mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining the pose of a mobile unit , which is formed as a land vehicle or a watercraft, with at least one sensor device, which is configured for capturing environmental images (PIC) of the mobile unit , and a map (MAP), in which at least one drivable area is marked, wherein the map (MAP) is stored in an electronic storage unit and the map (MAP) is a semantic map and/or includes at least one known landmark (4.2) with map position indications, in which at least one environmental image (PIC) is captured by means of the at least one sensor device and at least one collision-free area (3, 3.1, 3.2) is calculated by means of an electronic evaluation and control unit based on the at least one captured environmental image (PIC), and the pose of the mobile unit is determined by means of the electronic evaluation and control unit by a comparison of the at least one calculated collision-free area (3, 3.1, 3.2) to the at least on drivable area marked in the map (MAP). at least one environmental image (PIC) is captured by means of the at least one sensor device and at least one collision-free area (3, 3.1, 3.2) is calculated by means of an electronic evaluation and control unit based on the at least one captured environmental image (PIC), and the pose of the mobile unit is determined by means of the electronic evaluation and control unit by a comparison of the at least one calculated collision-free area (3, 3.1, 3.2) to the at least on drivable area marked in the map (MAP).
A compound of general formula (I), in which : represents a group, in which group * indicates the point of attachment of said group with R 1 ; R 1 represents a group R 3 ; n represents an integer of 4 ; R 2 represents a hydrogen atom ; R 3 represents a group selected from : in which groups * indicates the point of attachment of said group with the rest of the molecule ; R 4 represents a hydrogen atom ; R 5 represents a hydrogen atom or a methyl group ; or a stereoisomer, a tautomer, a hydrate, or a solvate thereof, or a mixture of same. represents a group, in which group * indicates the point of attachment of said group with R 1 ; R 1 represents a group R 3 ; n represents an integer of 4 ; R 2 represents a hydrogen atom ; R 3 represents a group selected from : in which groups * indicates the point of attachment of said group with the rest of the molecule ; R 4 represents a hydrogen atom ; R 5 represents a hydrogen atom or a methyl group ;
A monoclonal antibody that specifically binds to a C-terminus amino acid sequence AARPGNVKGP (SEQ ID No. 1) .
A machine for the tobacco processing industry, in particular filter assembly machine , comprising a machine frame, wherein the machine frame is configured and designed such that conveying arrangements for rod-shaped articles of the tobacco processing industry and/or for the components thereof are provided on the machine frame, and comprising an external laser supply unit for at least one laser device for processing rod-shaped articles of the tobacco processing industry and/or the components thereof, wherein the laser supply unit has an individual, separate supply frame, wherein the external supply frame is configured and designed in such a manner in order to receive one or more supply devices for at least one laser device , wherein the machine frame has an adapter device for a laser device in order to arrange a laser device on the machine frame and wherein the supply frame has an adapter device for a laser device in order to arrange a laser device on or in the supply frame and wherein at least one laser device is configured and designed in such a manner that the laser device in interaction with the adapter device of the machine frame is able to be arranged or is arranged on the machine frame, wherein the laser device has a resonator housing and the resonator housing is designed for arranging on the machine frame, wherein the laser is configured as a CO 2 laser.
A protective cover film with an at least double-layered protective coating , in particular varnish film, wherein the protective coat comprises a paper layer and a plastic layer , and wherein the paper layer and the plastic layer are detachably adsorption bonded.
Elastic macro porous scaffold comprising amine coated particles wherein the amine is in the range of 5-40% and the cross linker is in the range of 5-40%, wherein said scaffold is prepared by crosslinking during ice-templating and said scaffold is characterized in that it regains its shape after compressional strain exceeding 50%.
A method of applying a barrier coat on a superalloy substrate for resisting hot salt corrosion for an incubation period of such duration that an uncoated superalloy substrate under the same conditions will corrode to a depth of about 0.005 mm (2.0 mils), the method comprising: selecting a first liquid sol gel diluted in an organic solvent, the first liquid sol gel having a viscosity at or below 1 centipoise and wherein the step of selecting a first liquid sol gel comprises selecting a single sol gel selected from the group consisting of zirconia, silica, alumina, titanium oxide, yttria, hafnia, and tantala; wetting the surfaces of the superalloy substrate with the selected first liquid sol gel at a solution concentration of 10 to 20 wt.%; heating the wetted surfaces of the superalloy substrate to a first temperature in a range of 150°C to 600°C to allow the first liquid sol gel to oxidize and transform the first liquid sol gel into an oxide-based first layer; selecting a second liquid sol gel that is different to the first liquid sol gel and diluted in an organic solvent, the second liquid sol gel having a viscosity at or below 1 centipoise and selected from the group consisting of zirconia, silica, alumina, titanium oxide, yttria, hafnia, and tantala; applying the second liquid sol gel over the oxide-based first layer in a solution concentration of 10 to 20 wt.%; subjecting the superalloy substrate to a heat treatment at a second temperature in a range of 550°C to 1200°C, the heat treatment comprising sintering the oxide-based first layer and the second liquid sol gel to produce an oxide barrier coating. selecting a first liquid sol gel diluted in an organic solvent, the first liquid sol gel having a viscosity at or below 1 centipoise and wherein the step of selecting a first liquid sol gel comprises selecting a single sol gel selected from the group consisting of zirconia, silica, alumina, titanium oxide, yttria, hafnia, and tantala; wetting the surfaces of the superalloy substrate with the selected first liquid sol gel at a solution concentration of 10 to 20 wt.%; heating the wetted surfaces of the superalloy substrate to a first temperature in a range of 150°C to 600°C to allow the first liquid sol gel to oxidize and transform the first liquid sol gel into an oxide-based first layer; selecting a second liquid sol gel that is different to the first liquid sol gel and diluted in an organic solvent, the second liquid sol gel having a viscosity at or below 1 centipoise and selected from the group consisting of zirconia, silica, alumina, titanium oxide, yttria, hafnia, and tantala; applying the second liquid sol gel over the oxide-based first layer in a solution concentration of 10 to 20 wt.%; subjecting the superalloy substrate to a heat treatment at a second temperature in a range of 550°C to 1200°C, the heat treatment comprising sintering the oxide-based first layer and the second liquid sol gel to produce an oxide barrier coating.
A touch circuit , configured to: output a panel driving signal (PDS1, PDS2, PDS3); and receive a pen information signal (PINFO), output from a pen in response to the panel driving signal (PDS1, PDS2, PDS3), each of the panel driving signal (PDS1, PDS2, PDS3) and the pen information signal (PINFO) comprising a plurality of pulses, the pen information signal (PINFO) including an in-phase state section comprising pulses in phase with the pulses of the panel driving signal (PDS1, PDS2, PDS3); an antiphase state section comprising pulses having a different phase from the pulses of the panel driving signal (PDS1, PDS2, PDS3); a passive state section distinguished from the in-phase state section and the antiphase state section, wherein the passive state section is one of a ground voltage section and a DC voltage section; wherein each of the pulses in the pen information signal (PINFO) has a variable duty ratio and a predetermined amplitude; and the touch circuit further configured to output a digital value corresponding to the pen information signal (PINFO). output a panel driving signal (PDS1, PDS2, PDS3); and receive a pen information signal (PINFO), output from a pen in response to the panel driving signal (PDS1, PDS2, PDS3), each of the panel driving signal (PDS1, PDS2, PDS3) and the pen information signal (PINFO) comprising a plurality of pulses, the pen information signal (PINFO) including an in-phase state section comprising pulses in phase with the pulses of the panel driving signal (PDS1, PDS2, PDS3); an antiphase state section comprising pulses having a different phase from the pulses of the panel driving signal (PDS1, PDS2, PDS3); a passive state section distinguished from the in-phase state section and the antiphase state section, wherein the passive state section is one of a ground voltage section and a DC voltage section; wherein each of the pulses in the pen information signal (PINFO) has a variable duty ratio and a predetermined amplitude; and the touch circuit further configured to output a digital value corresponding to the pen information signal (PINFO).
A handheld device for visualizing an irido-corneal angle of an eye through a window of a patient interface configured to be placed on the eye, the device comprising: an optics structure configured to engage with the patient interface to provide a line of sight through the window in a direction of the irido-corneal angle, and to subsequently disengage from the patient interface; and at least one imaging apparatus configured to couple to the optics structure and to align with the line of sight to enable capturing an image of the eye including the irido-corneal angle, wherein the optics structure is configured to rotate relative to the patient interface together with the at least one imaging apparatus. an optics structure configured to engage with the patient interface to provide a line of sight through the window in a direction of the irido-corneal angle, and to subsequently disengage from the patient interface; and at least one imaging apparatus configured to couple to the optics structure and to align with the line of sight to enable capturing an image of the eye including the irido-corneal angle, wherein the optics structure is configured to rotate relative to the patient interface together with the at least one imaging apparatus.
A dosing unit for discharging a reductant, comprising: a fluid injector having an inlet tube , a nozzle and an injector fluid path from the inlet tube to the nozzle, the injector fluid path being part of a fluid path of the dosing unit; an inlet tube sized and shaped for receiving therein at least part of the inlet tube of the fluid injector , the inlet tube including a fluid inlet; an input tube in fluid communication with the inlet tube via the fluid inlet thereof, the input tube configured to receive fluid from a fluid source; and an insert partly disposed in the inlet tube of the fluid injector , the insert at least partly defining a fluid passage, the fluid passage being in fluid communication with the input tube and the inlet tube of the fluid injector and forming part of the fluid path of the dosing unit, characterised in that the fluid passage includes a portion extending in a direction that is orthogonal to a longitudinal axis of the fluid injector , the insert extends from the inlet tube within the inlet tube so that less space is available for reductant and/or air bubbles in the inlet tube , wherein the fluid passage of the insert comprises at least one groove defined along an outer surface of the insert . a fluid injector having an inlet tube , a nozzle and an injector fluid path from the inlet tube to the nozzle, the injector fluid path being part of a fluid path of the dosing unit; an inlet tube sized and shaped for receiving therein at least part of the inlet tube of the fluid injector , the inlet tube including a fluid inlet; an input tube in fluid communication with the inlet tube via the fluid inlet thereof, the input tube configured to receive fluid from a fluid source; and an insert partly disposed in the inlet tube of the fluid injector , the insert at least partly defining a fluid passage, the fluid passage being in fluid communication with the input tube and the inlet tube of the fluid injector and forming part of the fluid path of the dosing unit, characterised in that the fluid passage includes a portion extending in a direction that is orthogonal to a longitudinal axis of the fluid injector , the insert extends from the inlet tube within the inlet tube so that less space is available for reductant and/or air bubbles in the inlet tube , wherein the fluid passage of the insert comprises at least one groove defined along an outer surface of the insert .
An uplink signal transmission method, wherein the method is applied to user equipment and comprises: in an uplink unsynchronized state, selecting from a preset cyclic prefix, CP, candidate set a CP to send an uplink transmission signal, wherein the CP candidate set comprises at least two types of CPs of different lengths, characterized by the selecting from a preset CP candidate set a CP to send an uplink transmission signal comprises both of the following manners: selecting from the preset CP candidate set the CP based on a path loss of the user equipment ; and selecting from the preset CP candidate set the CP based on a current movement state of the user equipment , wherein the selecting from the preset CP candidate set the CP based on a path loss of the user equipment comprises: based on a value interval that the path loss is within, selecting a CP of a corresponding length, wherein the value interval is corresponding to the CP of the length, wherein the value interval comprises at least a first value interval and a second value interval, wherein a maximum value of the first value interval is less than a minimum value of the second value interval, and a length of a CP corresponding to the first value interval is less than a length of a CP corresponding to the second value interval. in an uplink unsynchronized state, selecting from a preset cyclic prefix, CP, candidate set a CP to send an uplink transmission signal, wherein the CP candidate set comprises at least two types of CPs of different lengths, characterized by the selecting from a preset CP candidate set a CP to send an uplink transmission signal comprises both of the following manners: selecting from the preset CP candidate set the CP based on a path loss of the user equipment ; and selecting from the preset CP candidate set the CP based on a current movement state of the user equipment , wherein the selecting from the preset CP candidate set the CP based on a path loss of the user equipment comprises: based on a value interval that the path loss is within, selecting a CP of a corresponding length, wherein the value interval is corresponding to the CP of the length, wherein the value interval comprises at least a first value interval and a second value interval, wherein a maximum value of the first value interval is less than a minimum value of the second value interval, and a length of a CP corresponding to the first value interval is less than a length of a CP corresponding to the second value interval. based on a value interval that the path loss is within, selecting a CP of a corresponding length, wherein the value interval is corresponding to the CP of the length, wherein the value interval comprises at least a first value interval and a second value interval, wherein a maximum value of the first value interval is less than a minimum value of the second value interval, and a length of a CP corresponding to the first value interval is less than a length of a CP corresponding to the second value interval.
A drop hose irrigation device comprising: - a substantially vertical pipeline section which is designed to be secured to a truss of an irrigation system having a substantially horizontal supporting rod ; - a support having a substantially U-shaped bracket , said bracket having a pair of side walls joined together by a substantially cylindrical connecting wall extending along a substantially horizontal axis; wherein said walls have substantially cylindrical smooth inner surfaces with substantially parallel opposed longitudinal projections for snap-fit locking engagement of said bracket on the supporting rod ; characterized in that a pair of substantially horizontally and vertically offset curved appendages extend from one of said side walls and define a pair of substantially vertical locking seats and a substantially horizontal gap , said seats having oppositely directed concavities for receiving said pipeline section in said gap and locking it within said seats by rotation about a substantially horizontal axis (X) from a substantially horizontal position to a substantially vertical position. - a substantially vertical pipeline section which is designed to be secured to a truss of an irrigation system having a substantially horizontal supporting rod ; - a support having a substantially U-shaped bracket , said bracket having a pair of side walls joined together by a substantially cylindrical connecting wall extending along a substantially horizontal axis; wherein said walls have substantially cylindrical smooth inner surfaces with substantially parallel opposed longitudinal projections for snap-fit locking engagement of said bracket on the supporting rod ; characterized in that a pair of substantially horizontally and vertically offset curved appendages extend from one of said side walls and define a pair of substantially vertical locking seats and a substantially horizontal gap , said seats having oppositely directed concavities for receiving said pipeline section in said gap and locking it within said seats by rotation about a substantially horizontal axis (X) from a substantially horizontal position to a substantially vertical position. wherein said walls have substantially cylindrical smooth inner surfaces with substantially parallel opposed longitudinal projections for snap-fit locking engagement of said bracket on the supporting rod ; characterized in that a pair of substantially horizontally and vertically offset curved appendages extend from one of said side walls and define a pair of substantially vertical locking seats and a substantially horizontal gap , said seats having oppositely directed concavities for receiving said pipeline section in said gap and locking it within said seats by rotation about a substantially horizontal axis (X) from a substantially horizontal position to a substantially vertical position.
A particle production apparatus comprising: a rotary disk having a plate portion and a cylindrical portion extending from the plate portion ; and a material supply portion located above the rotary disk and having a material supply port configured to supply a material, wherein in the material supply portion , a gas supply port configured to supply a gas is formed outside the material supply port , and the gas supplied from the gas supply port directs the material supplied from the material supply port in such a way that the material comes into contact with a surface of the cylindrical portion , and wherein each of the material supply port and the gas supply port is an annular slit, and the material supply port is configured to supply the material in a film shape and an annular shape. a rotary disk having a plate portion and a cylindrical portion extending from the plate portion ; and a material supply portion located above the rotary disk and having a material supply port configured to supply a material, wherein in the material supply portion , a gas supply port configured to supply a gas is formed outside the material supply port , and the gas supplied from the gas supply port directs the material supplied from the material supply port in such a way that the material comes into contact with a surface of the cylindrical portion , and
Linear polyphosphazene compounds represented by the following chemical formula 1. wherein n is an integer from 1 to 300; MPEG represents methoxy poly(ethylene glycol) with a molecular weight of 350 to 1000; S is a space group selected from the group consisting of lysine, arginine, glutamine, asparagine, tyrosine, lysine containing oligopeptide, arginine containing oligopeptide, glutamine containing oligopeptide, asparagine containing oligopeptide, tyrosine containing oligopeptide, amino-ethanol, amino-propanol, amino-butanol, amino-pentanol, and amino-hexanol; 1 equals to 0 ∼ 0.9; m equals to 0.1 ∼ 1 and 1 + m equals to 1.
An emulsion with lupin protein that contains at least lupin protein and plant fat emulsified in water, wherein the lupin protein has a mass fraction in the emulsion of < 3%, the plant fat has a mass fraction in the emulsion of > 3%, and a ratio of fat mass to protein mass in the emulsion is > 2, characterized in that a mass fraction of lupin fats in the emulsion is less than 0.2%, and the emulsion is obtainable by comminution of the fat particles at temperatures above 30°C using a homogenizer at pressures of > 200*10 3 hPa. wherein the lupin protein has a mass fraction in the emulsion of < 3%, the plant fat has a mass fraction in the emulsion of > 3%, and a ratio of fat mass to protein mass in the emulsion is > 2, characterized in that a mass fraction of lupin fats in the emulsion is less than 0.2%, and the emulsion is obtainable by comminution of the fat particles at temperatures above 30°C using a homogenizer at pressures of > 200*10 3 hPa.
A compound of formula: or a tautomer or a pharmaceutically acceptable salt thereof.