mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for storing a first solution and spraying the first solution onto a region of the human body, comprising: a toilet seat assembly having a seat cover and a bidet seat ; wherein the bidet seat comprises a seat body , a seat base , a bidet assembly housed within a bidet housing , a bidet spray cover , and a bidet housing cover ; wherein the bidet housing cover is positioned at a surface of the bidet housing ; wherein the bidet spray cover is capable of being in an open position and a closed position and adapted to cover the bidet assembly housed within the bidet housing ; wherein the bidet assembly comprises a removable spray canister device adapted to store the first solution and to be inserted in as well as to be taken out of the bidet housing cover , and a spray nozzle assembly ; wherein the spray nozzle assembly comprises a spray nozzle housing adapted to house one or more spray nozzle units comprising one or more spray nozzle wands that are retractable, and a first driving motor being connected to the one or more spray nozzle wands and adapted for moving the one or more spray nozzle wands in retracting-and-extending motion, characterized in that the one or more spray nozzle wands are adapted to deliver a second solution to the region of the human body. a toilet seat assembly having a seat cover and a bidet seat ; wherein the bidet seat comprises a seat body , a seat base , a bidet assembly housed within a bidet housing , a bidet spray cover , and a bidet housing cover ; wherein the bidet housing cover is positioned at a surface of the bidet housing ; wherein the bidet spray cover is capable of being in an open position and a closed position and adapted to cover the bidet assembly housed within the bidet housing ; wherein the bidet assembly comprises a removable spray canister device adapted to store the first solution and to be inserted in as well as to be taken out of the bidet housing cover , and a spray nozzle assembly ; wherein the spray nozzle assembly comprises a spray nozzle housing adapted to house one or more spray nozzle units comprising one or more spray nozzle wands that are retractable, and a first driving motor being connected to the one or more spray nozzle wands and adapted for moving the one or more spray nozzle wands in retracting-and-extending motion, characterized in that the one or more spray nozzle wands are adapted to deliver a second solution to the region of the human body.
A process for treating and de-contaminating fly ash, comprising the following steps: a) mixing the fly ash with 5 to 20% by weight of water, substantially without adding any further binders; b) agglomerating the thus obtained mixture by means of pelletizing or compression molding; c) ageing the thus obtained agglomerate for a period of time after which such strength has been achieved that the weight loss of the dry matter of the agglomerate, produced in a subsequent heat treatment in step d) amounts to no more than 20% by weight; d) heat-treating the thus aged material at a temperature of >80°C to destroy organic compounds and to remove volatile heavy metals; and e) optionally treating the heat-treated material with water. a) mixing the fly ash with 5 to 20% by weight of water, substantially without adding any further binders; b) agglomerating the thus obtained mixture by means of pelletizing or compression molding; c) ageing the thus obtained agglomerate for a period of time after which such strength has been achieved that the weight loss of the dry matter of the agglomerate, produced in a subsequent heat treatment in step d) amounts to no more than 20% by weight; d) heat-treating the thus aged material at a temperature of >80°C to destroy organic compounds and to remove volatile heavy metals; and e) optionally treating the heat-treated material with water.
A multi-purpose fixing element comprising an elbow tube connection for fastening to a mounting piece , comprising: - a planar connecting body having at least two fastening through-holes in the connecting body for fastening the multi-purpose fixing element to a wall; - a front side of the connecting body having the elbow tube connection attached thereto, the elbow tube connection comprising two connections ; - a rear side of the connecting body being provided with at least one recess , - a fixation element whose shape fits into the recess of the connecting body , so that after fitting the fixation element into the at least one recess (42, 42a-e, 43, 48), the planar connecting body can be fixed to the mounting piece such that a rotation thereof is prevented, wherein at least one of the fastening through-holes in the connecting body is designed for fixing to the mounting piece and is opposite an opening on the mounting piece for fastening the connecting body to the mounting piece , wherein the fixation element and the at least one recess (42, 42a-e, 43, 48) are designed to fix the multi-purpose fixing element in at least two different positions on the mounting piece such that a rotation thereof is prevented. - a planar connecting body having at least two fastening through-holes in the connecting body for fastening the multi-purpose fixing element to a wall; - a front side of the connecting body having the elbow tube connection attached thereto, the elbow tube connection comprising two connections ; - a rear side of the connecting body being provided with at least one recess , - a front side of the connecting body having the elbow tube connection attached thereto, the elbow tube connection comprising two connections ; - a rear side of the connecting body being provided with at least one recess , - a fixation element whose shape fits into the recess of the connecting body , so that after fitting the fixation element into the at least one recess (42, 42a-e, 43, 48), the planar connecting body can be fixed to the mounting piece such that a rotation thereof is prevented, wherein at least one of the fastening through-holes in the connecting body is designed for fixing to the mounting piece and is opposite an opening on the mounting piece for fastening the connecting body to the mounting piece , wherein the fixation element and the at least one recess (42, 42a-e, 43, 48) are designed to fix the multi-purpose fixing element in at least two different positions on the mounting piece such that a rotation thereof is prevented.
A manifold component for a droplet ejection head, the manifold component comprising: a mount for receiving an actuator component that provides one or more rows of fluid chambers, each chamber being provided with a respective at least one actuating element and a respective at least one nozzle, the at least one actuating element for each chamber being actuable to eject a droplet of fluid in an ejection direction through the corresponding at least one nozzle, each row extending in a row direction ; a manifold chamber , which extends from a first end to a second end , and widens from said first end to said second end , the second end providing fluidic connection, in parallel, to at least a group of chambers within said one or more rows and being located adjacent said mount ; and at least one port , each port opening into the manifold chamber at the first end thereof; wherein at least one portion between the first end and second end of the manifold chamber is shaped as a hyperbolic acoustic horn. a mount for receiving an actuator component that provides one or more rows of fluid chambers, each chamber being provided with a respective at least one actuating element and a respective at least one nozzle, the at least one actuating element for each chamber being actuable to eject a droplet of fluid in an ejection direction through the corresponding at least one nozzle, each row extending in a row direction ; a manifold chamber , which extends from a first end to a second end , and widens from said first end to said second end , the second end providing fluidic connection, in parallel, to at least a group of chambers within said one or more rows and being located adjacent said mount ; and at least one port , each port opening into the manifold chamber at the first end thereof; wherein at least one portion between the first end and second end of the manifold chamber is shaped as a hyperbolic acoustic horn.
A system for controlling cooling of a glass bottle (GB) in a household appliance , and adapted and configured for preventing the glass bottle (GB) filled with a beverage placed in the household appliance from being broken, the system including a conducting wire adapted and configured to be placed in windings around the glass bottle (GB), a monitor adapted to calculate a target inductance value of the wire corresponding to a target beverage temperature selected by a user and sense an inductance of the wire , and an indicator adapted and configured to signal to the user that a temperature of the glass bottle (GB) has reached the target beverage temperature when the sensed inductance of the wire reaches the target inductance value.
An electronic device, comprising: an inverter circuit , a resonance circuit , a controller , a resonant capacitor adjustment circuit , and a Q value detection circuit ; wherein the resonance circuit comprises a first capacitor (C1) and a transmit coil (L) that are connected in series; and an output terminal of the inverter circuit is connected to the resonance circuit ; the resonant capacitor adjustment circuit is connected to the resonance circuit ; and the Q value detection circuit is connected to the resonance circuit ; the resonant capacitor adjustment circuit comprises at least a second capacitor (C2); the controller is configured to: when a Q value of the transmit coil (L) is detected, control the resonant capacitor adjustment circuit to operate, so that the first capacitor (C1) and the second capacitor (C2) are connected in parallel; the Q value detection circuit is configured to obtain a voltage signal representing a Q value, and send the voltage signal to the controller ; and the controller is configured to obtain the Q value based on the voltage signal, and when the Q value is greater than a preset threshold, determine that a stylus is attached to the electronic device. the resonance circuit comprises a first capacitor (C1) and a transmit coil (L) that are connected in series; and an output terminal of the inverter circuit is connected to the resonance circuit ; the resonant capacitor adjustment circuit is connected to the resonance circuit ; and the Q value detection circuit is connected to the resonance circuit ; the resonant capacitor adjustment circuit comprises at least a second capacitor (C2); the controller is configured to: when a Q value of the transmit coil (L) is detected, control the resonant capacitor adjustment circuit to operate, so that the first capacitor (C1) and the second capacitor (C2) are connected in parallel; the Q value detection circuit is configured to obtain a voltage signal representing a Q value, and send the voltage signal to the controller ; and the controller is configured to obtain the Q value based on the voltage signal, and when the Q value is greater than a preset threshold, determine that a stylus is attached to the electronic device.
An optical device for analyzing a gas composition comprising: - an excitation radiation emitter comprising a multimode laser source configured to emit a laser beam; - an analysis cell suitable for containing a gas, said analysis cell having an inlet duct , through which a gas can flow to the inside of said analysis cell , and an outlet duct , through which the gas can flow out from the analysis cell ; said analysis cell comprising a focusing lens , suitable for focusing said laser beam in a focal area inside the analysis cell , said focal area acting as a source for Raman radiation collected in a direction perpendicular to the direction of the beam, said analysis cell comprising a window and/or lens suitable to be crossed by said Raman radiation, - an imaging group for the Raman source and a spectrograph ; said imaging group being suitable for forming an image of the Raman source as input to said spectrograph ; and - a detector suitable for collecting the image of the spectrum formed by the spectrograph , and characterized in that : - the seal for the gas inside said analysis cell is obtained, in correspondence with the entry of the laser beam into said analysis cell , by means of said focusing lens , - said analysis cell comprises a laser beam stopper suitable for totally absorbing the laser beam without diffusing spurious radiation, and - the focusing lens being provided on a wall of the cell which faces a wall of the cell in which the beam stopper is mounted. - an excitation radiation emitter comprising a multimode laser source configured to emit a laser beam; - an analysis cell suitable for containing a gas, said analysis cell having an inlet duct , through which a gas can flow to the inside of said analysis cell , and an outlet duct , through which the gas can flow out from the analysis cell ; said analysis cell comprising a focusing lens , suitable for focusing said laser beam in a focal area inside the analysis cell , said focal area acting as a source for Raman radiation collected in a direction perpendicular to the direction of the beam, said analysis cell comprising a window and/or lens suitable to be crossed by said Raman radiation, - an imaging group for the Raman source and a spectrograph ; said imaging group being suitable for forming an image of the Raman source as input to said spectrograph ; and - a detector suitable for collecting the image of the spectrum formed by the spectrograph , - the seal for the gas inside said analysis cell is obtained, in correspondence with the entry of the laser beam into said analysis cell , by means of said focusing lens , - said analysis cell comprises a laser beam stopper suitable for totally absorbing the laser beam without diffusing spurious radiation, and - the focusing lens being provided on a wall of the cell which faces a wall of the cell in which the beam stopper is mounted.
A method for feeding back data, performed by a base station, and comprising: configuring (S101) a control channel for a user equipment, UE, wherein the control channel is configured to bear feedback information of physical uplink shared channel, PUSCH, data, the PUSCH data is sent by the UE; and sending (S102) the feedback information to the UE via the control channel, characterized in that configuring (S101) the control channel for the UE comprises: agreeing with the UE on configuring the control channel at a fixed time-frequency resource position; wherein, the control channel is configured on first k subcarriers of first X * (subcarrier spacing/15K) symbols every 1ms, X is 15, 30, 60, 120 or 240, and k is 12, 24 or 36; the feedback information is configured for the UE to determine whether to retransmit the PUSCH data, the PUSCH data is retransmitted on a pre-agreed physical resource in response to determining to retransmit the PUSCH data. configuring (S101) a control channel for a user equipment, UE, wherein the control channel is configured to bear feedback information of physical uplink shared channel, PUSCH, data, the PUSCH data is sent by the UE; and sending (S102) the feedback information to the UE via the control channel, characterized in that configuring (S101) the control channel for the UE comprises: agreeing with the UE on configuring the control channel at a fixed time-frequency resource position; wherein, the control channel is configured on first k subcarriers of first X * (subcarrier spacing/15K) symbols every 1ms, X is 15, 30, 60, 120 or 240, and k is 12, 24 or 36; the feedback information is configured for the UE to determine whether to retransmit the PUSCH data, the PUSCH data is retransmitted on a pre-agreed physical resource in response to determining to retransmit the PUSCH data. agreeing with the UE on configuring the control channel at a fixed time-frequency resource position; wherein, the control channel is configured on first k subcarriers of first X * (subcarrier spacing/15K) symbols every 1ms, X is 15, 30, 60, 120 or 240, and k is 12, 24 or 36; the feedback information is configured for the UE to determine whether to retransmit the PUSCH data, the PUSCH data is retransmitted on a pre-agreed physical resource in response to determining to retransmit the PUSCH data.
Multi-beam particle microscope, comprising: a multi-beam particle source configured to create a plurality of primary particle beams ; an objective lens penetrated by beam paths of the plurality of primary particle beams and configured to direct each of the plurality of primary particle beams to an object plane and to focus said primary particle beams there; and a detector arrangement configured to detect intensities of a plurality of electron beams , electrons in the electron beams being created by particles of the primary particle beams at an object that is arrangeable in the object plane ; characterized by a multi-aperture plate arranged between the objective lens and the object plane at a distance from said object plane and having a plurality of openings , wherein different openings of the multi-aperture plate are penetrated by beam paths of different primary particle beams , and wherein the multi-aperture plate comprises a plurality of converters (403; 411; 413), at least one converter of the plurality of converters being provided at each opening of the plurality of openings, the converters being configured to convert backscattered electrons that are created by the primary particle beams at the object and that have higher kinetic energy levels at the object than a predetermined first energy threshold value into electrons that have lower kinetic energy levels at the converter than a predetermined second energy threshold value and that provide electrons which form the electron beams that are detected by the detector arrangement. a multi-beam particle source configured to create a plurality of primary particle beams ; an objective lens penetrated by beam paths of the plurality of primary particle beams and configured to direct each of the plurality of primary particle beams to an object plane and to focus said primary particle beams there; and a detector arrangement configured to detect intensities of a plurality of electron beams , electrons in the electron beams being created by particles of the primary particle beams at an object that is arrangeable in the object plane ; characterized by a multi-aperture plate arranged between the objective lens and the object plane at a distance from said object plane and having a plurality of openings , wherein different openings of the multi-aperture plate are penetrated by beam paths of different primary particle beams , and wherein the multi-aperture plate comprises a plurality of converters (403; 411; 413), at least one converter of the plurality of converters being provided at each opening of the plurality of openings, the converters being configured to convert backscattered electrons that are created by the primary particle beams at the object and that have higher kinetic energy levels at the object than a predetermined first energy threshold value into electrons that have lower kinetic energy levels at the converter than a predetermined second energy threshold value and that provide electrons which form the electron beams that are detected by the detector arrangement.
Method for estimating the externally applied wrench on the robot arm of a robot with a kinematic chain of robot arm members which are coupled by respective joints , wherein the joints are driven by respective motors and wherein the robot comprises a robot controller which is adapted • to control the movement of the robot arm according to data of a robot program, and • to continuously provide • the torque vector τ mot of the joint motors, • the dynamic behavior of the robot arm ,described by H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q , • a torque vector τ grav ( q )which consists of torques due to gravity effects, • the current joint angles q of the robot arm , and • the Jacobian Matrix J of the robot arm which characterizes its kinematic chain, characterized by the following steps: • continuously estimating the friction torque vector τ fric based on a respective friction model of the joints and by using the speed vector q̇ which is derived from the current joint angles q; • continuously determining the external torque vector Text by use of the following equation: τ ext = τ mot − H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q + τ fric , • continuously estimating the externally applied wrench ƒ ext on the robot arm dependent on the current joint angles (q) based on the Jacobian matrix J and the external torque vector τ ext . • to control the movement of the robot arm according to data of a robot program, and • to continuously provide • the torque vector τ mot of the joint motors, • the dynamic behavior of the robot arm ,described by H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q , • a torque vector τ grav ( q )which consists of torques due to gravity effects, • the current joint angles q of the robot arm , and • the Jacobian Matrix J of the robot arm which characterizes its kinematic chain, • the torque vector τ mot of the joint motors, • the dynamic behavior of the robot arm ,described by H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q , • a torque vector τ grav ( q )which consists of torques due to gravity effects, • the current joint angles q of the robot arm , and • the Jacobian Matrix J of the robot arm which characterizes its kinematic chain, • continuously estimating the friction torque vector τ fric based on a respective friction model of the joints and by using the speed vector q̇ which is derived from the current joint angles q; • continuously determining the external torque vector Text by use of the following equation: τ ext = τ mot − H q ⋅ q ̈ + C q q ̇ ⋅ q ̇ + τ grav q + τ fric , • continuously estimating the externally applied wrench ƒ ext on the robot arm dependent on the current joint angles (q) based on the Jacobian matrix J and the external torque vector τ ext .
An apparatus for removing deposit in an aftertreatment system used in internal combustion engine applications for the aftertreatment of engine exhaust gas the apparatus comprising: a deposit determination circuit structured to determine an amount of deposits accumulated in the aftertreatment system; a speed/fuel injection rate control circuit structured to: determine whether a speed of the engine exceeds a speed threshold in response to determining the amount of deposits exceeds a deposit threshold; and increase the speed of the engine, via a first actuator, in response to determining that the speed of the engine does not exceed the speed threshold; a combustion targets determination circuit structured to determine combustion targets for the engine in response to determining the amount of deposits exceeds the deposit threshold; and a modulation circuit structured to modulate an air mass flow for the engine, via a second actuator, based on the determined combustion targets. a deposit determination circuit structured to determine an amount of deposits accumulated in the aftertreatment system; a speed/fuel injection rate control circuit structured to: determine whether a speed of the engine exceeds a speed threshold in response to determining the amount of deposits exceeds a deposit threshold; and increase the speed of the engine, via a first actuator, in response to determining that the speed of the engine does not exceed the speed threshold; determine whether a speed of the engine exceeds a speed threshold in response to determining the amount of deposits exceeds a deposit threshold; and increase the speed of the engine, via a first actuator, in response to determining that the speed of the engine does not exceed the speed threshold; a combustion targets determination circuit structured to determine combustion targets for the engine in response to determining the amount of deposits exceeds the deposit threshold; and a modulation circuit structured to modulate an air mass flow for the engine, via a second actuator, based on the determined combustion targets.