mhurhangee/ep-ind-claims huggingface dataset:
A laser scanner, with a housing, a laser transmitter with a transmission aperture for emitting a transmission beam, a laser receiver for receiving the transmission beam reflected from an environment as a reception beam, and a beam deflection device in the beam bath of the transmission and reception beams in form of a mirror pyramid mounted on a rotatable shaft, the mirror pyramid's pyramid axis forming the rotation axis and the mirror pyramid's pyramid sides inclined thereto each forming a mirror facet (7 - 10), wherein the laser transmitter and the laser receiver are each directed towards the mirror pyramid substantially in parallel to the rotation axis, and wherein the laser receiver comprises at least one collective lens arranged downstream of the mirror pyramid in the reception beam path, characterized in that the collective lens is, when seen in the direction of the rotation axis, in its overlapping region with the mirror facets (7 - 10) at least as large in area as twice of the largest of all mirror facets (7 - 10) seen in the direction of the rotation axis. a housing, a laser transmitter with a transmission aperture for emitting a transmission beam, a laser receiver for receiving the transmission beam reflected from an environment as a reception beam, and a beam deflection device in the beam bath of the transmission and reception beams in form of a mirror pyramid mounted on a rotatable shaft, the mirror pyramid's pyramid axis forming the rotation axis and the mirror pyramid's pyramid sides inclined thereto each forming a mirror facet (7 - 10), wherein the laser transmitter and the laser receiver are each directed towards the mirror pyramid substantially in parallel to the rotation axis, and wherein the laser receiver comprises at least one collective lens arranged downstream of the mirror pyramid in the reception beam path, characterized in that the collective lens is, when seen in the direction of the rotation axis, in its overlapping region with the mirror facets (7 - 10) at least as large in area as twice of the largest of all mirror facets (7 - 10) seen in the direction of the rotation axis.
A method for determining the presence or absence of at least one cancer type in an animal comprising - determining lipid amounts of lipids in a lipid set in a sample from the animal, and - determining the presence or absence of at least one cancer type in the animal with a predictive model; wherein - the lipid amounts of lipids in the lipid set comprise an input of the predictive model, and - the sample comprises a bodily fluid or treatment thereof, - the at least one cancer type is selected from the group consisting of lung cancer, breast cancer, and tumors associated with any of the aforementioned cancer types, - the lipid set comprises PC(38:5), and - the predictive model comprises one or more of dimension reduction method, clustering method, machine learning method, principle component analysis, soft independent modeling of class analogy, partial least squares regression, orthogonal least squares regression, partial least squares discriminant analysis, orthogonal partial least squares discriminant analysis, mean centering, median centering, Pareto scaling, unit variance scaling, orthogonal signal correction, integration, differentiation, cross validation, or receiver operating characteristic curves. - determining lipid amounts of lipids in a lipid set in a sample from the animal, and - determining the presence or absence of at least one cancer type in the animal with a predictive model; - the lipid amounts of lipids in the lipid set comprise an input of the predictive model, and - the sample comprises a bodily fluid or treatment thereof, - the at least one cancer type is selected from the group consisting of lung cancer, breast cancer, and tumors associated with any of the aforementioned cancer types, - the lipid set comprises PC(38:5), and - the predictive model comprises one or more of dimension reduction method, clustering method, machine learning method, principle component analysis, soft independent modeling of class analogy, partial least squares regression, orthogonal least squares regression, partial least squares discriminant analysis, orthogonal partial least squares discriminant analysis, mean centering, median centering, Pareto scaling, unit variance scaling, orthogonal signal correction, integration, differentiation, cross validation, or receiver operating characteristic curves.
Apparatus (30, 30b, 30c) comprising: reflecting means (32, 32b, 32c) defining a reflective surface area (56, 56a, 56b); light directing means (42, 42b, 42c, 43) configured to direct visible light through an aperture (38, 38b, 38c) and toward the reflective surface area (56, 56a, 56b); a detector (44, 44b, 44c) aligned to detect light from the light directing means (42, 42b, 42c, 43) after being reflected from the reflecting means (32, 32b, 32c); blocking means (34, 34b, 34c) for blocking at least visible light and defining the aperture (38, 38b, 38c), the aperture (38, 38b, 38c) between the light directing means (42, 42b, 42c, 43) and the reflecting means (32, 32b, 32c), the light directing means (42, 42b, 42c, 43) and the detector (44, 44b, 44c) mounted to the blocking means (34, 34b, 34c); and kinetic means for moving the reflecting means (32, 32b, 32c) relative to the blocking means (34, 34b, 34c) between a deployed position in which the blocking means (34, 34b, 34c) overlies only a first portion (60, 60b, 60c) of the reflective surface area (56, 56a, 56b), and a retracted position wherein the blocking means overlies greater than the first portion, wherein even in the deployed position, a portion of the reflecting means (32, 32b, 32c) lies behind the blocking means (34, 34b, 34c) in the direction that the light is directed from the light directing means (42, 42b, 42c, 43) and in the direction from which the light impinges on the reflecting means (32, 32b, 32c). reflecting means (32, 32b, 32c) defining a reflective surface area (56, 56a, 56b); light directing means (42, 42b, 42c, 43) configured to direct visible light through an aperture (38, 38b, 38c) and toward the reflective surface area (56, 56a, 56b); a detector (44, 44b, 44c) aligned to detect light from the light directing means (42, 42b, 42c, 43) after being reflected from the reflecting means (32, 32b, 32c); blocking means (34, 34b, 34c) for blocking at least visible light and defining the aperture (38, 38b, 38c), the aperture (38, 38b, 38c) between the light directing means (42, 42b, 42c, 43) and the reflecting means (32, 32b, 32c), the light directing means (42, 42b, 42c, 43) and the detector (44, 44b, 44c) mounted to the blocking means (34, 34b, 34c); and kinetic means for moving the reflecting means (32, 32b, 32c) relative to the blocking means (34, 34b, 34c) between a deployed position in which the blocking means (34, 34b, 34c) overlies only a first portion (60, 60b, 60c) of the reflective surface area (56, 56a, 56b), and a retracted position wherein the blocking means overlies greater than the first portion, wherein even in the deployed position, a portion of the reflecting means (32, 32b, 32c) lies behind the blocking means (34, 34b, 34c) in the direction that the light is directed from the light directing means (42, 42b, 42c, 43) and in the direction from which the light impinges on the reflecting means (32, 32b, 32c).
An article of footwear having an upper and a sole structure secured to the upper, the upper comprising a knitted component formed of unitary knit construction and including a sock portion and a tongue portion, the sock portion having a hollow structure (a) forming an ankle opening in a heel region of the footwear and (b) extending between the heel region and a forefoot region of the footwear to define a void within the footwear for receiving a foot, and the tongue portion having an elongate configuration (a) extending through at least a portion of a length of a throat area of the upper and (b) including two knit layers that lay adjacent to each other.
A container for storing tablets and/or capsules, wherein the container comprises an upper portion and a bottom portion wherein said bottom portion defines an Integrated chamber containing desiccant material; rib profile being provided on the inside surface of said container having a predetermined curvature; a separator means (6,7) being provided inside the container separating said upper portion and said bottom portion; wherein said separator means being snap-locked in the said rib profile, characterized in that said separator means comprises perforated disc means having at least two substantially parallel perforated surfaces being joined to each other by a circumferential surface such that said two perforated surfaces having a predetermined appropriate clearance between them so that there is no possibility of products of said container coming in contact with said desiccant materials.
A successive approximation register, SAR, analog to digital converter, ADC, comprising a CDAC, a comparator, and an SAR logic circuit, wherein the CDAC comprises a sampling switch, a plurality of switches and an array of capacitors, that are binary weighted and each capacitor of the array of capacitors comprises an output node and a reference node; and wherein the output nodes of the capacitors of the array of capacitors are shorted together and connected to an analog input voltage (Vin) via the sampling switch and the reference nodes of the capacitors of the array of capacitors are connected via the plurality of switches to either a ground (gnd) or a reference voltage (Vref), and wherein the comparator has a first input connected to the output nodes of the capacitors of the array of capacitors and a second input connected to the reference voltage (Vref); characterized by: wherein the SAR ADC is configured to connect the reference nodes of the capacitors of the array of capacitors to the ground via the plurality of switches if the analog input voltage (Vin) is less than the reference voltage (Vref) while the analog input voltage (Vin) is sampled via the sampling switch or to connect the reference nodes of the capacitors of the array of capacitors to the reference voltage (Vref), if the analog input voltage (Vin) is greater than the reference voltage (Vref) while the analog input voltage (Vin) is sampled via the sampling switch.
A prosthesis deployment device comprising: an elongate delivery catheter assembly configured to retain and deploy a prosthesis; a housing operably coupled to the delivery catheter assembly; and an actuator operably coupled to the housing such that displacement of the actuator displaces a portion of the delivery catheter assembly to deploy the prosthesis, characterized in that; the displacement of the delivery catheter assembly to deploy the prosthesis is in a direction parallel to a longitudinal axis of the deployment device and the displacement of the actuator to displace the portion of the delivery catheter assembly is in a direction disposed at an angle to the longitudinal axis of the deployment device, wherein displacement of a ratchet slide incrementally advances a carrier along the ratchet slide, and wherein the carrier comprises a ratchet slide engaging arm that extends from the carrier to engage the ratchet slide and a housing engaging arm that extends from the carrier to engage the housing, wherein the actuator rotates about a pin when the actuator is displaced to deploy the prosthesis, and wherein the actuator is coupled to the ratchet slide such that rotation of the actuator about the pin displaces the ratchet slide parallel to the longitudinal axis of the deployment device. an elongate delivery catheter assembly configured to retain and deploy a prosthesis; a housing operably coupled to the delivery catheter assembly; and an actuator operably coupled to the housing such that displacement of the actuator displaces a portion of the delivery catheter assembly to deploy the prosthesis, characterized in that; the displacement of the delivery catheter assembly to deploy the prosthesis is in a direction parallel to a longitudinal axis of the deployment device and the displacement of the actuator to displace the portion of the delivery catheter assembly is in a direction disposed at an angle to the longitudinal axis of the deployment device, wherein displacement of a ratchet slide incrementally advances a carrier along the ratchet slide, and wherein the carrier comprises a ratchet slide engaging arm that extends from the carrier to engage the ratchet slide and a housing engaging arm that extends from the carrier to engage the housing, wherein the actuator rotates about a pin when the actuator is displaced to deploy the prosthesis, and wherein the actuator is coupled to the ratchet slide such that rotation of the actuator about the pin displaces the ratchet slide parallel to the longitudinal axis of the deployment device.
Silage cover, comprising at least two layers, having an inner first layer facing the silo which is a single- or multi-ply plastic film having an oxygen permeability according to DIN 53380-3 at 23 °C and 50 % relative humidity of no more than 500 cm 3 / (m 2 d bar) and a water vapor transmission rate according to ISO 15106-3 at 23 °C and 85 % relative humidity of at least 5 g / (m 2 d) and in at least one ply in total contains at least 50 % by weight of one or more materials from the group comprising polyamide, copolyamide, polyester, copolyester, polyethylene vinyl alcohol, polyvinyl alcohol and mixtures thereof, and at least one further second layer, which is located thereon and consists of at least 70 % by weight of materials from the group comprising polyethylene, polypropylene, copolymers of ethylene and other vinyl monomers, and copolymers made of propylene and other vinyl monomers, characterized in that the silage cover is obtainable by way of co-extrusion without adhesion promoter between the first layer and the second layer, so that the first layer separates from the second layer prior to being applied, during application, or by active separation of the layers during application, or after lying on the heap silo for a few days, wherein the silage cover can be applied in a single operation onto a silo.
Bushing assembly comprising: (a) a liquid glass feeding unit arranged upstream of, and in fluid communication with, (b) a first and second tip plate assemblies (1A, 1 B) extending along a longitudinal direction, arranged side by side, and each surrounded by side walls and end walls and, the first and second tip plate assemblies being separated from one another by a stiffening rib structure extending along said longitudinal direction, characterized in that, the feeding unit comprises a glass distribution manifold, which defines two separate fluid communication paths to the first and second tip plate assemblies (1A, 1 B), and in that, the stiffening rib structure forms an integral part of the floor of the manifold. (a) a liquid glass feeding unit arranged upstream of, and in fluid communication with, (b) a first and second tip plate assemblies (1A, 1 B) extending along a longitudinal direction, arranged side by side, and each surrounded by side walls and end walls and, the first and second tip plate assemblies being separated from one another by a stiffening rib structure extending along said longitudinal direction,
A system to deploy a parachute (104; 202; 310; 502; 602) comprising: a first projectile (102; 200; 316) configured to be propelled in a first direction, causing the parachute to be deployed, and a second projectile (106; 208; 306; 406; 510; 614) that is configured to be propelled in a second direction and is coupled to a line (212; 308; 404; 504; 604) tethered to the parachute in such a way that a force in a direction opposite the first direction is applied to the line of the parachute when the second projectile is propelled in the second direction, characterised by the first direction and the second direction form an acute angle. a first projectile (102; 200; 316) configured to be propelled in a first direction, causing the parachute to be deployed, and a second projectile (106; 208; 306; 406; 510; 614) that is configured to be propelled in a second direction and is coupled to a line (212; 308; 404; 504; 604) tethered to the parachute in such a way that a force in a direction opposite the first direction is applied to the line of the parachute when the second projectile is propelled in the second direction, characterised by the first direction and the second direction form an acute angle.
A jaw restraint for securing a first jaw of a tool assembly relative to a second jaw of the tool assembly comprising: a body having; a first arm for supporting a first jaw of the tool assembly, and a second arm for supporting a second jaw of the tool assembly; characterised in that the body further comprises a projection directed inwardly between the first and second arms (42, 44); a first portion connecting the first arm to the projection; and a second portion connecting the second arm to the projection, wherein the projection is formed of a flexible material to permit the jaw restraint to be removed from the tool assembly. a body having; a first arm for supporting a first jaw of the tool assembly, and a second arm for supporting a second jaw of the tool assembly; the body further comprises a projection directed inwardly between the first and second arms (42, 44); a first portion connecting the first arm to the projection; and a second portion connecting the second arm to the projection, wherein the projection is formed of a flexible material to permit the jaw restraint to be removed from the tool assembly.
The method of interaction with a virtual object comprising: - determining a control body adapted for interacting with the virtual object, - determining a characteristic graphic primitives of the virtual object based upon graphic markers of a real object, - determining a spatial position of the real object and the control body, - comparing the spatial position of the control body with graphic primitives of the virtual object, characterized in that the determining the spatial position of the control body comprising: - obtaining a spatial position information of the control body using images from a client device of a user, said client device comprising a video camera, means to measure distance to the control body and a display connected to a computing unit that processes data, - creating a library of images of the control body from the images obtained, taking into account different positions in space, distance, brightness, contrast, illumination of the images of the control body, - determining the graphic primitives of the control body from the library of images obtained, - determining the spatial position of the control body by calculating a spatial movement of the graphic primitives of the control body, wherein said calculating is done using a model of artificial neural networks, and using vibration compensation adjustment values for the client device of the user using a Kalman filter, said method further comprising: - generating a video stream comprising said virtual object and a hand of the user used as the control body, and - spatially manipulating the virtual object by linking gestures of said hand to actions of the virtual object. - determining a control body adapted for interacting with the virtual object, - determining a characteristic graphic primitives of the virtual object based upon graphic markers of a real object, - determining a spatial position of the real object and the control body, - comparing the spatial position of the control body with graphic primitives of the virtual object, - obtaining a spatial position information of the control body using images from a client device of a user, said client device comprising a video camera, means to measure distance to the control body and a display connected to a computing unit that processes data, - creating a library of images of the control body from the images obtained, taking into account different positions in space, distance, brightness, contrast, illumination of the images of the control body, - determining the graphic primitives of the control body from the library of images obtained, - determining the spatial position of the control body by calculating a spatial movement of the graphic primitives of the control body, wherein said calculating is done using a model of artificial neural networks, and using vibration compensation adjustment values for the client device of the user using a Kalman filter, - generating a video stream comprising said virtual object and a hand of the user used as the control body, and - spatially manipulating the virtual object by linking gestures of said hand to actions of the virtual object.
A wheel for a vehicle, in particular for a motorcycle or a motor scooter, comprising a hub portion which is formed at least partially from a fiber-reinforced plastic material, the hub portion having a recess in which an insert for connecting the wheel to a vehicle axle of the vehicle is arranged, characterized in that an isolation element in the form of a separate component is arranged between the hub portion and the insert for galvanic isolation of the insert from the hub portion.
A hydraulic pressure control unit for a brake system of a straddle-type vehicle, the hydraulic pressure control unit comprising: a hydraulic pressure control mechanism that includes: a base body and a component incorporated in the base body to control a brake hydraulic pressure generated in the straddle-type vehicle; a controller that includes a brake control section configured to control operation of the component, and a power control section configured to control operation of a power generator of the straddle-type vehicle; and a case that is held by the base body in a state of accommodating the brake control section, characterized in that the power control section is accommodated together with the brake control section in the case. a hydraulic pressure control mechanism that includes: a base body and a component incorporated in the base body to control a brake hydraulic pressure generated in the straddle-type vehicle; a controller that includes a brake control section configured to control operation of the component, and a power control section configured to control operation of a power generator of the straddle-type vehicle; and a case that is held by the base body in a state of accommodating the brake control section, characterized in that the power control section is accommodated together with the brake control section in the case.
A method for synthesizing ionic liquids comprising a carbonate functional group characterized in that it comprises a step of reaction A without addition of lithium between a first reactant selected among an imidazolium, a pyrrolidinium or an ammonium and a second reactant being a methyl formate imidazolium.