mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a display substrate, comprising: forming a pattern layer on a base substrate , the pattern layer comprising at least one recess ; and forming a first planarization layer ; wherein forming the first planarization layer comprises: forming a pre-polymerized solution at least in the recess ; and polymerizing the pre-polymerized solution in the recess to form the first planarization layer , wherein forming the pre-polymerized solution at least in the recess comprises: coating a first pre-polymerized solution on the pattern layer; and receding the first pre-polymerized solution to the at least one recess , characterized in that receding the first pre-polymerized solution to the at least one recess comprises: partially evaporating the first pre-polymerized solution so that a liquid surface of the first pre-polymerized solution after evaporation is not substantially higher than an uppermost edge of the recess , and wherein forming the pre-polymerized solution at least in the recess further comprises: coating a second pre-polymerized solution on the partially evaporated first pre-polymerized solution so that the first pre-polymerized solution and the second pre-polymerized solution are mixed. forming a pattern layer on a base substrate , the pattern layer comprising at least one recess ; and forming a first planarization layer ; wherein forming the first planarization layer comprises: forming a pre-polymerized solution at least in the recess ; and polymerizing the pre-polymerized solution in the recess to form the first planarization layer , forming a pre-polymerized solution at least in the recess ; and polymerizing the pre-polymerized solution in the recess to form the first planarization layer , wherein forming the pre-polymerized solution at least in the recess comprises: coating a first pre-polymerized solution on the pattern layer; and receding the first pre-polymerized solution to the at least one recess , coating a first pre-polymerized solution on the pattern layer; and receding the first pre-polymerized solution to the at least one recess , characterized in that receding the first pre-polymerized solution to the at least one recess comprises: partially evaporating the first pre-polymerized solution so that a liquid surface of the first pre-polymerized solution after evaporation is not substantially higher than an uppermost edge of the recess , and wherein forming the pre-polymerized solution at least in the recess further comprises: coating a second pre-polymerized solution on the partially evaporated first pre-polymerized solution so that the first pre-polymerized solution and the second pre-polymerized solution are mixed.
A seat cushion , comprising: an upper pad , comprising a plurality of transparent areas ; a plurality of optical modules , located below the upper pad and disposed corresponding to the transparent areas , wherein the optical modules are configured to respectively receive an optical signal (S1); a lower pad , provided with a plurality of grooves to accommodate the optical modules ; a support structure , connected between the upper pad and the lower pad ; and a processor , coupled to the optical modules and configured to collect the optical signals (S1); characterized in that the optical modules are optical sensors and respectively comprise a transmitter and a receiver , the transmitters are respectively configured to transmit sense signals (S0) to an object, and the receivers are respectively configured to receive the optical signals (S1) reflected by the object and corresponding to the sense signals (S0). an upper pad , comprising a plurality of transparent areas ; a plurality of optical modules , located below the upper pad and disposed corresponding to the transparent areas , wherein the optical modules are configured to respectively receive an optical signal (S1); a lower pad , provided with a plurality of grooves to accommodate the optical modules ; a support structure , connected between the upper pad and the lower pad ; and a processor , coupled to the optical modules and configured to collect the optical signals (S1); characterized in that the optical modules are optical sensors and respectively comprise a transmitter and a receiver , the transmitters are respectively configured to transmit sense signals (S0) to an object, and the receivers are respectively configured to receive the optical signals (S1) reflected by the object and corresponding to the sense signals (S0).
An end effector comprising: a first jaw member defining a first aperture at a distal end, the first jaw member comprising a first electrode located proximally of the first aperture , wherein the first electrode comprises a positive temperature coefficient (PTC) material; and a second jaw member defining a second aperture at a distal end, the second jaw member comprising a second electrode located proximally of the second aperture , wherein the second electrode comprises a PTC material, and wherein the first and second electrodes are configured to deliver energy; and wherein the second jaw member is operatively coupled to the first jaw member , wherein the first and second apertures are configured to define a single aperture when the first and second jaw members are in a closed position, wherein the first and second jaw members define a longitudinal channel , the end effector comprising a cutting member slideably receivable within the longitudinal channel , wherein the cutting member is deployable along the longitudinal channel and the longitudinal channel is located proximally of the first and second apertures , wherein the single aperture defines a first cross-sectional width transverse to a longitudinal axis of the end effector, the longitudinal channel defines a second cross-sectional width transverse to the longitudinal axis of the end effector, and wherein the first cross-sectional width is greater than the second cross-sectional width. a first jaw member defining a first aperture at a distal end, the first jaw member comprising a first electrode located proximally of the first aperture , wherein the first electrode comprises a positive temperature coefficient (PTC) material; and a second jaw member defining a second aperture at a distal end, the second jaw member comprising a second electrode located proximally of the second aperture , wherein the second electrode comprises a PTC material, and wherein the first and second electrodes are configured to deliver energy; and wherein the second jaw member is operatively coupled to the first jaw member , wherein the first and second apertures are configured to define a single aperture when the first and second jaw members are in a closed position, wherein the first and second jaw members define a longitudinal channel , the end effector comprising a cutting member slideably receivable within the longitudinal channel , wherein the cutting member is deployable along the longitudinal channel and the longitudinal channel is located proximally of the first and second apertures , wherein the single aperture defines a first cross-sectional width transverse to a longitudinal axis of the end effector, the longitudinal channel defines a second cross-sectional width transverse to the longitudinal axis of the end effector, and wherein the first cross-sectional width is greater than the second cross-sectional width.
Projector including a plurality of laser light sources and a projection engine fitted, at the inlet, with an integrating tunnel , characterized in that said plurality of laser light sources is connected in an offset manner to the projection engine through a bundle of optical fibres including the same plurality of inlets and a single outlet , said bundle of fibres being fused at each of said inlets and said single outlet to eliminate inter-fibre spaces therefrom and in that each of said inlets, fused in this way , of said plurality of inlets of the bundle of optical fibres is disposed at a focal plane of the output of each of the laser light sources of said plurality of laser light sources and said single outlet, fused in this way , of the bundle of optical fibres is placed in direct contact with an homogenising plate sandwiched between the single fused outlet of the bundle of optical fibres and the inlet of the integrating tunnel .
A fall prevention structure of an electric component cover in a refrigeration cycle apparatus, the structure comprising an electric component box housing an electric component of a refrigeration cycle apparatus, wherein the electric component box includes a casing , a side of which is open, and an electric component cover configured to cover, in an upright position, an opening of the casing and to be screwed to the casing , characterised in that the electric component cover includes a catch including a backward-extending portion and an upward-extending portion , the backward-extending portion extending backward from an upper end portion of the electric component cover , the upward-extending portion extending upward from an upper end portion of the backward-extending portion , in a state in which the electric component cover is screwed to the casing , the catch is inserted into an insertion slot disposed in a portion extending in an up-down direction of the casing , and when the electric component cover is unscrewed from the casing , the electric component cover does not fall from the casing by the catch being caught by a portion above the insertion slot . a casing , a side of which is open, and an electric component cover configured to cover, in an upright position, an opening of the casing and to be screwed to the casing , characterised in that the electric component cover includes a catch including a backward-extending portion and an upward-extending portion , the backward-extending portion extending backward from an upper end portion of the electric component cover , the upward-extending portion extending upward from an upper end portion of the backward-extending portion ,
Use of a system to determine stroke subtype selected from acute ischemic stroke and hemorrhagic stroke, the system comprising a transformative apparatus that is a suitably configured apparatus capable of measuring hemostasis by transforming whole blood through thrombelastography, wherein the transformative apparatus is configured to accept a whole blood test sample, to excite the test sample to induce a transformation of the test sample to clotting, and to measure during the transformation a physical characteristic of the test sample by performing a series of non-contact measurements of the resonant frequency of the sample in response to external vibration in order to determine the viscoelastic properties of a clot, wherein the physical characteristic is represented by data providing a total picture of the hemostasis process from initial clot formation through final clot dissolution, and wherein the transformative apparatus causes a first transformation of the whole blood test sample such that the physical characteristic provides an ischemic or hemorrhagic indication and the transformative apparatus causes a second transformation of the whole blood test sample such that the physical characteristic provides a therapeutic influence indication. the system comprising a transformative apparatus that is a suitably configured apparatus capable of measuring hemostasis by transforming whole blood through thrombelastography, wherein the transformative apparatus is configured to accept a whole blood test sample, to excite the test sample to induce a transformation of the test sample to clotting, and to measure during the transformation a physical characteristic of the test sample by performing a series of non-contact measurements of the resonant frequency of the sample in response to external vibration in order to determine the viscoelastic properties of a clot, wherein the physical characteristic is represented by data providing a total picture of the hemostasis process from initial clot formation through final clot dissolution, and wherein the transformative apparatus causes a first transformation of the whole blood test sample such that the physical characteristic provides an ischemic or hemorrhagic indication and the transformative apparatus causes a second transformation of the whole blood test sample such that the physical characteristic provides a therapeutic influence indication.
Arrangement comprising: an aerofoil body having a trailing edge , and a fairing for aerodynamically covering at least a part of a junction mechanism connecting the aerofoil body to a support element of an aircraft , the fairing having a cover element covering a trailing end portion of the fairing , characterized in that the cover element is attached to the trailing edge of the aerofoil body by a form fit connection .
Wing for a window or a door, comprising: a profile frame formed from several profile sections; a retaining strip for a surface element , which strip is connected to the profile frame , forming a glass rebate for receiving the surface element ; a surface element which is received on the front side in the glass rebate ; at least one glass rebate insert inserted into a glass rebate and having a support plate ; and - at least one wedging element placed onto the glass rebate insert ; wherein at least one glass securing element is arranged on the at least one glass rebate insert , wherein the glass securing element comprises at least one foot element connected to the glass rebate insert and at least one locking element , wherein the at least one locking element projects at least partially into a space between the surface element and the retaining strip , characterised in that the at least one glass securing element is designed as a spring element, which abuts against the retaining strip in a clamping manner. a profile frame formed from several profile sections; a retaining strip for a surface element , which strip is connected to the profile frame , forming a glass rebate for receiving the surface element ; a surface element which is received on the front side in the glass rebate ; at least one glass rebate insert inserted into a glass rebate and having a support plate ; and - at least one wedging element placed onto the glass rebate insert ; - at least one wedging element placed onto the glass rebate insert ; wherein at least one glass securing element is arranged on the at least one glass rebate insert , wherein the glass securing element comprises at least one foot element connected to the glass rebate insert and at least one locking element , wherein the at least one locking element projects at least partially into a space between the surface element and the retaining strip , characterised in that the at least one glass securing element is designed as a spring element, which abuts against the retaining strip in a clamping manner.
Complex comprising: a) Pt; b) a ligand corresponding to formula (I): where R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 are selected from: -H, -(C 1 -C 12 ) -alkyl, -(C 6 -C 20 )-aryl, and R 1 , R 2 , R 3 , R 4 may form fused ring systems; c) an iodine ligand or bromine ligand. a) Pt; b) a ligand corresponding to formula (I): where R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 are selected from: -H, -(C 1 -C 12 ) -alkyl, -(C 6 -C 20 )-aryl, and R 1 , R 2 , R 3 , R 4 may form fused ring systems; c) an iodine ligand or bromine ligand.
An ignition-suppressing device for shielding fasteners in an aircraft fuel tank comprising a wall , the ignition-suppressing device being configured to be installed over the fasteners within the aircraft fuel tank and to be coupled to the wall , the ignition-suppressing device comprising: a ribbon ; and receptacles , spaced apart from one another along the ribbon , with the fasteners extending inside the aircraft fuel tank from the wall within respective ones of the receptacles for suppression of ignition events. a ribbon ; and receptacles , spaced apart from one another along the ribbon , with the fasteners extending inside the aircraft fuel tank from the wall within respective ones of the receptacles for suppression of ignition events.
A ferrite material having a garnet structure and satisfying the following chemical formula: Y a TR b Bi b' Fe c Al d In e Ca f Cu g Zr h V i Co j Si k O 12±γ wherein TR: is a rare earth metal or a combination of rare earth metals, wherein TR does not comprise Yttrium and ∘ -1 ≤ γ ≤ 1; ∘ 3 (a+b+b'+c+d+e) + 2 (f+g+j) + 4 (h+k) + 5i = 24+±2γ; ∘ 0 < a < 2; ∘ 0 ≤ b ≤ 1; ∘ 1 < b' < 3; ∘ 3 ≤ c ≤ 5; ∘ 0 ≤ d ≤ 1,5; ∘ 0 ≤ e ≤ 0,8; ∘ 0 < f ≤ 1; ∘ 0 < g ≤ 0,05; ∘ 0 ≤ h ≤ 1; ∘ 0 ≤ i ≤ 0,8; ∘ 0 ≤ j ≤ 0,5; ∘ 0 ≤ k ≤ 0,5. ∘ -1 ≤ γ ≤ 1; ∘ 3 (a+b+b'+c+d+e) + 2 (f+g+j) + 4 (h+k) + 5i = 24+±2γ; ∘ 0 < a < 2; ∘ 0 ≤ b ≤ 1; ∘ 1 < b' < 3; ∘ 3 ≤ c ≤ 5; ∘ 0 ≤ d ≤ 1,5; ∘ 0 ≤ e ≤ 0,8; ∘ 0 < f ≤ 1; ∘ 0 < g ≤ 0,05; ∘ 0 ≤ h ≤ 1; ∘ 0 ≤ i ≤ 0,8; ∘ 0 ≤ j ≤ 0,5; ∘ 0 ≤ k ≤ 0,5.
An exhaust system component , in particular a catalytic converter or a particle filter, for an exhaust system of an internal combustion engine of a motor vehicle, comprising a substrate which is held in a substantially cylindrical housing , the housing having a housing jacket which comprises a metal sheet that is bent about a cylinder axis and the ends of which oriented in the circumferential direction relative to the cylinder axis form a joint connected by means of a weld seam , the ends each having a bevel at least in sections, characterized in that the weld seam is spaced apart from an inner surface of the housing jacket and the bevels face each other within the joint, each of the bevels including an angle (α a , α b ) of at least 5 degrees with a radial plane of the housing jacket .
Mounting arrangement for mounting a test device holder on a force measuring device , with - a test device holder , and - a slide part which is displaceably arrangeable or displaceably arranged on a force measuring tower of a force measuring device in the vertical direction of the force measuring tower , wherein - the test device holder comprises at least one position determining element and the slide part comprises at least one counter position determining element , wherein - the position determining element and the counter position determining element are adapted to determine a position of the test device holder relative to the slide part in at least one direction selected from a vertical direction of the force measuring tower and a direction perpendicular to the vertical direction, and at the same time to permit rotation of the test device holder relative to the slide part about an axis of rotation (D) defined by the position determining element and/or the counter position determining element , wherein - the test device holder comprises a first angle adjustment device and the slide part comprises a second angle adjustment device adapted to adjust and preferably fix an angle of the test device holder relative to the slide part about the axis of rotation (D), and wherein - the test device holder comprises at least one fixing element and the slide part comprises at least one counter fixing element , wherein - the fixing element and the counter fixing element are adapted to fix the test device holder to the slide part . - a test device holder , and - a slide part which is displaceably arrangeable or displaceably arranged on a force measuring tower of a force measuring device in the vertical direction of the force measuring tower , wherein - the test device holder comprises at least one position determining element and the slide part comprises at least one counter position determining element , wherein - the position determining element and the counter position determining element are adapted to determine a position of the test device holder relative to the slide part in at least one direction selected from a vertical direction of the force measuring tower and a direction perpendicular to the vertical direction, and at the same time to permit rotation of the test device holder relative to the slide part about an axis of rotation (D) defined by the position determining element and/or the counter position determining element , wherein - the test device holder comprises a first angle adjustment device and the slide part comprises a second angle adjustment device adapted to adjust and preferably fix an angle of the test device holder relative to the slide part about the axis of rotation (D), and wherein - the test device holder comprises at least one fixing element and the slide part comprises at least one counter fixing element , wherein - the fixing element and the counter fixing element are adapted to fix the test device holder to the slide part .
Method for optimizing the position database of a location system, in which position database position references of substantially stationary transmitters are stored, wherein said position references are used for position determination, in which in a first step • a first sequence of positions of a covered distance is determined from the radio signals of the substantially stationary transmitters with the assistance of the position database with the aid of a position determination device, and • a second sequence of positions of the covered distance is determined from other sensor data of an inertial navigation system, INS, of the position determination device by way of coupling, in which in a second step • the first sequence of positions and the second sequence of positions are compared with one another, in which, assuming that the distance determined by the INS from the second sequence of positions is more accurate than the first sequence of positions determined by the location system, errors in the location system are identified, and specifically errors E i for the positions of the first sequence, in which, for each position of the first sequence, the influence that a change in the position database has on the determination of said position is determined, and in which a correction to the position database is performed on the basis of said information and the identified errors E i . • a first sequence of positions of a covered distance is determined from the radio signals of the substantially stationary transmitters with the assistance of the position database with the aid of a position determination device, and • a second sequence of positions of the covered distance is determined from other sensor data of an inertial navigation system, INS, of the position determination device by way of coupling, • the first sequence of positions and the second sequence of positions are compared with one another,
A hair-styling device that comprises two articulated jaws , with heating plates , the device comprising at least one cartridge which, in use, contains a liquid, said cartridge comprising an ultrasonic transducer with micro-perforations allowing the liquid to be transformed, in use, into a dispersion of droplets, said at least one cartridge comprising an outlet making it possible to deliver said dispersion of droplets, through a delivery cavity situated in at least one of the heating plates, to discharge ports that are distributed over the surface of the heating plate .
A turbomachinery system comprising a turbomachine and an electrical machine coupled to the turbomachine by a shaft extending therebetween, where said turbomachinery system further comprises an actuator with a rotor coupled to the shaft and comprising a plurality of rotor magnetic field-generating elements ; and a stator configured to receive at least a portion of the shaft proximate said rotor , said stator comprising a plurality of stator magnetic field-generating elements proximate said plurality of rotor magnetic field-generating elements , said plurality of stator magnetic field-generating elements configured to alternately energize and de-energize to alternately apply and remove, respectively, a corrective torque to the shaft to dampen torsional oscillations thereof