mhurhangee/ep-ind-claims huggingface dataset:
Construction machine, comprising a track wheel suspension including a track wheel engageable to a track, a swing device comprising a first coupling portion, the first coupling portion being arranged for rotatably supporting said track wheel, a swing bar comprising a first bar end, the first bar end being arranged for being mounted to a second coupling portion of said swing device, the swing bar providing a swing axis, wherein said swing axis is offset from a rotation axis of the track wheel such that a swing movement of said swing device enables a movement of said track wheel in a direction which is substantially perpendicular to said rotation axis, wherein each track wheel of the construction machine is supported by such a track wheel suspension.
A flow cytometer comprising: a flow cell including a particle interrogation zone; at least one dichroic element configured to direct the converging light beams to the flow cell; and at least two optical subunits, each comprising: a light source producing a light beam wherein the light beam passes through the particle interrogation zone, and a converging element configured to convert the light beam into a converging light beam, wherein each of the light beams passes through a converging element in a one light beam per converging element ratio; and wherein the light beams leaving the converging elements are converging light beams, and wherein both of the converging light beams are combined by the at least one dichroic element before reaching the interrogation zone, and wherein the converging light beams are spatially separated from one another upon entering the interrogation zone within the flow cell. a flow cell including a particle interrogation zone; at least one dichroic element configured to direct the converging light beams to the flow cell; and at least two optical subunits, each comprising: a light source producing a light beam wherein the light beam passes through the particle interrogation zone, and a converging element configured to convert the light beam into a converging light beam, wherein each of the light beams passes through a converging element in a one light beam per converging element ratio; and a light source producing a light beam wherein the light beam passes through the particle interrogation zone, and a converging element configured to convert the light beam into a converging light beam, wherein each of the light beams passes through a converging element in a one light beam per converging element ratio; and wherein the light beams leaving the converging elements are converging light beams, and wherein both of the converging light beams are combined by the at least one dichroic element before reaching the interrogation zone, and wherein the converging light beams are spatially separated from one another upon entering the interrogation zone within the flow cell.
A utility locator (110, 310), comprising: a mast having a proximal end and a distal end; a locator housing disposed at or near the proximal end of the mast; an antenna node including a housing and an antenna array within the housing, coupled at or near the distal end of the mast; and an antenna node support structure comprising a collar assembly secured to the mast and a plurality of legs (105, 340) for positioning the locator in: a deployed state below the antenna node and above a surface in a fixed operating position and; in a retracted state for storage or transportation with the legs retracted and/or positioned above the bottom of the antenna node, wherein the antenna node support structure further comprises a plurality of spaced apart leg retainer assemblies extending downwardly from the collar assembly with their ends secured to the antenna node. a mast having a proximal end and a distal end; a locator housing disposed at or near the proximal end of the mast; an antenna node including a housing and an antenna array within the housing, coupled at or near the distal end of the mast; and an antenna node support structure comprising a collar assembly secured to the mast and a plurality of legs (105, 340) for positioning the locator in: a deployed state below the antenna node and above a surface in a fixed operating position and; in a retracted state for storage or transportation with the legs retracted and/or positioned above the bottom of the antenna node, a deployed state below the antenna node and above a surface in a fixed operating position and; in a retracted state for storage or transportation with the legs retracted and/or positioned above the bottom of the antenna node,
Rotating machine comprising a shaft, a casing at least one main magnetic bearing connected to the shaft for rotatably supporting said shaft inside the casing, and at least one auxiliary radial rolling bearing and at least one auxiliary axial rolling bearing which are disposed between the shaft and the casing to respectively support radial loads only and axial loads only, characterized in that the shaft comprises at least a sleeve (26, 28) radially interposed between an outer surface of said shaft and the radial and axial rolling bearings (20, 22), a first radial clearance being provided between the sleeve and an inner ring of the radial rolling bearing, a second radial clearance being provided between the sleeve and an inner ring of the axial rolling bearing, the second radial clearance being bigger than the first radial clearance.
A method for defining a calibrated model for an underground fluid reservoir, comprising: - a step of generating a library of graphic representations describing the reservoir for different embodiments thereof, - a step of classifying graphic representations of the library in a space of classes organized in at least one dimension, and - a step of optimizing an objective function at least in said space of classes, to define an embodiment of the reservoir calibrated on operating measurements, characterized in that the classification step is a self-organizing classification step. - a step of generating a library of graphic representations describing the reservoir for different embodiments thereof, - a step of classifying graphic representations of the library in a space of classes organized in at least one dimension, and - a step of optimizing an objective function at least in said space of classes, to define an embodiment of the reservoir calibrated on operating measurements, characterized in that the classification step is a self-organizing classification step.
Optical module comprising a radiator comprising one or more heat dissipation surfaces, a fan capable of conveying air onto said heat dissipation surface(s), and a light source (2, 3) supported by said radiator, the radiator being formed from folded metal sheets, characterized in that the fan is secured to said radiator by securing means (19, 20) provided in said folded metal sheet.
An environmental control system for providing a conditioned medium to one or more loads of an aircraft comprising: an air conditioning system including a compressor for regulating a pressure of a first medium and a turbine operably coupled to the compressor; a pressurized volume containing a second medium, the pressurized volume being arranged in fluid communication with a component of the air conditioning system; wherein the pressurized volume is fluidly connected to the turbine via a primary flow path containing a first valve operable to control the flow of the second medium to the turbine, and wherein a secondary flow path is fluidly connected to the primary flow path at a position between the first valve and the turbine, characterized in that the secondary flow path includes a second valve adjustable to maintain a minimum pressure within the pressurized volume, the second medium being provided to the turbine and the second valve in parallel. an air conditioning system including a compressor for regulating a pressure of a first medium and a turbine operably coupled to the compressor; a pressurized volume containing a second medium, the pressurized volume being arranged in fluid communication with a component of the air conditioning system; wherein the pressurized volume is fluidly connected to the turbine via a primary flow path containing a first valve operable to control the flow of the second medium to the turbine, and wherein a secondary flow path is fluidly connected to the primary flow path at a position between the first valve and the turbine, characterized in that the secondary flow path includes a second valve adjustable to maintain a minimum pressure within the pressurized volume, the second medium being provided to the turbine and the second valve in parallel.
A chimeric nuclease which comprises the following components: - a module comprising at least a DNA binding domain from TALE protein AvrBs3 (SEQ ID NO: 1) and/or a DNA binding domain from TALE protein AvrBs4 (SEQ ID NO: 2), - a linker composed of at least five amino acid residues, and - a module comprising at least a cleavage domain of a type IIP restriction endonuclease Pvull either having an amino acid sequence according to SEQ ID NO: 3 or having an amino acid sequence according to SEQ ID NO: 3 with one of following modifications: amino acid substitutions D5K, L12E, P14G, H15D, Q17E, K25D, K25E, N62D, K78E, H83A, Y94F, K155E, or K174E, respectively, or combinations thereof, or amino acid deletions delta 1-15 or delta 1-25 and wherein said chimeric nuclease functionally interacts only with DNA that comprises both a DNA recognition site for said DNA binding domain from a TALE protein and a DNA recognition site for said cleavage domain from a restriction endonuclease, and wherein said cleavage domain cleaves the DNA upon binding of the chimeric nuclease to the DNA. - a module comprising at least a DNA binding domain from TALE protein AvrBs3 (SEQ ID NO: 1) and/or a DNA binding domain from TALE protein AvrBs4 (SEQ ID NO: 2), - a linker composed of at least five amino acid residues, and - a module comprising at least a cleavage domain of a type IIP restriction endonuclease Pvull either having an amino acid sequence according to SEQ ID NO: 3 or having an amino acid sequence according to SEQ ID NO: 3 with one of following modifications: amino acid substitutions D5K, L12E, P14G, H15D, Q17E, K25D, K25E, N62D, K78E, H83A, Y94F, K155E, or K174E, respectively, or combinations thereof, or amino acid deletions delta 1-15 or delta 1-25 and
A drilling tool comprising a cutting component and a holding component, wherein said cutting component comprises a cutting portion and a connecting portion, wherein said holding component comprises a shank portion and two elastic holding portions, wherein said connecting portion is provided with an exterior cylindrical surface, wherein said elastic holding portions are provided with interior cylindrical surfaces for holding the exterior cylindrical surface, wherein said exterior cylindrical surface and interior cylindrical surfaces there between are provided with recesses and protrusions engaged to each other, wherein said recesses and protrusions are inclined in a feeding direction of drilling along the rotary axis of the tool, wherein on the top of each elastic holding portion, there is provided with a circumference protrusion and wherein said cutting portion is provided with a torque transfer surface matched with said circumference protrusion and characterised in that, on the top of each holding portion, there is provided a location protrusion, wherein said each location protrusion is provided with a convex surface and a convex bevel, wherein each convex bevel is provided close to the side of circumference protrusion, wherein at the bottom of cutting portion, there is provided with a location notch matched with said location protrusion, wherein said location notch is provided with a concave surface and a concave bevel, wherein said convex bevel contact with said concave bevel in the process of assembling and disassembling of cutting component and holding component.
An MRI scanning assembly comprising: a first MRI scanning device configured to operate at a relatively low first magnetic field intensity and generate a first plurality of MRI images of a target; a second MRI scanning device configured to operate at a relatively high second magnetic field intensity and generate a second plurality of MRI images of said target; and a processing unit configured to fuse said first plurality of MRI images and said second plurality of MRI images to generate a clear image representation of at least a portion of said target, wherein the magnetic field intensities are selected such that the second plurality of MRI images have a higher signal to noise ratio but lower contrast for tissues of interest compared to the first plurality of MRI images. a first MRI scanning device configured to operate at a relatively low first magnetic field intensity and generate a first plurality of MRI images of a target; a second MRI scanning device configured to operate at a relatively high second magnetic field intensity and generate a second plurality of MRI images of said target; and a processing unit configured to fuse said first plurality of MRI images and said second plurality of MRI images to generate a clear image representation of at least a portion of said target, wherein the magnetic field intensities are selected such that the second plurality of MRI images have a higher signal to noise ratio but lower contrast for tissues of interest compared to the first plurality of MRI images.
Method for laminating a tubular film with a material capable of absorbing resin or liquids for use in a tube liner for pipe renovation, wherein the tubular film is laminated over its entire perimeter with several layers (10, 11, 12, 13; 20, 21, 22; 30, 31) that overlap and contain a material capable of absorbing resin or liquids, so that there are essentially no areas left along the perimeter of the tubular film that are uncovered by the laminated layers (10, 11, 12, 13; 20, 21, 22; 30, 31) characterized in that the tubular film is a tubular film manufactured by means of blown film (co-) extrusion and the covering of the laminated layers (10, 11, 12, 13; 20, 21, 22; 30, 31) extends in a longitudinal direction of the tubular film, wherein the laminations are done through extrusion lamination or glue lamination or hot-melt lamination or heat lamination, wherein in the latter case the external layer of the tubular film to be laminated is provided with a thermally activated adhesive, preferably during the course of blown film (co-) extrusion.
A sensor for measuring a gas concentration of a target gas in a sample of ambient air, the sensor comprising a first gas sensitive component comprising a first gas sensitive layer being arranged between a first pair of measuring electrodes, the first gas sensitive layer comprising a metal oxide semiconductor; a second gas sensitive component comprising a second gas sensitive layer being arranged between a second pair of measuring electrodes (161, the second gas sensitive layer comprising a metal oxide semiconductor; one or more heating elements configured to heat the first gas sensitive layer and the second gas sensitive layer; wherein the first gas sensitive component is configured to measure the gas concentration of the target gas in a first concentration band; and the second gas sensitive component is configured to measure the gas concentration of the target gas in a second concentration band, wherein the first concentration band is different from the second concentration band; one or more layer parameters of the first gas sensitive layer and the second gas sensitive layer are configured to operate the sensor for both the measuring of the first concentration band and for the measuring of the second concentration band in a respective transition regime, the transition regime being situated between a perturbation regime and a saturation regime, wherein the transition regime is characterized by a higher sensitivity to the target gas than the perturbation regime and the saturation regime; and the first gas sensitive component and the second gas sensitive component differ in at least one of the one or more layer parameters.
A method for forming a hybrid active electronic and optical circuit using a planar lithography mask, the hybrid active electronic and optical circuit comprising an active electronic portion and at least one active optical circuit on a Silicon-On-Insulator, SOI wafer, the active electronic portion controlling the operation of the active optical circuit, the active optical circuit including an optical waveguide and an input/output optical coupler for coupling light into/from the optical waveguide, wherein the input/output optical coupler comprises an evanescent coupling region defined between an upper surface of the waveguide and a lower surface of a light coupling portion, the SOI wafer including an insulator layer and an upper silicon layer, the upper silicon layer including at least one portion of the active optical circuit, the active optical circuit further including a gate electrode proximate the optical waveguide, wherein, when an electric voltage is applied to the gate electrode, a free carrier distribution in a region of the optical waveguide is effected, thereby providing an effective mode index region within the optical waveguide, the method comprising: simultaneously forming layers of the active electronic portion and layers of the input/output optical coupler at substantially the same vertical level by using the planar lithography mask to project an image thereof onto the SOI wafer to simultaneously pattern the layers of the active electronic portion and the layers of the active optical circuit on the SOI wafer wherein different layers will undergo different subsequent processes to provide desired optical and/or electronic characteristics. simultaneously forming layers of the active electronic portion and layers of the input/output optical coupler at substantially the same vertical level by using the planar lithography mask to project an image thereof onto the SOI wafer to simultaneously pattern the layers of the active electronic portion and the layers of the active optical circuit on the SOI wafer wherein different layers will undergo different subsequent processes to provide desired optical and/or electronic characteristics.
A method of transmitting a discovery signal for a device-to-device, D2D, communication at a user equipment, UE, in a wireless communication system, the method comprising: transmitting the discovery signal via a first resource block of a resource structure at a first period; and transmitting the discovery signal via a second resource block of the resource structure at a second period, wherein each of the first resource block and the second resource block is defined by a time unit index and a frequency unit index, wherein one of the time unit index and the frequency unit index of the second resource block is determined based on the other of the time unit index and the frequency unit index of the first resource block, wherein a number of frequency units in the resource structure is the same as a number of time units in the resource structure, wherein the indices of the first resource block and the second resource block are defined by [time unit index, frequency unit index], when the index of the first resource block is [x, y], the time unit index of the second resource block is defined by (y+a) mod Nt, and the frequency unit index of the second resource block is defined by (x+b) mod Nf, Nt being the number of time units in the resource structure, Nf being the number of frequency units in the resource structure, and a and b being integers equal to or greater than 0. transmitting the discovery signal via a first resource block of a resource structure at a first period; and transmitting the discovery signal via a second resource block of the resource structure at a second period, wherein each of the first resource block and the second resource block is defined by a time unit index and a frequency unit index, wherein one of the time unit index and the frequency unit index of the second resource block is determined based on the other of the time unit index and the frequency unit index of the first resource block, wherein a number of frequency units in the resource structure is the same as a number of time units in the resource structure, wherein the indices of the first resource block and the second resource block are defined by [time unit index, frequency unit index], when the index of the first resource block is [x, y], the time unit index of the second resource block is defined by (y+a) mod Nt, and the frequency unit index of the second resource block is defined by (x+b) mod Nf, Nt being the number of time units in the resource structure, Nf being the number of frequency units in the resource structure, and a and b being integers equal to or greater than 0.
Metering apparatus for granular material, in particular seeds, comprising a conveying device which is mounted rotatably in a housing and interacts with a guide element in such a way that granular material can be conveyed from a receiving region into a dispensing region in such a way that excess grains of the granular material which are received in the receiving region are discarded during the transport from the receiving region to the dispensing region, whereas one grain of the granular material is conveyed into the dispensing region and is ejected there from the housing via an outlet opening, a first collecting space for discarded grains being arranged on one side or on both sides of the guide element, characterized in that a second collecting space is provided on one side of the guide element so as to adjoin the first collecting space, in which second collecting space a rotatably mounted driver is arranged, and the first collecting space being delimited radially by way of a wall which widens, in particular conically, in the direction of the second collecting space, with the result that discarded grains can be guided from the first collecting space into the second collecting space.
A tamper-resistant lock assembly comprising: a plate having a slot for receiving a key, said slot extending through said plate from an opening in a front face thereof to an exit in an opposing rear face thereof, said opening having a first profile and said exit having a second, different profile; and a key, wherein said key comprises a shaft having a bit extending therefrom, said bit being formed of a shape memory material and being pre-configured such that its cross-sectional shape has a temporary form that matches said first profile such that said bit can be inserted through said slot via said opening and, upon application of a predetermined external stimulus, returns to a permanent form in which its cross-sectional shape matches said second profile such that said bit can be retracted from said slot via said exit. a plate having a slot for receiving a key, said slot extending through said plate from an opening in a front face thereof to an exit in an opposing rear face thereof, said opening having a first profile and said exit having a second, different profile; and a key, wherein said key comprises a shaft having a bit extending therefrom, said bit being formed of a shape memory material and being pre-configured such that its cross-sectional shape has a temporary form that matches said first profile such that said bit can be inserted through said slot via said opening and, upon application of a predetermined external stimulus, returns to a permanent form in which its cross-sectional shape matches said second profile such that said bit can be retracted from said slot via said exit.