mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for treating reflux disease of a human or animal mammal patient, comprising: an implantable movement restriction device having an outer surface that includes a biocompatible material, wherein a substantial part of the outer surface of the movement restriction device is adapted to be kept in place contacting the stomach fundus wall , without encircling the esophagus, in a position between the patient's diaphragm and at least a portion of the lower part of the stomach fundus wall, such that movement of the cardiac notch of the patient's stomach towards the patient's diaphragm is restricted, to thereby prevent the cardia from sliding through the patient's diaphragm opening into the patient's thorax, wherein the movement restriction device is adapted to contact directly or indirectly the diaphragm muscle to prevent such sliding of the cardia through the patient's diaphragm , so as to maintain the supporting pressure against the patient's cardia sphincter muscle exerted from the patient's abdomen, the movement restriction device having a size of at least 125 mm 3 and a circumference of at least 15 mm, characterized in that the movement restriction device further comprises a fixator adapted to be secured by at least one fixation device to secure the movement restriction device in said position without encircling the esophagus, when the movement restriction device is implanted. an implantable movement restriction device having an outer surface that includes a biocompatible material, wherein a substantial part of the outer surface of the movement restriction device is adapted to be kept in place contacting the stomach fundus wall , without encircling the esophagus, in a position between the patient's diaphragm and at least a portion of the lower part of the stomach fundus wall, such that movement of the cardiac notch of the patient's stomach towards the patient's diaphragm is restricted, to thereby prevent the cardia from sliding through the patient's diaphragm opening into the patient's thorax, wherein the movement restriction device is adapted to contact directly or indirectly the diaphragm muscle to prevent such sliding of the cardia through the patient's diaphragm , so as to maintain the supporting pressure against the patient's cardia sphincter muscle exerted from the patient's abdomen, the movement restriction device having a size of at least 125 mm 3 and a circumference of at least 15 mm, characterized in that the movement restriction device further comprises a fixator adapted to be secured by at least one fixation device to secure the movement restriction device in said position without encircling the esophagus, when the movement restriction device is implanted.
A mounting device comprising: a first mount portion in communication with a first pin extending along a first axis ; and a second mount portion in communication with a pair of opposing second pins extending along a second axis different than the first axis , the second pins in rotational communication with and extending outward from the first pin , wherein: the first and second mount portions are configured to translate along the first and second axes and rotate about the first and second axes with respect to one another; characterized in that the first and second mount portions are configured to rotate about a third axis with respect to one another. a first mount portion in communication with a first pin extending along a first axis ; and a second mount portion in communication with a pair of opposing second pins extending along a second axis different than the first axis , the second pins in rotational communication with and extending outward from the first pin , wherein: the first and second mount portions are configured to translate along the first and second axes and rotate about the first and second axes with respect to one another; characterized in that the first and second mount portions are configured to rotate about a third axis with respect to one another. the first and second mount portions are configured to translate along the first and second axes and rotate about the first and second axes with respect to one another; characterized in that the first and second mount portions are configured to rotate about a third axis with respect to one another.
A turbine shroud assembly adapted for use in a gas turbine engine, the assembly comprising a carrier , a blade track segment , the blade track segment formed to include a runner shaped to extend partway around a central axis and an attachment portion that extends radially outward from the runner that mounts to the carrier to couple the blade track segment to the carrier , and characterised in that the assembly further comprises a multi-piece seal including components received in a first radially-inwardly opening channel formed in the carrier , the multi-piece seal engages the runner of the blade track segment to resist the flow of gasses through an interface between the carrier and the runner of the blade track segment , wherein the multi-piece seal includes a forward wire arranged along a forward side of the first radially-inwardly opening channel, an aft wire arranged along an aft side of the first radially-inwardly opening channel, and a rope seal arranged in the first radially-inwardly opening channel between the forward wire seal and the aft wire seal, and wherein the rope seal is sized to engage the forward wire seal and the aft wire seal such that the forward wire seal and the aft wire seal are pushed away from one another and radially inward into engagement with the carrier and the runner of the blade track segment .
Hybrid structure for a surface acoustic wave device, comprising a useful layer of piezoelectric material that is joined to a support substrate having a coefficient of thermal expansion lower than that of the useful layer , and an intermediate layer located between the useful layer and the support substrate , the intermediate layer being a sintered composite layer formed from powders of at least a first material and a second material different from the first material, the hybrid structure being characterized in that: - the first material and the second material are selected so as to form an acoustic impedance matching layer between the useful layer and the support substrate , and - the average size of the particles of the powders of the first and of the second material is less than a quarter of the wavelength of an acoustic signal to be propagated on the surface of the surface acoustic wave device. - the first material and the second material are selected so as to form an acoustic impedance matching layer between the useful layer and the support substrate , and - the average size of the particles of the powders of the first and of the second material is less than a quarter of the wavelength of an acoustic signal to be propagated on the surface of the surface acoustic wave device.
A mobile robot , comprising: a body ; a mop module installed on the body and configured to perform cleaning by using water; a water tank provided at the body to be able to be drawn out from the body and configured to store water supplied to the mop module ; characterized in that the robot cleaner further comprises: a hook engaged with or coupled to the body and installed on the water tank ; and an operation button exposed at a surface of the water tank to operate the hook installed on the water tank ; wherein coupling of the water tank to the body by the hook is released when the operation button is pressed in a horizontal direction. a body ; a mop module installed on the body and configured to perform cleaning by using water; a water tank provided at the body to be able to be drawn out from the body and configured to store water supplied to the mop module ; characterized in that the robot cleaner further comprises: a hook engaged with or coupled to the body and installed on the water tank ; and an operation button exposed at a surface of the water tank to operate the hook installed on the water tank ; wherein coupling of the water tank to the body by the hook is released when the operation button is pressed in a horizontal direction. a hook engaged with or coupled to the body and installed on the water tank ; and an operation button exposed at a surface of the water tank to operate the hook installed on the water tank ; wherein coupling of the water tank to the body by the hook is released when the operation button is pressed in a horizontal direction.
A method for a wireless device comprising: receiving configuration parameters of each cell of one or more cells, indicating a maximum number of time domain resource allocations for physical downlink shared channels, PDSCHs, for a respective cell of the one or more cells; and transmitting, via a physical uplink control channel, PUCCH, feedback information with a transmission power determined based on a maximum value of the maximum number of time domain resource allocations of a cell scaled by a corresponding number of codewords of the cell, across the one or more cells. receiving configuration parameters of each cell of one or more cells, indicating a maximum number of time domain resource allocations for physical downlink shared channels, PDSCHs, for a respective cell of the one or more cells; and transmitting, via a physical uplink control channel, PUCCH, feedback information with a transmission power determined based on a maximum value of the maximum number of time domain resource allocations of a cell scaled by a corresponding number of codewords of the cell, across the one or more cells.
An electrochemical stack assembly comprising: one or more electrochemical cells, each electrochemical cell comprising a solid-state electrolyte to form at least two electrochemical stacks, each stack having two major surfaces and four minor surfaces; a frame surrounding the at least two electrochemical stacks with space between the frame and each of the four minor surfaces of each of the at least two electrochemical stacks; a flat plate attached to or integral with the frame, each of the at least two electrochemical stacks having one of the two major surfaces adhered to a respective side of the flat plate and a laminated pouch surrounding the frame and the at least two electrochemical stacks, the laminated pouch in contact with one of the two major surfaces of each of the at least two electrochemical stacks. one or more electrochemical cells, each electrochemical cell comprising a solid-state electrolyte to form at least two electrochemical stacks, each stack having two major surfaces and four minor surfaces; a frame surrounding the at least two electrochemical stacks with space between the frame and each of the four minor surfaces of each of the at least two electrochemical stacks; a flat plate attached to or integral with the frame, each of the at least two electrochemical stacks having one of the two major surfaces adhered to a respective side of the flat plate and a laminated pouch surrounding the frame and the at least two electrochemical stacks, the laminated pouch in contact with one of the two major surfaces of each of the at least two electrochemical stacks.
A method for transmitting data, the method comprising: determining , by a User Equipment, UE, that a network-side device configures the UE into an inactive state, wherein the UE in the inactive state moves to a new cell through cell reselection, and the inactive state is a different state from a Radio Resource Control, RRC, connected state and a RRC idle state; and transmitting , by the UE, data with the network-side device in the inactive state; wherein transmitting , by the UE, the data with the network-side device in the inactive state comprises: transmitting, by the UE, the data with the network-side device in the inactive state according to a UE identifier in the inactive state configured by the network-side device; and transmitting, by the UE, the data with the network-side device in the inactive state in an active area of the inactive state. determining , by a User Equipment, UE, that a network-side device configures the UE into an inactive state, wherein the UE in the inactive state moves to a new cell through cell reselection, and the inactive state is a different state from a Radio Resource Control, RRC, connected state and a RRC idle state; and transmitting , by the UE, data with the network-side device in the inactive state; wherein transmitting , by the UE, the data with the network-side device in the inactive state comprises: transmitting, by the UE, the data with the network-side device in the inactive state according to a UE identifier in the inactive state configured by the network-side device; and transmitting, by the UE, the data with the network-side device in the inactive state in an active area of the inactive state. transmitting, by the UE, the data with the network-side device in the inactive state according to a UE identifier in the inactive state configured by the network-side device; and transmitting, by the UE, the data with the network-side device in the inactive state in an active area of the inactive state.
A string set comprising: a first string strung as any one of a main string and a cross string , the first string having a small static surface friction coefficient and a small diameter; and a second string strung as another one of the main string and the cross string , the second string having a larger static surface friction coefficient and a larger diameter than the static surface friction coefficient and the diameter of the first string, wherein the first string has an outer diameter that is 94 % or less of an outer diameter of the second string, wherein the first string and the second string include a coating film, and wherein the coating film of the first string comprises polyamide, characterized in that at least a superficial layer of the coating film of the second string is formed of polyurethane or rubber to attain a property to increase a grip force corresponding to an increase in film thickness, wherein the string set is for a badminton racket , strung on the badminton racket as the main string and the cross string. a first string strung as any one of a main string and a cross string , the first string having a small static surface friction coefficient and a small diameter; and a second string strung as another one of the main string and the cross string , the second string having a larger static surface friction coefficient and a larger diameter than the static surface friction coefficient and the diameter of the first string, wherein the first string has an outer diameter that is 94 % or less of an outer diameter of the second string, wherein the first string and the second string include a coating film, and wherein the coating film of the first string comprises polyamide, characterized in that at least a superficial layer of the coating film of the second string is formed of polyurethane or rubber to attain a property to increase a grip force corresponding to an increase in film thickness, wherein the string set is for a badminton racket , strung on the badminton racket as the main string and the cross string.
A fieldbus device for communicating with an automation device (FI) via a field bus, wherein the fieldbus device can be connected to another fieldbus device via a communication network , wherein the other fieldbus device is designed to emulate the automation device (FI) on communication technological level, wherein the communication technological emulation entails replicating a communication technological behaviour of the automation device (FI), with: a network interface for communicating with the other fieldbus device via the communication network , wherein the network interface is designed to receive a data frame from the further fieldbus device via the communication network and to decapsulate a fieldbus signal from the data frame, wherein the fieldbus signal is intended for the automation device (FI); and a fieldbus interface for communicating with the automation device (FI) via the fieldbus, wherein the fieldbus interface is designed to transmit the fieldbus signal to the automation device (FI) via the fieldbus; wherein the data frame comprises a plurality of time slots, wherein a time slot from the plurality of time slots is assigned to the automation device (FI), wherein the fieldbus signal is encapsulated into the time slot, and wherein the network interface is designed to decapsulate the fieldbus signal from the time slot. a network interface for communicating with the other fieldbus device via the communication network , wherein the network interface is designed to receive a data frame from the further fieldbus device via the communication network and to decapsulate a fieldbus signal from the data frame, wherein the fieldbus signal is intended for the automation device (FI); and a fieldbus interface for communicating with the automation device (FI) via the fieldbus, wherein the fieldbus interface is designed to transmit the fieldbus signal to the automation device (FI) via the fieldbus; wherein the data frame comprises a plurality of time slots, wherein a time slot from the plurality of time slots is assigned to the automation device (FI), wherein the fieldbus signal is encapsulated into the time slot, and wherein the network interface is designed to decapsulate the fieldbus signal from the time slot.
A method of detecting mycoplasma contaminated cells in a sample comprising: collecting a sample from a cell culture used by a biotechnology production application or research application; controlling a Raman spectrometer, by a processing device , to collect a Raman spectrum of a targeted volume within the sample so as to collect a Raman spectrum of a single cell of a known cell line of interest; obtaining a reference spectrum uniquely associated with the known cell line, wherein the obtained reference spectrum includes spectral measurements of mycoplasma by itself, a mycoplasma contaminated cell line and a pure cell line; comparing , using the processing device , the reference spectrum to the collected spectrum; identifying whether there are unnatural molecular compositions within the collected spectrum based upon the comparison of the reference spectrum to the collected spectrum by evaluating differences between the collected spectrum compared to the reference spectrum at various spectral positions, where the various spectral positions are selected to be indicative of unnatural molecular compositions within the collected sample; providing an indication as to whether mycoplasma is detected in the collected Raman spectrum where unnatural molecular compositions are identified within the collected spectrum; and stopping the biotechnology production application or research application where mycoplasma is detected in the collected Raman spectrum. collecting a sample from a cell culture used by a biotechnology production application or research application; controlling a Raman spectrometer, by a processing device , to collect a Raman spectrum of a targeted volume within the sample so as to collect a Raman spectrum of a single cell of a known cell line of interest; obtaining a reference spectrum uniquely associated with the known cell line, wherein the obtained reference spectrum includes spectral measurements of mycoplasma by itself, a mycoplasma contaminated cell line and a pure cell line; comparing , using the processing device , the reference spectrum to the collected spectrum; identifying whether there are unnatural molecular compositions within the collected spectrum based upon the comparison of the reference spectrum to the collected spectrum by evaluating differences between the collected spectrum compared to the reference spectrum at various spectral positions, where the various spectral positions are selected to be indicative of unnatural molecular compositions within the collected sample; providing an indication as to whether mycoplasma is detected in the collected Raman spectrum where unnatural molecular compositions are identified within the collected spectrum; and stopping the biotechnology production application or research application where mycoplasma is detected in the collected Raman spectrum.
Method for driving an automated drive train of a motor vehicle, in order to immobilize the motor vehicle, wherein the drive train has a transmission assembly with a multiplicity of gear stages (1-7, R) which can be shifted at least partially independently of one another, wherein to bring about immobilization, a gear stage pairing (PG1-PG2) which has a first pairing gear stage (PG1) and a second pairing gear stage (PG2) is shifted in order to lock the drive train , wherein in order to bring about immobilization, a multiplicity of gear stage pairings (PG1-PG2) are available and are stored in a priority list (PL1-PL2), comprising the steps: firstly attempting (S10-S12) to shift the first pairing gear stage (PG1) of a gear stage pairing (PG1-PG2) which is to be used, and, depending on whether this attempt was successful, either to attempt (S16-S18) to shift the second pairing gear stage (PG2), or to attempt to shift a first pairing gear stage of a gear stage pairing (PG1-PG2) which follows in the priority list (PL1; PL3), wherein the priority list (PL1; PL2) can be updated, and characterized in that the method also contains the step, in the event of the attempt to shift a pairing gear stage (PG1; PG2) not being successful, of locking (S13 S15) all the gear stage pairings in the priority list (PL1; PL2) which contain the non-shiftable pairing gear stage.
A method of determining a contention window for allocating bandwidth in a wireless multihop mesh network comprising a plurality of nodes, said nodes comprising a plurality of routers and at least one client connected to each of said routers, the network further comprising a bandwidth source , the method comprising the steps of: i) receiving information at a first of said plurality routers from each of the other routers , said information comprising the total number of hops from each of the other routers to the bandwidth source, the total number of clients connected to each of the other routers, the requested throughput of each client connected to each of the other routers, and the total number of hops between the first router and each of the other routers; ii) calculating a contention window for said first router based on the received information , wherein the calculated contention window is larger if the first router is close to the bandwidth source, and the contention window is smaller if the first router is further away from the bandwidth source, and wherein the closer the first router is to the bandwidth source, the fewer the number of hops between the first router and the bandwidth source; and iii) setting the delay for a retransmission of data by the first router to the calculated contention window, wherein the retransmission of data follows an unsuccessful transmission of said data. i) receiving information at a first of said plurality routers from each of the other routers , said information comprising the total number of hops from each of the other routers to the bandwidth source, the total number of clients connected to each of the other routers, the requested throughput of each client connected to each of the other routers, and the total number of hops between the first router and each of the other routers; ii) calculating a contention window for said first router based on the received information , wherein the calculated contention window is larger if the first router is close to the bandwidth source, and the contention window is smaller if the first router is further away from the bandwidth source, and wherein the closer the first router is to the bandwidth source, the fewer the number of hops between the first router and the bandwidth source; and iii) setting the delay for a retransmission of data by the first router to the calculated contention window, wherein the retransmission of data follows an unsuccessful transmission of said data.