mhurhangee/patent-ind-claim-en huggingface dataset:
Suction handpiece for a dental treatment unit comprising a negative pressure connection which is adapted to be connected with a negative pressure source of the treatment unit, a saliva connection which is adapted to be connected with a saliva suction cannula , an atomized spray connection which is adapted to be connected with an atomized spray suction cannula , a branched flow path which connects the negative pressure connection not only with the saliva connection but also with the atomized spray connection , wherein the flow path includes branching section on which a negative pressure channel ending on the negative pressure connection divides into a saliva channel ending on the saliva connection , and an atomized spray channel ending on the atomized spray connection , and wherein the atomized spray channel at its narrowest point (d 4 ) has a first cross sectional area A1 which is at least twice as large as a second cross sectional area A2 at the narrowest point (d 5 ) of the saliva channel . a negative pressure connection which is adapted to be connected with a negative pressure source of the treatment unit, a saliva connection which is adapted to be connected with a saliva suction cannula , an atomized spray connection which is adapted to be connected with an atomized spray suction cannula , a branched flow path which connects the negative pressure connection not only with the saliva connection but also with the atomized spray connection , wherein the flow path includes branching section on which a negative pressure channel ending on the negative pressure connection divides into a saliva channel ending on the saliva connection , and an atomized spray channel ending on the atomized spray connection , and wherein the atomized spray channel at its narrowest point (d 4 ) has a first cross sectional area A1 which is at least twice as large as a second cross sectional area A2 at the narrowest point (d 5 ) of the saliva channel . the flow path includes branching section on which a negative pressure channel ending on the negative pressure connection divides into a saliva channel ending on the saliva connection , and an atomized spray channel ending on the atomized spray connection , and wherein the atomized spray channel at its narrowest point (d 4 ) has a first cross sectional area A1 which is at least twice as large as a second cross sectional area A2 at the narrowest point (d 5 ) of the saliva channel .
An expansion anchor comprising: a hollow shaft insertable, from a tip end thereof, into a pre-formed hole formed in an installation region , a bolt to be screwed into a female screw hole of the hollow shaft from outside the installation region , and a multiplicity of metal balls as a radially expanding action member accommodated in a hole of the hollow shaft between the bolt and the tip end of the hollow shaft ; wherein the hollow shaft is formed with a radially expansive portion that is bulgingly deformed by the balls in response to pushing action caused by screwing of the bolt into the hollow shaft ; wherein the radially expansive portion of the hollow shaft is formed with a plurality of axially elongated slits that are circumferentially spaced from each other, characterised in that the balls move radially outward in group in response to a push from the bolt while the multiplicity of metal balls remain in the hole of the hollow shaft between the bolt and the tip end of the hollow shaft ; and the hole of the hollow shaft has a constant diameter over the entire length thereof including the female screw and the radially expansive portion when the balls have not moved radially outward in response to the push from the bolt , and the bolt is screwable entirely into the female screw hole of the hollow shaft for allowing a fastening bolt to be screwed into the female screw hole , thereby fixing a member to a base end surface of the hollow shaft . wherein the hollow shaft is formed with a radially expansive portion that is bulgingly deformed by the balls in response to pushing action caused by screwing of the bolt into the hollow shaft ; wherein the radially expansive portion of the hollow shaft is formed with a plurality of axially elongated slits that are circumferentially spaced from each other, characterised in that the balls move radially outward in group in response to a push from the bolt while the multiplicity of metal balls remain in the hole of the hollow shaft between the bolt and the tip end of the hollow shaft ; and the hole of the hollow shaft has a constant diameter over the entire length thereof including the female screw and the radially expansive portion when the balls have not moved radially outward in response to the push from the bolt , and the bolt is screwable entirely into the female screw hole of the hollow shaft for allowing a fastening bolt to be screwed into the female screw hole , thereby fixing a member to a base end surface of the hollow shaft .
An aqueous composition for keratin fibers especially human hair characterized in that it comprises an aromatic sulphonic acid and/or its salt at a concentration in the range of 0.3 to 20% by weight calculated to the total of the composition, glycylglycine and/or its derivative selected from gylcylglycine, glycylglycylglycine and a compound according to the following structures of G1 to G9 and an anionic polymer which is a thickening acrylate polymer at a concentration in the range of 0.1 to 5% by weight, calculated to the total of the composition, and the composition has a pH between 6 and 11.
Electricity charging point, having a charging station , - wherein the charging station has a rectifier for connecting the charging station to a public low-voltage grid, - wherein the charging station has a first DC-to-DC voltage converter connected to the rectifier , - wherein the charging station has a first DC chopper , connected to the first DC-to-DC voltage converter , of a first power path for connecting a battery to the charging station and for feeding back stored energy for faster charging of an electric car, - wherein the charging station has a second DC chopper , connected to the first DC-to-DC voltage converter , of a second power path for connecting the electric car to the charging station , for pooling the power from the public low-voltage grid and the battery and for making available a desired charging voltage of 200 V to 950 V for the electric vehicle, wherein the first DC-to-DC voltage converter is arranged between the rectifier and the first DC chopper , wherein the first DC-to-DC voltage converter is arranged between the rectifier and the second DC chopper , - wherein an EMC filter is connected downstream of the second DC chopper , - wherein a second DC-to-DC voltage converter configured for discontinuous conduction mode is connected downstream of the EMC filter , having a lightning protector , connected to the second DC-to-DC voltage converter , for connection to the electric car. - wherein the charging station has a rectifier for connecting the charging station to a public low-voltage grid, - wherein the charging station has a first DC-to-DC voltage converter connected to the rectifier , - wherein the charging station has a first DC chopper , connected to the first DC-to-DC voltage converter , of a first power path for connecting a battery to the charging station and for feeding back stored energy for faster charging of an electric car, - wherein the charging station has a second DC chopper , connected to the first DC-to-DC voltage converter , of a second power path for connecting the electric car to the charging station , for pooling the power from the public low-voltage grid and the battery and for making available a desired charging voltage of 200 V to 950 V for the electric vehicle, - wherein an EMC filter is connected downstream of the second DC chopper , - wherein a second DC-to-DC voltage converter configured for discontinuous conduction mode is connected downstream of the EMC filter ,
An elevator system comprising: an elevator sheave which comprises: a sheave body; a coating on a surface of the sheave body, the coating including microcracks ; and a filler in the microcracks ; and a load bearing assembly ; wherein said load bearing assembly is at least partially wrapped around the sheave such that the load bearing assembly is in a friction relationship with the coating on the sheave ; said load bearing assembly includes a jacket; the jacket comprises a polymer; and the filler is inert to the polymer; characterised in that the filler comprises a wax and the jacket includes the wax. an elevator sheave which comprises: a sheave body; a coating on a surface of the sheave body, the coating including microcracks ; and a filler in the microcracks ; and a sheave body; a coating on a surface of the sheave body, the coating including microcracks ; and a filler in the microcracks ; and a load bearing assembly ; wherein said load bearing assembly is at least partially wrapped around the sheave such that the load bearing assembly is in a friction relationship with the coating on the sheave ; said load bearing assembly includes a jacket; the jacket comprises a polymer; and the filler is inert to the polymer; wherein said load bearing assembly is at least partially wrapped around the sheave such that the load bearing assembly is in a friction relationship with the coating on the sheave ; said load bearing assembly includes a jacket; the jacket comprises a polymer; and the filler is inert to the polymer; characterised in that the filler comprises a wax and the jacket includes the wax.
Use of a thermoplastic mounting medium for mounting samples for analysis, the mounting medium including a mixture of: - polymer mixed with organic fibres, and - thermally conductive filler having a thermal conductivity of minimum 5 W/(m×K) wherein said thermally conductive filler is mixed homogeneously with said polymer mixed with organic fibres and wherein said thermally conductive filler represents at least 30 % w. of said thermoplastic mounting medium, for embedding and subsequently fixating a sample material in a moulding cavity by means of sintering or melting said thermoplastic mounting medium to become a monolithic bulk material at least partially accommodating said sample material . - polymer mixed with organic fibres, and - thermally conductive filler having a thermal conductivity of minimum 5 W/(m×K)
Apparatus, comprising: a probe , which is positionable adjacent to an eye of a patient and configured to irradiate a trabecular meshwork of the eye with one or more optical beams that traverse a sclera of the eye, the apparatus being configured such that the probe does not make physical contact with the eye; and a processor , which is configured to select one or more target regions of the trabecular meshwork; acquire images of a sclera and a limbus of the eye using a camera; automatically identify the target regions of the trabecular meshwork based on the images of the sclera around the limbus and control the probe to irradiate with the optical beams multiple points, which lie on a region around the junction of the cornea and the sclera being a circle having a diameter between 10-14 millimeters around a cornea of the eye, so as to irradiate the automatically-identified target regions of the trabecular meshwork. a probe , which is positionable adjacent to an eye of a patient and configured to irradiate a trabecular meshwork of the eye with one or more optical beams that traverse a sclera of the eye, the apparatus being configured such that the probe does not make physical contact with the eye; and a processor , which is configured to select one or more target regions of the trabecular meshwork; acquire images of a sclera and a limbus of the eye using a camera; automatically identify the target regions of the trabecular meshwork based on the images of the sclera around the limbus and control the probe to irradiate with the optical beams multiple points, which lie on a region around the junction of the cornea and the sclera being a circle having a diameter between 10-14 millimeters around a cornea of the eye, so as to irradiate the automatically-identified target regions of the trabecular meshwork.
An autonomous irrigation system , comprising: a housing comprising an elongated hollow body configured to be partially embedded in a soil environment at a desired depth, adjacent to a plant; a swellable element housed within said housing, said swellable element being completely above ground, said swellable element being configured to swell when absorbing moisture; a resiliently-compressible flexible tube configured to provide water to the soil environment, said flexible tube passing transversely through tube openings of the housing, said flexible tube is disposed adjacent to the swellable element inside the housing such that a swelling or displacement of said swellable element compresses the flexible tube, thereby limiting or preventing water flow therethrough; a moisture transfer adapter configured to communicate moisture along its length from a desired location within the soil environment to the swellable element; wherein said desired location is other than the immediate soil environment vicinity of said housing, wherein said swellable element is enclosed within said housing by a lid such that said swellable element can only expand in the direction of said flexible tube, wherein said housing comprises exposure windows configured to provide air and water communication between the swellable element and the ambient air outside the housing, and wherein the moisture transfer adapter comprises a sleeve configured to wrap around a portion of the exterior of the housing comprising at least a portion of said exposure windows. a housing comprising an elongated hollow body configured to be partially embedded in a soil environment at a desired depth, adjacent to a plant; a swellable element housed within said housing, said swellable element being completely above ground, said swellable element being configured to swell when absorbing moisture; a resiliently-compressible flexible tube configured to provide water to the soil environment, said flexible tube passing transversely through tube openings of the housing, said flexible tube is disposed adjacent to the swellable element inside the housing such that a swelling or displacement of said swellable element compresses the flexible tube, thereby limiting or preventing water flow therethrough; a moisture transfer adapter configured to communicate moisture along its length from a desired location within the soil environment to the swellable element; wherein said desired location is other than the immediate soil environment vicinity of said housing, wherein said swellable element is enclosed within said housing by a lid such that said swellable element can only expand in the direction of said flexible tube, wherein said housing comprises exposure windows configured to provide air and water communication between the swellable element and the ambient air outside the housing, and wherein the moisture transfer adapter comprises a sleeve configured to wrap around a portion of the exterior of the housing comprising at least a portion of said exposure windows.
Coloured polymer particles for use in electrophoretic devices comprising monomer units of at least one polymerisable dye and at least one co-monomer, wherein the polymerisable dyes are selected of Formula Wherein R 1 and R 2 are independently of each other aryl or C1-C15 alkyl; R 3 and R 4 are independently of each other aryl or C1-C20 alkyl; L 1 and L 2 are independently of one another linear or branched, substituted or unsubstituted alkylene groups where one or more non-adjacent carbon atoms may be replaced by O, S and/or N; Y 1 and Y 2 are independently of one another polymerisable groups selected from methacrylates, acrylates, methacrylamides, acrylamides, acrylonitriles, α-substituted acrylates, styrenes, vinyl ethers, vinyl esters, propenyl ethers, oxetanes and epoxys; and wherein at least one co-monomer comprises at least one amino group. R 1 and R 2 are independently of each other aryl or C1-C15 alkyl; R 3 and R 4 are independently of each other aryl or C1-C20 alkyl; L 1 and L 2 are independently of one another linear or branched, substituted or unsubstituted alkylene groups where one or more non-adjacent carbon atoms may be replaced by O, S and/or N; Y 1 and Y 2 are independently of one another polymerisable groups selected from methacrylates, acrylates, methacrylamides, acrylamides, acrylonitriles, α-substituted acrylates, styrenes, vinyl ethers, vinyl esters, propenyl ethers, oxetanes and epoxys; and wherein at least one co-monomer comprises at least one amino group.
A drying device for a mixture of a liquid and one or more solids, comprising - a frame , - a receiving container , which is arranged in the frame and comprises an inlet and an outlet for the mixture , - a rotor , which is rotatably mounted on the frame , is arranged with a portion of its circumference in the receiving container , and comprises a plurality of flat entraining elements , - a drive device for rotatably driving the rotor about a rotor shaft , - the frame being configured to be closed, in the manner of a housing, at least in the region above the receiving container and at least one inflow opening for a drying gas stream to flow through the housing is provided on a side oriented in parallel with the rotor shaft , characterized in that the at least one inflow opening is arranged in a hinged frame , which is pivotable from a closed position into an open position for checking, mounting, repairing, or cleaning the drying device, - at least one fan being mounted on an outer side of the hinged frame in the region of the at least one inflow opening , - at least one heat exchanger , which is mounted in the flow path of the drying gas stream, further being provided in the hinged frame , and - the hinged frame is configured as a double hinged frame comprising a first hinged frame part for holding the at least one fan and a second hinged frame part for holding the heat exchanger . - a frame , - a receiving container , which is arranged in the frame and comprises an inlet and an outlet for the mixture , - a rotor , which is rotatably mounted on the frame , is arranged with a portion of its circumference in the receiving container , and comprises a plurality of flat entraining elements , - a drive device for rotatably driving the rotor about a rotor shaft , - the frame being configured to be closed, in the manner of a housing, at least in the region above the receiving container and at least one inflow opening for a drying gas stream to flow through the housing is provided on a side oriented in parallel with the rotor shaft , characterized in that the at least one inflow opening is arranged in a hinged frame , which is pivotable from a closed position into an open position for checking, mounting, repairing, or cleaning the drying device, - at least one fan being mounted on an outer side of the hinged frame in the region of the at least one inflow opening , - at least one heat exchanger , which is mounted in the flow path of the drying gas stream, further being provided in the hinged frame , and - the hinged frame is configured as a double hinged frame comprising a first hinged frame part for holding the at least one fan and a second hinged frame part for holding the heat exchanger .
A human antibody or an antigen binding fragment thereof with pH dependent antigen binding comprising a variant of the light and heavy chain variable regions of human antibody adalimumab with same or similar biological activity, said antibody comprising the variable heavy chain sequence: and the variable light chain sequence: or the variable heavy chain sequence: and the variable light chain sequence: or the variable heavy chain sequence: and the variable light chain sequence: the variable heavy chain sequence: and the variable light chain sequence: or the variable heavy chain sequence: and the variable light chain sequence: or the variable heavy chain sequence: and the variable light chain sequence:
Method of sample preparation by means of light pulses while ablating a volume, including the following steps: - inspecting an object by means of a scanning electron microscope (SEM) or a focussed ion beam (FIB), with an image of the object being recorded, - setting a region of the object to be examined, - setting a laser processing path on the basis of the image of the object in such a way that a sample can be prepared from the object , wherein a first surface marking and a second surface marking are introduced into the image of the object, wherein the first surface marking represents a preliminary stage of the sample to be prepared; and the area of the second surface marking contains the area of the first surface marking ; and the area of the second surface marking minus the area of the first surface marking defines the region in which the laser processing path is located; - removing a volume to be ablated by way of laser processing along the set laser processing path, wherein the volume to be ablated by the light pulses is greater than 100 μ m 3 and converted into a material cloud, and - inspecting the object by means of a scanning electron microscope (SEM) or a focussed ion beam (43, FIB). - inspecting an object by means of a scanning electron microscope (SEM) or a focussed ion beam (FIB), with an image of the object being recorded, - setting a region of the object to be examined, - setting a laser processing path on the basis of the image of the object in such a way that a sample can be prepared from the object , wherein a first surface marking and a second surface marking are introduced into the image of the object, wherein the first surface marking represents a preliminary stage of the sample to be prepared; and the area of the second surface marking contains the area of the first surface marking ; and the area of the second surface marking minus the area of the first surface marking defines the region in which the laser processing path is located; - removing a volume to be ablated by way of laser processing along the set laser processing path, wherein the volume to be ablated by the light pulses is greater than 100 μ m 3 and converted into a material cloud, and - inspecting the object by means of a scanning electron microscope (SEM) or a focussed ion beam (43, FIB).