mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic field sensor comprising: a magnetic field signal generator comprising at least one sensing element to sense a modulated AC bias magnetic field and produce a magnetic field signal responsive to movement of a ferromagnetic target having a target profile pattern, the magnetic field signal having a modulated signal portion in a first frequency band based on the sensed modulated AC bias magnetic field and an unwanted signal portion in a second frequency band based on sensing an external magnetic interference characterized by circuitry including a demodulator to perform a demodulation of the magnetic field signal; and configured such that the demodulation results in the modulated signal portion being shifted from the first frequency band to a third frequency band and the unwanted signal portion being shifted to the first frequency band from the second frequency band. a magnetic field signal generator comprising at least one sensing element to sense a modulated AC bias magnetic field and produce a magnetic field signal responsive to movement of a ferromagnetic target having a target profile pattern, the magnetic field signal having a modulated signal portion in a first frequency band based on the sensed modulated AC bias magnetic field and an unwanted signal portion in a second frequency band based on sensing an external magnetic interference characterized by circuitry including a demodulator to perform a demodulation of the magnetic field signal; and configured such that the demodulation results in the modulated signal portion being shifted from the first frequency band to a third frequency band and the unwanted signal portion being shifted to the first frequency band from the second frequency band.
Blister pack filled with a shaped adhesive, coating or sealant article that is solid at room temperature, said pack having a shaped plastic film part , which has at least one cavity , and a lidding film , where the lidding film closes the cavity , characterized in that the at least one cavity has a filling volume with adhesive, coating material or sealant in the range from 5 ml to 500 ml, in that the adhesive, the coating material or the sealant has a viscosity of 2000 to 200 000 mPas by the Brookfield method at not less than one temperature in a temperature range from 80°C to 180°C, in that the shaped plastic film part and the lidding film are adhesively bonded or welded to one another and in that the lidding film constitutes an aluminium foil, a metallized composite film, a laminate of aluminium/polypropylene, or a sealable, SiO x - or AlO x -coated monofilm.
A method of producing a milk fat globule concentrate, the method comprising the following steps: 1) providing a milk fat globule-containing dairy liquid (mfl) which is a cream having a total fat content in the range of 10-50% w/w, 2) subjecting the mfl to microfiltration (MF) to concentrate the mfl to a total fat content of in the range of 60-85% w/w, wherein the microfiltration involves the use of a ceramic microfiltration membrane, wherein the microfiltration membrane has a pore size in the range of 0.05-1.5 micron. 1) providing a milk fat globule-containing dairy liquid (mfl) which is a cream having a total fat content in the range of 10-50% w/w, 2) subjecting the mfl to microfiltration (MF) to concentrate the mfl to a total fat content of in the range of 60-85% w/w, wherein the microfiltration involves the use of a ceramic microfiltration membrane, wherein the microfiltration membrane has a pore size in the range of 0.05-1.5 micron.
A computer-implemented method for image processing, comprising: determining (S101) a target area corresponding to a target object in an image to be processed; determining (S102), based on initial color values of at least a part of target pixels corresponding to the target area, initial luminance corresponding to the at least the part of the target pixels; and characterized by adjusting (S103), based on the initial luminance corresponding to the at least the part of the target pixels and obtained preset color conversion information of the target area, the initial color values of the at least the part of the target pixels to obtain a target image, wherein the preset color conversion information comprises a preset color value and color conversion degree information, and the color conversion degree information indicates a change degree of a color change of the at least the part of the target pixels determined by a user. determining (S101) a target area corresponding to a target object in an image to be processed; determining (S102), based on initial color values of at least a part of target pixels corresponding to the target area, initial luminance corresponding to the at least the part of the target pixels; and characterized by adjusting (S103), based on the initial luminance corresponding to the at least the part of the target pixels and obtained preset color conversion information of the target area, the initial color values of the at least the part of the target pixels to obtain a target image, wherein the preset color conversion information comprises a preset color value and color conversion degree information, and the color conversion degree information indicates a change degree of a color change of the at least the part of the target pixels determined by a user.
A microneedle applicator for applying a fluid product on the skin and for making it penetrate into the skin, the applicator defining a longitudinal axis X and comprising: - an application face (AO) provided with at least one fluid product outlet , - a plurality of microneedles (NO), - a fluid product reservoir (R) connected to the fluid product outlet (O); - a motor (M2) for causing the microneedles (NO) to vibrate and to convey the fluid product from the reservoir (R) to the outlet (O); and being characterised in that it comprises two distinct modules (M; M'; C) axially and removably connected to each other, namely: - a first module (M; M') housing the motor (M2) and accessories for operating the motor (M2), and - a second module (C) housing the fluid product reservoir (R), forming the application face (AO) and supporting the microneedles (NO). - an application face (AO) provided with at least one fluid product outlet , - a plurality of microneedles (NO), - a fluid product reservoir (R) connected to the fluid product outlet (O); - a motor (M2) for causing the microneedles (NO) to vibrate and to convey the fluid product from the reservoir (R) to the outlet (O); - a first module (M; M') housing the motor (M2) and accessories for operating the motor (M2), and - a second module (C) housing the fluid product reservoir (R), forming the application face (AO) and supporting the microneedles (NO).
A method for transmitting feedback response information, comprising: receiving, by a terminal, configuration information from a network device ; determining, by the terminal, a largest number of pieces of feedback response information corresponding to one physical shared channel according to the configuration information ; determining, by the terminal, a bit length of a first information field in a downlink control signaling according to the largest number of pieces of the feedback response information , wherein the first information field is used for determining a feedback response information sequence to be transmitted in a target time unit; determining, by the terminal, the feedback response information sequence to be transmitted in a target time unit according to the first information field ; and sending, by the terminal, the feedback response information sequence in the target time unit , characterized in that , determining, by the terminal, the bit length of the first information field in the downlink control signaling according to the largest number of pieces of the feedback response information , comprises: when the largest number of pieces of the feedback response information corresponding to one physical shared channel is greater than or equal to a first threshold, determining that the bit length of the first information field is N bits, wherein N is a positive integer. receiving, by a terminal, configuration information from a network device ; determining, by the terminal, a largest number of pieces of feedback response information corresponding to one physical shared channel according to the configuration information ; determining, by the terminal, a bit length of a first information field in a downlink control signaling according to the largest number of pieces of the feedback response information , wherein the first information field is used for determining a feedback response information sequence to be transmitted in a target time unit; determining, by the terminal, the feedback response information sequence to be transmitted in a target time unit according to the first information field ; and sending, by the terminal, the feedback response information sequence in the target time unit , characterized in that , determining, by the terminal, the bit length of the first information field in the downlink control signaling according to the largest number of pieces of the feedback response information , comprises: when the largest number of pieces of the feedback response information corresponding to one physical shared channel is greater than or equal to a first threshold, determining that the bit length of the first information field is N bits, wherein N is a positive integer.
Apparatus for allowing radio frequency selectivity for use in a wireless communication system for the passage of one or more receiving and/or transmission frequency signals therethrough, said apparatus including at least a first set of first and second 90 degree phase shift coupling means, and at least one pair of resonating means coupled between the at least first and second 90 degree phase shift coupling means, wherein at least one further set of first and second 90 degree phase shift coupling means are cascaded, either directly or indirectly, with said at least first set of first and second 90 degree phase shift coupling means, with or without at least one pair of resonating means located between the first and second 90 degree phase shift coupling means of the at least one further set , characterised in that the 90 degree phase shift coupling means is in the form of a transmission line with an electrical length of 90 degrees, or a quarter wavelength transmission line , such that said quarter wavelength transmission line is provided at either side of the at least one pair of resonating means , with each quarter wavelength transmission line having one end coupled to one of the resonating means of the pair of resonating means and the other end of the quarter wavelength transmission line coupled to the other resonating means of the pair of resonating means, and coupling is provided between the pair of resonating means .
A reactor system comprising: a catalytic converter ; a reagent feed line connected to said converter ; wherein said converter is a multibed converter comprising a plurality of catalytic beds ; wherein said converter further comprises a plurality of mixing regions wherein the number of mixing regions is equal to the number of catalytic beds, each mixing region being arranged upstream of a respective catalytic bed to mix the inlet feed of said catalytic bed with a mixing gas; a mixing gas feed line or a plurality of mixing gas feed lines (8-10, 11-13) arranged to feed said mixing gas to said mixing regions , each mixing region being connected to one or more respective mixing gas feed line(s); wherein each of said mixing gas feed lines includes at least one flow regulator device (14-16, 17-19), so that the amount of mixing gas admitted into the mixing region by each of the feed lines can be independently controlled. a catalytic converter ; a reagent feed line connected to said converter ; wherein said converter is a multibed converter comprising a plurality of catalytic beds ; wherein said converter further comprises a plurality of mixing regions wherein the number of mixing regions is equal to the number of catalytic beds, each mixing region being arranged upstream of a respective catalytic bed to mix the inlet feed of said catalytic bed with a mixing gas; wherein said converter is a multibed converter comprising a plurality of catalytic beds ; wherein said converter further comprises a plurality of mixing regions wherein the number of mixing regions is equal to the number of catalytic beds, each mixing region being arranged upstream of a respective catalytic bed to mix the inlet feed of said catalytic bed with a mixing gas; a mixing gas feed line or a plurality of mixing gas feed lines (8-10, 11-13) arranged to feed said mixing gas to said mixing regions , each mixing region being connected to one or more respective mixing gas feed line(s);
An offshore power generating system comprising a T-shaped hub comprising a rotating shaft , and radial out from the rotating shaft two arms connected to propeller blades , and at least two generators arranged on a common shaft in a generator housing ; wherein the common shaft is connected to the rotating shaft of the hub by means of a coupling ; and wherein the hub transfers variable torque from each propeller blade to the common shaft , wherein each propeller blade comprises a plurality of flaps , and wherein each generator is connected to the common shaft by means of couplings . a T-shaped hub comprising a rotating shaft , and radial out from the rotating shaft two arms connected to propeller blades , and at least two generators arranged on a common shaft in a generator housing ; wherein the common shaft is connected to the rotating shaft of the hub by means of a coupling ; and wherein the hub transfers variable torque from each propeller blade to the common shaft , wherein each propeller blade comprises a plurality of flaps , and wherein each generator is connected to the common shaft by means of couplings .
A method comprising: monitoring physical characteristics of a user while the user is wearing a head-mounted display (HMD) and the HMD is presenting a virtual reality with multimedia content, the multimedia content including video for presentation on a display of the HMD and audio, the physical characteristics including motions of the user including eye movement of the user detected using one or more gaze detection sensors in the HMD; determining if the user is experiencing motion sickness based on the monitoring of the physical characteristics of the user while the virtual reality is being presented, wherein the eye movement of the user is used to determine if the user is experiencing motion sickness; and when the user is experiencing motion sickness, delivering supplemental sound to the user, wherein the supplemental sound is combined with sound from the multimedia content for delivery to the user, the supplemental sound being defined to decrease the motion sickness experienced by the user; in which the delivering step comprises generating microwave stimulation for a vestibular system of the user. monitoring physical characteristics of a user while the user is wearing a head-mounted display (HMD) and the HMD is presenting a virtual reality with multimedia content, the multimedia content including video for presentation on a display of the HMD and audio, the physical characteristics including motions of the user including eye movement of the user detected using one or more gaze detection sensors in the HMD; determining if the user is experiencing motion sickness based on the monitoring of the physical characteristics of the user while the virtual reality is being presented, wherein the eye movement of the user is used to determine if the user is experiencing motion sickness; and when the user is experiencing motion sickness, delivering supplemental sound to the user, wherein the supplemental sound is combined with sound from the multimedia content for delivery to the user, the supplemental sound being defined to decrease the motion sickness experienced by the user; in which the delivering step comprises generating microwave stimulation for a vestibular system of the user.
A method, performed by a network entity, of performing time sensitive communication, TSC, the method comprising: establishing a first protocol data unit, PDU, session with a first user equipment, UE, and a second PDU session for a second UE; receiving, from the first UE, an Announce message related to a first time sensitive network, TSN, node; configuring, based on the Announce message, a port state of the network entity; and transmitting, to the second UE, a message based on the Announce message, wherein a port state of the first UE is a slave state, the port state of the network entity and a port state of the second UE are a master state, wherein the first TSN node is connected to the first UE. establishing a first protocol data unit, PDU, session with a first user equipment, UE, and a second PDU session for a second UE; receiving, from the first UE, an Announce message related to a first time sensitive network, TSN, node; configuring, based on the Announce message, a port state of the network entity; and transmitting, to the second UE, a message based on the Announce message, wherein a port state of the first UE is a slave state, the port state of the network entity and a port state of the second UE are a master state, wherein the first TSN node is connected to the first UE.
A battery rack , comprising: a plurality of battery modules respectively having at least one battery cell; a rack case configured to accommodate the plurality of battery modules ; a fire extinguishing water supply unit disposed at the rear of the rack case and connected to the plurality of battery modules ; and a bracket unit configured to cover the fire extinguishing water supply unit and disposed at the rear of the rack case . a plurality of battery modules respectively having at least one battery cell; a rack case configured to accommodate the plurality of battery modules ; a fire extinguishing water supply unit disposed at the rear of the rack case and connected to the plurality of battery modules ; and a bracket unit configured to cover the fire extinguishing water supply unit and disposed at the rear of the rack case .
Process for the synthesis of 9,9-bis(hydroxymethyl)fluorene from fluorene comprising providing a mixture of paraformaldehyde, dimethylsulfoxide, and toluene and a sodium alkoxide and adding fluorene as a solid to said mixture to obtain 9,9-bis(hydroxymethyl)fluorene.
An apparatus for automated control of gas washout of a patient interface of a respiratory treatment apparatus comprising: a vent assembly associated with a patient interface to vent expiratory gas and positioned in an air delivery conduit proximal to the patient interface; an actuator to manipulate the vent assembly ; and a controller, including a processor, that is coupled to the actuator; wherein the vent assembly has a variable exhaust area defined by overlapping apertures (90, 590, 1090, 1290; 95, 595, 1295), wherein the overlapping apertures (90, 590, 1090, 1290; 95, 595, 1295) allow air to pass through the exhaust area; and the controller is configured to operate the actuator to change the variable exhaust area of the vent assembly . a vent assembly associated with a patient interface to vent expiratory gas and positioned in an air delivery conduit proximal to the patient interface; an actuator to manipulate the vent assembly ; and a controller, including a processor, that is coupled to the actuator; wherein the vent assembly has a variable exhaust area defined by overlapping apertures (90, 590, 1090, 1290; 95, 595, 1295), wherein the overlapping apertures (90, 590, 1090, 1290; 95, 595, 1295) allow air to pass through the exhaust area; and the controller is configured to operate the actuator to change the variable exhaust area of the vent assembly .
A method of providing a fluidic connection assembly, the method comprising: providing a tube having a first outer diameter and first and second ends, wherein the second end comprises a tip having a second diameter that is less than the first outer diameter; and inserting the first end of the tube through a first spring and a body , wherein said body comprises a first end, a second end, and a passageway therethrough adapted to receive the tube extending through said body , wherein said body comprises a portion receiving at least a portion of a latch member having an opening, wherein the latch member receives a portion of a cap member having an opening , and wherein said portion of the cap holds the cap member and latch member together. providing a tube having a first outer diameter and first and second ends, wherein the second end comprises a tip having a second diameter that is less than the first outer diameter; and inserting the first end of the tube through a first spring and a body , wherein said body comprises a first end, a second end, and a passageway therethrough adapted to receive the tube extending through said body , wherein said body comprises a portion receiving at least a portion of a latch member having an opening, wherein the latch member receives a portion of a cap member having an opening , and wherein said portion of the cap holds the cap member and latch member together.
A manufacturing method of a rotor including a rotor core , a plate that is disposed on at least one side of the rotor core in a rotational axis direction, and a rotation transmitting member that is composed of a martensitic material and that is welded and fixed to the plate , the manufacturing method comprising: a step of preparing the plate that has a projected portion that is provided adjacent to the rotation transmitting member in a radial direction and that is projected, from an end face in the rotational axis direction , in a direction away from the rotor core out of the rotational axis direction, and a part that is adjacent to the projected portion in the radial direction and that has a width in the rotational axis direction smaller than a width of the projected portion in the rotational axis direction, the plate being formed of an austenitic material; a step of disposing the rotation transmitting member radially inward of the plate , after the step of preparing the plate ; and a step of forming a welded portion across the projected portion of the plate and the rotation transmitting member by emitting an energy beam on at least a part of the projected portion to melt at least a part of the projected portion , after the step of disposing the rotation transmitting member . a step of preparing the plate that has a projected portion that is provided adjacent to the rotation transmitting member in a radial direction and that is projected, from an end face in the rotational axis direction , in a direction away from the rotor core out of the rotational axis direction, and a part that is adjacent to the projected portion in the radial direction and that has a width in the rotational axis direction smaller than a width of the projected portion in the rotational axis direction, the plate being formed of an austenitic material; a step of disposing the rotation transmitting member radially inward of the plate , after the step of preparing the plate ; and a step of forming a welded portion across the projected portion of the plate and the rotation transmitting member by emitting an energy beam on at least a part of the projected portion to melt at least a part of the projected portion , after the step of disposing the rotation transmitting member .