mhurhangee/ep-ind-claims huggingface dataset:
A non-oriented electrical steel sheet without corrugated defect, wherein the weight percentage of the chemical composition thereof is that C <0.005%, Si is 1.2-2.2%, Mn is 0.2-0.4%, P <0.2%, S <0.005%, Al is 0.2-0.6%, N <0.005%, O <0.005%,balance Fe and inevitable impurities; where the equiaxed crystal ratio in the steel sheet is at least 43%, and where the thickness of the sheet is 2.0mm-2.8mm.
A synthetic peptide consisting of 7 consecutive amino acid residues set forth as DLYRX 1 X 2 S (SEQ ID NO: 1), wherein X 1 and X 2 are respectively valine and arginine (SEQ ID NO: 2) or leucine and arginine (SEQ ID NO: 3) or glutamine and arginine (SEQ ID NO: 4) or glutamine and lysine (SEQ ID NO: 5).
An inversion maintenance device for dental handpieces (50a, 50b) wherein the inversion maintenance device is adapted to clean, disinfect, and maintain at least one dental handpiece (50a, 50b), and the inversion maintenance device comprises: a case forming an inversion space; an inverting mechanism having an inverting base pivotally mounted in the inversion space of the case; and multiple adapting modules mounted on the inverting base; each of the adapting modules having an adapting port facing upward; the inverting base being capable of inverting to make the adapting port of the adapting modules face downward and to cover the inversion space; each of the at least one dental handpiece (50a, 50b) adapted to be mounted on one of the adapting modules; and a control system mounted on the case and having a control module; and an operation input terminal connected to the control module via signals and being capable of controlling the control module to inject a working fluid with pressure into the at least one dental handpiece (50a, 50b) via the adapting module to clean, disinfect, and maintain the at least one dental handpiece (50a, 50b). a case forming an inversion space; an inverting mechanism having an inverting base pivotally mounted in the inversion space of the case; and multiple adapting modules mounted on the inverting base; each of the adapting modules having an adapting port facing upward; the inverting base being capable of inverting to make the adapting port of the adapting modules face downward and to cover the inversion space; each of the at least one dental handpiece (50a, 50b) adapted to be mounted on one of the adapting modules; and an inverting base pivotally mounted in the inversion space of the case; and multiple adapting modules mounted on the inverting base; each of the adapting modules having an adapting port facing upward; the inverting base being capable of inverting to make the adapting port of the adapting modules face downward and to cover the inversion space; each of the at least one dental handpiece (50a, 50b) adapted to be mounted on one of the adapting modules; and a control system mounted on the case and having a control module; and an operation input terminal connected to the control module via signals and being capable of controlling the control module to inject a working fluid with pressure into the at least one dental handpiece (50a, 50b) via the adapting module to clean, disinfect, and maintain the at least one dental handpiece (50a, 50b). a control module; and an operation input terminal connected to the control module via signals and being capable of controlling the control module to inject a working fluid with pressure into the at least one dental handpiece (50a, 50b) via the adapting module to clean, disinfect, and maintain the at least one dental handpiece (50a, 50b).
A sheet processing apparatus comprising: a first binding means arranged to bind sheets using a consumable material; a holding means arranged to hold the consumable material and to measure the remaining amount of consumable material, a second binding means arranged to bind sheets without using consumable material; and a control means arranged to control the sheet processing apparatus to perform binding processing on sheets using the first or the second binding means (214a, 214b), characterised in that the control means is arranged to determine the remaining amount of the consumable material based on the initial amount of the consumable material held in the holding means and on a count of the number of consumable material units used by the first binding means, or to determine the remaining amount of the consumable material based on a measure carried out in the holding means, and to determine whether to perform binding processing using the first binding means or using the second binding means according at least to the remaining amount of the consumable material. a first binding means arranged to bind sheets using a consumable material; a holding means arranged to hold the consumable material and to measure the remaining amount of consumable material, a second binding means arranged to bind sheets without using consumable material; and a control means arranged to control the sheet processing apparatus to perform binding processing on sheets using the first or the second binding means (214a, 214b), characterised in that the control means is arranged to determine the remaining amount of the consumable material based on the initial amount of the consumable material held in the holding means and on a count of the number of consumable material units used by the first binding means, or to determine the remaining amount of the consumable material based on a measure carried out in the holding means, and to determine whether to perform binding processing using the first binding means or using the second binding means according at least to the remaining amount of the consumable material.
A method of forming a photonic integrated circuit comprising an optical modulator and a gain element structure (35, 37), the method comprising the steps of: depositing by epitaxy a first doped layer onto a wafer; depositing by epitaxy an active layer capable of optical gain onto the first doped layer; depositing by epitaxy a second doped layer onto the active layer; pattern etching at least the second doped layer and the active layer to form a first ridge; and depositing by epitaxy a current blocking layer laterally adjacent to the first ridge and at least partially filling the volume of active layer that was removed by the pattern etching; thereby providing a first waveguide for the optical modulator having a first overall length and a first overall width, formed by a combination of the first ridge and an adjacent current blocking layer, that is constant or tapering; and providing a second waveguide for the gain element structure (35, 37) having a second overall length and a second overall width that is constant or tapering contiguous with the first waveguide, formed by further selectively etching the current blocking layer; wherein the first overall width is larger than the second overall width, and wherein the first waveguide is weakly guided and the second waveguide is strongly guided, to decouple current confinement from optical confinement for monolithic integration of the optical modulator and the gain element (35, 37), and wherein the current blocking layer forms a portion of the optical modulator. depositing by epitaxy a first doped layer onto a wafer; depositing by epitaxy an active layer capable of optical gain onto the first doped layer; depositing by epitaxy a second doped layer onto the active layer; pattern etching at least the second doped layer and the active layer to form a first ridge; and depositing by epitaxy a current blocking layer laterally adjacent to the first ridge and at least partially filling the volume of active layer that was removed by the pattern etching; thereby providing a first waveguide for the optical modulator having a first overall length and a first overall width, formed by a combination of the first ridge and an adjacent current blocking layer, that is constant or tapering; and providing a second waveguide for the gain element structure (35, 37) having a second overall length and a second overall width that is constant or tapering contiguous with the first waveguide, formed by further selectively etching the current blocking layer; wherein the first overall width is larger than the second overall width, and wherein the first waveguide is weakly guided and the second waveguide is strongly guided, to decouple current confinement from optical confinement for monolithic integration of the optical modulator and the gain element (35, 37), and wherein the current blocking layer forms a portion of the optical modulator.
A resistive random access memory device, RRAM, comprising: a switching layer that switches between higher resistance state, HRS, and lower resistance state, LRS, upon application across the layer of a voltage below a breakdown voltage; wherein said switching layer is stoichiometric except for ions therein introduced by ion implantation or radiation; a first cladding layer at one side of the switching layer and a second cladding layer at an opposite side of the switching layer; and a first electrode on the first cladding layer and a second electrode on the second cladding layer; wherein at least one of the electrodes (210, 230) comprises a metal or a metal alloy and said cladding layers are between said switching layer and said electrodes; and characterized in that said cladding layers are made of a materials that inhibit migration of metal ions from the electrodes to the switching layer. a switching layer that switches between higher resistance state, HRS, and lower resistance state, LRS, upon application across the layer of a voltage below a breakdown voltage; wherein said switching layer is stoichiometric except for ions therein introduced by ion implantation or radiation; a first cladding layer at one side of the switching layer and a second cladding layer at an opposite side of the switching layer; and a first electrode on the first cladding layer and a second electrode on the second cladding layer; wherein at least one of the electrodes (210, 230) comprises a metal or a metal alloy and said cladding layers are between said switching layer and said electrodes; and characterized in that said cladding layers are made of a materials that inhibit migration of metal ions from the electrodes to the switching layer.
Method for controlling an ORC stack with a total number n tot of individually operable ORC modules, wherein the method is characterized by the following steps: determining the respective running time remaining until the next servicing time for each operable ORC module; determining a target number n soll of ORC modules to be operated; comparing said target number n soll to an actual number n ist of currently operated ORC modules; when n soll > n ist, connecting a number n soll - n ist of ORC modules that corresponds to the difference between the target number and the actual number, where the ORC modules with the longest remaining running times of ORC modules currently not being operated are connected; and/or when n soll < n ist, disconnecting a number n ist - n soll of ORC modules that corresponds to the difference between the actual number and the target number, where the ORC modules with the shortest remaining running times of ORC modules currently being operated are disconnected; and/or when n soll = n ist, connecting the ORC module with the longest remaining running time Δt 1 of ORC modules not currently being operated, and disconnecting the ORC module with the shortest remaining running time Δt 2 of ORC modules currently being operated, if Δt 1 > Δt 2. determining the respective running time remaining until the next servicing time for each operable ORC module; determining a target number n soll of ORC modules to be operated; comparing said target number n soll to an actual number n ist of currently operated ORC modules; when n soll > n ist, connecting a number n soll - n ist of ORC modules that corresponds to the difference between the target number and the actual number, where the ORC modules with the longest remaining running times of ORC modules currently not being operated are connected; and/or when n soll < n ist, disconnecting a number n ist - n soll of ORC modules that corresponds to the difference between the actual number and the target number, where the ORC modules with the shortest remaining running times of ORC modules currently being operated are disconnected; and/or when n soll = n ist, connecting the ORC module with the longest remaining running time Δt 1 of ORC modules not currently being operated, and disconnecting the ORC module with the shortest remaining running time Δt 2 of ORC modules currently being operated, if Δt 1 > Δt 2.
A reversibly deformable artificial cornea comprising: a monolithic body having a diameter between 4 mm and 10 mm comprising a center optic (112; 312) surrounded by a rim (114; 314), wherein the center optic (112; 312) has a diameter in the range from 3 mm to 9 mm and a optic height in the range from 200μm to 800μm and the rim (114; 314) has a width in the range from 0.5 mm to 4.5 mm and a median thickness in the range from 50μm to 200μm wherein the monolithic body is comprised of a polymeric hydrogel having a Young's modulus in the range from 0.3 MPa to 100 MPa when fully hydrated; and, wherein a rim (114; 314) which surrounds the center optic (112; 312) is discontinuous. a monolithic body having a diameter between 4 mm and 10 mm comprising a center optic (112; 312) surrounded by a rim (114; 314), wherein the center optic (112; 312) has a diameter in the range from 3 mm to 9 mm and a optic height in the range from 200μm to 800μm and the rim (114; 314) has a width in the range from 0.5 mm to 4.5 mm and a median thickness in the range from 50μm to 200μm wherein the monolithic body is comprised of a polymeric hydrogel having a Young's modulus in the range from 0.3 MPa to 100 MPa when fully hydrated; and, wherein a rim (114; 314) which surrounds the center optic (112; 312) is discontinuous.
A medical ventilator device comprising sensors (7, 9, 11, 51) adapted to sense pressure and airflow in a ventilator airflow system, an embedded controller configured to process sensed pressure and airflow data and carry out calculations and comparisons with respect to both sensed data and pre-set data values, the embedded controller being adapted to operate the ventilator device according to the following routine: (a) provide pressure support to a patient; (b) detect a spontaneous patient breath; (c) measure a patient's spontaneous breathing rate; (d) measure said patient's minute volume; (e) compare the patient's spontaneous breathing rate to a predetermined range of breathing rates; (f) compare the patient's minute volume to a predetermined tidal volume; and (g) adjust the level of support according to the measured patient's spontaneous breathing rate as compared to the predetermined range of breathing rates, and the patient's minute volume as compared to the predetermined minute volume. (a) provide pressure support to a patient; (b) detect a spontaneous patient breath; (c) measure a patient's spontaneous breathing rate; (d) measure said patient's minute volume; (e) compare the patient's spontaneous breathing rate to a predetermined range of breathing rates; (f) compare the patient's minute volume to a predetermined tidal volume; and (g) adjust the level of support according to the measured patient's spontaneous breathing rate as compared to the predetermined range of breathing rates, and the patient's minute volume as compared to the predetermined minute volume.
A brush head for an oral care implement comprising: at least one group of tufts (5, 6, 7) extending from a mounting surface of a tuft carrier having a rotation axis, the tufts (5, 6, 7) having a base end extending from the mounting surface and a free end, wherein the tufts of the first group are tufts having, in the plane of the mounting surface, an extension in a circumferential direction about the rotation axis which exceeds an extension in a radial direction with respect to the rotation axis, wherein the tufts of the first group are inclined with respect to the mounting surface in at least one direction, and wherein each of the tufts of the first group comprises a first group of filaments and a second group of filaments with the free ends of the filaments of the second group of filaments protruding beyond the free ends of the filaments of the first group of filaments, wherein each tuft of the first group is twisted such that, in an unstressed condition, a section through the tuft in a plane parallel to the mounting surface at the free end of the first group of filaments is located radially inwards of or is abutting at an imaginary cylinder defined by a circular radially outer edge of the mounting surface and an center axis extending perpendicular to the mounting surface, characterized in that the free end of the first group of filaments is offset in the circumferential direction. at least one group of tufts (5, 6, 7) extending from a mounting surface of a tuft carrier having a rotation axis, the tufts (5, 6, 7) having a base end extending from the mounting surface and a free end, wherein the tufts of the first group are tufts having, in the plane of the mounting surface, an extension in a circumferential direction about the rotation axis which exceeds an extension in a radial direction with respect to the rotation axis, wherein the tufts of the first group are inclined with respect to the mounting surface in at least one direction, and wherein each of the tufts of the first group comprises a first group of filaments and a second group of filaments with the free ends of the filaments of the second group of filaments protruding beyond the free ends of the filaments of the first group of filaments, wherein each tuft of the first group is twisted such that, in an unstressed condition, a section through the tuft in a plane parallel to the mounting surface at the free end of the first group of filaments is located radially inwards of or is abutting at an imaginary cylinder defined by a circular radially outer edge of the mounting surface and an center axis extending perpendicular to the mounting surface, characterized in that the free end of the first group of filaments is offset in the circumferential direction.
A ladder cord assembly, in particular for a Venetian blind, comprising two side members (1a, 1b) which are spaced and parallel; and transverse ladder rungs extending between said side members and configured to hold blind slats, wherein each side member comprises a tilt cord (2a, 2b) and a lift cord (3a, 3b), characterized in that each side member tilt cord (2a, 2b) has a channel (5a, 5b) in which said lift cord (3a, 3b) extends.
A tilting armature valve having a valve sealing device, the valve sealing device having the following features: a sealing body with a first surface designed to close a valve seat and/or an opening (1464, 1466) of the tilting armature valve in a fluid-tight manner; and a retaining body that is arranged on the surface of the sealing body opposite the first surface and secures the valve sealing device in a cut-out in a tilting armature of the tilting armature valve, in particular the sealing body and/or the retaining body being substantially cylindrical in shape, characterised in that the sealing body and the retaining body are at least partially surrounded by a metal sleeve, in particular a metal pot. a sealing body with a first surface designed to close a valve seat and/or an opening (1464, 1466) of the tilting armature valve in a fluid-tight manner; and a retaining body that is arranged on the surface of the sealing body opposite the first surface and secures the valve sealing device in a cut-out in a tilting armature of the tilting armature valve, in particular the sealing body and/or the retaining body being substantially cylindrical in shape, characterised in that the sealing body and the retaining body are at least partially surrounded by a metal sleeve, in particular a metal pot.
A compressor assembly comprising: a motor for driving a rotating shaft; a foil bearing for supporting the rotating shaft; a compression mechanism for increasing a pressure of a working fluid, the compression mechanism connected to the rotating shaft; and a supply line in fluid communication with the compression mechanism, the supply line configured for injecting the working fluid toward the foil bearing when the compressor assembly is operational; characterized in that the compressor assembly further includes a heating apparatus in fluid communication with the supply line, wherein the heating apparatus is configured to heat the working fluid prior to being injected toward the foil bearing. a motor for driving a rotating shaft; a foil bearing for supporting the rotating shaft; a compression mechanism for increasing a pressure of a working fluid, the compression mechanism connected to the rotating shaft; and a supply line in fluid communication with the compression mechanism, the supply line configured for injecting the working fluid toward the foil bearing when the compressor assembly is operational; characterized in that the compressor assembly further includes a heating apparatus in fluid communication with the supply line, wherein the heating apparatus is configured to heat the working fluid prior to being injected toward the foil bearing.
An asymmetric chromatography particle comprising agarose, wherein the particle comprises an internal region and an external region, the internal region having a pore size distribution smaller than that of the external region, and wherein the internal region is formed of from 11% to 19% agarose and the external region is formed of from 2% to 10% agarose.
A method comprising: performing one or more measurements in a user device to determine a plurality of beam groups (88, 89), each beam group associating at least one receive beam direction of the user device and at least one transmit beam direction of an access point, the at least one receive beam direction having a number of beam directions different from a number of beam directions of the at least one transmit beam direction; and causing information on said plurality of beam groups (88, 89) to be transmitted to said access point, wherein at least one of the plurality of beam groups (88, 89) comprises two or more transmit beams. performing one or more measurements in a user device to determine a plurality of beam groups (88, 89), each beam group associating at least one receive beam direction of the user device and at least one transmit beam direction of an access point, the at least one receive beam direction having a number of beam directions different from a number of beam directions of the at least one transmit beam direction; and causing information on said plurality of beam groups (88, 89) to be transmitted to said access point, wherein at least one of the plurality of beam groups (88, 89) comprises two or more transmit beams.