mhurhangee/patent-ind-claim-en huggingface dataset:
A sanitary washing apparatus comprising: a nozzle including a jetting port and configured to squirt water from the jetting port and to cause the water to impinge on female private parts, the nozzle being operable to switch between a first jetting and a second jetting, characterized in that the first jetting is configured to squirt the water from the jetting port for causing the water to impinge on a first range of the female private parts, and the second jetting is configured to squirt the water from the jetting port more diffusively than the first jetting for causing the water to impinge evenly on a second range wider than the first range without moving the jetting port, wherein the nozzle includes an impingement force suppression device configured to suppress impingement force by adjusting the flow velocity, flow rate or mixing amount of air in the first range of the first jetting when the second jetting is switched to the first jetting, characterized in that the nozzle includes a swirling chamber provided with a protrusion in the central portion, a large diameter inner peripheral wall having a larger diameter at the bottom and an inclined inner peripheral wall having a diameter shrinking toward a communication channel that is included in a nozzle body of the nozzle , and configured to swirl the water below the jetting port, in a way that the water squirted from the swirling chamber gives a swirling speed of water therein that is slower in the first jetting than in the second jetting. a nozzle including a jetting port and configured to squirt water from the jetting port and to cause the water to impinge on female private parts, the nozzle being operable to switch between a first jetting and a second jetting, characterized in that the first jetting is configured to squirt the water from the jetting port for causing the water to impinge on a first range of the female private parts, and the second jetting is configured to squirt the water from the jetting port more diffusively than the first jetting for causing the water to impinge evenly on a second range wider than the first range without moving the jetting port, wherein the nozzle includes an impingement force suppression device configured to suppress impingement force by adjusting the flow velocity, flow rate or mixing amount of air in the first range of the first jetting when the second jetting is switched to the first jetting, characterized in that the nozzle includes a swirling chamber provided with a protrusion in the central portion, a large diameter inner peripheral wall having a larger diameter at the bottom and an inclined inner peripheral wall having a diameter shrinking toward a communication channel that is included in a nozzle body of the nozzle , and configured to swirl the water below the jetting port, in a way that the water squirted from the swirling chamber gives a swirling speed of water therein that is slower in the first jetting than in the second jetting.
A method of replacing an R-22 refrigerant in a heat transfer system that was designed for use with the R-22 refrigerant, the method comprising: charging the heat transfer system that was designed for use with the R-22 refrigerant with a composition comprising: 24.3 weight % difluoromethane; 24.7 weight % pentafluoroethane; 25.7 weight % 1,1,1,2-tetrafluoroethane; and 25.3 weight % 2,3,3,3-tetrafluoropropene. 24.3 weight % difluoromethane; 24.7 weight % pentafluoroethane; 25.7 weight % 1,1,1,2-tetrafluoroethane; and 25.3 weight % 2,3,3,3-tetrafluoropropene.
An apparatus for a wireless transmitter device , the apparatus comprising: a transmitter module for transmitting wireless transmissions; and a processing module configured to: control the transmitter module ; generate one or more transmit symbols in a Delay-Doppler domain to obtain a Delay-Doppler representation; transform the Delay-Doppler representation into a Time-Frequency domain to obtain a Time-Frequency representation, the Time-Frequency representation having a first bandwidth and a first duration; add pilot symbols to the Time-Frequency representation to obtain a Time-Frequency representation with an extended second bandwidth or an extended second duration; transform the Time-Frequency representation with the extended second bandwidth or the extended second duration to the time domain to obtain a time domain representation; and transmit the time domain representation to a wireless receiver device . a transmitter module for transmitting wireless transmissions; and a processing module configured to: control the transmitter module ; generate one or more transmit symbols in a Delay-Doppler domain to obtain a Delay-Doppler representation; transform the Delay-Doppler representation into a Time-Frequency domain to obtain a Time-Frequency representation, the Time-Frequency representation having a first bandwidth and a first duration; add pilot symbols to the Time-Frequency representation to obtain a Time-Frequency representation with an extended second bandwidth or an extended second duration; transform the Time-Frequency representation with the extended second bandwidth or the extended second duration to the time domain to obtain a time domain representation; and transmit the time domain representation to a wireless receiver device . control the transmitter module ; generate one or more transmit symbols in a Delay-Doppler domain to obtain a Delay-Doppler representation; transform the Delay-Doppler representation into a Time-Frequency domain to obtain a Time-Frequency representation, the Time-Frequency representation having a first bandwidth and a first duration; add pilot symbols to the Time-Frequency representation to obtain a Time-Frequency representation with an extended second bandwidth or an extended second duration; transform the Time-Frequency representation with the extended second bandwidth or the extended second duration to the time domain to obtain a time domain representation; and transmit the time domain representation to a wireless receiver device .
An electroplating apparatus to provide a metallic color on metallic garment accessories by metal deposition, comprising: - a cylindrical container that is open upwardly, having a circular bottom plate and a peripheral side plate , for containing an electrolytic solution (f) and garment accessories , - a first annular electrode arranged at a corner between the bottom plate and the peripheral side plate in the container so as to extend along the circumferential direction, - a second annular electrode extended along the circumferential direction at the position upwardly away from the bottom plate and radially inwardly away from the circumferential side plate in the container , such that the second annular electrode is immersed in the electrolytic solution (f) in rotary stirring, one of the first and second annular electrodes being an anode and the other being a cathode, - ferromagnetic media consisting of a large number of pins or balls as polishing materials and being contained in the cylindrical container , - a rotating mechanism provided below the container , including a rotating shaft having one end connected to a rotating plate ; and one or more permanent magnets disposed onto the rotating plate , so that as the permanent magnets on the rotating plate are rotated by the rotation of the rotating shaft , the media are rotated in the container . - a cylindrical container that is open upwardly, having a circular bottom plate and a peripheral side plate , for containing an electrolytic solution (f) and garment accessories , - a first annular electrode arranged at a corner between the bottom plate and the peripheral side plate in the container so as to extend along the circumferential direction, - a second annular electrode extended along the circumferential direction at the position upwardly away from the bottom plate and radially inwardly away from the circumferential side plate in the container , such that the second annular electrode is immersed in the electrolytic solution (f) in rotary stirring, one of the first and second annular electrodes being an anode and the other being a cathode, - ferromagnetic media consisting of a large number of pins or balls as polishing materials and being contained in the cylindrical container , - a rotating mechanism provided below the container ,
A silica nanoparticle, comprising multi-layered silica shells, wherein each shell has meso-pores and encloses a closed hollow space, optionally the innermost hollow closed space has a solid silica core; and one or more bioactive ingredients encapsulated within the space, wherein the bioactive ingredient has a size larger than the pore size of the shell encapsulating it, and wherein the bioactive ingredient in each space may be the same or different.
Device for disbursing value notes, comprising an output unit for outputting a stack of value notes having value notes to be disbursed, and comprising a feed transport arrangement , which is designed to feed the value notes to be disbursed individually to a collecting unit for collecting and stacking the value notes to be disbursed, wherein the collecting unit comprises a stacking unit and a support element which is arranged to be stationary, wherein the stacking unit is designed to stack the value notes of the stack of value notes to be disbursed, with their front and/or rear sides lying on one another, on the support element to form the stack of value notes, wherein the collecting unit comprises a pressure element , wherein the pressure element is arranged in a pivoted-away position during the stacking of the value notes of the stack of value notes to be disbursed, and wherein the pressure element is arranged in a pivoted-in position to output the stack of value notes and presses the stack of value notes against the support element , wherein the pressure element is arranged to be stationary and pivotable about an axis of rotation, wherein, in the pivoted-in position, the pressure element is rotated about the axis of rotation by a pre-set angle with respect to the pivoted-away position, wherein the support element comprises a plurality of belts , which contact at least one of the value notes of the stack of value notes to be disbursed, and which can be driven by a drive unit to output the stack of value notes through an output opening of the output unit , and which are designed to transport the stack of value notes in the direction (P4) of the output opening , wherein the pressure element comprises a plurality of belts , which contact at least one of the value notes of the stack of value notes to be disbursed, and which can be driven by a drive unit to output the stack of value notes through an output opening of the output unit and which are designed to transport the stack of value notes in the direction (P4) of the output opening , and wherein, with the aid of the pressure element and the support element , the stack of value notes is transported through an output opening that can be closed by a flap , in such a way that part of the stack of value notes projects out of this output opening , characterized in that the collecting unit comprises a limiting element which is arranged to be pivotable and which, during the stacking of the value notes , is arranged in a closed position, in which it closes a return transport path , in that an adjustment unit is designed to pivot the limiting element from the closed position into an opened position to transport a stack of value notes into the return transport path , in that the stack of value notes can be transported into the return transport path by the collecting unit , and in that a separating unit for separating the value notes of a stack of value notes that is transported back is arranged in the return transport path .
An electron beam installation , which is used for selective melting of powdered material to get a stable 3D structure , comprising a) a powder container , which can accommodate a powder bed made of the powdered material to be processed, and comprising b) an electron beam generator , which is configured to direct an electron beam onto laterally differing locations of the powder bed , characterized in that c) the electron beam installation has a frit device with at least two electrodes , which, by applying an AC voltage between the at least two electrodes , generates an electromagnetic alternating field, which bonds the powdered material of the powder bed , at least in regions over the powder bed , wherein d) the power and/or the frequency of the AC voltage of the frit device and the power of the electron beam are selected so that the bonded powdered material is not dispersed during subsequent melting using the electron beam , wherein the powdered material is only bonded by the frit device at locations at which no processing takes place using the electron beam in such a way that the powdered material can be detached again there, in particular by impacts, wherein e) the frequency of the AC voltage of the frit device lies in regions greater than 5 kHz. a) a powder container , which can accommodate a powder bed made of the powdered material to be processed, and comprising b) an electron beam generator , which is configured to direct an electron beam onto laterally differing locations of the powder bed , characterized in that c) the electron beam installation has a frit device with at least two electrodes , which, by applying an AC voltage between the at least two electrodes , generates an electromagnetic alternating field, which bonds the powdered material of the powder bed , at least in regions over the powder bed , wherein d) the power and/or the frequency of the AC voltage of the frit device and the power of the electron beam are selected so that the bonded powdered material is not dispersed during subsequent melting using the electron beam , wherein the powdered material is only bonded by the frit device at locations at which no processing takes place using the electron beam in such a way that the powdered material can be detached again there, in particular by impacts, wherein e) the frequency of the AC voltage of the frit device lies in regions greater than 5 kHz.
A terminal apparatus that communicates with a base station apparatus, the terminal apparatus comprising: wireless reception circuitry that receives first information and second information from the base station apparatus ; and signal detection circuitry that cancels or suppresses interference from a different cell, characterized in that in a case where a prescribed condition is satisfied, the signal detection circuitry cancels or suppresses interference from the different cell by a Network Assisted Interference Cancellation and Suppression, NAICS, scheme using a parameter of interference from the different cell; and in a case where the prescribed condition is not satisfied, cancels or suppresses interference from the different cell without applying NAICS, wherein the first information is higher-layer information on whether or not NAICS has to be applied for canceling or suppressing the interference from the different cell, wherein the second information is information indicating in which downlink control information, DCI, format the downlink control information is received, and wherein the DCI format can be a first DCI format or a second DCI format, and wherein the prescribed condition is satisfied in case where the first information indicates that the NAICS has to be applied and the second information indicates the first DCI format. wireless reception circuitry that receives first information and second information from the base station apparatus ; and signal detection circuitry that cancels or suppresses interference from a different cell, characterized in that in a case where a prescribed condition is satisfied, the signal detection circuitry cancels or suppresses interference from the different cell by a Network Assisted Interference Cancellation and Suppression, NAICS, scheme using a parameter of interference from the different cell; and in a case where the prescribed condition is not satisfied, cancels or suppresses interference from the different cell without applying NAICS, wherein the first information is higher-layer information on whether or not NAICS has to be applied for canceling or suppressing the interference from the different cell, wherein the second information is information indicating in which downlink control information, DCI, format the downlink control information is received, and wherein the DCI format can be a first DCI format or a second DCI format, and wherein the prescribed condition is satisfied in case where the first information indicates that the NAICS has to be applied and the second information indicates the first DCI format.
A method for the deactivation of brominated compounds contained in plastic materials, wherein a homogenate of at least one plastic material containing at least one brominated compound is subjected to a UV-visible irradiation using one or more artificial UV-visible sources, said homogenate having an average particle diameter of 2 mm or less, the brominated compound or compounds are selected from the group consisting of aromatic brominated flame retardants, and wherein the method is performed without using any solvent.
Method for fastening bristle bundles which are composed of bristle filaments to a carrier pad having a plurality of perforations which penetrate the carrier pad , wherein the bristle bundles are inserted into the perforations and fastened without anchoring on the carrier pad , wherein the carrier pad on the rear side thereof which faces away from the bristle bundles has a delimitation which projects from the rear side of the carrier pad and surrounds the perforations and the material protrusions and comprises the rear side of the carrier pad , characterized in that the carrier pad on the rear side thereof which faces away from the bristle bundles that are guided into the perforations has a plurality of material protrusions , wherein the material protrusions are fused and for fastening the bristle bundles without anchoring on the carrier pad are pressed into a bundle fastening plane.
Method for adhesively bonding two surfaces by means of a reactive adhesive film system comprising at least two adhesive films (F1 and F2), the adhesive films each comprising at least one reactive component (R1 and R2), adhesive bonding being effected by a reaction which requires the presence of both reactive components (R1 and R2), characterized in that , prior to adhesive bonding, a separating layer (T) which is impermeable to the reactive components (R1 and R2) is provided between the adhesive films (F1 and F2) which are to be brought into contact with one another for the reaction, and the separating layer (T) is removed at least in part by means of a laser in order to effect adhesive bonding, so that the adhesive films (F1 and F2) come into direct contact with one another and the reaction begins in the presence of both reactive components (R1 and R2).
A multi-cycle method to acquire fragment ion spectra of substances in complex substance mixtures by a mass spectrometer with an ion source, an ion mobility separator, a mass filter, an ion fragmentation cell, and a mass analyzer, wherein in a first measurement cycle a map of ion species with ion mobility scan times versus ion masses is measured, from which several sets of temporally separated ion species with distinct masses and distinct mobility scan times can be selected, and wherein in further measurement cycles the ion species of a set each are selected by their mobility scan time, filtered by mass in the mass filter, and fragmented in the fragmentation cell, and wherein the fragment ion mass spectra are measured by the mass analyzer, characterized by the fact that - a trapped ion mobility spectrometer (TIMS) is used as ion mobility separator in which ions are driven against an electric field barrier by a gas flow and released from the electric field barrier according to their respective ion mobility by decreasing the height of the electric field barrier; and - ions are provided from the ion source to the ion mobility separator during a measurement cycle and accumulated parallel to the measurement cycle in an accumulator unit at a rising edge of an electric field barrier such that the ions get spatially separated by their ion mobility along the rising edge. - a trapped ion mobility spectrometer (TIMS) is used as ion mobility separator in which ions are driven against an electric field barrier by a gas flow and released from the electric field barrier according to their respective ion mobility by decreasing the height of the electric field barrier; and - ions are provided from the ion source to the ion mobility separator during a measurement cycle and accumulated parallel to the measurement cycle in an accumulator unit at a rising edge of an electric field barrier such that the ions get spatially separated by their ion mobility along the rising edge.
Method for moving a product (A) made of thermoformable plastics in sheet or slab form by cogged conveying means arranged on a thermoforming apparatus , said cogged conveying means being provided with teeth arranged in a row along a feeding direction between an inlet zone and an outlet zone of said thermoforming apparatus , said method being characterized by comprising the step of moving a first guide means of said thermoforming apparatus , facing a first face of said product (A), along a first direction (D1), oriented transversely to said feeding direction , between a first position in which said first guide means is near a root of a tooth of said teeth and said product (A) is engaged and locked on said teeth , and a second position in which said first guide means is near a tip of said teeth and supports said first face of said product (A) that is disengaged from said teeth .