mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus to determine an angle of vision (σ) of a light source on a transparent object with - an illuminating device , which has multiple, partially simultaneously illuminated, punctiform light sources , whereby the light sources have an illuminating distance (G, G*) from the transparent object , are located infront of the object and the light of the light sources falls on the transparent object at an angle of incidence (κ) with regard to the surface normal; - at least one camera , which is set up to capture simultaneously the positions of a primary image and a secondary image of multiple, simultaneously illuminated light sources on a 2-dimensional target , whereby the target has a viewing distance (A, A*) from the transparent object, is arranged behind the transparent object along the light path and is formed by a recording surface or image sensor of the at least one camera, whereby the primary image and the secondary image of one light source are generated by one volume element of the transparent object illuminated by the light source on the target ; and - an evaluation device , which is set up to determine the angle of vision (σ) of the respective volume element of the transparent object based on the positions of the primary image and the secondary image as well as based on the viewing distance (A, A*), the angle of incidence (κ) and the illuminating distance (G, G*), whereby the angle of vision (σ) is the angle at which the at least one camera perceives the primary image and the secondary image of the light source . - an illuminating device , which has multiple, partially simultaneously illuminated, punctiform light sources , whereby the light sources have an illuminating distance (G, G*) from the transparent object , are located infront of the object and the light of the light sources falls on the transparent object at an angle of incidence (κ) with regard to the surface normal; - at least one camera , which is set up to capture simultaneously the positions of a primary image and a secondary image of multiple, simultaneously illuminated light sources on a 2-dimensional target , whereby the target has a viewing distance (A, A*) from the transparent object, is arranged behind the transparent object along the light path and is formed by a recording surface or image sensor of the at least one camera, whereby the primary image and the secondary image of one light source are generated by one volume element of the transparent object illuminated by the light source on the target ; and - an evaluation device , which is set up to determine the angle of vision (σ) of the respective volume element of the transparent object based on the positions of the primary image and the secondary image as well as based on the viewing distance (A, A*), the angle of incidence (κ) and the illuminating distance (G, G*), whereby the angle of vision (σ) is the angle at which the at least one camera perceives the primary image and the secondary image of the light source .
Hand-held power tool, in particular electric hand-held power tool, comprising a housing having at least two separate housing parts that are to be connected to one another, wherein one housing part constitutes a handle housing for holding and guiding the hand-held power tool , and a vibration reduction element is disposed between the housing parts , characterized in that the handle housing consists of at least two separately realized handle housing parts, realized as a handle and as a fastening component , wherein the fastening component is a securing cover that bears axially, or at the end face, against the further housing part , in that the fastening component is connected, on the one hand, to the further housing part and, on the other hand, to the handle , and in that a vibration reduction element is disposed between the fastening component and the handle , wherein the handle is realized as a handle sleeve enclosing the further housing part .
A window or door having the following features: a) a fixed frame ; b) a first wing which can be moved from its closed position transverse to its main plane (H) into its sliding position and which in the sliding position can be displaced within its main plane (H); c) a second wing which can be moved from its closed position transverse to its main plane (H) into its sliding position and which in the sliding position can be displaced within its main plane (H); d) wherein the wings (14a, b) partially overlap when they are both in their closed position; e) a first handle and a first drive rod assembly on the first wing , wherein the first handle is coupled to the first drive rod assembly in order to move the first wing from its closed position into its sliding position independently of the second wing by actuating the first handle ; f) a second handle and a second drive rod assembly on the second wing , wherein the second handle is coupled to the second drive rod assembly in order to move the second wing from its closed position into its sliding position independently of the first wing by actuating the second handle ; g) a locking pin on the first wing which can be moved transversely to the main plane (H) of the first wing by the first drive rod assembly ; h) a closing piece on the second wing which can be engaged from behind by the locking pin in the closed position of both wings (14a, b), which closing piece can be moved transversely to the main plane (H) of the second wing by the second drive rod assembly . a) a fixed frame ; b) a first wing which can be moved from its closed position transverse to its main plane (H) into its sliding position and which in the sliding position can be displaced within its main plane (H); c) a second wing which can be moved from its closed position transverse to its main plane (H) into its sliding position and which in the sliding position can be displaced within its main plane (H); d) wherein the wings (14a, b) partially overlap when they are both in their closed position; e) a first handle and a first drive rod assembly on the first wing , wherein the first handle is coupled to the first drive rod assembly in order to move the first wing from its closed position into its sliding position independently of the second wing by actuating the first handle ; f) a second handle and a second drive rod assembly on the second wing , wherein the second handle is coupled to the second drive rod assembly in order to move the second wing from its closed position into its sliding position independently of the first wing by actuating the second handle ; g) a locking pin on the first wing which can be moved transversely to the main plane (H) of the first wing by the first drive rod assembly ; h) a closing piece on the second wing which can be engaged from behind by the locking pin in the closed position of both wings (14a, b), which closing piece can be moved transversely to the main plane (H) of the second wing by the second drive rod assembly .
A steering knuckle of a vehicle turning wheel , comprising a steering end connected to a turning wheel and a driving end connected to a steering driving component of the turning wheel, wherein the driving end is located above or below the side of the steering end , and the steering end and the driving end are fixedly connected; the steering end is provided with a first connecting hole , and the driving end is provided with a second connecting hole ; the axis of the second connecting hole and the axis of the first connecting hole are in the same plane, and the axis of the second connecting hole is not parallel to the axis of the first connecting hole , characterized in that the steering knuckle further comprises a damping end connected to the vehicle body of the vehicle, wherein the damping end is located above the side of the steering end , and the driving end is located below the side of the steering end ; the damping end , the steering end and the driving end are fixedly connected, and the damping end , the steering end and the driving end form a C-shape, and wherein the steering knuckle further comprises at least two brake caliper mounting portions , wherein the brake caliper mounting portions are disposed on the side of the steering end , and the brake caliper mounting portions are provided with at least one mounting hole.
A method of inhibiting growth of a fungus on live turfgrass comprising contacting the turfgrass with an effective amount of a composition consisting of: calcium propionate and water, wherein the calcium propionate has a concentration of from 5% to 12% (w/v).
A method of combining together multiple simultaneous source signals thought to contain a common physiological signal, the method comprising the steps of: acquiring a plurality of successive signal segments of each of said multiple simultaneous source signals, each segment comprising a plurality of successive signal sample values; bandpass filtering the multiple simultaneous source signals ; determining the strength of a periodic physiological component in contemporaneous segments of the bandpass filtered signals ; characterized by : forming as an output signal segment (S) a weighted combination of the unfiltered contemporaneous signal segments of said multiple simultaneous source signals with the weight of each segment being in accordance with the strength of the periodic physiological component in the bandpass filtered version of segment. acquiring a plurality of successive signal segments of each of said multiple simultaneous source signals, each segment comprising a plurality of successive signal sample values; bandpass filtering the multiple simultaneous source signals ; determining the strength of a periodic physiological component in contemporaneous segments of the bandpass filtered signals ;
An apremilast crystal form II shown in formula (I) characterized in that : i) a differential scanning calorimetry (DSC) thermogram shows only one endothermic peak at 150±3°C between 100∼180°C; ii) thermal gravity (TG) shows no crystallization solvent contained; iii) a melting point is 146∼151°C; and iv) it has an X-ray powder diffraction (XRPD) pattern comprising the following two characteristic absorption peaks at 2θ±0.2: 11.2, 14.7. i) a differential scanning calorimetry (DSC) thermogram shows only one endothermic peak at 150±3°C between 100∼180°C; ii) thermal gravity (TG) shows no crystallization solvent contained; iii) a melting point is 146∼151°C; and iv) it has an X-ray powder diffraction (XRPD) pattern comprising the following two characteristic absorption peaks at 2θ±0.2: 11.2, 14.7.
A method for providing timing recovery of a received digital data stream in a receiver including a series of consecutive data samples , said method comprising: separating the digital data stream into a series of consecutive observation periods where each observation period includes a predetermined number of the consecutive data samples; identifying a series of consecutive timing recovery data samples in each observation period where a number of the timing recovery data samples is less than the predetermined number of the consecutive data samples in the observation period and where the timing recovery data samples are used for timing recovery and other data samples in the observation period are not used for timing recovery; and using the consecutive timing recovery data samples in each observation period to provide the timing recovery where the timing recovery of the data stream using the timing recovery data samples is performed during an entire time period that each of the observation periods in the digital data stream is being received by the receiver, wherein control logic is provided that receives the digital data stream at a particular clock rate and outputs only the timing recovery data samples at a slower clock rate than the particular clock rate, and wherein the control logic provides only the timing recovery data samples at the slower clock rate to a timing recovery circuit in the receiver. separating the digital data stream into a series of consecutive observation periods where each observation period includes a predetermined number of the consecutive data samples; identifying a series of consecutive timing recovery data samples in each observation period where a number of the timing recovery data samples is less than the predetermined number of the consecutive data samples in the observation period and where the timing recovery data samples are used for timing recovery and other data samples in the observation period are not used for timing recovery; and using the consecutive timing recovery data samples in each observation period to provide the timing recovery where the timing recovery of the data stream using the timing recovery data samples is performed during an entire time period that each of the observation periods in the digital data stream is being received by the receiver, wherein control logic is provided that receives the digital data stream at a particular clock rate and outputs only the timing recovery data samples at a slower clock rate than the particular clock rate, and wherein the control logic provides only the timing recovery data samples at the slower clock rate to a timing recovery circuit in the receiver.
A method performed by a target network node for transmission of Multicast and Broadcast services, MBS, to a user equipment, UE in a wireless communication network , wherein the method comprises: - determining that the UE is involved in a MBS session with a source network node ; and - upon the determination that the UE involved in the MBS session with the source network node , i. obtaining a MBS context of the UE related to the MBS session; and ii. determining provisioning of a Point-To-Multipoint, PTM, configuration information associated with the MBS session to be acquired by the UE for enabling continuous reception of MBS data from the target network node . - determining that the UE is involved in a MBS session with a source network node ; and - upon the determination that the UE involved in the MBS session with the source network node , i. obtaining a MBS context of the UE related to the MBS session; and ii. determining provisioning of a Point-To-Multipoint, PTM, configuration information associated with the MBS session to be acquired by the UE for enabling continuous reception of MBS data from the target network node . i. obtaining a MBS context of the UE related to the MBS session; and ii. determining provisioning of a Point-To-Multipoint, PTM, configuration information associated with the MBS session to be acquired by the UE for enabling continuous reception of MBS data from the target network node .
A cathode assembly (C) suitable for a Hall-Heroult electrolysis cell, comprising - a cathode body made of a carbonaceous material; - at least one cathode bar made of a first conductive material, said cathode bar being fitted in a groove provided in said cathode body ; - at least an insert made of a second conductive material, having a higher electrical conductivity than that of said first conductive material, said insert being fitted in a slot or bore provided in said cathode bar ; characterized in that said insert has at least one first so-called electrically conductive region and at least one second so-called electrically non-conductive region, the electrically conductive contact peripheral length of said insert with said cathode body and/or said cathode bar being superior in the first region than in the second region, the peripheral contact length of the insert being the sum of the lengths of its sides, in cross section, which contact the cathode bar and/or the cathode body. - a cathode body made of a carbonaceous material; - at least one cathode bar made of a first conductive material, said cathode bar being fitted in a groove provided in said cathode body ; - at least an insert made of a second conductive material, having a higher electrical conductivity than that of said first conductive material, said insert being fitted in a slot or bore provided in said cathode bar ;
A method for monitoring and/or optimization of coagulation and/or flocculation in a water treatment process, comprising the steps of: - taking samples from aqueous liquid; - monitoring the samples with an imaging device to capture visual data of particles dispersed or suspended in said liquid; - classifying particle types based on said visual data; - computing a particle size distribution indication for at least one classified particle type; - comparing said particle size distribution indication to a predetermined particle size distribution value; wherein the method comprises steps a) and b) and c): - a) computing a particle size distribution indication for flocs, and comparing the particle size distribution indication for flocs to a predetermined particle size distribution value; - b) computing a particle count for microparticles, and comparing said particle count for microparticles to a predetermined particle count value; - c) monitoring the samples with the imaging device to capture visual data of compounds dissolved in the liquid, computing water color of the sample based on the visual data, and comparing the computed water color to a predetermined water color value; wherein the method comprises - adjusting, at least partially in response to a difference detected in the comparing step a), b) and c), the dosage of at least one coagulation and/or flocculation agent in the water treatment process. - taking samples from aqueous liquid; - monitoring the samples with an imaging device to capture visual data of particles dispersed or suspended in said liquid; - classifying particle types based on said visual data; - computing a particle size distribution indication for at least one classified particle type; - comparing said particle size distribution indication to a predetermined particle size distribution value; - a) computing a particle size distribution indication for flocs, and comparing the particle size distribution indication for flocs to a predetermined particle size distribution value; - b) computing a particle count for microparticles, and comparing said particle count for microparticles to a predetermined particle count value; - c) monitoring the samples with the imaging device to capture visual data of compounds dissolved in the liquid, computing water color of the sample based on the visual data, and comparing the computed water color to a predetermined water color value; - adjusting, at least partially in response to a difference detected in the comparing step a), b) and c), the dosage of at least one coagulation and/or flocculation agent in the water treatment process.
A cancer cell-specific anti-podocalyxin antibody of any of the following (i) to (iii) or antigen-binding fragment thereof, (i) having the following six CDRs; heavy chain CDR1: GFNFNTNAMN (SEQ ID NO: 2), heavy chain CDR2: LIRSKSNNYATYYADSVKD (SEQ ID NO: 3), heavy chain CDR3: GYGSY (SEQ ID NO: 4), light chain CDR1: KASQSVNNDVA (SEQ ID NO: 5), light chain CDR2: FASNRYT (SEQ ID NO: 6), and light chain CDR3 :QLDYNSTWT (SEQ ID NO: 7); (ii) having addition, substitution, or deletion of from one to 2 amino acids in the heavy chains CDR 1 to 3 and the light chains CDR 1 to 3 shown in (i); and (iii) having an amino acid sequence exhibiting 90% or more identity with the amino acid sequence of the heavy chains CDR1 to 3 and the light chains CDR1 to 3 shown in (i), wherein the antibody according to (ii) or (iii) does not react with normal cells or tissues. (i) having the following six CDRs; heavy chain CDR1: GFNFNTNAMN (SEQ ID NO: 2), heavy chain CDR2: LIRSKSNNYATYYADSVKD (SEQ ID NO: 3), heavy chain CDR3: GYGSY (SEQ ID NO: 4), light chain CDR1: KASQSVNNDVA (SEQ ID NO: 5), light chain CDR2: FASNRYT (SEQ ID NO: 6), and light chain CDR3 :QLDYNSTWT (SEQ ID NO: 7); heavy chain CDR1: GFNFNTNAMN (SEQ ID NO: 2), heavy chain CDR2: LIRSKSNNYATYYADSVKD (SEQ ID NO: 3), heavy chain CDR3: GYGSY (SEQ ID NO: 4), light chain CDR1: KASQSVNNDVA (SEQ ID NO: 5), light chain CDR2: FASNRYT (SEQ ID NO: 6), and light chain CDR3 :QLDYNSTWT (SEQ ID NO: 7); (ii) having addition, substitution, or deletion of from one to 2 amino acids in the heavy chains CDR 1 to 3 and the light chains CDR 1 to 3 shown in (i); and (iii) having an amino acid sequence exhibiting 90% or more identity with the amino acid sequence of the heavy chains CDR1 to 3 and the light chains CDR1 to 3 shown in (i),
A nanoparticle composition for treating or preventing a tissue infection or tissue disease associated with a microbe, the composition comprising: a first set of metal nanoparticles that are nonionic and spherical-shaped with no external bond angles or edges and have solid metal cores, a mean diameter of about 25 nm or less, and a narrow particle size distribution in which at least about 99% of the spherical-shaped metal nanoparticles are within ±3 nm of the mean diameter, wherein the spherical-shaped nanoparticles comprise ground state silver, determined by scanning transmission electron microscope; a second set of metal nanoparticles that are nonionic and coral-shaped, with a non-uniform cross section, and have a globular structure with multiple non-linear strands joined together without right angles; and a stabilizing agent that prevents or reduces agglomeration of the metal nanoparticles as compared to a composition without the stabilizing agent. a first set of metal nanoparticles that are nonionic and spherical-shaped with no external bond angles or edges and have solid metal cores, a mean diameter of about 25 nm or less, and a narrow particle size distribution in which at least about 99% of the spherical-shaped metal nanoparticles are within ±3 nm of the mean diameter, wherein the spherical-shaped nanoparticles comprise ground state silver, determined by scanning transmission electron microscope; a second set of metal nanoparticles that are nonionic and coral-shaped, with a non-uniform cross section, and have a globular structure with multiple non-linear strands joined together without right angles; and a stabilizing agent that prevents or reduces agglomeration of the metal nanoparticles as compared to a composition without the stabilizing agent.
A process of preparing an aqueous polymer dispersion, comprising: polymerization of a monomer composition in an aqueous medium in the presence of a poly(butylene oxide) polymer to obtain an emulsion polymer, wherein the monomer composition comprises an ethylenically unsaturated phosphorous-containing monomer, and wherein the poly(butylene oxide) polymer has the structure of formula I, wherein R 1 and R 2 each independently represents a hydrogen atom or a straight, branched or cyclic, saturated or unsaturated alkyl group having 1 to 22 carbon atoms; and n is an integer of from 5 to 300. polymerization of a monomer composition in an aqueous medium in the presence of a poly(butylene oxide) polymer to obtain an emulsion polymer, wherein the monomer composition comprises an ethylenically unsaturated phosphorous-containing monomer, and wherein the poly(butylene oxide) polymer has the structure of formula I, wherein R 1 and R 2 each independently represents a hydrogen atom or a straight, branched or cyclic, saturated or unsaturated alkyl group having 1 to 22 carbon atoms; and n is an integer of from 5 to 300.