mhurhangee/patent-ind-claim-en huggingface dataset:
Shower device for mounting on a bowl, in particular a toilet, with a fastening area , which has a fastening device for mounting on the bowl, a shower arm with a shower nozzle provided therein for ejecting shower water onto the abdomen of a user of the shower device, which shower arm is connected to the fastening device , a bend portion between the fastening area and the shower arm , a water conduit for supplying the shower water to the shower nozzle , which has a dimensionally stable flow cross-section at least in the bend portion and which undergoes a change in direction of at least 20° in the bend portion with regard to the direction of flow of the water from the fastening area to the shower arm , namely downwards with respect to the mounted position, characterised in that the flow cross-section at least in the bend portion is shorter in the vertical direction than in the horizontal direction in relation to the mounted position and in that the shower device has a latching connection device for latchingly holding the shower arm . a fastening area , which has a fastening device for mounting on the bowl, a shower arm with a shower nozzle provided therein for ejecting shower water onto the abdomen of a user of the shower device, which shower arm is connected to the fastening device , a bend portion between the fastening area and the shower arm , a water conduit for supplying the shower water to the shower nozzle , which has a dimensionally stable flow cross-section at least in the bend portion and which undergoes a change in direction of at least 20° in the bend portion with regard to the direction of flow of the water from the fastening area to the shower arm , namely downwards with respect to the mounted position, characterised in that the flow cross-section at least in the bend portion is shorter in the vertical direction than in the horizontal direction in relation to the mounted position and in that the shower device has a latching connection device for latchingly holding the shower arm .
Volatile substance evaporator device comprising a heat source and a refill including said volatile substances, said heat source being a flame that heats a transmission element which heats said refill for evaporating the volatile substances, and the device comprising a casing , the casing externally covering said transmission element , said casing comprising a hole in the area between the transmission element and the refill , characterized in that said hole is covered by means of a protective grille , and in that said refill comprises an outer ring provided with a projection , wherein said outer ring and said projection are made of a thermally insulating material.
A mobile robot comprising: a main body configured for running in a region; a sensor unit disposed on a front of the main body and configured for sensing an obstacle located at a predetermined distance from the main body by transmitting a sensing signal; a docking signal receiving unit configured for receiving a docking signal that is transmitted from a charging stand ; a running unit configured for controlling running of the main body; and a control unit configured for determining the location of the obstacle in response to the sensing signal, for controlling running in response to the obstacle, and for controlling the running unit to dock with the charging stand in accordance with the docking signal if charging is required, wherein the control unit is configured to control the sensor unit to transmit a sensing signal with a cycle different from a signal transmission cycle of the docking signal, characterized in that the control unit is further configured to determine that a signal is sensed wrong and to stop operation of the sensor unit for a predetermined time when noise is generated due to overlap of the docking signal and the sensing signal. a main body configured for running in a region; a sensor unit disposed on a front of the main body and configured for sensing an obstacle located at a predetermined distance from the main body by transmitting a sensing signal; a docking signal receiving unit configured for receiving a docking signal that is transmitted from a charging stand ; a running unit configured for controlling running of the main body; and a control unit configured for determining the location of the obstacle in response to the sensing signal, for controlling running in response to the obstacle, and for controlling the running unit to dock with the charging stand in accordance with the docking signal if charging is required, wherein the control unit is configured to control the sensor unit to transmit a sensing signal with a cycle different from a signal transmission cycle of the docking signal, characterized in that the control unit is further configured to determine that a signal is sensed wrong and to stop operation of the sensor unit for a predetermined time when noise is generated due to overlap of the docking signal and the sensing signal.
A method for acquiring simultaneous and overlapping optical and charged-particle beam images of a sample mounted on a mechanical scanning stage in a multi-beam microscope; the multi-beam microscope having a first imaging beam comprising charged particles having a first focus, a second imaging beam comprising light having a second focus with a spot size that defines a sample pixel area , the method comprising: aligning the imaging beams on the sample so that the first focus and the second focus overlap at a coincidence point ; locating the sample so as to place a selected object plane at the coincidence point ; specifying a region of interest within the object plane for image acquisition; scanning the sample using the mechanical scanning stage to cover the entire region of interest with the imaging beams ; and recording imaging signals corresponding to the imaging beams while scanning proceeds, whereby the recorded images form pixel-by-pixel simultaneous and overlapping images corresponding to the first and second imaging beams . aligning the imaging beams on the sample so that the first focus and the second focus overlap at a coincidence point ; locating the sample so as to place a selected object plane at the coincidence point ; specifying a region of interest within the object plane for image acquisition; scanning the sample using the mechanical scanning stage to cover the entire region of interest with the imaging beams ; and recording imaging signals corresponding to the imaging beams while scanning proceeds, whereby the recorded images form pixel-by-pixel simultaneous and overlapping images corresponding to the first and second imaging beams .
A mixture, comprising: 86-89 wt% of a methionine hydroxy analog and an oligomer thereof, in which more than 99.95 wt% being monomer, dimer and trimer, and the ratio of monomer: dimer: trimer by weight being 77-80: 18.5-19.5: 3-4; 9.2-13.5 wt% of water; and less than 0.5 wt% of ammonium sulfate and ammonium bisulfate; wherein a viscosity of the mixture at 10°C is lower than 200 mPa·s. 86-89 wt% of a methionine hydroxy analog and an oligomer thereof, in which more than 99.95 wt% being monomer, dimer and trimer, and the ratio of monomer: dimer: trimer by weight being 77-80: 18.5-19.5: 3-4; 9.2-13.5 wt% of water; and less than 0.5 wt% of ammonium sulfate and ammonium bisulfate;
Transport trolley intended to transport a load and comprising: - a base comprising displacement means , - a deck mounted to be translationally mobile on the base in a direction of translation X, - a first motorized system which displaces the deck , - a hexapod platform which comprises a platform and a set of six jacks in which each is mounted articulated between the deck and the platform and in which the platform comprises a plurality of bearing points intended to come under the load , and - a control unit which controls the displacement means , the first motorized system and each jack . - a base comprising displacement means , - a deck mounted to be translationally mobile on the base in a direction of translation X, - a first motorized system which displaces the deck , - a hexapod platform which comprises a platform and a set of six jacks in which each is mounted articulated between the deck and the platform and in which the platform comprises a plurality of bearing points intended to come under the load , and - a control unit which controls the displacement means , the first motorized system and each jack .
A fuel cell system comprising: a fuel cell comprising an anode and a cathode , wherein the anode is configured to output an anode exhaust gas; a condenser configured to receive and condense the anode exhaust gas, to separate water from the anode exhaust gas to form a dried anode exhaust gas , and to separately output the water and the dried anode exhaust gas; a pressure swing adsorption unit configured to receive the dried anode exhaust gas and to output a hydrogen stream and a separate CO 2 stream; an oxidizer configured to receive a first portion of the hydrogen stream from the pressure swing adsorption unit and air from an air supply , and to output an oxidized hydrogen stream ; and a heat exchanger configured to receive and transfer heat from the oxidized hydrogen stream to a cathode inlet stream received by the cathode . a fuel cell comprising an anode and a cathode , wherein the anode is configured to output an anode exhaust gas; a condenser configured to receive and condense the anode exhaust gas, to separate water from the anode exhaust gas to form a dried anode exhaust gas , and to separately output the water and the dried anode exhaust gas; a pressure swing adsorption unit configured to receive the dried anode exhaust gas and to output a hydrogen stream and a separate CO 2 stream; an oxidizer configured to receive a first portion of the hydrogen stream from the pressure swing adsorption unit and air from an air supply , and to output an oxidized hydrogen stream ; and a heat exchanger configured to receive and transfer heat from the oxidized hydrogen stream to a cathode inlet stream received by the cathode .
A device for testing the otolith function in persons, comprising: a mask which can be placed on a person; an inclination sensor whose signals represent the tilt of the mask and/or an acceleration acting on the mask ; an electronic display for displaying an image within the mask , an operating device for sending control signals to the mask , wherein the operating device comprises operating elements with which the image shown on the display can be rotated clockwise or counterclockwise in order to visually adjust a vertically aligned image position, characterized in that the mask is opaque and can be placed on the person in a light-tight manner, that the inclination sensor is integrated into the mask , that the operating device is portable so that the person can manually adjust the image position in any desired position, and that a wireless data transmission device with a bidirectional radio link is provided for transmitting measurement data and the control signals between the mask and the operating device and an evaluation unit . a mask which can be placed on a person; an inclination sensor whose signals represent the tilt of the mask and/or an acceleration acting on the mask ; an electronic display for displaying an image within the mask , an operating device for sending control signals to the mask , wherein the operating device comprises operating elements with which the image shown on the display can be rotated clockwise or counterclockwise in order to visually adjust a vertically aligned image position, characterized in that the mask is opaque and can be placed on the person in a light-tight manner, that the inclination sensor is integrated into the mask , that the operating device is portable so that the person can manually adjust the image position in any desired position, and that a wireless data transmission device with a bidirectional radio link is provided for transmitting measurement data and the control signals between the mask and the operating device and an evaluation unit .
A multifunctional cooking and baking assembly, comprising an upper housing and a lower housing hinged with the upper housing mutually, wherein the upper housing and the lower housing are respectively and internally provided with a chamber , in which a griddle plate is arranged, and wherein the chambers of the upper housing and the lower housing are connected through a connecting passage in which the griddle plate can be placed, wherein said multifunctional cooking and baking assembly is characterized in that the griddle plate is an overall griddle plate extending from the inside of the chamber of the upper housing to the inside of the chamber of the lower housing through the connecting passage when the upper housing and the lower housing rotate to a relative tiled position.
An elevator system , the elevator system comprising: a beam climber system configured to move an elevator car through an elevator shaft by climbing a first guide beam that extends vertically through the elevator shaft , the first guide beam comprising a first surface and a second surface opposite the first surface , the beam climber system comprising: a first wheel ; a first electric motor configured to rotate the first wheel ; and a first compression mechanism configured to compress the first wheel against the first surface ; and characterized by : a wheel decompression system (200; 300; 400; 500) configured to move the first wheel away from the first guide beam . a beam climber system configured to move an elevator car through an elevator shaft by climbing a first guide beam that extends vertically through the elevator shaft , the first guide beam comprising a first surface and a second surface opposite the first surface , the beam climber system comprising: a first wheel ; a first electric motor configured to rotate the first wheel ; and a first compression mechanism configured to compress the first wheel against the first surface ; and characterized by : a first wheel ; a first electric motor configured to rotate the first wheel ; and a first compression mechanism configured to compress the first wheel against the first surface ; and characterized by : a wheel decompression system (200; 300; 400; 500) configured to move the first wheel away from the first guide beam .
A resin-integrated carbon fiber sheet , comprising: a carbon fiber sheet comprising carbon fibers in which a carbon fiber filament group is spread and arrayed in parallel in one direction; resin that is present on part of a surface of the carbon fiber sheet ; and bridging fibers (3; 3a, 3b) that are carbon fibers, wherein one or more of the bridging fibers (3; 3a, 3b) is present on average on a surface of the carbon fiber sheet in a direction across the carbon fiber sheet per 10 mm 2 of the sheet, the resin on the surface adhesively fixes the bridging fibers (3; 3a, 3b) to the carbon fiber sheet , the resin melt solidified adheres to the surface of the spread carbon fiber sheet in a state of not being impregnated inside the carbon fiber sheet or being partially impregnated in the carbon fiber sheet , the resin integrated carbon fiber sheet comprises the carbon fibers in an amount of 30 to 70% by volume based on 100% by volume of the resin integrated carbon fiber sheet , and through formation of a fiber reinforced resin molded product using the resin integrated carbon fiber sheet , the resin is impregnated into the entire carbon fiber sheet and serves as a matrix resin. a carbon fiber sheet comprising carbon fibers in which a carbon fiber filament group is spread and arrayed in parallel in one direction; resin that is present on part of a surface of the carbon fiber sheet ; and bridging fibers (3; 3a, 3b) that are carbon fibers, wherein one or more of the bridging fibers (3; 3a, 3b) is present on average on a surface of the carbon fiber sheet in a direction across the carbon fiber sheet per 10 mm 2 of the sheet, the resin on the surface adhesively fixes the bridging fibers (3; 3a, 3b) to the carbon fiber sheet , the resin melt solidified adheres to the surface of the spread carbon fiber sheet in a state of not being impregnated inside the carbon fiber sheet or being partially impregnated in the carbon fiber sheet , the resin integrated carbon fiber sheet comprises the carbon fibers in an amount of 30 to 70% by volume based on 100% by volume of the resin integrated carbon fiber sheet , and through formation of a fiber reinforced resin molded product using the resin integrated carbon fiber sheet , the resin is impregnated into the entire carbon fiber sheet and serves as a matrix resin.
A method for producing a sulfide solid-state battery , the method comprising: a first step of doping at least one material selected from graphite and lithium titanate with lithium, to obtain a predoped material ; a second step of mixing a sulfide solid electrolyte , a silicon-based active material , and the predoped material , to obtain an anode mixture ; and a third step of layering the anode mixture over a surface of an anode current collector that contains copper, to obtain an anode , wherein a ratio (X/Y) of a converted value (X) obtained by converting a total amount of lithium with which the predoped material included in the anode mixture is being doped, into capacity, to a total capacity (Y) of the silicon-based active material contained in the anode mixture is no less than 0.0005. a first step of doping at least one material selected from graphite and lithium titanate with lithium, to obtain a predoped material ; a second step of mixing a sulfide solid electrolyte , a silicon-based active material , and the predoped material , to obtain an anode mixture ; and a third step of layering the anode mixture over a surface of an anode current collector that contains copper, to obtain an anode , wherein a ratio (X/Y) of a converted value (X) obtained by converting a total amount of lithium with which the predoped material included in the anode mixture is being doped, into capacity, to a total capacity (Y) of the silicon-based active material contained in the anode mixture is no less than 0.0005.
A vascular stent, which is characterized by comprising a flexible light-transmitting body , the flexible light-transmitting body being provided with a hardenable channel , the hardenable channel being arranged in the circumferential direction and the axial direction of the flexible light-transmitting body , wherein the hardenable channel is used for filling a liquid photocuring supporting material , and the liquid photocuring supporting material is cured after being illuminated so as to radially support the flexible light-transmitting body ; the flexible light-transmitting body is made of flexibility and light transmission material, and the flexible light-transmitting body may be expanded and fitted to an inner wall of a blood vessel by conveying the liquid photocuring supporting material into the flexible light-transmitting body .
A crystalline compound comprising titanium, magnesium, oxygen and fluorine, the crystalline compound having an X-ray diffraction (XRD) pattern having interplanar spacing (d-spacing) values at about 5.94, 3.10, 2.97, 2.10, 1.98, 1.82, and 1.74 ± 0.1 angstroms and further having a cubic symmetry and a lattice parameter from about 10.225 angstroms to about 10.325 angstroms, wherein the oxygen is present at about 30 at% to about 45 at% and the fluorine is present at about 30 at% to about 40 at%, where at% provides the percentage of one kind of atom relative to the total number of atoms in the crystalline compound.
Facemask such as a fabric or surgical mask, having a number of fixtures, each including a brace for clipping onto an upper edge of the facemask and a pad joined to the brace for sealing the edge against a facial area such as a cheek, characterized in that the number of fixtures is two and the pad has a narrow upper rim . having a number of fixtures, each including a brace for clipping onto an upper edge of the facemask and a pad joined to the brace for sealing the edge against a facial area such as a cheek, characterized in that the number of fixtures is two and the pad has a narrow upper rim .
A method of correcting defects appearing in an image produced by an image sensor (IS), the method comprising the steps of: receiving an image to be corrected (IM), taken by the image sensor, receiving a temperature (TP) from the image sensor, acquired when the image to be corrected is taken by the image sensor, receiving an integration time (IT) applied by the image sensor when taking the image to be corrected, and for each pixel (px[i,j]) of the image to be corrected, subtracting from the pixel value a pixel-specific noise correction factor (bm[i,j]) derived from a noise reduction model comprising a linear component dependent on the temperature of the image sensor, added to an exponential component depending on the temperature of the image sensor and multiplied by the integration time, the linear and exponential components depending on coefficients (ab[i,j], bb[i,j], ad[i,j], bd[i,j]) specific to the pixel, wherein it further comprises the steps of acquiring by the image sensor (IS) images (DIM) in the absence of light with the minimum integration time (IT0), each image being taken at a distinct respective temperature, and determining, for each pixel of the image to be corrected, the coefficients (ab[i,j], bb[i,j]) of the linear component, by linear regression (LR) calculations applied to corresponding pixels in the images (DIM) in the absence of light taken at the respective temperatures. receiving an image to be corrected (IM), taken by the image sensor, receiving a temperature (TP) from the image sensor, acquired when the image to be corrected is taken by the image sensor, receiving an integration time (IT) applied by the image sensor when taking the image to be corrected, and for each pixel (px[i,j]) of the image to be corrected, subtracting from the pixel value a pixel-specific noise correction factor (bm[i,j]) derived from a noise reduction model comprising a linear component dependent on the temperature of the image sensor, added to an exponential component depending on the temperature of the image sensor and multiplied by the integration time, the linear and exponential components depending on coefficients (ab[i,j], bb[i,j], ad[i,j], bd[i,j]) specific to the pixel, acquiring by the image sensor (IS) images (DIM) in the absence of light with the minimum integration time (IT0), each image being taken at a distinct respective temperature, and determining, for each pixel of the image to be corrected, the coefficients (ab[i,j], bb[i,j]) of the linear component, by linear regression (LR) calculations applied to corresponding pixels in the images (DIM) in the absence of light taken at the respective temperatures.