mhurhangee/patent-ind-claim-en huggingface dataset:
A wellbore completion alignment method, the method characterised in that it comprises the following operations: installing a wellbore casing comprising two or more first casing segments with a first magnetic permeability (μ2a), and a second casing segment with a second magnetic permeability (μ2b) intermediate two of the first casing segments ; recording a remaining distance between the second casing segment and a landing depth (dl); assembling a wellbore completion comprising a first completion magnetic dipole arranged for measuring a magnetic permeability of the wellbore casing ; lowering the wellbore completion downhole inside the wellbore casing , and during the lowering monitoring the measured magnetic permeability ; continuing the lowering until a first relative change in the measured magnetic permeability from the first magnetic permeability (μ2a) to the second magnetic permeability (μ2b) is detected and recording a space-out starting depth (d0) for the wellbore completion ; spacing-out the remaining distance from the space-out starting depth (d0) to the landing depth (dl); landing the wellbore completion as terminated by a tubing hanger in a wellhead housing . installing a wellbore casing comprising two or more first casing segments with a first magnetic permeability (μ2a), and a second casing segment with a second magnetic permeability (μ2b) intermediate two of the first casing segments ; recording a remaining distance between the second casing segment and a landing depth (dl); assembling a wellbore completion comprising a first completion magnetic dipole arranged for measuring a magnetic permeability of the wellbore casing ; lowering the wellbore completion downhole inside the wellbore casing , and during the lowering monitoring the measured magnetic permeability ; continuing the lowering until a first relative change in the measured magnetic permeability from the first magnetic permeability (μ2a) to the second magnetic permeability (μ2b) is detected and recording a space-out starting depth (d0) for the wellbore completion ; spacing-out the remaining distance from the space-out starting depth (d0) to the landing depth (dl); landing the wellbore completion as terminated by a tubing hanger in a wellhead housing .
A compressor for discharging a medium, in particular tire sealant that is to be discharged from a container into a tire, wherein a motor of the compressor (P) drives a step-up transmission wheel for moving at least one piston (6 to 6.6) in a compression chamber , wherein the step-up transmission wheel consists of two toothed wheels lying on each other when viewed in an axial direction, characterized in that the step-up transmission wheel is connected eccentrically to an output wheel and, by way of the latter, to a piston rod , which moves a piston in a compression chamber ; and in that the output wheel consists of two wheel halves (4.1, 4.2), each with a toothing (14.1, 14.2), wherein the toothing (14.1) of one wheel half (4.1) extends about one arc distance and the toothing (14.2) of the other wheel half (4.2) extends about another arc distance.
A multi-way valve for serving an actuator for axial displacement of an object, the multi-way valve comprises a control pressure channel and is configured to communicate an adjustable control pressure via said control pressure channel , the multi-way valve comprising: - a first control fluid channel extending between a first opening and said control pressure channel , - a second control fluid channel extending between a second opening and said control pressure channel , - a valve body arrangement arranged in said first control fluid channel and in said second control fluid channel , and - an electrically controlled device having a drive member and an armature , the armature being displaceable back and forth under the effect of said drive member between an inactive position and an active position, wherein the multi-way valve is configured by means of the movement of the armature from the inactive position to the active position to displace the valve body arrangement to an active position where the first control fluid channel is closed and the second control fluid channel is open, and the electrically controlled device further comprising a drive body connected to said armature and a spring member arranged between the armature and said drive body , wherein the drive body is arranged in said first control fluid channel , the drive body being configured to abut the valve body arrangement and the spring member being in a compressed state when the armature is located in the active position. - a first control fluid channel extending between a first opening and said control pressure channel , - a second control fluid channel extending between a second opening and said control pressure channel , - a valve body arrangement arranged in said first control fluid channel and in said second control fluid channel , and - an electrically controlled device having a drive member and an armature ,
A shock absorber , comprising: a piston rod ; a piston supported by the piston rod ; a damper tube accommodating the piston in a reciprocally movable manner and capable of being filled with oil ; a suspension spring for urging the damper tube and the piston rod in opposite directions; wherein the shock absorber further comprises a first male screw provided on an outer peripheral surface of the damper tube; a first nut screwed into the first male screw so as to enable a spring load of the suspension spring to be adjusted; a second nut screwed into the first male screw so as to enable a position of the first nut in an axial direction of the damper tube to be fixed; characterized in that the shock absorber further comprises a second male screw having a reverse screw configuration to the first male screw and provided on the outer peripheral surface of the damper tube ; and a damper head screwed into the second male screw so as to enable the damper head to cover one end portion of the damper tube . a piston rod ; a piston supported by the piston rod ; a damper tube accommodating the piston in a reciprocally movable manner and capable of being filled with oil ; a suspension spring for urging the damper tube and the piston rod in opposite directions; wherein the shock absorber further comprises a first male screw provided on an outer peripheral surface of the damper tube; a first nut screwed into the first male screw so as to enable a spring load of the suspension spring to be adjusted; a second nut screwed into the first male screw so as to enable a position of the first nut in an axial direction of the damper tube to be fixed; characterized in that the shock absorber further comprises a second male screw having a reverse screw configuration to the first male screw and provided on the outer peripheral surface of the damper tube ; and a damper head screwed into the second male screw so as to enable the damper head to cover one end portion of the damper tube .
A drug delivery device, comprising: a housing having a longitudinal axis; an axially moveable component that is moveable along the longitudinal axis between a dose dialling position and a dose delivery position when a user operates the device to deliver a dose of drug; an encoder sleeve ; an encoder pattern provided on the encoder sleeve, the encoder pattern comprising relatively conductive portions and relatively non-conductive portions that together comprise coded information; a contact-supporting component ; and plural electrical contacts provided on the contact-supporting component, characterized in that the plural electrical contacts contact the encoder pattern when the axially moveable component is in the dose dialling position and wherein the device is configured to move the contact-supporting component relative to the encoder sleeve as the axially moveable component moves from the dose dialling position to the dose delivery position such as to move the electrical contacts into positions where they do not contact the encoder pattern. a housing having a longitudinal axis; an axially moveable component that is moveable along the longitudinal axis between a dose dialling position and a dose delivery position when a user operates the device to deliver a dose of drug; an encoder sleeve ; an encoder pattern provided on the encoder sleeve, the encoder pattern comprising relatively conductive portions and relatively non-conductive portions that together comprise coded information; a contact-supporting component ; and plural electrical contacts provided on the contact-supporting component, characterized in that the plural electrical contacts contact the encoder pattern when the axially moveable component is in the dose dialling position and wherein the device is configured to move the contact-supporting component relative to the encoder sleeve as the axially moveable component moves from the dose dialling position to the dose delivery position such as to move the electrical contacts into positions where they do not contact the encoder pattern.
An image processing apparatus comprising: an image capturing control means adapted to control an image capturing apparatus to capture a plurality of images in a first state in one or more image capturing positions during a predetermined period of time for each position; a determination means adapted to determine one or more image capturing positions to be adopted by the image capturing apparatus in a preset tour state, by using a result of human detection processing performed on the images captured at each image capturing position in the first state by the image capturing apparatus; wherein the image capturing control means is further adapted to control the image capturing apparatus to perform the image capturing in the preset tour state by adopting the one or more image capturing positions determined by the determination means. an image capturing control means adapted to control an image capturing apparatus to capture a plurality of images in a first state in one or more image capturing positions during a predetermined period of time for each position; a determination means adapted to determine one or more image capturing positions to be adopted by the image capturing apparatus in a preset tour state, by using a result of human detection processing performed on the images captured at each image capturing position in the first state by the image capturing apparatus; wherein the image capturing control means is further adapted to control the image capturing apparatus to perform the image capturing in the preset tour state by adopting the one or more image capturing positions determined by the determination means.
An optical system for imaging a retina through a pupil of an eye , comprising: an illumination source for providing light to illuminate the eye via an illumination optical system ; an imaging device for outputting image data corresponding to the retina of the eye over a period of time, wherein said imaging device is arranged to receive reflected light from the eye via an imaging optical system; an offner relay arranged to direct light received from the illumination optical system to the eye and to direct reflected light from the eye to the imaging optical system; characterised by : a tracking unit arranged to determine a location of the pupil; a bleaching light source for providing light to bleach rhodopsin in the retina of the eye via the imaging optical system; and wherein said offner relay is moveably mounted and arranged to move to track the location of the pupil. an illumination source for providing light to illuminate the eye via an illumination optical system ; an imaging device for outputting image data corresponding to the retina of the eye over a period of time, wherein said imaging device is arranged to receive reflected light from the eye via an imaging optical system; an offner relay arranged to direct light received from the illumination optical system to the eye and to direct reflected light from the eye to the imaging optical system; characterised by : a tracking unit arranged to determine a location of the pupil; a bleaching light source for providing light to bleach rhodopsin in the retina of the eye via the imaging optical system; and wherein said offner relay is moveably mounted and arranged to move to track the location of the pupil. a tracking unit arranged to determine a location of the pupil; a bleaching light source for providing light to bleach rhodopsin in the retina of the eye via the imaging optical system; and wherein said offner relay is moveably mounted and arranged to move to track the location of the pupil.
Sole for a shoe, in particular a sports shoe, comprising: a. a midsole (1630; 1730) comprising randomly arranged particles (1635; 1735) of an expanded material; and b. an outsole (1620; 1720) comprising a number of protrusions (1622; 1722) as well as a number of recesses and/or depressions (1628; 1728), c. wherein the stretching capacity of the midsole is selectively activated or suppressed in individual regions of the midsole by the shape and position of the protrusions and recesses/depressions. a. a midsole (1630; 1730) comprising randomly arranged particles (1635; 1735) of an expanded material; and b. an outsole (1620; 1720) comprising a number of protrusions (1622; 1722) as well as a number of recesses and/or depressions (1628; 1728), c. wherein the stretching capacity of the midsole is selectively activated or suppressed in individual regions of the midsole by the shape and position of the protrusions and recesses/depressions.
A mapping system for identifying a parking lot from probe data, the mapping system comprising: a memory configured to store the probe data comprised of a plurality of probe data points, each probe data point associated with a respective location; and processing circuitry in communication with the memory and configured to associate the probe data points with respective grid cells based upon the location associated with each probe data point, wherein the processing circuitry is configured to determine a parking likelihood for each grid cell based upon the probe data points associated with the respective grid cells and to identify likely parking locations in instances in which the parking likelihood for a respective grid cell satisfies a predefined threshold, wherein the processing circuitry is also configured to cluster likely parking locations to identify parking lot clusters, wherein the processing circuitry is also configured to determine a boundary of the parking lot pursuant to a deformable contour model which causes a polygon to expand from a respective parking lot cluster to represent the boundary of the parking lot, and wherein the processing circuitry is further configured to update a map to include the parking lot having the boundary determined pursuant to the deformable contour model. a memory configured to store the probe data comprised of a plurality of probe data points, each probe data point associated with a respective location; and processing circuitry in communication with the memory and configured to associate the probe data points with respective grid cells based upon the location associated with each probe data point, wherein the processing circuitry is configured to determine a parking likelihood for each grid cell based upon the probe data points associated with the respective grid cells and to identify likely parking locations in instances in which the parking likelihood for a respective grid cell satisfies a predefined threshold, wherein the processing circuitry is also configured to cluster likely parking locations to identify parking lot clusters, wherein the processing circuitry is also configured to determine a boundary of the parking lot pursuant to a deformable contour model which causes a polygon to expand from a respective parking lot cluster to represent the boundary of the parking lot, and wherein the processing circuitry is further configured to update a map to include the parking lot having the boundary determined pursuant to the deformable contour model.
A ferritic stainless steel consisting of: an amount of 0.015 wt% or less, excluding 0 wt%, of carbon (C), an amount of 0.17 wt% or less, excluding 0 wt%, of silicon (Si), an amount of 1.35 wt% or less, excluding 0 wt%, of manganese (Mn), an amount of 17 to 20 wt% of chromium (Cr), an amount of 0.1 to 0.5 wt% of titanium (Ti), an amount of 3 to 5 wt% of aluminum (Al), an amount less than 0.001 wt% of oxygen (O), an amount of less than 0.02 wt% of nitrogen (N), iron (Fe) constituting the remaining balance of the ferritic stainless steel, all the wt% based on the total weight of the ferritic stainless steel, wherein contents of Si, Mn, and Al satisfy [Equation 1], 20 Si + Mn / Al < 0.7 wherein Si, Mn, and Al in Equation 1 represent the content in wt% of each component, wherein further comprising: zirconium (Zr), calcium (Ca), and magnesium (Mg), wherein contents of Zr, Ca and Mg satisfy [Equation 2] 0.001 ≤ Zr + Ca + Mg ≤ 0.01 wherein Zr, Ca, and Mg in Equation 2 represent the content in wt% of each component. an amount of 0.015 wt% or less, excluding 0 wt%, of carbon (C), an amount of 0.17 wt% or less, excluding 0 wt%, of silicon (Si), an amount of 1.35 wt% or less, excluding 0 wt%, of manganese (Mn), an amount of 17 to 20 wt% of chromium (Cr), an amount of 0.1 to 0.5 wt% of titanium (Ti), an amount of 3 to 5 wt% of aluminum (Al), an amount less than 0.001 wt% of oxygen (O), an amount of less than 0.02 wt% of nitrogen (N), iron (Fe) constituting the remaining balance of the ferritic stainless steel, all the wt% based on the total weight of the ferritic stainless steel, wherein contents of Si, Mn, and Al satisfy [Equation 1], 20 Si + Mn / Al < 0.7 wherein Si, Mn, and Al in Equation 1 represent the content in wt% of each component, wherein further comprising: zirconium (Zr), calcium (Ca), and magnesium (Mg), wherein contents of Zr, Ca and Mg satisfy [Equation 2] 0.001 ≤ Zr + Ca + Mg ≤ 0.01 wherein Zr, Ca, and Mg in Equation 2 represent the content in wt% of each component. zirconium (Zr), calcium (Ca), and magnesium (Mg), wherein contents of Zr, Ca and Mg satisfy [Equation 2] 0.001 ≤ Zr + Ca + Mg ≤ 0.01 wherein Zr, Ca, and Mg in Equation 2 represent the content in wt% of each component.
Sealing unit for sealing a transition between a valve member and an end of a fluid channel , comprising a sealing ring for sealing against the valve member , and a spring washer for sealing against the end of the fluid channel , wherein the sealing ring and the spring washer are sealingly connected to one another, characterized in that the sealing unit has at least one O-ring for influencing the spring action of the spring washer , wherein the O-ring takes the form of an elastomer element, wherein said spring washer has an inner end region and is connected to said sealing ring at said inner end region in a bonded, friction-locking and/or interlocking manner, wherein said spring washer has an outer end region , wherein said outer end region is directed away from said sealing ring , and wherein said outer end region of said spring washer is adapted to abut an exterior region of said end of said fluid channel in order to seal said outer end region against said exterior region .
Construction machine, in particular drilling rig , having - a mobile carrier apparatus , - a leader arranged thereon, having a linear guide , - a working carriage which is mounted on the linear guide of the leader so that it can be moved vertically and which is configured to hold a processing tool , - a main winch having a main cable , the free end of which is connected directly or indirectly to the working carriage , the main winch being driven and controlled to accommodate and substantially to compensate for a weight of the working carriage with the processing tool held thereon, - a feed unit which is configured, in a working operation, to move the working carriage upwards or downwards along the leader and to exert a feed force, - a first measuring device for detecting an actual feed force which is exerted on the working carriage by the feed unit , and - a control device in which an upper limit value and/or a lower limit value in relation to the feed force are stored for the feed unit , and with the control device being configured, dependent on an actual feed force value which is detected by the first measuring device , to automatically control the main winch , so that the detected feed force value comes to lie below the upper limit value and above the lower limit value. - a mobile carrier apparatus , - a leader arranged thereon, having a linear guide , - a working carriage which is mounted on the linear guide of the leader so that it can be moved vertically and which is configured to hold a processing tool , - a main winch having a main cable , the free end of which is connected directly or indirectly to the working carriage , the main winch being driven and controlled to accommodate and substantially to compensate for a weight of the working carriage with the processing tool held thereon, - a feed unit which is configured, in a working operation, to move the working carriage upwards or downwards along the leader and to exert a feed force, - a first measuring device for detecting an actual feed force which is exerted on the working carriage by the feed unit , and - a control device in which an upper limit value and/or a lower limit value in relation to the feed force are stored for the feed unit , and with the control device being configured, dependent on an actual feed force value which is detected by the first measuring device , to automatically control the main winch , so that the detected feed force value comes to lie below the upper limit value and above the lower limit value.
A machine for forming a material in a strip or in a sheet, such as a metal blank, said machine comprising a chassis supporting a forming station , said chassis comprising a so-called front part equipped with at least one wheel for moving the chassis on the ground mounted rotating about an axis and a so-called rear part equipped with a so-called rear base bearing on the ground in a position corresponding to a so-called working configuration of the machine in which the machine rests on the ground by its rear base and its wheel(s) , such that the rear part of the chassis comprises a gripping means to allow lifting, at least of the rear part of the chassis and subsequently, a movement on the ground of the machine by rolling like a wheelbarrow in the so-called rolling configuration of the machine , characterized in that the chassis comprises a second so-called front base positioned in the front part of the chassis such that the wheel(s) of the chassis extend, in the working configuration of the machine , at least partially behind the front base relative to the front/rear direction of the chassis , in that the machine comprises an additional position bearing on the ground corresponding to a so-called storage configuration in which the machine rests on the ground by its front base , and in that said machine is configured to go from the working configuration to the so-called storage configuration at least by rotatable movement of the chassis about the axis of rotation of the wheel(s) for movement on the ground of the chassis .