mhurhangee/patent-ind-claim-en huggingface dataset:
A display device, comprising: a display panel having a plurality of data lines and a plurality of gate lines crossing the data lines, the gate lines including a plurality of odd-numbered gate lines and a plurality of even-numbered gate lines; a timing controller to generate a gate output enable signal (GOE); a gate output enable signal division circuit including a 2-frequency divider circuit configured to receive the gate output enable signal (GOE) as input, to divide the frequency of the gate output enable signal (GOE) by 2, and to generate a 2-frequency divided gate output enable signal (GOE/2) from the gate output enable signal (GOE), a first inverter to invert the phase of the 2-frequency divided gate output enable signal (GOE/2), a first AND operator to receive the 2-frequency divided gate output enable signal (GOE/2) and the gate output enable signal (GOE) as inputs and to output a first gate output enable signal (GOE_O), and a second AND operator to receive the inverted 2-frequency divided gate output enable signal (GOE/2) and the gate output enable signal (GOE) as inputs and to output a second gate output enable signal (GOE_E); and a gate driver (331-335) to supply a first gate pulse (GO_O) to at least one of the odd-numbered gate lines based on the first gate output enable signal (GOE_O) and a second gate pulse (GO_E) to at least one of the even-numbered gate lines based on the second gate output enable signal (GOE_E). a display panel having a plurality of data lines and a plurality of gate lines crossing the data lines, the gate lines including a plurality of odd-numbered gate lines and a plurality of even-numbered gate lines; a timing controller to generate a gate output enable signal (GOE); a gate output enable signal division circuit including a 2-frequency divider circuit configured to receive the gate output enable signal (GOE) as input, to divide the frequency of the gate output enable signal (GOE) by 2, and to generate a 2-frequency divided gate output enable signal (GOE/2) from the gate output enable signal (GOE), a first inverter to invert the phase of the 2-frequency divided gate output enable signal (GOE/2), a first AND operator to receive the 2-frequency divided gate output enable signal (GOE/2) and the gate output enable signal (GOE) as inputs and to output a first gate output enable signal (GOE_O), and a second AND operator to receive the inverted 2-frequency divided gate output enable signal (GOE/2) and the gate output enable signal (GOE) as inputs and to output a second gate output enable signal (GOE_E); and a gate driver (331-335) to supply a first gate pulse (GO_O) to at least one of the odd-numbered gate lines based on the first gate output enable signal (GOE_O) and a second gate pulse (GO_E) to at least one of the even-numbered gate lines based on the second gate output enable signal (GOE_E).
Electrically heated blanket , characterized in that the blanket has a sleep depth-dependent control for weight loss and no significant thermal insulation effect, wherein the heating of the blanket is controlled in response to sleep phases and the sleep phases are determined by motion sensors in the blanket , connected to a recording logic, and the heating of the blanket is reduced or turned off in deep sleep phases which are characterized by lack of movement.
Method of treating a vegetable product in the form of crushed material, comprising - putting the crushed material (M) into a fermentation tank to let it ferment in pressurized environment and form therein a cap (CP) of solid particles floating on a liquid mass, - accumulating gaseous products of fermentation (GS2) generated by the pressed material inside a gas accumulation volume and then markedly lowering the pressure within the fermentation tank so as to create a pressure drop within the fermentation tank , the same pressure drop being reflected on the pressure acting on the gaseous products contained in said volume, so that a pressure differential between the tank and said volume causes a volume increase for said gaseous products and the spontaneous transfer of the gaseous products in excess from the volume to the liquid mass, so that upon rising they engage the cap; characterized by setting the volume constantly in communication with the liquid mass at a point under the cap. - putting the crushed material (M) into a fermentation tank to let it ferment in pressurized environment and form therein a cap (CP) of solid particles floating on a liquid mass, - accumulating gaseous products of fermentation (GS2) generated by the pressed material inside a gas accumulation volume and then markedly lowering the pressure within the fermentation tank so as to create a pressure drop within the fermentation tank ,
Apparatus for automatically placing a wire collar with a hanging tag (C) on a container such as a bottle (B), comprising: tag feeding means for feeding single tags in sequence over a horizontal plane (XY) in a feeding direction (X) from a first tag storage area , towards a second area comprising wire insertion means for inserting the wire in a hole of the tag (C), means for forming a wire loop and for knotting the same, wire cutter means for loosing and releasing the loop, said second area being associated with a third area for feeding single containers in sequence, characterized in that said third area comprises lifting means of each single container in vertical alignment with the formed loop in a loosened arrangement, adapted to partially fit the container (B) into the loop, whereby the release of the wire loop results in a fall of the same in engagement over the container, wherein said tag feeding means comprise a first feeder clamp movable along said feeding direction (X), and in that said second wire insertion and knotting area comprises a vertically reciprocating needle for inserting and releasing the wire (F) in the tag hole, means for locking the wire below said horizontal plane (XY), a wire twisting head having a helical groove and rotating around an axis parallel with said feeding direction (X), and a second clamp adapted to clamp said tags (C) at a tag portion surrounding said hole, said second clamp being movable in a crosswise direction (Y) orthogonal to said feeding direction (X) to stretch the wire tangentially to said twisting head while forming and tightening said loop.
An ophthalmic device for supplying a scanning light ray to an eye comprising a scanning portion, which changes an angle of the scanning light ray, and an ophthalmic optical system configured to apply an angular scanning light ray from the scanning portion to a side of an eye, wherein the ophthalmic optical system satisfies: ωin represents an angle formed between an incident light ray into the ophthalmic optical system and an optical axis of the ophthalmic optical system, ωout represents an angle formed between an exit light ray from the ophthalmic optical system to the side of the eye and the optical axis, and M is defined as M = |ωout /ωin| , the following conditional expression is satisfied: Mpar < Mmax wherein Mpar represents M in a case that the incident light ray is a paraxial ray, and Mmax represents M in a case that the incident light ray is a ray of a maximum angle of ωin. ωin represents an angle formed between an incident light ray into the ophthalmic optical system and an optical axis of the ophthalmic optical system, ωout represents an angle formed between an exit light ray from the ophthalmic optical system to the side of the eye and the optical axis, and M is defined as M = |ωout /ωin| , the following conditional expression is satisfied: Mpar < Mmax wherein Mpar represents M in a case that the incident light ray is a paraxial ray, and Mmax represents M in a case that the incident light ray is a ray of a maximum angle of ωin. the following conditional expression is satisfied: Mpar < Mmax wherein Mpar represents M in a case that the incident light ray is a paraxial ray, and Mmax represents M in a case that the incident light ray is a ray of a maximum angle of ωin.
Citrus fiber having a c* close packing concentration value of less than 3.8 wt%, anhydrous basis, as measured according to Test Methods section 2 of the description.
A method of collimating an atomic beam , the method comprising: a first step of irradiating the atomic beam with a first laser beam , the first laser beam having a wavelength corresponding to a transition between a ground state and a first excited state of an atom in the atomic beam , thereby selectively changing, from the ground state to the first excited state, atoms in the atomic beam each having a velocity component in a direction orthogonal to a traveling direction of the atomic beam , the velocity component being smaller than a predetermined velocity; a second step of irradiating, after the first step, the atomic beam with a second laser beam , the second laser beam having a wavelength corresponding to a transition between the ground state and a second excited state of the atom in the atomic beam , thereby providing recoil momenta to atoms in the ground state in the atomic beam to change a traveling direction of the atoms in the ground state in the atomic beam ; and a third step of irradiating, after the second step, the atomic beam with a third laser beam , the third laser beam having the wavelength corresponding to the transition between the ground state and the first excited state, thereby changing the atoms in the first excited state in the atomic beam from the first excited state to the ground state. a first step of irradiating the atomic beam with a first laser beam , the first laser beam having a wavelength corresponding to a transition between a ground state and a first excited state of an atom in the atomic beam , thereby selectively changing, from the ground state to the first excited state, atoms in the atomic beam each having a velocity component in a direction orthogonal to a traveling direction of the atomic beam , the velocity component being smaller than a predetermined velocity; a second step of irradiating, after the first step, the atomic beam with a second laser beam , the second laser beam having a wavelength corresponding to a transition between the ground state and a second excited state of the atom in the atomic beam , thereby providing recoil momenta to atoms in the ground state in the atomic beam to change a traveling direction of the atoms in the ground state in the atomic beam ; and a third step of irradiating, after the second step, the atomic beam with a third laser beam , the third laser beam having the wavelength corresponding to the transition between the ground state and the first excited state, thereby changing the atoms in the first excited state in the atomic beam from the first excited state to the ground state.
An adapter for coupling each of a razor handle and a razor cartridge together, the adapter comprising: a handle engaging portion comprising: at least one wall that defines a receptacle for receiving a razor handle ; and at least one handle protrusion extending from the at least one wall and configured to engage a central recess of a razor handle ; a cartridge engaging portion coupled with the handle engaging portion, characterized in that the cartridge engaging portion comprises: a stem that defines a first recess and a second recess for selectively engaging a first cartridge protrusion and a second cartridge protrusion; a tongue member slidably coupled with the stem and configured to contact a cartridge . a handle engaging portion comprising: at least one wall that defines a receptacle for receiving a razor handle ; and at least one handle protrusion extending from the at least one wall and configured to engage a central recess of a razor handle ; at least one wall that defines a receptacle for receiving a razor handle ; and at least one handle protrusion extending from the at least one wall and configured to engage a central recess of a razor handle ; a cartridge engaging portion coupled with the handle engaging portion, characterized in that the cartridge engaging portion comprises: a stem that defines a first recess and a second recess for selectively engaging a first cartridge protrusion and a second cartridge protrusion; a tongue member slidably coupled with the stem and configured to contact a cartridge .
An ozone generator comprising; a dielectric discharge tube , consisting of a glass tube, having a closed end and an open end which are faced each other, and including an electrode formed on an inner surface thereof, a sealing lid , consisting of stainless steel or ceramics, covering the open end of the dielectric discharge tube and fixed to the dielectric discharge tube with an adhesive , a power supply brush , in inscribed contact with the electrode formed on the inner surface of the dielectric discharge tube , and a grounding electrode , arranged concentrically with the dielectric discharge tube ; wherein the sealing lid includes a main body part and a cylinder part , which are connected together, an inside diameter of the cylinder part is larger than an outside diameter of the dielectric discharge tube .
A network node for enabling mitigation of remote interference from another network node to communications between the network node and a wireless device, WD, , the network node configured to: generate an initialization seed as a function of a time counter t and a scrambling identifier N ID , the initialization seed computed by linearly combining, in a modulo 2 sense, a function of only the time counter t and a function of only the scrambling identifier N ID , such that bits dependent on t and bits dependent on N ID are placed on separate parts of a bit field of the initialization seed; and generate a remote interference mitigation reference signal, RIM-RS, sequence based at least in part on the initialization seed. generate an initialization seed as a function of a time counter t and a scrambling identifier N ID , the initialization seed computed by linearly combining, in a modulo 2 sense, a function of only the time counter t and a function of only the scrambling identifier N ID , such that bits dependent on t and bits dependent on N ID are placed on separate parts of a bit field of the initialization seed; and generate a remote interference mitigation reference signal, RIM-RS, sequence based at least in part on the initialization seed.
A friction material comprising a bio-soluble inorganic fiber, wherein the bio-soluble inorganic fiber means an inorganic fiber satisfying that the total amount of alkali metal oxides and alkaline earth metal oxides - which is the total amount of oxides of sodium, potassium, calcium, magnesium and barium - is 18% by mass or more in a chemical composition thereof, and that the mass half-life of the fiber having a length of longer than 20 μm is less than 10 days in a respiratory short-term biodurability test, or that the mass half-life of the fiber having a length of longer than 20 μm is less than 40 days in a short-term biodurability test at the time of intratracheal injection, or that there is no evidence of excessive carcinogenicity in an intraperitoneal test, or that there is no relating pathogenicity or tumor occurrence in a long-term respiration test according to Note Q of EU Commission Directive 97/69/EC which describes the exclusion from application of carcinogenicity, in an amount of 10% by volume or more and 9% by weight or more and a metal sulfide, and comprising 0.5% by weight or less of a copper component and 0.5% by weight or less of a metal fiber, and further comprising zinc.
A centrifugal spreader for distributing material , comprising at least one storage container for storing the material to be distributed, at least one adjustable metering device which is associated with the storage container and is designed to supply stored material from the storage container to at least one rotationally drivable spreader disc , and at least one contactless sensor which is designed to detect the material flow , wherein, by means of the sensor , a first measurement signal can be emitted at least partially onto the material flow and a second measurement signal at least partially reflected thereby can be received, wherein at least one feed element is arranged between the metering device and the spreader disc , via which feed element the material supplied by the metering device can be applied to the spreader disc in the form of an at least partially fluid material flow , and wherein the at least one sensor is arranged in the region of the at least one feed element , between the metering device and the spreader disc , characterized in that the feed element has at least one additional opening which is arranged between the metering element and the sensor , and at least one further material can be supplied to the feed element via the additional opening , wherein the sensor is designed to detect at least one further material within the material flow .
An aircraft system comprising: a fuel tank containing a cryogenic fuel; an engine configured to consume the cryogenic fuel; and an environmental control system including a precooler arranged along a flow path between the fuel tank and the engine , the precooler configured to receive the cryogenic fuel as a first working fluid and engine bleed air as a second working fluid, wherein the precooler comprises: a first heat exchanger configured to receive the cryogenic fuel at a first state and output the cryogenic fuel at a second state; and a second heat exchanger configured to receive the cryogenic fuel at the second state and output the cryogenic fuel at a third state, wherein the first state of the fuel has a first density, the second state of the fuel has a second density, and the third state of the fuel has a third density, wherein the first density is greater than the second density, and the second density is greater than the third density, and wherein the engine bleed air is directed through the second heat exchanger of the precooler first and then through the first heat exchanger of the precooler a fuel tank containing a cryogenic fuel; an engine configured to consume the cryogenic fuel; and an environmental control system including a precooler arranged along a flow path between the fuel tank and the engine , the precooler configured to receive the cryogenic fuel as a first working fluid and engine bleed air as a second working fluid, wherein the precooler comprises: a first heat exchanger configured to receive the cryogenic fuel at a first state and output the cryogenic fuel at a second state; and a second heat exchanger configured to receive the cryogenic fuel at the second state and output the cryogenic fuel at a third state, wherein the first state of the fuel has a first density, the second state of the fuel has a second density, and the third state of the fuel has a third density, wherein the first density is greater than the second density, and the second density is greater than the third density, and wherein the engine bleed air is directed through the second heat exchanger of the precooler first and then through the first heat exchanger of the precooler a first heat exchanger configured to receive the cryogenic fuel at a first state and output the cryogenic fuel at a second state; and a second heat exchanger configured to receive the cryogenic fuel at the second state and output the cryogenic fuel at a third state, wherein the first state of the fuel has a first density, the second state of the fuel has a second density, and the third state of the fuel has a third density, wherein the first density is greater than the second density, and the second density is greater than the third density, and wherein the engine bleed air is directed through the second heat exchanger of the precooler first and then through the first heat exchanger of the precooler
An occupant information sensing device , comprising: a plurality of heater electrodes that are provided at a vehicle steering wheel and insulated and separated from one another and that are configured to generate heat by conduction; a heater power source of a non-insulated type AC power source that is configured to feed power to at least two heater electrodes of the plurality of heater electrodes and that is grounded commonly for the heater electrodes ; a signal processing circuit that is configured to process an occupant information signal output from the heater electrodes ; a switching element (120a-120d) that is provided part-way in a circuit from the heater power source to the heater electrodes and is configured to establish a conduction state or a non-conduction state between the heater power source and the heater electrodes ; characterized by a control circuit that is configured to switch the switching element (120a-120d) by time division and to connect the heater electrodes to the heater power source and the signal processing circuit at prescribed time intervals . a plurality of heater electrodes that are provided at a vehicle steering wheel and insulated and separated from one another and that are configured to generate heat by conduction; a heater power source of a non-insulated type AC power source that is configured to feed power to at least two heater electrodes of the plurality of heater electrodes and that is grounded commonly for the heater electrodes ; a signal processing circuit that is configured to process an occupant information signal output from the heater electrodes ; a switching element (120a-120d) that is provided part-way in a circuit from the heater power source to the heater electrodes and is configured to establish a conduction state or a non-conduction state between the heater power source and the heater electrodes ; characterized by a control circuit that is configured to switch the switching element (120a-120d) by time division and to connect the heater electrodes to the heater power source and the signal processing circuit at prescribed time intervals .
A method of creating a tackified prepreg, comprising steps of: providing a fiber weave having unidirectional fibers and woven sections said woven sections spaced apart from one another to provide unidirectional fiber sections ; applying a tackifier to the fiber weave ; separating the unidirectional fiber section from the woven sections ; and arranging layers of the unidirectional fiber sections onto one another to provide a stack . providing a fiber weave having unidirectional fibers and woven sections said woven sections spaced apart from one another to provide unidirectional fiber sections ; applying a tackifier to the fiber weave ; separating the unidirectional fiber section from the woven sections ; and arranging layers of the unidirectional fiber sections onto one another to provide a stack .
A modified polypeptide having fructofuranosidase activity, wherein the modified polypeptide comprises an amino acid sequence which is at least 90% identical to SEQ ID NO: 3 and has at least one of the following amino acid substitutions: the phenylalanine (F) at amino acid position 121 is substituted by tyrosine (Y); the alanine (A) at amino acid position 159 is substituted by proline (P) or serine (S); the glycine (G) at amino acid position 302 is substituted by asparagine (N), aspartic acid (D), tyrosine (Y) or glutamic acid (E); and/or the glutamine (Q) at amino acid position 471 is substituted by serine (S), lysine (K) or asparagine (N). the phenylalanine (F) at amino acid position 121 is substituted by tyrosine (Y); the alanine (A) at amino acid position 159 is substituted by proline (P) or serine (S); the glycine (G) at amino acid position 302 is substituted by asparagine (N), aspartic acid (D), tyrosine (Y) or glutamic acid (E); and/or the glutamine (Q) at amino acid position 471 is substituted by serine (S), lysine (K) or asparagine (N).