mhurhangee/patent-ind-claim-en huggingface dataset:
Horseshoe , in particular for horses, which is elastic so as to permit deformation, wherein - the horseshoe has a U-shape which can be reversibly bent open by at least 2 mm when the ends of the U-shape are each pulled apart with oppositely directed forces of at most 200 N; - the horseshoe includes a wear protection ; - the wear protection is arranged on a carrier layer ; - an elastic intermediate layer is arranged between the wear protection and the carrier layer . - the horseshoe has a U-shape which can be reversibly bent open by at least 2 mm when the ends of the U-shape are each pulled apart with oppositely directed forces of at most 200 N; - the horseshoe includes a wear protection ; - the wear protection is arranged on a carrier layer ; - an elastic intermediate layer is arranged between the wear protection and the carrier layer .
An interspinous process implant system, comprising an interspinous process implant (800; 900; 1000; 1100; 1220;1300; 1400; 2200; 2800; 2900; 3000) comprising: a) an elongated threaded implant body defining a longitudinal axis and having a main body portion (812; 912; 1012; 1112; 1212; 1312; 1412; 2212; 2812; 2912; 3112) with opposed proximal and distal end portions, and a removable body portion (816; 916; 1016; 1116; 1216; 1316; 1416; 2216; 2816; 2916; 3116) operatively connected to the proximal end portion of the main body portion; b) a distal anchor assembly including two deployable anchor blades (822a, 822b; 2822a, 2822b) mounted for pivotal movement between a stowed position located within an interior cavity of the main body portion and a deployed position radially extending from the main body portion; and c) a proximal anchor assembly (830; 2830) including an anchor collar mounted for longitudinal movement along the longitudinal axis of the implant body between a first position spaced apart from the distal anchor assembly and a second position approximated with the distal anchor assembly, wherein the interspinous process implant system further comprises an insertion adaptor operatively connectable to the proximal anchor assembly (830; 2830), the system being characterised in that the insertion adaptor houses the removable body portion (816; 916; 1016; 1116; 1216; 1316; 1416; 2216; 2816; 2916; 3116). a) an elongated threaded implant body defining a longitudinal axis and having a main body portion (812; 912; 1012; 1112; 1212; 1312; 1412; 2212; 2812; 2912; 3112) with opposed proximal and distal end portions, and a removable body portion (816; 916; 1016; 1116; 1216; 1316; 1416; 2216; 2816; 2916; 3116) operatively connected to the proximal end portion of the main body portion; b) a distal anchor assembly including two deployable anchor blades (822a, 822b; 2822a, 2822b) mounted for pivotal movement between a stowed position located within an interior cavity of the main body portion and a deployed position radially extending from the main body portion; and c) a proximal anchor assembly (830; 2830) including an anchor collar mounted for longitudinal movement along the longitudinal axis of the implant body between a first position spaced apart from the distal anchor assembly and a second position approximated with the distal anchor assembly,
Method for driving dynamics control for a motor vehicle , wherein for traversing a planned trajectory a manipulated variable of the driving dynamics is controlled by means of a control circuit with two degrees of freedom, consisting of a pilot controller and a controller , characterized in that the control circuit additionally comprises an iteratively learning controller and in that the method comprises the following cyclically repeating steps: classifying the planned trajectory by means of a classifying device , calling up a manipulated variable profile for the iteratively learning controller from a database based on the classification, recording a control error of the control circuit and/or a manipulated variable of the controller by means of a memory when traversing the planned trajectory , adjusting the manipulated variable profile of the iteratively learning controller based on the recorded control error and/or the recorded manipulated variable of the controller . classifying the planned trajectory by means of a classifying device , calling up a manipulated variable profile for the iteratively learning controller from a database based on the classification, recording a control error of the control circuit and/or a manipulated variable of the controller by means of a memory when traversing the planned trajectory , adjusting the manipulated variable profile of the iteratively learning controller based on the recorded control error and/or the recorded manipulated variable of the controller .
A method for synchronizing a global time of an access point, comprising: receiving (302; 404) a message comprising a global time indication from a second access point, and when the global time indication of the second access point is later than the global time of the access point, updating (308; 416) the global time of the access point to the global time indication from the second access point, updating a timer of the access point by an increment not to exceed a predetermined value selected small enough to ensure that a beacon transmitted by the access point in accordance with a target beacon transmission time is not missed by at least one associated wireless station, and successively updating the timer by the increment until the timer is updated to correspond to the global time indication from the second access point, wherein successively updating the timer of the access point is performed periodically, wherein the timer corresponds to a timing synchronizing function of the access point, and otherwise maintaining the global time of the access point. receiving (302; 404) a message comprising a global time indication from a second access point, and when the global time indication of the second access point is later than the global time of the access point, updating (308; 416) the global time of the access point to the global time indication from the second access point, updating a timer of the access point by an increment not to exceed a predetermined value selected small enough to ensure that a beacon transmitted by the access point in accordance with a target beacon transmission time is not missed by at least one associated wireless station, and successively updating the timer by the increment until the timer is updated to correspond to the global time indication from the second access point, wherein successively updating the timer of the access point is performed periodically, wherein the timer corresponds to a timing synchronizing function of the access point, and otherwise maintaining the global time of the access point.
A bonded body , comprising: a supporting substrate ; a piezoelectric material substrate comprising a material selected from the group consisting of lithium niobate, lithium tantalate and lithium niobate-lithium tantalate; and a bonding layer bonding said supporting substrate and said piezoelectric material substrate , characterised in that at least one of a bonding surface of said supporting substrate and a bonding surface of said piezoelectric material substrate has a relative intensity I of a reflected X-ray from said at least one bonding surface in a range of 1.0×10 -4 or larger and 1.0×10 -1 or smaller when measured by an X-ray reflectivity method, wherein the relative intensity I is defined as a relative intensity provided that 1 is assigned to the signal intensity at the total reflection, as calculated by the following formula : I = a 2 θ − b wherein θ represents an incident angle of an X-ray with respect to said at least one bonding surface , a is 1.0×10 -5 or larger and 2.0×10 -3 or smaller, and b is 5.0 or larger and 9.0 or smaller, and wherein the bonded body further comprises a surface denatured region adjacent said at least one bonding surface , said surface denatured region disposed to being subjected to said X-ray reflectivity method when I is measured. a supporting substrate ; a piezoelectric material substrate comprising a material selected from the group consisting of lithium niobate, lithium tantalate and lithium niobate-lithium tantalate; and a bonding layer bonding said supporting substrate and said piezoelectric material substrate , characterised in that at least one of a bonding surface of said supporting substrate and a bonding surface of said piezoelectric material substrate has a relative intensity I of a reflected X-ray from said at least one bonding surface in a range of 1.0×10 -4 or larger and 1.0×10 -1 or smaller when measured by an X-ray reflectivity method, wherein the relative intensity I is defined as a relative intensity provided that 1 is assigned to the signal intensity at the total reflection, as calculated by the following formula : I = a 2 θ − b wherein θ represents an incident angle of an X-ray with respect to said at least one bonding surface , a is 1.0×10 -5 or larger and 2.0×10 -3 or smaller, and b is 5.0 or larger and 9.0 or smaller, and wherein the bonded body further comprises a surface denatured region adjacent said at least one bonding surface , said surface denatured region disposed to being subjected to said X-ray reflectivity method when I is measured.
Multiple-dwelling unit, having at least one closed-off residential area , wherein the residential area comprises a plurality of rooms (2a-2n) and a building installation installed vertically in the residential building , wherein the multiple-dwelling unit, in a reusable basic design, is subdivided into a first building module and a second building module , the first building module and the second building module are separated from one another by a partition line and the partition line runs from the one side to the opposite side of the multiple-dwelling unit, wherein, proceeding from a partition line , a scalable surface-area expansion region is provided, by which the entire building surface area, in addition to the surface areas of the first building module and the second building module , can be enlarged, wherein the surface-area expansion region is straight, and the statics of the multiple-dwelling unit and of the maximum surface-area expansion region are designed in such a way that, in the event of a change in the surface-area expansion region up to its maximum value X, the statics of the multiple-dwelling unit do not need to be changed, wherein the surface-area expansion region , proceeding from the partition line , has a width B of a length dimension of 0 up to a width of a length dimension of X, floor areas and masonry areas are affected by the surface-area expansion region , and the first building module and the second building module extend over all the floors of the multiple-dwelling unit. the multiple-dwelling unit, in a reusable basic design, is subdivided into a first building module and a second building module , the first building module and the second building module are separated from one another by a partition line and the partition line runs from the one side to the opposite side of the multiple-dwelling unit, wherein, proceeding from a partition line , a scalable surface-area expansion region is provided, by which the entire building surface area, in addition to the surface areas of the first building module and the second building module , can be enlarged, wherein the surface-area expansion region is straight, and the statics of the multiple-dwelling unit and of the maximum surface-area expansion region are designed in such a way that, in the event of a change in the surface-area expansion region up to its maximum value X, the statics of the multiple-dwelling unit do not need to be changed, wherein the surface-area expansion region , proceeding from the partition line , has a width B of a length dimension of 0 up to a width of a length dimension of X, floor areas and masonry areas are affected by the surface-area expansion region , and the first building module and the second building module extend over all the floors of the multiple-dwelling unit.
An alloy comprising, by weight, 4% to 7% aluminum, 0% to 0.2% carbon, 7% to 11% cobalt, 5% to 9% chromium, 0.01% to 0.2% hafnium, 0.5% to 2% molybdenum, 0% to 1.5% rhenium, 8% to 10.5% tantalum, 0.01% to 0.5% titanium, 6% to 10% tungsten, 0% to 0.5% lanthanum, 0% to 0.5% yttrium, and 0% to 0.5% boron, the balance nickel and incidental impurity elements.
A polymer particle being the reaction product of: at least one monomer including at least one functional group; and at least one crosslinker; wherein the polymer particle has a diameter, as determined in the experimental section, between 40 μm and 1,200 μm and is susceptible to degradation through hydrolysis or enzymatic action; wherein the at least one functional group is acrylate, acrylamide, methacrylate, or methacrylamide; wherein the at least one crosslinker is one thioester crosslinker selected from , wherein r is 1 to 20; and at least one monomer including at least one functional group; and at least one crosslinker; wherein the polymer particle has a diameter, as determined in the experimental section, between 40 μm and 1,200 μm and is susceptible to degradation through hydrolysis or enzymatic action; wherein the at least one functional group is acrylate, acrylamide, methacrylate, or methacrylamide; wherein the at least one crosslinker is one thioester crosslinker selected from , wherein r is 1 to 20; and
Method for gluing labels, comprising the following steps: supplying glue, in particular cold glue, via a supply line to a glue application unit ; and determining a volume flow of glue through the supply line ; wherein the supply of glue is adjusted by means of an adjustable supply device depending on the determined volume flow in such a way that glue is dispensed from the glue application unit at a constant flow rate, wherein the adjustable supply device comprises a dosing cylinder comprising a piston that can be moved in a controlled manner, wherein the adjustment of the glue supply to the glue application unit comprises conveying glue stored in the dosing cylinder by moving the piston, and wherein the method further comprises determining a glue pressure in the glue feed of the glue application unit , in particular less than 20 cm, preferably less than 10 cm, from the glue application unit in the supply line , wherein the glue supply is adjusted depending on the specific volume flow and the specific glue pressure. supplying glue, in particular cold glue, via a supply line to a glue application unit ; and determining a volume flow of glue through the supply line ; wherein the supply of glue is adjusted by means of an adjustable supply device depending on the determined volume flow in such a way that glue is dispensed from the glue application unit at a constant flow rate, wherein the adjustable supply device comprises a dosing cylinder comprising a piston that can be moved in a controlled manner, wherein the adjustment of the glue supply to the glue application unit comprises conveying glue stored in the dosing cylinder by moving the piston, and wherein the method further comprises determining a glue pressure in the glue feed of the glue application unit , in particular less than 20 cm, preferably less than 10 cm, from the glue application unit in the supply line , wherein the glue supply is adjusted depending on the specific volume flow and the specific glue pressure. wherein the adjustable supply device comprises a dosing cylinder comprising a piston that can be moved in a controlled manner, wherein the adjustment of the glue supply to the glue application unit comprises conveying glue stored in the dosing cylinder by moving the piston, and wherein the method further comprises determining a glue pressure in the glue feed of the glue application unit , in particular less than 20 cm, preferably less than 10 cm, from the glue application unit in the supply line , wherein the glue supply is adjusted depending on the specific volume flow and the specific glue pressure.
A processor-implemented pose estimation method, the method comprising: tracking a position of a feature point extracted from image information comprising a plurality of image frames, the image information being received from an image sensor; predicting a current state variable of an estimation model for determining a pose of an electronic device, based on motion information received from a motion sensor; determining noise due to an uncertainty of the estimation model based on a residual between a first position of the feature point extracted from the image frames and a second position of the feature point predicted based on the current state variable; updating the current state variable based on the current state variable, the tracked position of the feature point, and the noise; and determining the pose of the electronic device based on the updated current state variable. tracking a position of a feature point extracted from image information comprising a plurality of image frames, the image information being received from an image sensor; predicting a current state variable of an estimation model for determining a pose of an electronic device, based on motion information received from a motion sensor; determining noise due to an uncertainty of the estimation model based on a residual between a first position of the feature point extracted from the image frames and a second position of the feature point predicted based on the current state variable; updating the current state variable based on the current state variable, the tracked position of the feature point, and the noise; and determining the pose of the electronic device based on the updated current state variable.
Foil bearing , having: a bearing back with a passage opening , wherein a shaft can be arranged in the passage opening in such a manner that there is a gap (S) between the shaft and the bearing back , a foil arrangement with a first inner circumference (U), having a first segment-shaped foil which is arranged in the gap (S) adjacent to the bearing back , a third segment-shaped foil which is arranged in the gap (S) between the shaft and the first foil , and a second segment-shaped foil which is arranged in the gap (S) between the first foil and the third foil , and also a setting mechanism for setting the first inner circumference (U) of the foil arrangement , characterized in that the setting mechanism has a first screw engaging on the first foil , as a result of which the foil arrangement can be positioned in the axial and/or radial direction. a bearing back with a passage opening , wherein a shaft can be arranged in the passage opening in such a manner that there is a gap (S) between the shaft and the bearing back , a foil arrangement with a first inner circumference (U), having a first segment-shaped foil which is arranged in the gap (S) adjacent to the bearing back , a third segment-shaped foil which is arranged in the gap (S) between the shaft and the first foil , and a second segment-shaped foil which is arranged in the gap (S) between the first foil and the third foil , and also a setting mechanism for setting the first inner circumference (U) of the foil arrangement , characterized in that the setting mechanism has a first screw engaging on the first foil , as a result of which the foil arrangement can be positioned in the axial and/or radial direction.
A running tool for deploying a tubular string into a wellbore, comprising: a tubular body ; a latch for releasably connecting the tubular string to the body and comprising: a longitudinal fastener for engaging a longitudinal profile of the tubular string; a torsional fastener for engaging a torsional profile of the tubular string; a release operable to disengage the longitudinal fastener from the longitudinal profile of the tubular string; characterized in that the running tool comprises an actuator operable to engage the release with the longitudinal fastener, wherein the actuator comprises: a reservoir chamber; a pump , wherein the pump has an inlet connected to the reservoir chamber and an outlet connected to a hydraulic passage providing fluid communication between the pump and the release; and an electric motor connected to the pump; and an electronics package in communication with the actuator for operating the actuator in response to receiving a command signal. a tubular body ; a latch for releasably connecting the tubular string to the body and comprising: a longitudinal fastener for engaging a longitudinal profile of the tubular string; a torsional fastener for engaging a torsional profile of the tubular string; a longitudinal fastener for engaging a longitudinal profile of the tubular string; a torsional fastener for engaging a torsional profile of the tubular string; a release operable to disengage the longitudinal fastener from the longitudinal profile of the tubular string; characterized in that the running tool comprises an actuator operable to engage the release with the longitudinal fastener, wherein the actuator comprises: a reservoir chamber; a pump , wherein the pump has an inlet connected to the reservoir chamber and an outlet connected to a hydraulic passage providing fluid communication between the pump and the release; and an electric motor connected to the pump; and a reservoir chamber; a pump , wherein the pump has an inlet connected to the reservoir chamber and an outlet connected to a hydraulic passage providing fluid communication between the pump and the release; and an electric motor connected to the pump; and an electronics package in communication with the actuator for operating the actuator in response to receiving a command signal.
An injection device comprising: a medicament reservoir ; a stopper comprising (i) a rigid core made of at least one of cyclic olefin copolymer (COC) or a cyclo-olefin polymer (COP), (ii) a set of elastomeric rings that provide firm mounting of the rigid core within the medicament reservoir , and (iii) an ultrasound probe disposed in a housing , the ultrasound probe configured to transmit an emitted ultrasound signal through the rigid core along a longitudinal direction of the rigid core into the medicament reservoir and to receive an ultrasound signal generated by reflections of the emitted ultrasound signal, the reflections comprising at least a reflection from a distal end of the medicament reservoir ; a control component configured to be electronically coupled with the ultrasound probe and to process the ultrasound signal to generate injection device data; and an antenna configured to be electronically coupled with the control component and to transmit the injection device data to an external computing device .