mhurhangee/patent-ind-claim-en huggingface dataset:
Method for fabricating at least one metal decoration on a substrate made of insulating material having a domed surface including the following steps: a) providing the substrate and depositing therein a first adhesion layer and a second electrically conductive layer by vapour phase deposition; b) depositing a third adhesion layer , c) applying a photosensitive resin layer ; d) irradiating the resin layer through a mask defining the contour of the desired decorations; e) dissolving the non-irradiated areas of the photosensitive resin layer to reveal, in places, the third adhesion layer where the decorations are located; f) removing the third adhesion layer where the decorations are located to reveal the second conductive layer ; g) electrodepositing a layer of metal or metal alloy , starting from said conductive surface, to form at least one unit that substantially reaches the upper surface of the photosensitive resin ; h) removing the remaining resin layer by plasma etching; i) removing the first, second and third layers by at least one wet etch. a) providing the substrate and depositing therein a first adhesion layer and a second electrically conductive layer by vapour phase deposition; b) depositing a third adhesion layer , c) applying a photosensitive resin layer ; d) irradiating the resin layer through a mask defining the contour of the desired decorations; e) dissolving the non-irradiated areas of the photosensitive resin layer to reveal, in places, the third adhesion layer where the decorations are located; f) removing the third adhesion layer where the decorations are located to reveal the second conductive layer ; g) electrodepositing a layer of metal or metal alloy , starting from said conductive surface, to form at least one unit that substantially reaches the upper surface of the photosensitive resin ; h) removing the remaining resin layer by plasma etching; i) removing the first, second and third layers by at least one wet etch.
A method of manufacturing a component in a cast state of a steel alloy which comprises, in percent by mass: - 0.17 to 0.23 carbon; - 1.40 to 1.60 silicon; - 0.50 to 0.60 manganese; - up to 0.020 phosphor; - up to 0.020 sulfur; - up to 0.30 chrome; - up to 0.12 molybdenum; - up to 0.80 nickel; - up to 0.30 copper; - up to 0.03 vanadium; the remainder being iron and incidental impurities, wherein the component is made from the steel alloy by casting, wherein after the casting the component is subjected to a heat treatment which comprises a normalizing of the component , and wherein the normalizing is carried out in a temperature range extending from 900 degrees centigrade to 980 degrees centigrade.
Vehicle tyre with an axis of rotation (A) and an annular carcass region , which is delimited by sidewalls , ending radially on the inside in beads , and a carcass , connecting the sidewalls , and at beads inserted into a wheel rim encloses a cavity that can be filled with compressed air, and also with a tread , which is arranged radially outside the carcass and has at least one reinforcing ply , which together form an annular outer region of the vehicle tyre , the outer region is connected with the interposition of an annular structural component , which cannot be filled with compressed air, to the radially inner carcass region in such a manner that the outer region is not applied directly radially on the outside of the carcass region , and the carcass region is spaced apart from the outer region with the tread by the interposed structural component , characterized in that the structural component is covered in the region of its side surfaces by a circular-ring-shaped flexible covering , the radially inner edge of which is connected to the carcass region and the radially outer edge to the outer region of the vehicle tyre .
A method for analysing the crystal structure of a polycrystalline semiconductor material comprising: - exciting the material in order to make the material emit a luminescent signal; - detecting, at each point of a mesh in a preset spatial region of the material, the luminescent signal at a variable polarization angle, in a frequency band of width greater than or equal to the width of the bandgap of the material; - estimating, at each point of the mesh in the preset spatial region of the material, from the signal detected for said point of the mesh, a data characteristic of the modulation of the luminescent signal, modelled by a sum of sine waves, as a function of the polarization angle; - generating a representation of the characteristic data over all of the points of the mesh in the preset spatial region. - exciting the material in order to make the material emit a luminescent signal; - detecting, at each point of a mesh in a preset spatial region of the material, the luminescent signal at a variable polarization angle, in a frequency band of width greater than or equal to the width of the bandgap of the material; - estimating, at each point of the mesh in the preset spatial region of the material, from the signal detected for said point of the mesh, a data characteristic of the modulation of the luminescent signal, modelled by a sum of sine waves, as a function of the polarization angle; - generating a representation of the characteristic data over all of the points of the mesh in the preset spatial region.
A base station comprising: a transmitter configured to transmit to a User Equipment, UE, a first signal including Sounding Reference Signal, SRS, configuration information; and a receiver configured to receive a SRS transmitted by said UE, wherein the SRS configuration information includes a Comb number information that is 2 or 4, the SRS is configured in part of resource blocks among all resource blocks in a frequency domain, wherein the number of resource blocks carrying the SRS is an integer less than the total number of resource blocks, and a subcarrier frequency interval of the SRS in the frequency domain is determined according the Comb number information. a transmitter configured to transmit to a User Equipment, UE, a first signal including Sounding Reference Signal, SRS, configuration information; and a receiver configured to receive a SRS transmitted by said UE, wherein the SRS configuration information includes a Comb number information that is 2 or 4, the SRS is configured in part of resource blocks among all resource blocks in a frequency domain, wherein the number of resource blocks carrying the SRS is an integer less than the total number of resource blocks, and a subcarrier frequency interval of the SRS in the frequency domain is determined according the Comb number information.
Method for operating a motor vehicle having a four-wheel drive which can be switched on and off and a drive device while travelling, in which the motor vehicle is driven by means of a torque provided by the drive device and the four-wheel drive , which is initially switched off, is engaged, characterised by the steps: - determining at least one limiting torque, which, when the four-wheel drive is switched off, can be transmitted from at least one wheel of the motor vehicle driven by means of the drive device to a surface on which the motor vehicle is driven, when a slip between the at least one wheel and the surface falls below a predeterminable threshold value; - determining an engagement time (Z), which is required in order to set a time characteristic of the torque provided by the drive device in such a way that the torque exceeds the limiting torque when the four-wheel drive is engaged; and - setting the time characteristic of the torque as a function of the determined engagement time (Z). - determining at least one limiting torque, which, when the four-wheel drive is switched off, can be transmitted from at least one wheel of the motor vehicle driven by means of the drive device to a surface on which the motor vehicle is driven, when a slip between the at least one wheel and the surface falls below a predeterminable threshold value; - determining an engagement time (Z), which is required in order to set a time characteristic of the torque provided by the drive device in such a way that the torque exceeds the limiting torque when the four-wheel drive is engaged; and - setting the time characteristic of the torque as a function of the determined engagement time (Z).
A connection member that is to be bridged between a first attachment receiving portion and a second attachment receiving portion and is capable of stretching and contracting as at least one of the first attachment receiving portion and the second attachment receiving portion moves, comprising: a main body portion formed into a shape of a thin plate or a sheet; a plurality of long convex portions provided on a surface portion of the main body portion in a parallel manner; and a bending portion , characterized in that the bending portion has the plurality of the long convex portions , and is configured in a way such that any one of a one side surface portion and other side surface portion of the main body portion has a concavo-convex shape, whereas the other of the one side surface portion and other side surface portion of the main body portion has a flat shape, wherein the long convex portions are formed thicker than the main body portion , and are extendedly provided in a direction orthogonal to a stretching and contracting direction of the connection member , and as the first attachment receiving portion and the second attachment receiving portion approach each other, the bending portion is to be bended in a manner such that the plurality of the long convex portions are to be positioned inward. a main body portion formed into a shape of a thin plate or a sheet; a plurality of long convex portions provided on a surface portion of the main body portion in a parallel manner; and a bending portion , characterized in that the bending portion has the plurality of the long convex portions , and is configured in a way such that any one of a one side surface portion and other side surface portion of the main body portion has a concavo-convex shape, whereas the other of the one side surface portion and other side surface portion of the main body portion has a flat shape, wherein the long convex portions are formed thicker than the main body portion , and are extendedly provided in a direction orthogonal to a stretching and contracting direction of the connection member , and as the first attachment receiving portion and the second attachment receiving portion approach each other, the bending portion is to be bended in a manner such that the plurality of the long convex portions are to be positioned inward.
A method for separating biological cells from microcarriers in a suspension comprising: a) introducing a suspension of biological cells and microcarriers into a separation device comprising a relatively rotatable about a central vertical axis cylindrical housing and an internal member, wherein said cylindrical housing has an interior surface and said internal member has an exterior surface, said surfaces defining a gap therebetween, wherein one of said surfaces includes a porous membrane comprising pores sized to retain said microcarriers while allowing said biological cells to pass through said membrane; b) introducing said suspension from an inlet at one end of said gap; c) removing said microcarriers through an outlet at the opposite end of said gap; d) withdrawing said biological cells that have passed through said porous membrane from said separation device through a different outlet. a) introducing a suspension of biological cells and microcarriers into a separation device comprising a relatively rotatable about a central vertical axis cylindrical housing and an internal member, wherein said cylindrical housing has an interior surface and said internal member has an exterior surface, said surfaces defining a gap therebetween, wherein one of said surfaces includes a porous membrane comprising pores sized to retain said microcarriers while allowing said biological cells to pass through said membrane; b) introducing said suspension from an inlet at one end of said gap; c) removing said microcarriers through an outlet at the opposite end of said gap; d) withdrawing said biological cells that have passed through said porous membrane from said separation device through a different outlet.
A work machine comprising: a machine body (BD) having a work element (AT); characterised in that a control unit that controls an operation of the machine body (BD) based on a degree of priority among work efficiency, energy consumption efficiency, and metal fatigue damage. a machine body (BD) having a work element (AT); characterised in that a control unit that controls an operation of the machine body (BD) based on a degree of priority among work efficiency, energy consumption efficiency, and metal fatigue damage.
A variable width twine disc assembly, comprising: a fixed assembly comprising a first disc having notches spaced along a periphery of the first disc and a shaft ; and a second disc having notches spaced along a periphery of the second disc and configured to be moveably adjusted along the shaft characterised in that the assembly further comprises a spring disposed adjacent the second disc , the spring secured at one end to the shaft and at the other end in contact with the second disc , the spring configured to dynamically adjust a distance between the first and second discs . a fixed assembly comprising a first disc having notches spaced along a periphery of the first disc and a shaft ; and a second disc having notches spaced along a periphery of the second disc and configured to be moveably adjusted along the shaft characterised in that the assembly further comprises a spring disposed adjacent the second disc , the spring secured at one end to the shaft and at the other end in contact with the second disc , the spring configured to dynamically adjust a distance between the first and second discs .
An isolated, synthetic or recombinant peptide comprising SEQ ID NO: 1: Xaa 1 CRYLFGGCXaa 2 Xaa 3 TXaa 4 DCCKHLXaa 5 CRXaa 6 DXaa 7 Xaa 8 YCZ 1 [SEQ ID NO: 1] wherein: Xaa 1 is absent or is selected from acidic amino acid residues, including Asp and Glu; Xaa 2 is selected from small amino acid residues, including Ser and Thr, and basic amino acid residues, including Arg, His and Lys; Xaa 3 is selected from selected from small amino acid residues, including Ser and Thr; Xaa 4 is selected from small amino acid residues, including Ser, Thr, Ala and Gly; Xaa 5 is selected from small amino acid residues, including Ser, Thr, Ala and Gly; Xaa 6 is selected from small amino acid residues, including Ser and Thr; Xaa 7 is selected from aromatic amino acid residues, including Phe, Trp and Tyr, and hydrophobic amino acid residues, including Ile, Leu and Val; Xaa 8 is selected from aromatic amino acid residues, including Phe, Trp and Tyr, and basic amino acid residues, including Arg, His and Lys; and Z 1 is absent or is an amino acid sequence of SEQ ID NO: 2: AWDGTFXaa 9 [SEQ ID NO: 2] wherein: Xaa 9 is absent or is a small amino acid residue, including Ser and Thr; for use in treating or preventing epilepsy or Alzheimer's disease. Xaa 1 is absent or is selected from acidic amino acid residues, including Asp and Glu; Xaa 2 is selected from small amino acid residues, including Ser and Thr, and basic amino acid residues, including Arg, His and Lys; Xaa 3 is selected from selected from small amino acid residues, including Ser and Thr; Xaa 4 is selected from small amino acid residues, including Ser, Thr, Ala and Gly; Xaa 5 is selected from small amino acid residues, including Ser, Thr, Ala and Gly; Xaa 6 is selected from small amino acid residues, including Ser and Thr; Xaa 7 is selected from aromatic amino acid residues, including Phe, Trp and Tyr, and hydrophobic amino acid residues, including Ile, Leu and Val; Xaa 8 is selected from aromatic amino acid residues, including Phe, Trp and Tyr, and basic amino acid residues, including Arg, His and Lys; and Z 1 is absent or is an amino acid sequence of SEQ ID NO: 2: AWDGTFXaa 9 [SEQ ID NO: 2] wherein: Xaa 9 is absent or is a small amino acid residue, including Ser and Thr; for use in treating or preventing epilepsy or Alzheimer's disease. Xaa 9 is absent or is a small amino acid residue, including Ser and Thr; for use in treating or preventing epilepsy or Alzheimer's disease.
Intraosseous infusion device comprising, - a driver body comprising an internal driver motor , - a cannula which is installed on the drive body , comprising a cutter cannula tip through which an internal trocar passes, - a driver shaft directly connected to the driver motor , characterized in that said internal trocar is manufactured to be integral with the driver shaft . - a driver body comprising an internal driver motor , - a cannula which is installed on the drive body , comprising a cutter cannula tip through which an internal trocar passes, - a driver shaft directly connected to the driver motor , characterized in that said internal trocar is manufactured to be integral with the driver shaft .
An inductive position sensor for detecting a movement of a conductive target , comprising: at least a first transmitter coil and a second transmitter coil , wherein the first transmitter coil and the second transmitter coil have the same shape and are phase-shifted to each other, at least one oscillator for generating a first transmitter signal and a second transmitter signal , wherein the first transmitter signal and the second transmitter signal have the same shape and are phase-shifted to each other and are applied to the first transmitter coil and second transmitter coil respectively, at least one receiver coil , wherein the first transmitter coil , the second transmitter coil and the at least one receiver coil are arranged on a substrate , wherein the first transmitter coil and the second transmitter coil are superimposed, wherein the conductive target moves above the first transmitter coil and the second transmitter coil , and and wherein the first transmitter coil and the second transmitter coil generate a rotating electromagnetic transmitter field, due to the phase shift between the first transmitter coil and the second transmitter coil and between the first transmitter signal and the second transmitter signal , characterized in that it further comprises a processing unit for determining a phase-shift between the first transmitter signal or the second transmitter signal and a receiver signal received at the receiver coil , wherein the determined phase-shift corresponds to the position of the conductive target above the first transmitter coil and second transmitter coil . at least a first transmitter coil and a second transmitter coil , wherein the first transmitter coil and the second transmitter coil have the same shape and are phase-shifted to each other, at least one oscillator for generating a first transmitter signal and a second transmitter signal , wherein the first transmitter signal and the second transmitter signal have the same shape and are phase-shifted to each other and are applied to the first transmitter coil and second transmitter coil respectively, at least one receiver coil , wherein the first transmitter coil , the second transmitter coil and the at least one receiver coil are arranged on a substrate , wherein the first transmitter coil and the second transmitter coil are superimposed, wherein the conductive target moves above the first transmitter coil and the second transmitter coil , and and wherein the first transmitter coil and the second transmitter coil generate a rotating electromagnetic transmitter field, due to the phase shift between the first transmitter coil and the second transmitter coil and between the first transmitter signal and the second transmitter signal , characterized in that it further comprises a processing unit for determining a phase-shift between the first transmitter signal or the second transmitter signal and a receiver signal received at the receiver coil , wherein the determined phase-shift corresponds to the position of the conductive target above the first transmitter coil and second transmitter coil .
An optical wavelength converter comprising an optical wavelength conversion member for converting the wavelength of incident light; a heat dissipation member having heat dissipation property superior to that of the optical wavelength conversion member ; and a bonding portion for bonding the optical wavelength conversion member to the heat dissipation member , wherein the optical wavelength conversion member has an antireflective film provided on a first surface on which the light is incident so as to prevent light reflection, and a reflective film provided on a second surface opposite the first surface so as to reflect light, wherein the optical wavelength conversion member is a ceramic fluorescent body formed of a ceramic sintered body having a fluorescent phase containing fluorescent crystal grains as a main component and a translucent phase containing translucent crystal grains as a main component, wherein the crystal grains of the translucent phase have a composition of Al 2 O 3 , and the crystal grains of the fluorescent phase have a composition represented by the formula A 3 B 5 O 12 :Ce, wherein the element A is at least one element selected from an element group including Sc, Y, and lanthanoids excluding Ce, and the element B comprises at least Al, and wherein the bonding portion is a layer, characterized in that the optical wavelength conversion member has an intermediate film disposed between the reflective film and the bonding portion so as to improve adhesion between the reflective film and the bonding portion . wherein the optical wavelength conversion member has an antireflective film provided on a first surface on which the light is incident so as to prevent light reflection, and a reflective film provided on a second surface opposite the first surface so as to reflect light, wherein the optical wavelength conversion member is a ceramic fluorescent body formed of a ceramic sintered body having a fluorescent phase containing fluorescent crystal grains as a main component and a translucent phase containing translucent crystal grains as a main component, wherein the crystal grains of the translucent phase have a composition of Al 2 O 3 , and the crystal grains of the fluorescent phase have a composition represented by the formula A 3 B 5 O 12 :Ce, wherein the element A is at least one element selected from an element group including Sc, Y, and lanthanoids excluding Ce, and the element B comprises at least Al, and wherein the bonding portion is a layer, characterized in that the optical wavelength conversion member has an intermediate film disposed between the reflective film and the bonding portion so as to improve adhesion between the reflective film and the bonding portion .
A thermal transfer blanket , comprising: a flexible container comprising a thermally insulating material; and a thermal energy storage media disposed within the flexible container , wherein the thermal energy storage media comprises one or more layers of tiles , the tiles in each layer being bonded together by an elastomeric polymer . a flexible container comprising a thermally insulating material; and a thermal energy storage media disposed within the flexible container , wherein the thermal energy storage media comprises one or more layers of tiles , the tiles in each layer being bonded together by an elastomeric polymer .