot point located between the first and second ends, wherein when the container is in a first position in which it stands upright, the centre of mass of the weighted portion is offset horizontally and vertically from the pivot point and acts to bias the closure flap to close the opening and when the container is rotated in a first direction to a second position in which it is tilted away from the vertical and in a direction effectively towards the opening in order to enable the contents of the container to be dispensed, the weighted portion causes the pivot arm and the closure flap to rotate relative to the container in a second direction opposite to the first direction, thereby to bias the closure flap away from the opening in order to expose the opening , wherein in the first position, the weighted portion is offset vertically by a greater distance than it is offset horizontally.