mhurhangee/patent-ind-claim-en huggingface dataset:
Actuation plate for actuating at least one flush valve of a sanitary installation, said actuation plate comprising an electronic control device and a detector for detecting a distance of a body from an actuation side (A) of the actuation plate from which the actuation plate can be actuated, wherein the control device is configured to a output a control command to control the flush valve to deliver a volume of water, in dependence of the detected distance of the body, wherein the actuation side (A) comprises a first and a second surface section which are offset relative to each other along the actuation side (A), wherein the control device is configured to detect, by means of the detector, a respective distance of the body to the first and to the second surface section (41 42), wherein in a first operating mode that can be set in the control device, the control device is configured to output, in a state ready for flushing, a first control command for controlling the flush valve to deliver a first volume water when a first distance of the body to the first surface section is detected and to output a second control command for controlling the flush valve to deliver a second volume of water, when a second distance of the body to the second surface section is detected, wherein the actuation plate comprises a third surface section that is arranged along the actuation side (A), characterized in that , in a second operating mode that can be set alternatively to the first operating mode in the control device, the control device is configured to output, in the state ready for flushing, a third control command for controlling the flush valve to deliver a third volume of water when a third distance of the body to the third surface section is detected, wherein, in particular, the third surface section extends between the first and the second surface section (41 42).
A method for providing a web service of a user terminal device, the method comprising: connecting the user terminal device to a plurality of IoT devices and a web server which provides a plurality of web services; setting at the user terminal device , at least one of the plurality of web services provided by the web server based on a received user command; identifying at least one IoT device of the plurality of IoT devices based on the set web service; transmitting, from the user terminal device, address information of the set web service to the identified IoT device ; downloading, by the IOT device, based on the received address information, script information corresponding to the set web service, wherein the script information includes information on a predetermined state of the identified IoT device and URL information corresponding to the predetermined state of the identified IoT device , receiving, from the identified IoT device , by the user terminal device , the URL information corresponding to the predetermined state from the IoT device in response to sensing the predetermined state based on the script information by the IoT device; and providing, by the user terminal device , the set web service based on the received URL information connecting the user terminal device to a plurality of IoT devices and a web server which provides a plurality of web services; setting at the user terminal device , at least one of the plurality of web services provided by the web server based on a received user command; identifying at least one IoT device of the plurality of IoT devices based on the set web service; transmitting, from the user terminal device, address information of the set web service to the identified IoT device ; downloading, by the IOT device, based on the received address information, script information corresponding to the set web service, wherein the script information includes information on a predetermined state of the identified IoT device and URL information corresponding to the predetermined state of the identified IoT device , receiving, from the identified IoT device , by the user terminal device , the URL information corresponding to the predetermined state from the IoT device in response to sensing the predetermined state based on the script information by the IoT device; and providing, by the user terminal device , the set web service based on the received URL information
A method of communicating in a mobile communications system by a mobile communications terminal, the method comprising: encoding a plurality of bits of user data by selecting one random access preamble from a set of random access preambles, wherein each of the random access preambles is represented as an n-bit number and each of the plurality of bits of the user data is a bit in the n-bit number representing the selected random access preamble, and encoding an additional bit of said user data by selecting one sub-frame from a pair of sub-frames, and transmitting, to a base station of the mobile communications system via a radio interface provided by the base station, the selected random access preamble within an uplink random access channel in the selected sub-frame, to represent the user data, wherein the step of selecting the sub-frame comprises: selecting between a first sub-frame in the pair and a second sub-frame in the pair to represent said additional bit of the user data. encoding a plurality of bits of user data by selecting one random access preamble from a set of random access preambles, wherein each of the random access preambles is represented as an n-bit number and each of the plurality of bits of the user data is a bit in the n-bit number representing the selected random access preamble, and encoding an additional bit of said user data by selecting one sub-frame from a pair of sub-frames, and transmitting, to a base station of the mobile communications system via a radio interface provided by the base station, the selected random access preamble within an uplink random access channel in the selected sub-frame, to represent the user data, wherein the step of selecting the sub-frame comprises: selecting between a first sub-frame in the pair and a second sub-frame in the pair to represent said additional bit of the user data.
Process for the preparation of particles comprising at least one compound according to general formula (I) M 1 a M 2 b M 3 c O o N n F f (I) wherein M 1 , M 2 , M 3 O, N, F, a, b, c, o, n and f have the following meanings: M 1 at least one alkaline metal, M 2 at least one transition metal in oxidation state +2, M 3 at least one non-metal chosen form S, Se, P, As, Si, Ge and/or B, O oxygen, N nitrogen, F fluorine, a 0.8 - 4.2, b 0.8 - 1.9, c 0.8 - 2.2, o 1.0 - 8.4, n 0 - 2.0 and f 0 - 2.0, wherein a, b, c, o, n and f are chosen to ensure electroneutrality of the compound according to general formula (I), and carbon, comprising at least the following steps: (A) providing an essentially aqueous mixture comprising at least one compound comprising M 1 , at least one compound comprising M 2 having at least partially an oxidation state higher than +2, optionally at least one compound comprising M 3 , at least one compound comprising N, if present, and/or at least one compound comprising F, if present, at least one polysaccharide comprising glucose having a molecular weight M of at least 50000 g/mol as carbon precursor and at least one reducing agent, selected from the group consisting of hydrazine or derivatives thereof, hydroxyl amine or derivatives thereof, alcohols, ascorbic acid, and compounds comprising phosphorous atoms in oxidation state +3, and mixtures thereof, and at least one mono- and/or disaccharide, (B) drying the mixture provided in step (A), in order to obtain a solid particle and (C) calcining the solid particle obtained from step (B) at a temperature of 300 to 950 °C. M 1 at least one alkaline metal, M 2 at least one transition metal in oxidation state +2, M 3 at least one non-metal chosen form S, Se, P, As, Si, Ge and/or B, O oxygen, N nitrogen, F fluorine, a 0.8 - 4.2, b 0.8 - 1.9, c 0.8 - 2.2, o 1.0 - 8.4, n 0 - 2.0 and f 0 - 2.0, (A) providing an essentially aqueous mixture comprising at least one compound comprising M 1 , at least one compound comprising M 2 having at least partially an oxidation state higher than +2, optionally at least one compound comprising M 3 , at least one compound comprising N, if present, and/or at least one compound comprising F, if present, at least one polysaccharide comprising glucose having a molecular weight M of at least 50000 g/mol as carbon precursor and at least one reducing agent, selected from the group consisting of hydrazine or derivatives thereof, hydroxyl amine or derivatives thereof, alcohols, ascorbic acid, and compounds comprising phosphorous atoms in oxidation state +3, and mixtures thereof, and at least one mono- and/or disaccharide, (B) drying the mixture provided in step (A), in order to obtain a solid particle and (C) calcining the solid particle obtained from step (B) at a temperature of 300 to 950 °C.
A metal insulator semiconductor field-effect transistor , MISFET, comprising: a semiconductor layer in which a source region , a channel region , and a drain region that have either an N-type or P-type conductivity in common are formed; and a gate electrode disposed adjacent to the channel region via a gate insulating film , wherein the gate insulating film is made of a dielectric whose relative dielectric constant changes in response to changes in electric field intensity, here referred to as nonlinearly responding dielectric, constituted by any one of: a superlattice structure formed by laminating layers of a metal oxide having a perovskite-type crystalline structure, a metal oxide having a fluorite-type crystalline structure, and a metal oxide having the perovskite-type crystalline structure of a different kind; a superlattice structure formed by laminating layers of metal oxides having the fluorite-type crystalline structure of different kinds; and a superlattice structure formed by laminating layers of a metal oxide having the perovskite-type crystalline structure and a metal oxide having the fluorite-type crystalline structure, wherein the metal insulator semiconductor field-effect transistor operates as a normal-off type. a semiconductor layer in which a source region , a channel region , and a drain region that have either an N-type or P-type conductivity in common are formed; and a gate electrode disposed adjacent to the channel region via a gate insulating film , wherein the gate insulating film is made of a dielectric whose relative dielectric constant changes in response to changes in electric field intensity, here referred to as nonlinearly responding dielectric, constituted by any one of: a superlattice structure formed by laminating layers of a metal oxide having a perovskite-type crystalline structure, a metal oxide having a fluorite-type crystalline structure, and a metal oxide having the perovskite-type crystalline structure of a different kind; a superlattice structure formed by laminating layers of metal oxides having the fluorite-type crystalline structure of different kinds; and a superlattice structure formed by laminating layers of a metal oxide having the perovskite-type crystalline structure and a metal oxide having the fluorite-type crystalline structure, a superlattice structure formed by laminating layers of a metal oxide having a perovskite-type crystalline structure, a metal oxide having a fluorite-type crystalline structure, and a metal oxide having the perovskite-type crystalline structure of a different kind; a superlattice structure formed by laminating layers of metal oxides having the fluorite-type crystalline structure of different kinds; and a superlattice structure formed by laminating layers of a metal oxide having the perovskite-type crystalline structure and a metal oxide having the fluorite-type crystalline structure, wherein the metal insulator semiconductor field-effect transistor operates as a normal-off type.
A reciprocating engine , comprising: a cylinder liner having an inner wall and extending around a cavity , wherein the inner wall comprises a first axial end , a second axial end , a piston travel portion , and a top portion , wherein the top portion is nearer to the first axial end of the cylinder liner than to the second axial end of the cylinder liner, the top portion comprises a first surface finish, the first surface finish comprises a first roughness (Ra 1 ) greater than approximately 2 μm and a total waviness (W t ) less than approximately 0.1 mm, and wherein the first roughness (Ra 1 ) and the total waviness (Wt) are based on a characteristic length of approximately 0.8 mm; and a piston disposed within the cavity and configured to move in a reciprocating manner within the cylinder liner , wherein the piston comprises a top land configured to be radially opposite the top portion of the inner wall of the cylinder liner when the piston is at a top dead center position, a second surface finish of the top land of the piston comprises a second roughness average (Ra 2 ) less than approximately 2 μm, wherein the second roughness (Ra 2 ) is less than the first roughness (Ra 1 ), and the second roughness (Ra 2 ) is based on the characteristic length of approximately 0.8 mm. a cylinder liner having an inner wall and extending around a cavity , wherein the inner wall comprises a first axial end , a second axial end , a piston travel portion , and a top portion , wherein the top portion is nearer to the first axial end of the cylinder liner than to the second axial end of the cylinder liner, the top portion comprises a first surface finish, the first surface finish comprises a first roughness (Ra 1 ) greater than approximately 2 μm and a total waviness (W t ) less than approximately 0.1 mm, and wherein the first roughness (Ra 1 ) and the total waviness (Wt) are based on a characteristic length of approximately 0.8 mm; and a piston disposed within the cavity and configured to move in a reciprocating manner within the cylinder liner , wherein the piston comprises a top land configured to be radially opposite the top portion of the inner wall of the cylinder liner when the piston is at a top dead center position, a second surface finish of the top land of the piston comprises a second roughness average (Ra 2 ) less than approximately 2 μm, wherein the second roughness (Ra 2 ) is less than the first roughness (Ra 1 ), and the second roughness (Ra 2 ) is based on the characteristic length of approximately 0.8 mm.
A method for assembling a display apparatus including a display cell , which includes a first display cell element and a second display cell element , and a cover panel that is light-transmissive and that covers a portion of the display cell that faces in a forward direction, which is a displaying direction of the display cell , the method comprising the steps of: (a) bonding and fixing a reinforcement member that is frame-shaped and has a rigidity higher than a rigidity of the cover panel to a rear surface of the cover panel that faces in a rearward direction, wherein the cover panel has a three-dimensional shape and includes a first flat portion , a second flat portion and a bent portion or a curved portion at the boundary between the first flat portion and the second flat portion , and the reinforcement member includes a partition portion that partitions an inner space of the frame-shaped reinforcement member and at least a portion of the partition portion is bonded and fixed to the rear surface of the cover panel at either of the bent portion and a portion near the bent portion , or either of at least a portion of the curved portion and a portion near the curved portion; and (b) bonding and fixing, after the step (a), the first display cell element to a rear surface of the first flat portion of the cover panel with a transparent optical adhesive layer interposed therebetween in a first window portion of a first frame portion of the reinforcement member , and the second display cell element to a rear surface of the second flat portion of the cover panel with a transparent optical adhesive layer interposed therebetween in a second window portion of a second frame portion of the reinforcement member . (a) bonding and fixing a reinforcement member that is frame-shaped and has a rigidity higher than a rigidity of the cover panel to a rear surface of the cover panel that faces in a rearward direction, wherein the cover panel has a three-dimensional shape and includes a first flat portion , a second flat portion and a bent portion or a curved portion at the boundary between the first flat portion and the second flat portion , and the reinforcement member includes a partition portion that partitions an inner space of the frame-shaped reinforcement member and at least a portion of the partition portion is bonded and fixed to the rear surface of the cover panel at either of the bent portion and a portion near the bent portion , or either of at least a portion of the curved portion and a portion near the curved portion; and (b) bonding and fixing, after the step (a), the first display cell element to a rear surface of the first flat portion of the cover panel with a transparent optical adhesive layer interposed therebetween in a first window portion of a first frame portion of the reinforcement member , and the second display cell element to a rear surface of the second flat portion of the cover panel with a transparent optical adhesive layer interposed therebetween in a second window portion of a second frame portion of the reinforcement member .
An immunoglobulin-binding protein which is a Staphylococcus aureus protein A domain A as defined by SEQ ID NO: 2 of which an amino acid residue at one or more positions selected from the group consisting of 18th, 36th, 43rd and 52nd positions is mutated, wherein the mutation is at one or more positions selected from the group consisting of N18H, D36V, N43Y/L and N52S.
A method for preparing a lithium-ion battery separator, wherein the method comprises the steps of: step 1: forming a liquid-phase stabilization system containing polyethylene and a filling agent; step 2: forming the liquid-phase stabilization system into a cast film with the liquid-phase filling agent in a cooling system; step 3: subjecting the cast film to pre-stretching and then to synchronous bidirectional stretching to form an intermediate film, wherein the stretching ratio of the pre-stretching is 1.01-6, and wherein the synchronous bidirectional stretching includes transverse stretching and longitudinal stretching, and the stretching ratios of the transverse stretching and the longitudinal stretching are each 1.01-8; step 4: extracting the filling agent contained in the intermediate film by using an organic solvent to form a microporous polyethylene film; and step 5: heat-setting the microporous polyethylene film at a near melting temperature to obtain the lithium-ion battery separator. step 1: forming a liquid-phase stabilization system containing polyethylene and a filling agent; step 2: forming the liquid-phase stabilization system into a cast film with the liquid-phase filling agent in a cooling system; step 3: subjecting the cast film to pre-stretching and then to synchronous bidirectional stretching to form an intermediate film, wherein the stretching ratio of the pre-stretching is 1.01-6, and wherein the synchronous bidirectional stretching includes transverse stretching and longitudinal stretching, and the stretching ratios of the transverse stretching and the longitudinal stretching are each 1.01-8; step 4: extracting the filling agent contained in the intermediate film by using an organic solvent to form a microporous polyethylene film; and step 5: heat-setting the microporous polyethylene film at a near melting temperature to obtain the lithium-ion battery separator.
A method for setting a baud rate for light-based communication between a receiving device and a light-based communication-enabled luminaire , the method comprising: determining decoding parameters of a receiving device , the receiving device including a camera for receiving light-based communication signals, wherein the decoding parameters include at least one of shutter speed of the camera , frame resolution of the camera , and orientation of the luminaire with respect to a raster direction of the camera ; calculating a baud rate suitable for the receiving device based on the decoding parameters; and setting the light-based communication-enabled luminaire at the calculated baud rate. determining decoding parameters of a receiving device , the receiving device including a camera for receiving light-based communication signals, wherein the decoding parameters include at least one of shutter speed of the camera , frame resolution of the camera , and orientation of the luminaire with respect to a raster direction of the camera ; calculating a baud rate suitable for the receiving device based on the decoding parameters; and setting the light-based communication-enabled luminaire at the calculated baud rate.
A circuit board, applied to an electronic device, wherein the electronic device comprises a screen , and the screen comprises a screen chip, the circuit board comprising: a main board, a sub-board, and a flexible circuit board, wherein a first connection position is arranged on the main board, and the flexible circuit board is connected to the main board by the first connection position; a second connection position is arranged on the sub-board, the flexible circuit board is connected to the sub-board by the second connection position, and the flexible circuit board is further connected to the screen chip; a target circuit module is arranged on the sub-board, and the target circuit module comprises at least one of a screen power chip, a motor drive power chip, a speaker power amplifier, a charging protocol chip, a power delivery PD charging protocol chip, a headset switch switching chip, or a sensor , characterized in that a signal input terminal of a target signal type on the target circuit module is connected to a signal input terminal also of the target signal type on the sub-board, the target signal type comprises at least one of a power signal, a control signal, or a data signal. a first connection position is arranged on the main board, and the flexible circuit board is connected to the main board by the first connection position; a second connection position is arranged on the sub-board, the flexible circuit board is connected to the sub-board by the second connection position, and the flexible circuit board is further connected to the screen chip; a target circuit module is arranged on the sub-board, and the target circuit module comprises at least one of a screen power chip, a motor drive power chip, a speaker power amplifier, a charging protocol chip, a power delivery PD charging protocol chip, a headset switch switching chip, or a sensor , characterized in that a signal input terminal of a target signal type on the target circuit module is connected to a signal input terminal also of the target signal type on the sub-board, the target signal type comprises at least one of a power signal, a control signal, or a data signal.