mhurhangee/patent-ind-claim-en huggingface dataset:
Nozzle head for a spray pump, preferably a finger-actuatable spray pump, comprising a pump head , a receiving pin in the pump head and a cap which has a spray nozzle and which is held in the pump head in a latched manner in association with the receiving pin , the receiving pin having a longitudinal axis (y) extending in the mounting direction of the cap , and a fluid path being formed in the receiving pin in the direction of the longitudinal axis (y), which fluid path leads to a central chamber upstream of the spray nozzle, the central chamber also having inlet channels which extend in a plane perpendicular to the longitudinal axis (y) and are formed in part by an inner surface of the cap and in part by an outer surface of the receiving pin , the boundary surfaces of the inlet channels , with the exception of a bottom surface, being formed exclusively in the cap , and the receiving pin having a closed, planar end face , which is simultaneously used to form the boundary surfaces of the inlet channels , the end face being surrounded by a circumferential surface which extends in a stepped manner with respect to said end face and extends at least over the circumferential angle at which the inlet channels are spaced apart from one another, and the inlet channels opening radially on the outside into an annular channel which is formed in the assigned position of the cap and which results from the circumferential surface , characterised in that , a lateral wall of an inlet channel is formed by a rib formed in the cap , and in that the continuous rib , viewed in the circumferential direction with respect to a longitudinal axis (y), forms both the inner lateral wall and the outer lateral wall of each inlet channel and, moreover, a radially outer connecting wall between the outer lateral wall and the inner lateral wall of each inlet channel .
Movable operating unit of a cable car system for transporting two-wheeled vehicles , wherein the movable operating unit has a frame whose ceiling region , floor region and side regions define a transport space , wherein a floor is arranged in at least one subregion of the floor region , and wherein the movable operating unit has a support arm for connection to a hauling cable or a traction cable, characterized in that at least two holding devices for holding in each case a running wheel of a vehicle are arranged in the transport space in the ceiling region , in that the movable operating unit has at least one supporting element which is arranged in the transport space in the ceiling region and extends vertically between the ceiling region and the floor region in a central region of the transport space , in that one or more holding devices , preferably all thereof, is/are arranged on the supporting element , in that the holding devices are preferably arranged distributed uniformly around the supporting element , and in that the supporting element can be rotated about a vertical axis.
Probe for measuring uterine muscle activity in a non-pregnant uterus, the probe comprising: - an elongate member , and - one or more uterine cavity wall sensing electrodes (1004-1016), characterized in that the probe further comprises: - a reference electrode having a rounded tip arranged at a distal end of the elongate member , and - a uterine internal orifice sensing electrode arranged concentrically with the reference electrode, - wherein the one or more uterine cavity wall sensing electrodes (1004-1016) are arranged between the reference electrode and the uterine internal orifice sensing electrode , - wherein the electrodes are separated by an interelectrode distance (D1) along the longitudinal axis (P) of the probe , and - wherein the probe is configured such that, in use, the reference electrode is in contact with a fundus of the uterus while the uterine internal orifice electrode is in contact with a uterine internal orifice . - an elongate member , and - one or more uterine cavity wall sensing electrodes (1004-1016), characterized in that the probe further comprises: - a reference electrode having a rounded tip arranged at a distal end of the elongate member , and - a uterine internal orifice sensing electrode arranged concentrically with the reference electrode, - a reference electrode having a rounded tip arranged at a distal end of the elongate member , and - a uterine internal orifice sensing electrode arranged concentrically with the reference electrode, - wherein the one or more uterine cavity wall sensing electrodes (1004-1016) are arranged between the reference electrode and the uterine internal orifice sensing electrode , - wherein the electrodes are separated by an interelectrode distance (D1) along the longitudinal axis (P) of the probe , and - wherein the probe is configured such that, in use, the reference electrode is in contact with a fundus of the uterus while the uterine internal orifice electrode is in contact with a uterine internal orifice .
A turbopump comprising: a slinger having a first section and a second section , the first section being disposed substantially radially in a fluid circuit and the second section being disposed substantially radially in the fluid circuit downstream of, and radially inward of, the first section ; a housing located downstream and adjacent to the first section of the slinger and radially outwards of the second section of the slinger ; wherein the first section includes first paddles and a substantially axial section directly connects the first section and the second section to form a slinger step; and the second section includes second paddles ; and wherein the housing includes a housing step that nests with the slinger step. a slinger having a first section and a second section , the first section being disposed substantially radially in a fluid circuit and the second section being disposed substantially radially in the fluid circuit downstream of, and radially inward of, the first section ; a housing located downstream and adjacent to the first section of the slinger and radially outwards of the second section of the slinger ; wherein the first section includes first paddles and a substantially axial section directly connects the first section and the second section to form a slinger step; and the second section includes second paddles ; and wherein the housing includes a housing step that nests with the slinger step.
A magnetic levitation train system with an asymmetrical power distribution, comprising a train and a track through which the train is moved, the track being at least partly located within an airless tube, the track having at least two stations , comprising each section of the track between two correlative stations the following zones: - an acceleration zone in which the train starts moving until it reaches a cruise speed, located at the beginning of the section of the track between two correlative stations , comprising a plurality of consecutive winding segments electrically connected to each other and to a current supply , - a deceleration zone in which the train brakes from the cruise speed until it stops, located at the end of the section of the track between two correlative stations , comprising a plurality of consecutive winding segments electrically connected to each other and to a current supply , and - a cruise zone in which the train is moved on the cruise speed, located between the acceleration zone and the deceleration zone , comprising a plurality of winding segments electrically connected to a current supply , and comprising a plurality of empty spaces between some of the winding segments . - an acceleration zone in which the train starts moving until it reaches a cruise speed, located at the beginning of the section of the track between two correlative stations , comprising a plurality of consecutive winding segments electrically connected to each other and to a current supply , - a deceleration zone in which the train brakes from the cruise speed until it stops, located at the end of the section of the track between two correlative stations , comprising a plurality of consecutive winding segments electrically connected to each other and to a current supply , and - a cruise zone in which the train is moved on the cruise speed, located between the acceleration zone and the deceleration zone , comprising a plurality of winding segments electrically connected to a current supply , and comprising a plurality of empty spaces between some of the winding segments .
A flexible layered fabric sheet comprising a porous front layer and a pre-seeded substrate layer for supporting root growth, the two layers together having an upper edge and a lower edge and being attached together with one or more non-continuous seams between the upper and lower edges, which seams have a component of direction parallel to the upper and/or lower edge, and wherein the non-continuous seams enable water to exit the layered fabric sheet at its lower edge, and the non-continuous seams further serve to slow water flow through the sheet in a direction from the upper to the lower edge.
A method of chemically mechanically polishing a substrate comprising: (i) providing a substrate, wherein the substrate comprises a silicon carbide layer on a surface of the substrate; (ii) providing a polishing pad; (iii) providing a polishing composition comprising: (a) silica particles wherein the silica particles comprise aluminum ions, and wherein the aluminum ions are uniformly distributed within the silica particles, (b) a polymer comprising sulfonic acid monomeric units selected from polystyrenesulfonic acid, poly(2-acrylamido-2-methyl-1-propanesulfonic acid), and poly(styrenesulfonic acid-co-maleic acid), and (c) water, wherein the polishing composition has a pH of about 2 to about 5; (iv) contacting the substrate with the polishing pad and the polishing composition; and (v) moving the polishing pad and the polishing composition relative to the substrate to abrade at least a portion of the silicon carbide layer on a surface of the substrate to polish the substrate. (i) providing a substrate, wherein the substrate comprises a silicon carbide layer on a surface of the substrate; (ii) providing a polishing pad; (iii) providing a polishing composition comprising: (a) silica particles wherein the silica particles comprise aluminum ions, and wherein the aluminum ions are uniformly distributed within the silica particles, (b) a polymer comprising sulfonic acid monomeric units selected from polystyrenesulfonic acid, poly(2-acrylamido-2-methyl-1-propanesulfonic acid), and poly(styrenesulfonic acid-co-maleic acid), and (c) water, wherein the polishing composition has a pH of about 2 to about 5; (a) silica particles wherein the silica particles comprise aluminum ions, and wherein the aluminum ions are uniformly distributed within the silica particles, (b) a polymer comprising sulfonic acid monomeric units selected from polystyrenesulfonic acid, poly(2-acrylamido-2-methyl-1-propanesulfonic acid), and poly(styrenesulfonic acid-co-maleic acid), and (c) water, (iv) contacting the substrate with the polishing pad and the polishing composition; and (v) moving the polishing pad and the polishing composition relative to the substrate to abrade at least a portion of the silicon carbide layer on a surface of the substrate to polish the substrate.
Method for drying plastic granulate, wherein first an amount of expanded compressed air is introduced to the plastic granulate as drying air, said drying air is then circulated through the plastic granulate until its dew point has reached a defined saturation dew point, after which saturated air is continuously repeatedly removed from the circuit and further expanded compressed air is introduced until a desired dew point of the drying air in the circuit is adjusted and it is subsequently circulated again until it reaches the saturation dew point, wherein, when the saturation dew point is reached, first, expanded compressed air is introduced, whereby the pressure in the circuit is increased, wherein, due to the increased pressure, an arranged outlet valve is opened, through which saturated air is discharged from the circuit until the initial process pressure is readjusted.
A passive device, comprising: a plurality of parallel plate capacitors (410, 420, 430; 510, 530, 540) in a common plane, each of the plurality of parallel plate capacitors (410, 420, 430; 510, 530, 540) having a dielectric layer between a pair of conductive plates; characterized in that the passive device further comprises: a first parallel plate capacitor of the plurality of parallel plate capacitors having a first single layer of dielectric material of a first dielectric constant and a second parallel plate capacitor of the plurality of parallel plate capacitors having a second single layer of dielectric material of a second dielectric constant that differs from the first dielectric constant; and a two-dimensional spiral inductor (460; 520) comprising a plurality of interconnected trace segments; wherein only one of the parallel plate capacitors (410, 420, 430; 510, 530, 540) is overlapping with only one interconnected trace segment and the other parallel plate capacitors (410, 420, 430; 510, 530, 540) do not overlap with any of the interconnected trace segments. a plurality of parallel plate capacitors (410, 420, 430; 510, 530, 540) in a common plane, each of the plurality of parallel plate capacitors (410, 420, 430; 510, 530, 540) having a dielectric layer between a pair of conductive plates; characterized in that the passive device further comprises: a first parallel plate capacitor of the plurality of parallel plate capacitors having a first single layer of dielectric material of a first dielectric constant and a second parallel plate capacitor of the plurality of parallel plate capacitors having a second single layer of dielectric material of a second dielectric constant that differs from the first dielectric constant; and a two-dimensional spiral inductor (460; 520) comprising a plurality of interconnected trace segments; wherein only one of the parallel plate capacitors (410, 420, 430; 510, 530, 540) is overlapping with only one interconnected trace segment and the other parallel plate capacitors (410, 420, 430; 510, 530, 540) do not overlap with any of the interconnected trace segments. a first parallel plate capacitor of the plurality of parallel plate capacitors having a first single layer of dielectric material of a first dielectric constant and a second parallel plate capacitor of the plurality of parallel plate capacitors having a second single layer of dielectric material of a second dielectric constant that differs from the first dielectric constant; and a two-dimensional spiral inductor (460; 520) comprising a plurality of interconnected trace segments; wherein only one of the parallel plate capacitors (410, 420, 430; 510, 530, 540) is overlapping with only one interconnected trace segment and the other parallel plate capacitors (410, 420, 430; 510, 530, 540) do not overlap with any of the interconnected trace segments.
Boundary spreading device for a spreader, having - a deflection device which is designed to deflect a spreading-material stream ; and - a fastening device by means of which the boundary spreading device is able to be fastened to a spreader; wherein the deflection device has a spreading-material stream separating device which is designed to split the spreading-material stream into an upper spreading-material part-stream and a lower spreading-material part-stream ; wherein the spreading-material stream separating device has an upper deflection plate for deflecting the upper spreading-material part-stream and a lower deflection plate for deflecting the lower spreading-material part-stream , characterized in that the upper deflection plate and the lower deflection plate have different inclinations from one another. - a deflection device which is designed to deflect a spreading-material stream ; and - a fastening device by means of which the boundary spreading device is able to be fastened to a spreader; wherein the deflection device has a spreading-material stream separating device which is designed to split the spreading-material stream into an upper spreading-material part-stream and a lower spreading-material part-stream ; wherein the spreading-material stream separating device has an upper deflection plate for deflecting the upper spreading-material part-stream and a lower deflection plate for deflecting the lower spreading-material part-stream , characterized in that the upper deflection plate and the lower deflection plate have different inclinations from one another.
An in-vehicle input device for a steering wheel of a vehicle, comprising: a touch panel including a lower electrode , an upper electrode facing the lower electrode , and a spacer disposed between the lower electrode and the upper electrode, the device being capable of detecting a capacitance (C0) between the lower electrode and the upper electrode , the device having an operation surface located above the upper electrode , the operation surface including a plurality of operation areas , the spacer having a plurality of openings that coincide with the operation areas in plan view, the device detecting an input operation based on a change in distance between the lower electrode and the upper electrode in response to pressing any of the operation areas by the operator; characterized in that the device further includes a suppression layer that is disposed between the operation surface and the upper electrode or disposed on an upper surface of the operation surface , the suppression layer eliminating or reducing formation of a capacitance between the upper electrode and an operator. a touch panel including a lower electrode , an upper electrode facing the lower electrode , and a spacer disposed between the lower electrode and the upper electrode, the device being capable of detecting a capacitance (C0) between the lower electrode and the upper electrode , the device having an operation surface located above the upper electrode , the operation surface including a plurality of operation areas , the spacer having a plurality of openings that coincide with the operation areas in plan view, the device detecting an input operation based on a change in distance between the lower electrode and the upper electrode in response to pressing any of the operation areas by the operator; characterized in that the device further includes a suppression layer that is disposed between the operation surface and the upper electrode or disposed on an upper surface of the operation surface , the suppression layer eliminating or reducing formation of a capacitance between the upper electrode and an operator.
A method of fabrication of a short-wave infrared detector array comprising a silicon readout wafer , having a deposition surface , comprising a CMOS readout layer comprising at least two charge collecting structures, said short-wave infrared detector array comprising a slightly doped buffer layer situated on said deposition surface and a short-wave infrared light absorption layer , comprising Ge and Sn, situated on said doped buffer layer , the method comprising the steps (A-D) of: A. fabricating a readout wafer having a deposition surface , and comprising a silicon based CMOS readout layer and a p-n junction ; B. providing on said deposition surface a slightly doped buffer layer comprising at least Ge and having an interface layer in contact with said deposition surface , said slightly doped buffer layer comprising to its side away from said readout wafer , an oxide-free buffer layer surface ; C. sending light pulses , provided by a light source situated to the side of said slightly doped buffer layer opposite to said readout wafer , so as to crystallize said interface layer by the annealing effect of heat provided by the absorption of said light pulses by said interface layer , and so that temperature of the CMOS readout layer remains lower than 350°C during the annealing process; D. depositing on said slightly doped buffer layer , at temperatures lower than 350°C, said absorption layer . A. fabricating a readout wafer having a deposition surface , and comprising a silicon based CMOS readout layer and a p-n junction ; B. providing on said deposition surface a slightly doped buffer layer comprising at least Ge and having an interface layer in contact with said deposition surface , said slightly doped buffer layer comprising to its side away from said readout wafer , an oxide-free buffer layer surface ; C. sending light pulses , provided by a light source situated to the side of said slightly doped buffer layer opposite to said readout wafer , so as to crystallize said interface layer by the annealing effect of heat provided by the absorption of said light pulses by said interface layer , and so that temperature of the CMOS readout layer remains lower than 350°C during the annealing process; D. depositing on said slightly doped buffer layer , at temperatures lower than 350°C, said absorption layer .
A method of making tumor-specific T-cell precursor cells comprising introducing into a population of T-cell precursor cells a complex comprising: a. a guide (gRNA) comprising a first nucleotide sequence that hybridizes to a target DNA in the genome of the T cell precursor cells and a second nucleotide sequence that interacts with a site-directed nuclease; b. a recombinant site-directed nuclease linked to a superpositively charged protein, wherein the site-directed nuclease comprises an RNA-binding portion that interacts with the second nucleotide sequence of the gRNA and wherein the site-directed nuclease specifically binds and cleaves the target DNA to create a double stranded break; and c. a donor nucleic acid sequence comprising a third nucleotide sequence that encodes a chimeric antigen receptor (CAR) and a fourth nucleotide sequence that hybridizes to a genomic sequence flanking the double stranded break in the target DNA, wherein the complex is introduced into the T-cell precursor cells under conditions that allow homology-directed repair (HDR) and integration of the third nucleotide sequence into the target DNA to form modified T-cell precursor cells that express the CAR. a. a guide (gRNA) comprising a first nucleotide sequence that hybridizes to a target DNA in the genome of the T cell precursor cells and a second nucleotide sequence that interacts with a site-directed nuclease; b. a recombinant site-directed nuclease linked to a superpositively charged protein, wherein the site-directed nuclease comprises an RNA-binding portion that interacts with the second nucleotide sequence of the gRNA and wherein the site-directed nuclease specifically binds and cleaves the target DNA to create a double stranded break; and c. a donor nucleic acid sequence comprising a third nucleotide sequence that encodes a chimeric antigen receptor (CAR) and a fourth nucleotide sequence that hybridizes to a genomic sequence flanking the double stranded break in the target DNA,