mhurhangee/patent-ind-claim-en huggingface dataset:
A washing machine, comprising an inner drum , wherein an axis of the inner drum extends horizontally or gradually inclines downward from front to rear, and an inner drum cover arranged at a drum opening of the inner drum of the washing machine; wherein, the inner drum cover is used to open or close the drum opening ; and the inner drum is a closed container after the drum opening is closed by the inner drum cover ; the inner drum is provided with a first drain opening , and a drain valve is installed at the first drain opening ; characterized in that the washing machine is provided with a positioning and locking mechanism for fixing the inner drum when the inner drum rotates to a fixed drainage position; the washing machine is provided with a valve plug opening mechanism for opening the drain valve after the inner drum rotates to the fixed drainage position, so that when the washing machine drains water, and after the inner drum rotates to the fixed drainage position, the drain valve is configured to be opened to drain away washing water in the inner drum . an axis of the inner drum extends horizontally or gradually inclines downward from front to rear, and an inner drum cover arranged at a drum opening of the inner drum of the washing machine; wherein, the inner drum cover is used to open or close the drum opening ; and the inner drum is a closed container after the drum opening is closed by the inner drum cover ; the inner drum is provided with a first drain opening , and a drain valve is installed at the first drain opening ; characterized in that the washing machine is provided with a positioning and locking mechanism for fixing the inner drum when the inner drum rotates to a fixed drainage position; the washing machine is provided with a valve plug opening mechanism for opening the drain valve after the inner drum rotates to the fixed drainage position, so that when the washing machine drains water, and after the inner drum rotates to the fixed drainage position, the drain valve is configured to be opened to drain away washing water in the inner drum .
Dialysis machine, which is configured to be equipped with an extracorporeal blood system, comprising a dialysis solution system which is configured to be equipped with a dialyzer, wherein a mixing region, in particular a mixing chamber , is provided in which the fresh dialysis solution or a component thereof is located in the operation of the dialysis machine, wherein a concentrate line is in fluid communication with the mixing region, through which concentrate line concentrate can be conducted from a concentrate container into the mixing region, wherein at least two electrically conductive elements (S1, S2, S3, S4) are arranged spaced apart from one another in or at the concentrate line or lines , a measuring device is provided which is electrically connected to the conductive elements (S1, S2, S3, S4) and which is configured to measure the conductance or a value correlated therewith between them, and a control unit is provided which is configured to compare the measured value with a desired value, a limit value, or a desired value range, wherein the control unit is configured to initiate a special operating mode of the dialysis machine when the measured value does not agree with the desired value, exceeds or falls below a limit value, or is not in a desired value range, wherein the control unit is configured such that the special operating mode comprises a special air separation differing from normal operation and/or the flushing of the dialysis solution system or a part thereof, characterized in that the control unit is configured such that the flushing of the dialysis solution system or a part thereof only takes place after the special air separation.
An imaging element comprising a pixel array unit including a plurality of pixels (51; 451) configured to perform photoelectric conversion of light having entered, wherein each of the pixels (51; 451) includes: a substrate (61; 461) configured to perform photoelectric conversion of the light having entered; a first signal extraction portion (65-1, 65-2; 462-1, 462-2) including an application electrode to generate an electric field by application of a voltage and an attraction electrode (71-1, 71-2) to detect a signal carrier generated by photoelectric conversion; a second signal extraction portion (65-1, 65-2; 462-1, 462-2) including the application electrode and the attraction electrode (71-1, 71-2); and a converging portion (62; 111; 131; 151; 171; 191; 211; 231; 251; 411; 412; 464) that is formed on the substrate (61; 461) and configured to cause the light to enter the substrate (61; 461), characterised in that the converging portion includes a first converging portion configured to converge the light between the first signal extraction portion (65-1, 65-2) and the second signal extraction portion (65-1, 65-2) of each of the pixels , and a second converging portion configured to converge the light between the first signal extraction portion (65-1, 65-2) of each of the pixels and the second signal extraction portion (65-1, 65-2) of an adjacent pixel adjacent to each of the pixels , or between the second signal extraction portion (65-1, 65-2) of each of the pixels and the first signal extraction portion (65-1, 65-2) of the adjacent pixel . a substrate (61; 461) configured to perform photoelectric conversion of the light having entered; a first signal extraction portion (65-1, 65-2; 462-1, 462-2) including an application electrode to generate an electric field by application of a voltage and an attraction electrode (71-1, 71-2) to detect a signal carrier generated by photoelectric conversion; a second signal extraction portion (65-1, 65-2; 462-1, 462-2) including the application electrode and the attraction electrode (71-1, 71-2); and a converging portion (62; 111; 131; 151; 171; 191; 211; 231; 251; 411; 412; 464) that is formed on the substrate (61; 461) and configured to cause the light to enter the substrate (61; 461), characterised in that the converging portion includes a first converging portion configured to converge the light between the first signal extraction portion (65-1, 65-2) and the second signal extraction portion (65-1, 65-2) of each of the pixels , and a second converging portion configured to converge the light between the first signal extraction portion (65-1, 65-2) of each of the pixels and the second signal extraction portion (65-1, 65-2) of an adjacent pixel adjacent to each of the pixels , or between the second signal extraction portion (65-1, 65-2) of each of the pixels and the first signal extraction portion (65-1, 65-2) of the adjacent pixel .
Underwater lighting device for the inspection of a nuclear reactor equipment, wherein the lighting device comprises at least one support elongated in an extension direction (A), designed to be inserted into a space of the nuclear reactor equipment to be inspected and provided with light sources carried by the support for illuminating the space in which the support is inserted, wherein the support is designed to be inserted between two rows of nuclear fuel rods of a nuclear fuel assembly and/or to be inserted into a space defined between tubes of a plurality of parallel tubes of a steam generator.
A biopolymer property analysis chip comprising: - a solid state substrate having a first thin film part and a second thin film part , wherein the solid state substrate has a window where the first thin film part of the solid state substrate is exposed; - at least two electroconductive thin films disposed on the first thin film part of the solid state substrate wherein the second thin film part of the solid state substrate is disposed on the at least two electroconductive thin films ; and - at least one nanopore formed in the first thin film part of the solid state substrate and the second thin film part of the solid state substrate ; wherein the electroconductive thin films are disposed where the at least one nanopore is formed, and wherein the electroconductive thin films have an acute-angled edge , the acute-angled edge being disposed facing the opening of the nanopore , and a biopolymer which has penetrated into the at least one nanopore is configured to generate a Raman scattered light when irradiated with an external light, wherein, when the external light is irradiated on the electroconductive thin films , the electroconductive thin films are configured to generate a near field at the edge facing the opening of the nanopore , and the biopolymer which has penetrated into the at least one nanopore is configured to generate a Raman scattered light and wherein the electroconductive thin films are disposed in the middle depth of the nanopore along its central axis on the solid state substrate ; wherein the biopolymer property analysis chip further comprises: - a light source; and - a one-dimensional or two-dimensional detector with frame rate of 1 kHz or more, wherein, in use, external light is irradiated on the analysis chip from the light source, and a Raman scattered light from the biopolymer at the analysis chip is detected using - a solid state substrate having a first thin film part and a second thin film part , wherein the solid state substrate has a window where the first thin film part of the solid state substrate is exposed; - at least two electroconductive thin films disposed on the first thin film part of the solid state substrate wherein the second thin film part of the solid state substrate is disposed on the at least two electroconductive thin films ; and - at least one nanopore formed in the first thin film part of the solid state substrate and the second thin film part of the solid state substrate ; wherein - a light source; and - a one-dimensional or two-dimensional detector with frame rate of 1 kHz or more, wherein, in use, external light is irradiated on the analysis chip from the light source, and a Raman scattered light from the biopolymer at the analysis chip is detected using
A kidney dialyser defining a water circuit, including: a tank containing a volume of liquid; a sensor arranged to sense the temperature of the volume of liquid; a heater arranged to heat the volume of liquid from an initial temperature to exceed a threshold temperature, and maintain the volume of liquid above the threshold temperature; and a processor, characterised in that the processor is configured to determine a time-temperature value for the volume of liquid periodically once the threshold temperature has been exceeded and calculate a cumulative time-temperature value so as to provide an output signal once a cumulative time-temperature value indicative of a sanitizing dose is reached. a tank containing a volume of liquid; a sensor arranged to sense the temperature of the volume of liquid; a heater arranged to heat the volume of liquid from an initial temperature to exceed a threshold temperature, and maintain the volume of liquid above the threshold temperature; and a processor, characterised in that the processor is configured to determine a time-temperature value for the volume of liquid periodically once the threshold temperature has been exceeded and calculate a cumulative time-temperature value so as to provide an output signal once a cumulative time-temperature value indicative of a sanitizing dose is reached.
A temperature sensor comprising a sensor unit formed on a flexible substrate , wherein the flexible substrate includes a first portion which is located at an end portion (X) of the flexible substrate and in which the sensor unit is formed, and a second portion adjacent to the first portion in a distal direction from the end portion (X) and having a maximum thickness (d 2 ) between a first surface (A 2 ) and a second surface (B 2 ) facing each other, a surface (A 1 ) of the first portion opposite to the sensor unit and the first surface (A 2 ) of the second portion being on the same plane, at least the first surface (A 2 ) of the second portion forming a detection surface in contact with an object whose temperature is to be detected, and a total thickness (d 1 ) of the first portion and the sensor unit being smaller than the maximum thickness (d 2 ) of the second portion .
Hairstyling device comprising a blower module for generating an air flow, a blower head , an electronic module , which electronic module is housed within said blower head , and a bypass channel designed to capture a portion of the air flow generated by the blower module in order to cool said electronic module , the hairstyling device comprising a handle , which extends between a first end and a second opposite end , said blower head being connected to the handle at said second end , said blower module being arranged within said handle or being assembled to the handle at said first end , characterized in that said bypass channel extends at least partially into said handle .
Indexing plunger , comprising a sleeve element and a functional element , the functional element comprising a bolt element which is guided in the sleeve element in an axially movable manner and a grip element which is rigidly connected to the bolt element , the functional element being axially preloaded, by means of a spring device , into a base position in which the bolt element axially protrudes from the sleeve element and in which a contact surface of the grip element rests against a counter surface of the sleeve element , and it being possible for the functional element to be moved axially counter to the action of the spring device into a retracted position in which the bolt element axially protrudes from the sleeve element to a lesser extent or is axially retracted into the sleeve element , and in which the contact surface is lifted from the counter surface , characterized in that the indexing plunger has an electronic measuring assembly arranged in the grip element , the measuring assembly comprising - at least one sensor device for generating a measurement signal which is dependent on the axial position of the functional element relative to the sleeve element , - a transmission device for wirelessly transmitting information about the measurement signal, - and an energy storage device for supplying the sensor device and the transmission device with electric current. - at least one sensor device for generating a measurement signal which is dependent on the axial position of the functional element relative to the sleeve element , - a transmission device for wirelessly transmitting information about the measurement signal, - and an energy storage device for supplying the sensor device and the transmission device with electric current.
Ear protector comprising an earpiece with a sound damping filter , comprising a membrane mounted on a membrane support , wherein the membrane support is mounted in a sound channel of the ear protector connecting an inside and outside of the ear protector , characterized in that the membrane is composed of a non-porous material enabling water vapour molecules to be transported through the membrane from the inside to the outside of the ear protector by way of absorption and evaporation process and preventing the transmission of water from the outside to the inside of the ear protector.
A computer-implemented method for securely establishing secretless and remote native access sessions to access one or more target resources the method comprising: identifying a client configured to participate in remote native access sessions, wherein the client has a remote access protocol file , said remote access protocol file being stored in a memory of the client device that has been modified to include an identifier associated with the client wherein the identifier does not include credentials required to access the one or more target resources and the identifier does not specifically identify the one or more target resources ; sending a prompt to the client to establish a secure tunnel connection with a connection agent using the identifier associated with the client and included in the remote access protocol file; authenticating the client; accessing target identity information associated with the one or more target resources receiving from the client a token that identifies a target resource from among the one or more target resources ; obtaining , based on the token, a credential required for secure access to the target resource ; and initiating , using the credential, a remote native access session between the client and the target resource . identifying a client configured to participate in remote native access sessions, wherein the client has a remote access protocol file , said remote access protocol file being stored in a memory of the client device that has been modified to include an identifier associated with the client wherein the identifier does not include credentials required to access the one or more target resources and the identifier does not specifically identify the one or more target resources ; sending a prompt to the client to establish a secure tunnel connection with a connection agent using the identifier associated with the client and included in the remote access protocol file; authenticating the client; accessing target identity information associated with the one or more target resources receiving from the client a token that identifies a target resource from among the one or more target resources ; obtaining , based on the token, a credential required for secure access to the target resource ; and initiating , using the credential, a remote native access session between the client and the target resource .
Rack for a welding device, in particular a laser welding device or an infrared welding device or a vibration welding device or an ultrasonic welding device, comprising the following features: a. a double frame having at least two vertical columns being fastened on a base plate as well as extending parallel to each other and being arranged next to each other, and each having a cantilever being fastened to the vertical columns , b. at least one table that is displaceable parallel to the vertical columns and guided parallel at the two vertical columns , c. a C-shaped drive unit , comprising a first and a second flange being linearly movable relative to each other at a connecting vertical leg , wherein a distance between the first and the second flange is changeable with the drive unit in the direction of the vertical leg , wherein d. the C-shaped drive unit is arranged between the vertical column of the double frame and e. the table is movable by means of a connection between the first flange and the table of the double frame relative against a rigid counter bearing or against a further moveable table of the double frame , wherein the counter bearing or the second table is connected with the second flange . a. a double frame having at least two vertical columns being fastened on a base plate as well as extending parallel to each other and being arranged next to each other, and each having a cantilever being fastened to the vertical columns , b. at least one table that is displaceable parallel to the vertical columns and guided parallel at the two vertical columns , c. a C-shaped drive unit , comprising a first and a second flange being linearly movable relative to each other at a connecting vertical leg , wherein a distance between the first and the second flange is changeable with the drive unit in the direction of the vertical leg , wherein d. the C-shaped drive unit is arranged between the vertical column of the double frame and e. the table is movable by means of a connection between the first flange and the table of the double frame relative against a rigid counter bearing or against a further moveable table of the double frame , wherein the counter bearing or the second table is connected with the second flange .
Lubricating device for applying a lubricant when rolling a rolling material, the lubricating device comprising - an extruded profile with two oppositely disposed ends between which a plurality of lubricant ducts , which are open to both profile ends , and at least one carrier-medium duct , which is open to both profile ends , extend through the extruded profile , - a connection block for at least one profile end , which connection block is connected to the extruded profile at the ends and has lubricant connecting ducts which in each case are connected to a lubricant duct of the extruded profile , and - nozzles , connected to the extruded profile , which in each case are connected to a lubricant duct and to at least one carrier-medium duct of the extruded profile and are designed for creating and delivering a lubricant-carrier medium mixture consisting of lubricant and a carrier medium. - an extruded profile with two oppositely disposed ends between which a plurality of lubricant ducts , which are open to both profile ends , and at least one carrier-medium duct , which is open to both profile ends , extend through the extruded profile , - a connection block for at least one profile end , which connection block is connected to the extruded profile at the ends and has lubricant connecting ducts which in each case are connected to a lubricant duct of the extruded profile , and - nozzles , connected to the extruded profile , which in each case are connected to a lubricant duct and to at least one carrier-medium duct of the extruded profile and are designed for creating and delivering a lubricant-carrier medium mixture consisting of lubricant and a carrier medium.
A method for making a ceragenin particulate material having a particle size distribution with a median particle size in the range of 100 nm to 15 μm: providing a ceragenin feed material comprised of ceragenin molecules, each ceragenin molecule having a sterol backbone and a plurality of cationic groups attached thereto; and fracturing the ceragenin feed material in a milling apparatus selected from jet mill or ball mill to produce ceragenin particles having a particle size distribution with a median particle size in a range of 100 nm to 15 μm, the ceragenin particles comprising agglomerates of sub-particles, the sub-particles having an average particle size of less than 750 nm, and the agglomerates having a median particle size in a range of 1 μm to 20 μm, wherein during fracturing the ceragenin feed material has a moisture content of less than or equal to 10% by weight, wherein the milling apparatus fluidizes coarse ceragenin material using a fluidizing gas and the fluidizing gas has a moisture content sufficiently low so as to prevent the fluidizing gas from increasing the moisture content of the ceragenin feed material to a moisture content greater than 10% by weight. providing a ceragenin feed material comprised of ceragenin molecules, each ceragenin molecule having a sterol backbone and a plurality of cationic groups attached thereto; and fracturing the ceragenin feed material in a milling apparatus selected from jet mill or ball mill to produce ceragenin particles having a particle size distribution with a median particle size in a range of 100 nm to 15 μm, the ceragenin particles comprising agglomerates of sub-particles, the sub-particles having an average particle size of less than 750 nm, and the agglomerates having a median particle size in a range of 1 μm to 20 μm, wherein during fracturing the ceragenin feed material has a moisture content of less than or equal to 10% by weight, wherein the milling apparatus fluidizes coarse ceragenin material using a fluidizing gas and the fluidizing gas has a moisture content sufficiently low so as to prevent the fluidizing gas from increasing the moisture content of the ceragenin feed material to a moisture content greater than 10% by weight.