mhurhangee/ep-ind-claims huggingface dataset:
An antenna for emitting/receiving electromagnetic waves, of the type comprising: - two dipoles (16A, 16B) orthogonal to each other, each dipole (16A, 16B) comprising two radiating elements, - a metal plate, and - an absorptive structure, characterized in that the metal plate provides the functions of a ground plane as well as of a mechanical and electrical interface between the antenna and the structure on which the antenna is intended to be integrated, and in that the radiating elements are all substantially planar, both dipoles (16A, 16B) being substantially comprised in a same plane and in that the absorptive structure is interposed between the metal plate and the dipoles (16A, 16B) and is laid out in contact with the metal plate, the absorptive structure being delimited vertically by a substantially planar upper surface and a lower surface, both parallel to the plane, said plane being located at a distance from said upper surface, the lower surface being positioned in contact with the metal plate, the dipoles being powered by means capable of ensuring impedance matching, as well as symmetrizing the currents flowing in the radiating elements. - two dipoles (16A, 16B) orthogonal to each other, each dipole (16A, 16B) comprising two radiating elements, - a metal plate, and - an absorptive structure,
A rotation mechanism for an X-ray inspection apparatus used in an X-ray inspection apparatus including an X-ray generator and an X-ray detector disposed with an object to be inspected placed between the X-ray detector and the X-ray generator, the rotation mechanism comprising: a table; a table holding member rotatably holding the table; a rolling bearing including an inner race and an outer race, the inner race having a ring shape and being fixed to either one of the table and the table holding member, the outer race having a ring shape and being fixed to another of the table and the table holding member; characterized in that the rotation mechanism further comprises three or more adjustment members configured to adjust a shape of the outer race by deforming the outer race, the adjustment members being arranged in a circumferential direction of the rolling bearing, the table or the table holding member to which the outer race is fixed including an adjustment member holder movably holding the adjustment members, the adjustment member holder being disposed on an outer circumferential side of the outer race, the adjustment members being movable relative to the adjustment member holder in a diameter direction of the rolling bearing and being contactable with an outer circumferential surface of the outer race, and a gap configured to allow deformation of the outer race being formed between the outer circumferential surface of the outer race and the adjustment member holder in the diameter direction of the rolling bearing. a table; a table holding member rotatably holding the table; a rolling bearing including an inner race and an outer race, the inner race having a ring shape and being fixed to either one of the table and the table holding member, the outer race having a ring shape and being fixed to another of the table and the table holding member; characterized in that the rotation mechanism further comprises three or more adjustment members configured to adjust a shape of the outer race by deforming the outer race, the adjustment members being arranged in a circumferential direction of the rolling bearing, the table or the table holding member to which the outer race is fixed including an adjustment member holder movably holding the adjustment members, the adjustment member holder being disposed on an outer circumferential side of the outer race, the adjustment members being movable relative to the adjustment member holder in a diameter direction of the rolling bearing and being contactable with an outer circumferential surface of the outer race, and a gap configured to allow deformation of the outer race being formed between the outer circumferential surface of the outer race and the adjustment member holder in the diameter direction of the rolling bearing.
A composite material structure comprising: a first structure member extending in a first direction, which is a longitudinal direction of the composite material structure, and formed as a composite material made of fiber reinforced plastics; a second structure member extending in the first direction, separated from the first structure member by a predetermined space in a second direction, which is a width direction of the composite material structure that is substantially orthogonal to the longitudinal direction, and formed as a composite material made of fiber reinforced plastics; and a center section located between the first structure member and the second structure member, wherein the center section is configured by a plurality of panels which are provided between the first structure member and the second structure member, which respectively have a dimension in the first direction shorter than the first structure member and the second structure member, and which are continuously provided side by side over the first direction, and wherein the panels are removably attached to the composite material structure so as to be fixed in the second direction and so as to be displaceable in the first direction upon application of a tensile or compressive load on the composite material structure in the first direction. a first structure member extending in a first direction, which is a longitudinal direction of the composite material structure, and formed as a composite material made of fiber reinforced plastics; a second structure member extending in the first direction, separated from the first structure member by a predetermined space in a second direction, which is a width direction of the composite material structure that is substantially orthogonal to the longitudinal direction, and formed as a composite material made of fiber reinforced plastics; and a center section located between the first structure member and the second structure member, wherein the center section is configured by a plurality of panels which are provided between the first structure member and the second structure member, which respectively have a dimension in the first direction shorter than the first structure member and the second structure member, and which are continuously provided side by side over the first direction, and wherein the panels are removably attached to the composite material structure so as to be fixed in the second direction and so as to be displaceable in the first direction upon application of a tensile or compressive load on the composite material structure in the first direction.
Airbag device for a portable system for people, comprising an inflatable balloon, a gas generator, a triggering system, and a triggering handle device comprising a handle part (50, 50') connected to an interaction means, connected to the triggering system, characterized in that the interaction means being attached to a pivotable body (60, 60') pivotally mounted to the handle part (50, 50'), wherein the handle device further comprises a locking device configured to lock the handle part (50, 50') in a transverse position by the interaction means.
A command method for an aircraft, comprising: • determining a flight regime of the aircraft, the flight regime determined from a set of flight regimes comprising: a forward regime and a hover regime; • receiving a set of input commands from a user at one or more input mechanisms, the set of input commands comprising: a first angular position on a first axis of the one or more input mechanisms and a second angular position on a second axis of the one or more input mechanisms; • based on the flight regime of the aircraft, mapping the set of input commands into a set of desired aircraft responses, wherein: • the first angular position maps to a desired pitch response in the forward regime and a desired vertical translation response in the hover regime; and • the second angular position maps to a desired speed response in the forward regime and a desired longitudinal translation response in the hover regime; • based on the set of desired aircraft responses, determining a control output; and • executing the control output by actuating a set of effectors (111, 112, 113, 114, 115, 116, 118) of the aircraft, wherein the set of effectors comprises a rotor. • determining a flight regime of the aircraft, the flight regime determined from a set of flight regimes comprising: a forward regime and a hover regime; • receiving a set of input commands from a user at one or more input mechanisms, the set of input commands comprising: a first angular position on a first axis of the one or more input mechanisms and a second angular position on a second axis of the one or more input mechanisms; • based on the flight regime of the aircraft, mapping the set of input commands into a set of desired aircraft responses, wherein: • the first angular position maps to a desired pitch response in the forward regime and a desired vertical translation response in the hover regime; and • the second angular position maps to a desired speed response in the forward regime and a desired longitudinal translation response in the hover regime; • the first angular position maps to a desired pitch response in the forward regime and a desired vertical translation response in the hover regime; and • the second angular position maps to a desired speed response in the forward regime and a desired longitudinal translation response in the hover regime; • based on the set of desired aircraft responses, determining a control output; and • executing the control output by actuating a set of effectors (111, 112, 113, 114, 115, 116, 118) of the aircraft, wherein the set of effectors comprises a rotor.
A system for visualizing a vascular structure represented by a three-dimensional dataset in which respective voxel values are associated with respective voxels, the system comprising: means for establishing, based on the voxel values, respective filling values associated with respective positions in the vascular structure a respective filling value being indicative of an amount of blood in a neighborhood of the respective position in the vascular structure, the neighborhood including voxels in a vessel cross section at the respective position; means for determining respective minimum filling values associated with the respective positions in the vascular structure, a respective minimum filling value being a minimum of the filling values associated with the positions upstream in the vascular structure of the respective position in the vascular structure; means for computing respective deficiency values associated with the respective positions in the vascular structure, a respective deficiency value being computed in dependence on the filling value associated with the respective position in the vascular structure and the minimum filling value associated with the respective position in the vascular structure; and an output for providing a visualization of the vascular structure in dependence on the computed respective deficiency values. means for establishing, based on the voxel values, respective filling values associated with respective positions in the vascular structure a respective filling value being indicative of an amount of blood in a neighborhood of the respective position in the vascular structure, the neighborhood including voxels in a vessel cross section at the respective position; means for determining respective minimum filling values associated with the respective positions in the vascular structure, a respective minimum filling value being a minimum of the filling values associated with the positions upstream in the vascular structure of the respective position in the vascular structure; means for computing respective deficiency values associated with the respective positions in the vascular structure, a respective deficiency value being computed in dependence on the filling value associated with the respective position in the vascular structure and the minimum filling value associated with the respective position in the vascular structure; and an output for providing a visualization of the vascular structure in dependence on the computed respective deficiency values.
A method for forming a semiconductor device, comprising: Forming first trenches in a group IV substrate; depositing sacrificial shallow trench isolation, sSTI, in the first trenches; Forming second trenches, each of said second trenches cutting into the sSTI material of adjacent first trenches; depositing a III-V wide bandgap layer in the second trenches, said III-V wide bandgap layer including aluminum but not indium or gallium and having a first bandgap; depositing a III-V channel layer having a second bandgap over the wide bandgap layer, wherein the first bandgap is greater than 1.4 electron volts, eV, the second bandgap is at or below 1.4 eV, and both bandgaps have a difference of at least 0.2 eV; removing the sSTI material, wherein a surface of the wide bandgap layer is partially exposed; and converting the wide bandgap layer at least partially to an insulator through exposing the wide bandgap layer to an oxidizing and/or nitriding environment, wherein the exposed surface of the wide bandgap layer is converted before a remainder of the wide bandgap layer; forming one or more transistor devices on at least a portion of the channel layer. Forming first trenches in a group IV substrate; depositing sacrificial shallow trench isolation, sSTI, in the first trenches; Forming second trenches, each of said second trenches cutting into the sSTI material of adjacent first trenches; depositing a III-V wide bandgap layer in the second trenches, said III-V wide bandgap layer including aluminum but not indium or gallium and having a first bandgap; depositing a III-V channel layer having a second bandgap over the wide bandgap layer, wherein the first bandgap is greater than 1.4 electron volts, eV, the second bandgap is at or below 1.4 eV, and both bandgaps have a difference of at least 0.2 eV; removing the sSTI material, wherein a surface of the wide bandgap layer is partially exposed; and converting the wide bandgap layer at least partially to an insulator through exposing the wide bandgap layer to an oxidizing and/or nitriding environment, wherein the exposed surface of the wide bandgap layer is converted before a remainder of the wide bandgap layer; forming one or more transistor devices on at least a portion of the channel layer.
Computer-aided method comprising identifying/detecting non-qualified services in a network of distributed services, comprising agreeing comparative interaction patterns between at least two services (CApp, PApp) in a contract, observing interaction patterns during the communication of the services (CApp, PApp) and comparing the observed interaction patterns with the comparative interaction patterns, wherein the keys (key) required for a comparison are maintained in a securable build time environment and are not available in the open runtime environment.
An arthropod pest control composition comprising an amide compound represented by formula (a): a spinosin compound represented by formula: wherein R 1 represents a hydrogen atom or a C1-C4 alkyl group, R 2 represents a C1-C4 alkyl group, and X 1 and X 2 each represents a hydrogen atom, or X 1 and X 2 are taken together to form a single bond, and a compound represented by formula (b): wherein the weight ratio of the amide compound of formula (a) to the spinosin compound represented by formula is 5:1 to 1:0.8, and the weight ratio of the amide compound of formula (a) to the compound represented by formula (b) is 1.25:1 to 1:1.8.
An envelope tracking arrangement comprising: an IFFT component configured to convert symbols of an input signal from a frequency domain to a time domain; a buffer configured to at least temporally store symbols of the input signal; a level select component configured to select a chunk length and a chunk level for a chunk of an input signal, wherein the chunk level is one of two or more possible levels of supply voltage, and to provide the chunk levels as a chunk levels signal; a digital pre-distortion comprising a plurality of DPD components configured to apply pre-distortions to the symbols of the input signal from the buffer using the selected chunk levels of the chunk levels signal to generate a pre-distorted signal; a mixer configured to mix the pre-distorted signal at a selected frequency to generate a mixed signal; a power amplifier configured to generate a radio frequency output signal based on the mixed signal using the supply voltage at the selected chunk level for a discrete period of time, wherein the discrete period of time is the selected chunk length; a first multiplexer configured to receive the symbols of the input signal from the buffer and to select a path to a respective DPD component based on the chunk levels signal; a second multiplexer configured to select a path from a respective DPD component based on the chunk levels signal; and an IQ DAC configured to process the pre-distorted signal received via the second multiplexer and provide the processed signal to the mixer. an IFFT component configured to convert symbols of an input signal from a frequency domain to a time domain; a buffer configured to at least temporally store symbols of the input signal; a level select component configured to select a chunk length and a chunk level for a chunk of an input signal, wherein the chunk level is one of two or more possible levels of supply voltage, and to provide the chunk levels as a chunk levels signal; a digital pre-distortion comprising a plurality of DPD components configured to apply pre-distortions to the symbols of the input signal from the buffer using the selected chunk levels of the chunk levels signal to generate a pre-distorted signal; a mixer configured to mix the pre-distorted signal at a selected frequency to generate a mixed signal; a power amplifier configured to generate a radio frequency output signal based on the mixed signal using the supply voltage at the selected chunk level for a discrete period of time, wherein the discrete period of time is the selected chunk length; a first multiplexer configured to receive the symbols of the input signal from the buffer and to select a path to a respective DPD component based on the chunk levels signal; a second multiplexer configured to select a path from a respective DPD component based on the chunk levels signal; and an IQ DAC configured to process the pre-distorted signal received via the second multiplexer and provide the processed signal to the mixer.
A compound of formula: or a pharmaceutically acceptable salt thereof, wherein: A-B is a 6-5 membered fused indolizine ring system, which is selected from: L is S; each R 1 is -CN; each R 2 is independently selected from hydrogen, halogen, CN, C 1-10 alkyl, and C 3-10 cycloalkyl,;each R 3 is hydrogen; each R 4 and R 5 are independently selected from C 1-10 alkyl; or R 4 and R 5 together with the carbon atom to which they are attached form a ring of 3 to 7 members containing 0, 1, or 2 heteroatoms independently selected from oxygen, sulfur and nitrogen; M is hydrogen, C 1-4 alkyl or a pharmaceutically acceptable cation; m is independently selected from 0, 1, 2 and 3; n is independently selected from 0, 1, 2, and 3; o is selected from 1, 2, and 3; p is independently selected from 0, 1, 2 and 3. A-B is a 6-5 membered fused indolizine ring system, which is selected from: L is S; each R 1 is -CN; each R 2 is independently selected from hydrogen, halogen, CN, C 1-10 alkyl, and C 3-10 cycloalkyl,;each R 3 is hydrogen; each R 4 and R 5 are independently selected from C 1-10 alkyl; or R 4 and R 5 together with the carbon atom to which they are attached form a ring of 3 to 7 members containing 0, 1, or 2 heteroatoms independently selected from oxygen, sulfur and nitrogen; M is hydrogen, C 1-4 alkyl or a pharmaceutically acceptable cation; m is independently selected from 0, 1, 2 and 3; n is independently selected from 0, 1, 2, and 3; o is selected from 1, 2, and 3; p is independently selected from 0, 1, 2 and 3.
A method of pressure testing a wellbore during a cementing operation, comprising: positioning a tubular within a wellbore, the tubular including a collar assembly at a distal end of the tubular; releasing a first plug within the tubular, the first plug including a bore and a rupture assembly closing the bore; landing the first plug on the collar assembly; applying pressure on the first plug until the rupture assembly is ruptured; urging cement through the collar assembly using a second plug, the second plug including a releasable sealing member (70;70A;70C); releasing the releasable sealing member from the second plug, wherein the releasable sealing member travels downstream through the bore of the first plug and into sealing contact with the collar assembly to seal the collar assembly; and pressure testing the tubular. positioning a tubular within a wellbore, the tubular including a collar assembly at a distal end of the tubular; releasing a first plug within the tubular, the first plug including a bore and a rupture assembly closing the bore; landing the first plug on the collar assembly; applying pressure on the first plug until the rupture assembly is ruptured; urging cement through the collar assembly using a second plug, the second plug including a releasable sealing member (70;70A;70C); releasing the releasable sealing member from the second plug, wherein the releasable sealing member travels downstream through the bore of the first plug and into sealing contact with the collar assembly to seal the collar assembly; and pressure testing the tubular.
A polymerization process, comprising: polymerizing an olefin to form an olefin-based polymer in a polymerization reactor; and introducing a polyetheramine additive to the polymerization reactor wherein the polyetheramine additive comprises a polyetheramine, wherein the polyetheramine comprises a polymer backbone that terminates in at least one amino group, the polymer backbone comprising at least one monomer selected from ethylene oxide, propylene oxide, 1,2-butylene oxide, and tetramethylene oxide; and introducing an olefin polymerization catalyst to the polymerization reactor. polymerizing an olefin to form an olefin-based polymer in a polymerization reactor; and introducing a polyetheramine additive to the polymerization reactor wherein the polyetheramine additive comprises a polyetheramine, wherein the polyetheramine comprises a polymer backbone that terminates in at least one amino group, the polymer backbone comprising at least one monomer selected from ethylene oxide, propylene oxide, 1,2-butylene oxide, and tetramethylene oxide; and introducing an olefin polymerization catalyst to the polymerization reactor.