mhurhangee/ep-ind-claims huggingface dataset:
A nozzle for a cleaning device, characterized in that the nozzle comprising: a body formed of or containing a substance that is relatively rigid at room temperature and that is relatively malleable at a temperature above room temperature; and a plurality of electrical conductors in thermal contact with the substance; the electrical conductors being arranged so as to be normally open circuit; the electrical conductors being arranged such that when a region of the body is deformed, at least some of the electrical conductors at said deformed region become closed circuit so as to be able to conduct an electric current at said deformed region, thereby heating said substance at said deformed region to allow said substance at said deformed region to be further deformed to fit an item to be cleaned or to fit around an item during cleaning. a body formed of or containing a substance that is relatively rigid at room temperature and that is relatively malleable at a temperature above room temperature; and a plurality of electrical conductors in thermal contact with the substance; the electrical conductors being arranged so as to be normally open circuit; the electrical conductors being arranged such that when a region of the body is deformed, at least some of the electrical conductors at said deformed region become closed circuit so as to be able to conduct an electric current at said deformed region, thereby heating said substance at said deformed region to allow said substance at said deformed region to be further deformed to fit an item to be cleaned or to fit around an item during cleaning.
An insulin analog dimer that exhibits partial agonist and partial antagonist activity at the insulin receptor, said dimer comprising a first insulin polypeptide and a second insulin polypeptide, wherein said first insulin polypeptide is a two chain insulin analog comprising a first A chain, and a first B chain, wherein said first A chain and first B chain are linked to one another through interchain disulfide bonds; and said second insulin polypeptide is a single chain insulin analog comprising a second A chain, a second B chain and a linking moiety, wherein a first end of said linking moiety is covalently bound to the carboxy terminus of the second B chain and a second end of said linking moiety is covalently bound to the amino terminus of the second A chain, wherein the first and second insulin polypeptides are linked to one another via a disulfide bond between the N-terminal cysteine side chain of the B chain of the first insulin polypeptide and the side chain of a modified lysine of the linking moiety of the second insulin polypeptide, said A chain of the first and second insulin polypeptide comprising a sequence of GIVDECCFRSCDLRRLENYCN (SEQ ID NO: 11): said B chain of the first insulin polypeptide comprising a sequence of CGPEHLCGAELVDALYLVCGDRGFYNKPT (SEQ ID NO: 97); said B chain of the second insulin polypeptide comprising a sequence of GPEHLCGAELVDALYLVCGDRGFY (SEQ ID NO: 14); said linking moiety of the second insulin polypeptide comprising the sequence GYGSSSRX 68 APQT (SEQ ID NO: 9), wherein X 68 is an amino acid comprising a side chain of: said B chain of the first insulin polypeptide comprising a sequence of CGPEHLCGAELVDALYLVCGDRGFYNKPT (SEQ ID NO: 97); said B chain of the second insulin polypeptide comprising a sequence of GPEHLCGAELVDALYLVCGDRGFY (SEQ ID NO: 14); said linking moiety of the second insulin polypeptide comprising the sequence GYGSSSRX 68 APQT (SEQ ID NO: 9), wherein X 68 is an amino acid comprising a side chain of:
A compression garment (10;11;12;30) including: i. a shaped fabric body; ii. an opening (22; 31) extending over at least a part of the fabric body; and iii. a closure configured to close the opening; characterised by an elastic material connected at both sides of the opening to extend across the opening such that, in use, the elastic material tends to draw the sides of the opening together when the closure is in an open position. i. a shaped fabric body; ii. an opening (22; 31) extending over at least a part of the fabric body; and iii. a closure configured to close the opening;
An image forming device (1, 101, 201) comprising: an image bearing member cartridge (20, 120, 220) for accommodating an image bearing member therein; a toner cartridge (60, 160, 260) for accommodating toner therein; and a developer cartridge (40, 140, 240) for accommodating a developer unit therein that develops an electrostatic latent image formed on the image bearing member by the toner accommodated in the toner cartridge, wherein the image forming device detachably mounts the image bearing member cartridge, the toner cartridge, and the developer cartridge; the image bearing member cartridge, the toner cartridge, and the developer cartridge are mounted to and removed from a body of the image forming device through a common loading port in communication with a common path; and characterized in at at least after, in use, the image bearing member cartridge, the toner cartridge, and the developer cartridge are removed from the body of the image forming device, each of the cartridges is separable from other cartridges, wherein at least one of the image bearing member cartridge, the toner cartridge, and the developer cartridge includes an operation portion (25, 62, 162, 262), and a cartridge to be left inside the body of the image forming device is capable of being selected by operating the operation portion, wherein the operation portion includes a handle (25, 62, 162, 262), and the cartridge to be left inside the body of the image forming device is capable of being selected by moving the position of the handle. an image bearing member cartridge (20, 120, 220) for accommodating an image bearing member therein; a toner cartridge (60, 160, 260) for accommodating toner therein; and a developer cartridge (40, 140, 240) for accommodating a developer unit therein that develops an electrostatic latent image formed on the image bearing member by the toner accommodated in the toner cartridge, wherein the image forming device detachably mounts the image bearing member cartridge, the toner cartridge, and the developer cartridge; the image bearing member cartridge, the toner cartridge, and the developer cartridge are mounted to and removed from a body of the image forming device through a common loading port in communication with a common path; and characterized in at at least after, in use, the image bearing member cartridge, the toner cartridge, and the developer cartridge are removed from the body of the image forming device, each of the cartridges is separable from other cartridges, wherein at least one of the image bearing member cartridge, the toner cartridge, and the developer cartridge includes an operation portion (25, 62, 162, 262), and a cartridge to be left inside the body of the image forming device is capable of being selected by operating the operation portion, wherein the operation portion includes a handle (25, 62, 162, 262), and the cartridge to be left inside the body of the image forming device is capable of being selected by moving the position of the handle.
An all-solid-state battery comprising: a positive-electrode current collector; a positive electrode layer which is formed on the positive-electrode current collector and includes a positive-electrode material mixture layer which includes at least a positive-electrode active material and a binder; a negative-electrode current collector; a negative electrode layer which is formed on the negative-electrode current collector and includes a negative-electrode material mixture layer which includes at least a negative-electrode active material and a binder; and a solid electrolyte layer which is disposed between the positive-electrode material mixture layer and the negative-electrode material mixture layer, and includes at least a solid electrolyte having ion conductivity, wherein concentration of an organic solvent included in at least one layer selected from the group consisting of the positive-electrode material mixture layer and the negative-electrode material mixture layer is equal to or smaller than 50 ppm obtained by not using an organic solvent in its manufacturing process, and regarding concentration of the binder included in said at least one layer selected from the positive-electrode material mixture layer and the negative-electrode material mixture layer, a concentration gradient in the thickness direction of said at least one layer is such that the concentration in proximity to the negative-electrode current collector or the concentration in proximity to the positive-electrode current collector is higher than the concentration in proximity to the solid electrolyte layer. a positive-electrode current collector; a positive electrode layer which is formed on the positive-electrode current collector and includes a positive-electrode material mixture layer which includes at least a positive-electrode active material and a binder; a negative-electrode current collector; a negative electrode layer which is formed on the negative-electrode current collector and includes a negative-electrode material mixture layer which includes at least a negative-electrode active material and a binder; and a solid electrolyte layer which is disposed between the positive-electrode material mixture layer and the negative-electrode material mixture layer, and includes at least a solid electrolyte having ion conductivity, wherein concentration of an organic solvent included in at least one layer selected from the group consisting of the positive-electrode material mixture layer and the negative-electrode material mixture layer is equal to or smaller than 50 ppm obtained by not using an organic solvent in its manufacturing process, and regarding concentration of the binder included in said at least one layer selected from the positive-electrode material mixture layer and the negative-electrode material mixture layer, a concentration gradient in the thickness direction of said at least one layer is such that the concentration in proximity to the negative-electrode current collector or the concentration in proximity to the positive-electrode current collector is higher than the concentration in proximity to the solid electrolyte layer.
A frame for proportioning and application of mortar with a quadrangular rigid construction, handles and fastenings, wherein in the central part of a quadrangular through construction there is placed a strip and over the construction, at its both shorter sides, there are placed handles, characterized in that on only one of longer sides of the quadrangular construction there are elongated tubular fastenings which allow to place the frame on the wall in a stable way, and the fastenings are placed at the corners of the quadrangular construction in such a way that they form a straight angle with the construction.
Process for the preparation of hollow spherical glass particles comprising at least SiO 2, Al 2 O 3, and an alkali metal oxide, comprising at least the steps of preparing precursor-particles by a process comprising at least the following sub-steps (I-1) providing a starting composition comprising particles of at least one starting compound for forming a glass which comprises at least SiO 2, Al 2 O 3, and an alkali metal oxide, (I-2) mixing the starting composition with a liquid, thereby obtaining a slurry, and (I-3) spray drying the obtained slurry, thereby obtaining the precursor-particles, and heat-treating the precursor-particles at a temperature from 1000°C to 1800°C by passing the precursor-particles through a heating device, thereby obtaining hollow spherical glass particles, wherein at least one naked flame fed by a flammable gas is burning in the interior of the heating device, and the heat-treatment is carried out by contacting the precursor-particles with the naked flame(s), wherein the precursor-particles are dispersed in the flammable gas which feeds the flame(s) in the heating device and/or the precursor-particles are dispersed in a non-flammable gas which is added into the heating device at a position upstream of the flame(s). preparing precursor-particles by a process comprising at least the following sub-steps (I-1) providing a starting composition comprising particles of at least one starting compound for forming a glass which comprises at least SiO 2, Al 2 O 3, and an alkali metal oxide, (I-2) mixing the starting composition with a liquid, thereby obtaining a slurry, and (I-3) spray drying the obtained slurry, thereby obtaining the precursor-particles, and (I-1) providing a starting composition comprising particles of at least one starting compound for forming a glass which comprises at least SiO 2, Al 2 O 3, and an alkali metal oxide, (I-2) mixing the starting composition with a liquid, thereby obtaining a slurry, and (I-3) spray drying the obtained slurry, thereby obtaining the precursor-particles, and heat-treating the precursor-particles at a temperature from 1000°C to 1800°C by passing the precursor-particles through a heating device, thereby obtaining hollow spherical glass particles, wherein at least one naked flame fed by a flammable gas is burning in the interior of the heating device, and the heat-treatment is carried out by contacting the precursor-particles with the naked flame(s), wherein the precursor-particles are dispersed in the flammable gas which feeds the flame(s) in the heating device and/or the precursor-particles are dispersed in a non-flammable gas which is added into the heating device at a position upstream of the flame(s).
A method, executed on a system comprising a machine, being a press and a computer, for displaying an image of data provided by a data stream, the data stream comprising at least a plurality of time values of an industrial process carried out by a machine and a plurality of corresponding angular values of a component of the machine carrying out the industrial process, wherein the time values and angular values are captured by a sensor, comprising the steps: - splitting the data stream into a first subset data stream comprising time values and a second data stream comprising angular values, and - displaying the data stream by placing pixels in a polar coordinate system at a radial distance from a center according to the first data stream and at an angle from a reference direction according to the second data stream, wherein the industrial process is a pressing cycle of the press for applying hydraulic pressure, and wherein the angular value is a crank angle of the press. - splitting the data stream into a first subset data stream comprising time values and a second data stream comprising angular values, and - displaying the data stream by placing pixels in a polar coordinate system at a radial distance from a center according to the first data stream and at an angle from a reference direction according to the second data stream, wherein the industrial process is a pressing cycle of the press for applying hydraulic pressure, and wherein the angular value is a crank angle of the press.
A method for synchronizing clocks, comprising: receiving at least two clock signals, wherein the at least two clock signals comprise a standby clock signal, and each of the clock signals is sent by a bidirectional clock tracking link respectively corresponding thereto; setting two or more clock signals, coming from a same network element, in the at least two clock signals into a same clock source group; selecting one clock signal from the at least two clock signals as a currently tracked clock signal; and if the currently tracked clock signal belongs to the clock source group, respectively sending a standby clock signal carrying quality level do not use information QL_DNU by using the bidirectional clock tracking link respectively corresponding to each of the clock signals in the clock source group to which the currently tracked clock signal belongs; wherein, the method further comprises: if the currently tracked clock signal belongs to the clock source group, and clock switching protection occurs when clock quality level information of all the clock signals in the clock source group to which the currently tracked clock signal belongs is lower than the clock quality level information of the received standby clock signal, respectively sending a standby clock signal carrying switched clock quality level information by using the bidirectional clock tracking link respectively corresponding to each of the clock signals in the clock source group to which the currently tracked clock signal belongs. receiving at least two clock signals, wherein the at least two clock signals comprise a standby clock signal, and each of the clock signals is sent by a bidirectional clock tracking link respectively corresponding thereto; setting two or more clock signals, coming from a same network element, in the at least two clock signals into a same clock source group; selecting one clock signal from the at least two clock signals as a currently tracked clock signal; and if the currently tracked clock signal belongs to the clock source group, respectively sending a standby clock signal carrying quality level do not use information QL_DNU by using the bidirectional clock tracking link respectively corresponding to each of the clock signals in the clock source group to which the currently tracked clock signal belongs; wherein, the method further comprises: if the currently tracked clock signal belongs to the clock source group, and clock switching protection occurs when clock quality level information of all the clock signals in the clock source group to which the currently tracked clock signal belongs is lower than the clock quality level information of the received standby clock signal, respectively sending a standby clock signal carrying switched clock quality level information by using the bidirectional clock tracking link respectively corresponding to each of the clock signals in the clock source group to which the currently tracked clock signal belongs.
A hearing aid 10 comprising a microphone 1, an audiological signal processing unit 5, and a receiver 3, said microphone 1 and said receiver 3 being operatively connected to said audiological signal processing unit 5, said audiological signal processing unit 5 being configured to process a sound representing an electrical signal provided by said microphone 1 and to generate an output signal that can be transformed into a sound signal by means of said receiver 3, said hearing aid 10 further comprising a control unit 7 and an antenna circuit as part of or connected to a wireless unit 6, said antenna circuit comprising a capacitance 12 and an inductance 11 that define a resonance frequency of said antenna circuit, characterized in that the hearing aid 10 comprises a dissipative resistance 9 and a switch 8, wherein the switch 8 is connected to and controlled by said control unit 7, said control unit 7 being configured to couple the dissipative resistance 9 with the antenna circuit when the audiological signal processing unit 5 and/ or the hearing aid 10 is switched off and/ or if an internal power supply of the hearing aid is below a threshold or drained completely, and wherein, the dissipative resistance 9 and the switch 8 are arranged to allow selective coupling of the dissipative resistance 9 with or disconnecting the resistance 9 from the antenna circuit, respectively, to thus allow control of the dissipative properties of the antenna circuit by means of the switch 8.
A process for preparing a coupled polymer by anionic polymerization wherein the coupled polymer is a conjugated diene polymer comprising the following reaction steps: a) polymerizing a monomer or a mixture of monomers comprising at least one conjugated diene optionally one or more monoalkenyl arene compounds in the presence of an anionic initiator to form a living polymer arm or mixture of arms, with an average apparent molecular weight greater than 2000, measured with gel permeation chromatography using polystyrene calibration standards, in accordance with ASTM D5296 - 11; b) reacting the living polymer arm or arms with a polyalkenyl coupling agent; c) terminating the polymerization if any living polymers remain after step b); and d) optionally functionalizing and/or hydrogenating the coupled polymer so produced, wherein the polyalkenyl coupling agent is an alpha,omega-bis(vinylphenyl)alkane. a) polymerizing a monomer or a mixture of monomers comprising at least one conjugated diene optionally one or more monoalkenyl arene compounds in the presence of an anionic initiator to form a living polymer arm or mixture of arms, with an average apparent molecular weight greater than 2000, measured with gel permeation chromatography using polystyrene calibration standards, in accordance with ASTM D5296 - 11; b) reacting the living polymer arm or arms with a polyalkenyl coupling agent; c) terminating the polymerization if any living polymers remain after step b); and d) optionally functionalizing and/or hydrogenating the coupled polymer so produced, wherein the polyalkenyl coupling agent is an alpha,omega-bis(vinylphenyl)alkane.
A lighting device configured to provide red lighting device light, the lighting device comprising: - a first light source configured to provide first light source light having a peak wavelength (λls); - a first red luminescent material configured to absorb at least part of the first light source light and to convert into first red luminescent material light having a first red emission peak wavelength (λm1), the first red luminescent material having an excitation maximum (λx1); - a second red luminescent material configured to absorb at least part of the first light source light and to convert into second red luminescent material light having a second red emission peak wavelength (λm2), the second red luminescent material having a second excitation maximum (λx2); wherein the first luminescent material and the second luminescent material are Eu 2+ based, and wherein λm1 < λm2, λx1 < λls and λx2 > λls, wherein the first red luminescent material comprises a ceramic material body comprising a luminescent material of the class of M 2 Si 5 N 8:Eu, wherein the second red luminescent material comprises a luminescent material of the class of MLiAl 3 N 4:Eu dispersed in a light transmissive matrix, wherein the second red luminescent material is configured downstream of the first light source, wherein the first red luminescent material is configured upstream or downstream of the second red luminescent material, and wherein M is independently selected from the group consisting of Ca, Mg, Sr, and Ba. - a first light source configured to provide first light source light having a peak wavelength (λls); - a first red luminescent material configured to absorb at least part of the first light source light and to convert into first red luminescent material light having a first red emission peak wavelength (λm1), the first red luminescent material having an excitation maximum (λx1); - a second red luminescent material configured to absorb at least part of the first light source light and to convert into second red luminescent material light having a second red emission peak wavelength (λm2), the second red luminescent material having a second excitation maximum (λx2);