mhurhangee/patent-ind-claim-en huggingface dataset:
Water injection device of an internal combustion engine , comprising: - a water tank for storing water; - a conveying element for conveying the water, wherein the conveying element is connected to the water tank , - at least one water injector for injecting water which is connected to the conveying element , - a pressure sensor which is arranged in a line region between the conveying element and the water injector , and - a control unit which is configured, based on pressure data of the pressure sensor , to determine a formation of steam in the above-mentioned line region in the case of a closed water injector and switched off conveying element. - a water tank for storing water; - a conveying element for conveying the water, wherein the conveying element is connected to the water tank , - at least one water injector for injecting water which is connected to the conveying element , - a pressure sensor which is arranged in a line region between the conveying element and the water injector , and - a control unit which is configured, based on pressure data of the pressure sensor , to determine a formation of steam in the above-mentioned line region in the case of a closed water injector and switched off conveying element.
A system supplying combustion engines with fuel, alternately with petrol / diesel oil or LPG, with a high pressure pump supplying fuel to an engine , a low pressure pump supplying selected fuel to the high pressure pump , with a fuel type switch placed ahead of the low pressure pump , with valves controlling the operation of the fuel change system from petrol /diesel oil to LPG, wherein in the LPG tank in a sealed glass isolated from the LPG tank the low pressure pump is placed, which at the input is equipped with an electrovalve as a fuel change switch from petrol / diesel oil to LPG, to one input of the electrovalve there is supplied petrol / diesel oil through a solenoid valve , and to the second input LPG is supplied, wherein the low pressure branch at the outlet of the high pressure pump feeding the engine is connected to a manifold of a small and big fuel circuit, in which a small circuit valve is connected to the inlet of the low pressure pump in the sealed glass and a big circuit valve is connected to the LPG tank , where the petrol / diesel oil is supplied to the inlet of the sealed glass via the electrovalve , wherein the sealed glass is placed in the LPG tank via a cup , the sealed glass being an upper plate attached to a main plate of the cup (6, and wherein on the main plate of the cup on the LPG return line a non-return valve is mounted to block gas outflow from the LPG tank and on the LPG supply line to the low pressure pump a manual shut-off valve is installed .
A laser machining device comprising: a transmittance change unit that is capable of changing transmittance of a laser beam; a heat radiation measurement unit that measures a heat radiation of a workpiece irradiated with the laser beam transmitted through the transmittance change unit ; a control unit that controls the transmittance of the laser beam in the transmittance change unit based on a measurement value of the heat radiation measured by the heat radiation measurement unit ; and a target value setting unit that sets a target value of the heat radiation measured by the heat radiation measurement unit , characterized in that the control unit has a feedback control unit that generates a control signal to be output to the transmittance change unit , based on a difference between the target value of the heat radiation and the measurement value of the heat radiation, and the target value setting unit is capable of setting the target value of the heat radiation that changes according to an irradiation position of the laser beam. a transmittance change unit that is capable of changing transmittance of a laser beam; a heat radiation measurement unit that measures a heat radiation of a workpiece irradiated with the laser beam transmitted through the transmittance change unit ; a control unit that controls the transmittance of the laser beam in the transmittance change unit based on a measurement value of the heat radiation measured by the heat radiation measurement unit ; and a target value setting unit that sets a target value of the heat radiation measured by the heat radiation measurement unit , characterized in that the control unit has a feedback control unit that generates a control signal to be output to the transmittance change unit , based on a difference between the target value of the heat radiation and the measurement value of the heat radiation, and the target value setting unit is capable of setting the target value of the heat radiation that changes according to an irradiation position of the laser beam.
A Light Emitting Diode (LED) ceiling lamp comprising a lamp base including a metal frame with a mountain shaped cross section and two cover plates , wherein an accommodating slot is formed through two ends of the lamp base ; a power module configured in the accommodating slot of the lamp base; a plurality of first fixing units fixed at a bottom wall of the accommodating slot of the lamp base at intervals, the first fixing unit includes an accommodating slot , and the accommodating slot is perpendicular to the bottom wall of the accommodating slot of the lamp base ; and a movable lamp light detachably assembled into the accommodating slot of the lamp base , wherein the movable lamp light includes a heat dissipation unit , a LED panel , a lamp cover and two end plates , a shape of the heat dissipation unit corresponds to the shape of the accommodating slot to make the heat dissipation unit adapted to be accommodated in the accommodating slot , the LED panel corresponds to the heat dissipation unit , the shape of the lamp cover corresponds to the shape of the heat dissipation unit , the lamp cover is detachably fixed to the heat dissipation unit and covers a light emitting side of the LED panel , the end plates seal two openings of a tube-shaped structure formed by the heat dissipation unit and the lamp cover , wherein a hole is formed at each of the cover plates and a seal cover is detachably assembled from the hole ; and a plurality of second fixing units fixed to the heat dissipation unit at intervals, positions of the second fixing units correspond to the positions of the first fixing units , respectively, the second fixing units are detachably fixed with the first fixing units , the second fixing unit includes an inserting member adapted to be inserted into the accommodating slot , wherein the cover plates are configured at two ends of the lamp base , the cover plates seal two ends of the accommodating slot and the end plates are flush with and contact the cover plates .
A device configured for delivery of energy to a tissue, wherein said device comprises: a feed line portion having an outer diameter that is equal to or less than a 16-gauge needle and comprising: an inner conductor and outer conductor separated by dielectric material ; a space located between the dielectric material and the outer conductor; a plurality of support lines located in said space for providing support to maintain the position of the outer conductor with respect to the inner conductor ; and a coolant pathway located within said outer diameter, wherein the coolant pathway comprises a plurality of channels formed in said space by said support lines, and an antenna portion distal to said feed line portion . an inner conductor and outer conductor separated by dielectric material ; a space located between the dielectric material and the outer conductor; a plurality of support lines located in said space for providing support to maintain the position of the outer conductor with respect to the inner conductor ; and a coolant pathway located within said outer diameter, wherein the coolant pathway comprises a plurality of channels formed in said space by said support lines, and an antenna portion distal to said feed line portion .
A piezoelectric element comprising: a first electrode ; a piezoelectric layer formed at an upper part of the first electrode; and a second electrode formed at an upper part of the piezoelectric layer, wherein the piezoelectric layer contains potassium, sodium, and niobium, and characterized in that a Young's modulus of the piezoelectric layer measured by a nanoindentation method exceeds 130 GPa. a first electrode ; a piezoelectric layer formed at an upper part of the first electrode; and a second electrode formed at an upper part of the piezoelectric layer, wherein the piezoelectric layer contains potassium, sodium, and niobium, and characterized in that a Young's modulus of the piezoelectric layer measured by a nanoindentation method exceeds 130 GPa.
A motor driving system comprising: an AC motor ; a PWM signal control unit that performs a pulse width modulation on three-phase voltage command signals with a carrier signal; a power converter that is driven by a gate signal having undergone the pulse width modulation; and a command voltage creating means for generating the three-phase voltage command signals for driving the AC motor , characterized in that the command voltage creating means includes means for adding a respective voltage component different from a fundamental wave voltage command to each of the three-phase voltage command signals and reducing a loss of the AC motor by using an addition amount of the respective voltage component different from the fundamental wave voltage command; wherein the command voltage creating means sets the respective voltage component different from the fundamental wave voltage command by: generating voltage components of frequencies which are integer multiples of a frequency of the fundamental wave voltage command, multiplying the generated voltage components by respective proportional coefficients (K 1 -K n ), and setting the sum total thereof as the respective voltage component different from the fundamental wave voltage command. an AC motor ; a PWM signal control unit that performs a pulse width modulation on three-phase voltage command signals with a carrier signal; a power converter that is driven by a gate signal having undergone the pulse width modulation; and a command voltage creating means for generating the three-phase voltage command signals for driving the AC motor , characterized in that the command voltage creating means includes means for adding a respective voltage component different from a fundamental wave voltage command to each of the three-phase voltage command signals and reducing a loss of the AC motor by using an addition amount of the respective voltage component different from the fundamental wave voltage command; wherein the command voltage creating means sets the respective voltage component different from the fundamental wave voltage command by: generating voltage components of frequencies which are integer multiples of a frequency of the fundamental wave voltage command, multiplying the generated voltage components by respective proportional coefficients (K 1 -K n ), and setting the sum total thereof as the respective voltage component different from the fundamental wave voltage command. generating voltage components of frequencies which are integer multiples of a frequency of the fundamental wave voltage command, multiplying the generated voltage components by respective proportional coefficients (K 1 -K n ), and setting the sum total thereof as the respective voltage component different from the fundamental wave voltage command.
Apparatus for generating a virtual image, comprising a housing and a mirror , wherein the mirror is arranged inside the housing , such that an image received by the mirror is reflected to create the virtual image, wherein the mirror is fixed to the housing by at least one fixation device and wherein the fixation device is configured for the mirror to be detachable from the housing , wherein the fixation device comprises a body part and a clipping part , wherein the clipping part is configured to snap back and interlock with the body part after being elastically deformed, and, wherein at one of its edges the mirror comprises a protrusion , which is at least partially enclosed by the fixation device , characterized in that the clipping part comprises two engagement points with the body part , wherein one of the engagement points is an aperture and one is a protrusion , wherein the body part comprises engagement points corresponding to the ones of the clipping part , and wherein the body part is fixated to the housing by an expansion anchor , wherein the expansion anchor comprises at least two, preferably four, elastic fingers , that are configured to snap back and interlock with a corresponding opening in the housing after being elastically deformed
A mill roller (6;6a), comprising: a roller main body having an outer peripheral surface (64;64a), the roller main body configured to be rotated about an axis line (O 2 ), and to pulverize an object to be crushed against a milling surface of a mill table , wherein the outer peripheral surface (64;64a) comprises: a first outer peripheral surface curved so as to form a convex shape outward in a radial direction orthogonal to the axis line (O 2 ) of the roller main body , and having an arcuate shape formed with the same radius of curvature (R) on both sides of a maximum outer diameter point (A) in a cross section including the axis line (O 2 ); and a second outer peripheral surface (642;642a) formed on at least one end portion in an axial direction of the first outer peripheral surface , connected to an end surface of the roller main body facing the axial direction, characterized in that the second outer peripheral surface (642;642a) is receded further inward in the radial direction of an imaginary circle than an imaginary circle running along the first outer peripheral surface . a roller main body having an outer peripheral surface (64;64a), the roller main body configured to be rotated about an axis line (O 2 ), and to pulverize an object to be crushed against a milling surface of a mill table , wherein the outer peripheral surface (64;64a) comprises: a first outer peripheral surface curved so as to form a convex shape outward in a radial direction orthogonal to the axis line (O 2 ) of the roller main body , and having an arcuate shape formed with the same radius of curvature (R) on both sides of a maximum outer diameter point (A) in a cross section including the axis line (O 2 ); and a second outer peripheral surface (642;642a) formed on at least one end portion in an axial direction of the first outer peripheral surface , connected to an end surface of the roller main body facing the axial direction, a first outer peripheral surface curved so as to form a convex shape outward in a radial direction orthogonal to the axis line (O 2 ) of the roller main body , and having an arcuate shape formed with the same radius of curvature (R) on both sides of a maximum outer diameter point (A) in a cross section including the axis line (O 2 ); and a second outer peripheral surface (642;642a) formed on at least one end portion in an axial direction of the first outer peripheral surface , connected to an end surface of the roller main body facing the axial direction, characterized in that the second outer peripheral surface (642;642a) is receded further inward in the radial direction of an imaginary circle than an imaginary circle running along the first outer peripheral surface .
A laser-markable insulation material comprising: a polymer material comprising a fluoropolymer; and an inorganic laser-markable pigment having a mean crystal size in a range of 0.4 microns to 1.1 microns and a median particle size (d 50 ) in a range of 0.45 microns to 1.0 microns, wherein the laser-markable pigment has a ratio of median particle size to mean crystal size of no greater than 2:1, wherein the mean crystal size is determined by performing image analysis on a transmission electron microscopy photograph/electron micrograph of a sample of a finished insulation material, wherein the median particle size is determined by performing a Scanning-Electron-Microscopy image analysis. a polymer material comprising a fluoropolymer; and an inorganic laser-markable pigment having a mean crystal size in a range of 0.4 microns to 1.1 microns and a median particle size (d 50 ) in a range of 0.45 microns to 1.0 microns, wherein the laser-markable pigment has a ratio of median particle size to mean crystal size of no greater than 2:1, wherein the mean crystal size is determined by performing image analysis on a transmission electron microscopy photograph/electron micrograph of a sample of a finished insulation material, wherein the median particle size is determined by performing a Scanning-Electron-Microscopy image analysis.
A data processing method, comprising: receiving (S203, S303, S403) control information, wherein the control information comprises information about a first resource and information about a hybrid automatic repeat request, HARQ, process; and sending (S204, S304, S404), on a second resource, data of the HARQ process associated with the first resource; wherein the information about the first resource is an identifier of a HARQ entity associated with the first resource; wherein the control information comprises a modulation scheme field, and the modulation scheme field is used to indicate the information about the first resource; wherein when the second resource is a scheduling carrier, the first resource is one of a plurality of scheduled carriers; and wherein a quantity of the plurality of scheduled carriers is min{ N 1 , N 2 ,..., N i ,..., N k } the modulation scheme field includes N i values to indicate a modulation order M i , k is an integer greater than 0, 1 ≤ i ≤ k, i is an integer, and both N i and M i are integers greater than 0. receiving (S203, S303, S403) control information, wherein the control information comprises information about a first resource and information about a hybrid automatic repeat request, HARQ, process; and sending (S204, S304, S404), on a second resource, data of the HARQ process associated with the first resource; wherein the information about the first resource is an identifier of a HARQ entity associated with the first resource; wherein the control information comprises a modulation scheme field, and the modulation scheme field is used to indicate the information about the first resource; wherein when the second resource is a scheduling carrier, the first resource is one of a plurality of scheduled carriers; and wherein a quantity of the plurality of scheduled carriers is min{ N 1 , N 2 ,..., N i ,..., N k } the modulation scheme field includes N i values to indicate a modulation order M i , k is an integer greater than 0, 1 ≤ i ≤ k, i is an integer, and both N i and M i are integers greater than 0.
Plastic and wood fiber based composite product, which comprises a plastic in which wood fibers are homogeneously embedded in a mass percentage of 70 - 80 % based on the total weight of plastic and wood fibers, wherein said fibers comprise ▪ large fibers with a dominant orientation in a chosen product principal direction and a length in the particle principle direction of about 2 - 6 mm; and ▪ small fibers with a random orientation and a length smaller than the length of said large particles; wherein the capillaries of said wood fibers are filled with said plastic; characterized in that the plastic and wood fiber based composite product has a moisture uptake after a 5 hours boiling test according to EN 1087-1 of 5% or less; and wherein the plastic and wood fiber based composite product has a density in kg/m 3 of 95% or more of its maximal theoretical density, wherein the maximal theoretical density of said wood fiber composite product is the density that said wood fiber composite product would have if it would have the same composition without voids, and wherein the maximal theoretical density of the plastic and wood fiber based composite is as calculated in accordance with the following formula: ρ c = v f ρ f + v m ρ m wherein ρ c is the maximal theoretical density in kg/m 3 v f is the fibre volume fraction in % ρ f is the fibre density in kg/m 3 v m is the plastic volume fraction in % ρ m is the plastic density in kg/m 3 ; wherein the maximal theoretical density is based on the plastic and wood fiber components and excludes other components. ▪ large fibers with a dominant orientation in a chosen product principal direction and a length in the particle principle direction of about 2 - 6 mm; and ▪ small fibers with a random orientation and a length smaller than the length of said large particles; wherein ρ c is the maximal theoretical density in kg/m 3 v f is the fibre volume fraction in % ρ f is the fibre density in kg/m 3 v m is the plastic volume fraction in % ρ m is the plastic density in kg/m 3 ; v f is the fibre volume fraction in % ρ f is the fibre density in kg/m 3 v m is the plastic volume fraction in % ρ m is the plastic density in kg/m 3 ; wherein the maximal theoretical density is based on the plastic and wood fiber components and excludes other components.
A polypeptide of SEQ ID NO:1 and alendronate for use in preventing or reducing non-vertebral bone fractures in a subject in need thereof, wherein said use comprises administering to the subject the polypeptide once daily by subcutaneous injection for a first period of time of 18 months, followed by an administration of alendronate for six months.
An account registration method in a Digital Enhanced Cordless Telecommunications (DECT) network cluster system, comprising the following steps in DECT device: establishing communication with a DECT host through a DECT network cluster constructed in advance; receiving first account information allocated by the DECT host, wherein an account status of the first account information is registration snooping; initiating registration to a server according to the first account information, and obtaining a first registration result of a first account; sending the first registration result to the DECT host; if the first registration result is that the registration is successful, entering a first mode, wherein in the first mode, the DECT device directly initiates SIP signaling to the server; if the first registration result is that the registration is not responded to, obtaining a second registration result fed back by the DECT host, wherein the second registration result is the second registration result of the first account after the DECT host initiates registration to the server according to the first account information; and if the second registration result is that the registration is successful, entering a second mode, wherein in the second mode, the DECT device sends SIP signaling to the DECT host so that the DECT host forwards the SIP signaling. establishing communication with a DECT host through a DECT network cluster constructed in advance; receiving first account information allocated by the DECT host, wherein an account status of the first account information is registration snooping; initiating registration to a server according to the first account information, and obtaining a first registration result of a first account; sending the first registration result to the DECT host; if the first registration result is that the registration is successful, entering a first mode, wherein in the first mode, the DECT device directly initiates SIP signaling to the server; if the first registration result is that the registration is not responded to, obtaining a second registration result fed back by the DECT host, wherein the second registration result is the second registration result of the first account after the DECT host initiates registration to the server according to the first account information; and if the second registration result is that the registration is successful, entering a second mode, wherein in the second mode, the DECT device sends SIP signaling to the DECT host so that the DECT host forwards the SIP signaling.