mhurhangee/patent-ind-claim-en huggingface dataset:
A waterproof cap that is detachably attachable from an outside of a housing of an electronic device to the housing and closes an insertion port, said housing accommodating a connector fitted to a counter connector along a fitting direction (D) and having the insertion port into which the counter connector is inserted, the waterproof cap comprising: a cap body extending in the fitting direction, a first protruding portion disposed on an outer peripheral surface of the cap body, continuously surrounding an entire periphery of the outer peripheral surface while protruding from the outer peripheral surface in a plane orthogonal to the fitting direction, and made of an elastic material; and wherein when the waterproof cap is attached to the housing, the first protruding portion is press-fitted to the insertion port of the housing and contacts an entire periphery of an inner peripheral surface of the insertion port while being elastically compressed, characterized in that the waterproof cap further comprises a second protruding portion disposed on the outer peripheral surface on a front end side of the cap body in the fitting direction from a position at which the first protruding portion is disposed, protruding from the outer peripheral surface in a direction orthogonal to the fitting direction, and made of an elastic member, wherein the second protruding portion is configured to be inserted into the connector and contacts at least two inner surfaces of the connector facing each other while being elastically compressed. a cap body extending in the fitting direction, a first protruding portion disposed on an outer peripheral surface of the cap body, continuously surrounding an entire periphery of the outer peripheral surface while protruding from the outer peripheral surface in a plane orthogonal to the fitting direction, and made of an elastic material; and wherein when the waterproof cap is attached to the housing, the first protruding portion is press-fitted to the insertion port of the housing and contacts an entire periphery of an inner peripheral surface of the insertion port while being elastically compressed, characterized in that the waterproof cap further comprises a second protruding portion disposed on the outer peripheral surface on a front end side of the cap body in the fitting direction from a position at which the first protruding portion is disposed, protruding from the outer peripheral surface in a direction orthogonal to the fitting direction, and made of an elastic member, wherein the second protruding portion is configured to be inserted into the connector and contacts at least two inner surfaces of the connector facing each other while being elastically compressed.
A method for iteratively compensating drift of a sensor system for measuring a motion direction of a user during usage of a VR system , the method comprising: receiving a measured viewing direction of the user from a sensor system for measuring an angular position indicative of the user's head orientation in the user's transverse plane at a measurement time; receiving a measured motion direction of the user from a sensor system for measuring an angular position indicative of a direction of the user's walking or running movements in the user's transverse plane at the same measurement time; and calculating a drift compensation from the difference between the measured viewing direction of the user and the measured motion direction of the user, such that a drift compensated motion direction of the user can be determined by adding the calculated drift compensation to a subsequently measured motion direction of the user; wherein the drift compensation is only calculated provided that the viewing direction of the user at the measurement time does not deviate from a previously determined motion direction of the user by more than a viewing angle threshold. receiving a measured viewing direction of the user from a sensor system for measuring an angular position indicative of the user's head orientation in the user's transverse plane at a measurement time; receiving a measured motion direction of the user from a sensor system for measuring an angular position indicative of a direction of the user's walking or running movements in the user's transverse plane at the same measurement time; and calculating a drift compensation from the difference between the measured viewing direction of the user and the measured motion direction of the user, such that a drift compensated motion direction of the user can be determined by adding the calculated drift compensation to a subsequently measured motion direction of the user; wherein the drift compensation is only calculated provided that the viewing direction of the user at the measurement time does not deviate from a previously determined motion direction of the user by more than a viewing angle threshold.
A carbon composite comprising: expanded graphite ; and a reinforcement ; characterised in that the carbon composite further comprises a filler which comprises a metal which comprises copper, aluminum, titanium, tungsten, nickel, silicon, chromium, iron, alloys thereof, or a combination comprising at least one of the foregoing; and wherein the expanded graphite comprises a plurality of randomly oriented basal planes . expanded graphite ; and a reinforcement ; characterised in that the carbon composite further comprises a filler which comprises a metal which comprises copper, aluminum, titanium, tungsten, nickel, silicon, chromium, iron, alloys thereof, or a combination comprising at least one of the foregoing; and wherein the expanded graphite comprises a plurality of randomly oriented basal planes .
A method for manufacturing an integrated micro-electro-mechanical systems, MEMS, transducer device, the method comprising - providing a substrate body with a surface; - depositing an etch-stop layer , ESL, on the surface; - depositing a sacrificial layer on the ESL ; - depositing a diaphragm layer on the sacrificial layer ; and - removing the sacrificial layer ; wherein - depositing the sacrificial layer comprises depositing a first sub-layer of a first material on the ESL and depositing a second sub-layer of a second material on the first sub-layer ; and - the first and the second material are different materials, characterized in that the first material has a lower moisture content and/or higher density compared to the second material, so that the first material has a lower etch rate compared to the second material. - providing a substrate body with a surface; - depositing an etch-stop layer , ESL, on the surface; - depositing a sacrificial layer on the ESL ; - depositing a diaphragm layer on the sacrificial layer ; and - removing the sacrificial layer ; - depositing the sacrificial layer comprises depositing a first sub-layer of a first material on the ESL and depositing a second sub-layer of a second material on the first sub-layer ; and - the first and the second material are different materials,
Needle drive system of a magnetic needle interfacial shear rheometer, wherein the magnetic needle interfacial shear rheometer comprises a magnetic needle and a channel containing an interface with a plane, wherein the magnetic needle is located in the interface and wherein a movement of the magnetic needle occurs within the channel ; characterized in that the needle drive system comprises: - two permanent magnets with magnetic axes perpendicular to the plane of the interface in which the magnetic needle of the rheometer is located, wherein both magnets are located at a same distance (h) above the interface plane, the magnets having their polarities inverted one with respect to the other; - drive means configured to move the magnets in the longitudinal direction of the channel of the rheometer , parallel to the plane of the interface, keeping a distance between the magnets (d) constant; and - a control unit in charge of controlling the drive means . - two permanent magnets with magnetic axes perpendicular to the plane of the interface in which the magnetic needle of the rheometer is located, wherein both magnets are located at a same distance (h) above the interface plane, the magnets having their polarities inverted one with respect to the other; - drive means configured to move the magnets in the longitudinal direction of the channel of the rheometer , parallel to the plane of the interface, keeping a distance between the magnets (d) constant; and - a control unit in charge of controlling the drive means .
A combined combustion device comprising: a plurality of combustion units each having a burner and an air supply fan ; an exhaust collecting pipe connecting the plurality of the combustion units to each other; a check valve provided in each of the combustion units, which opens by rotation of the air supply fan and prevents backflow of combustion exhaust gas from the exhaust collecting pipe into each of the combustion units; and a controller (c) for controlling operations of the plurality of the combustion units, configured so that when at least one of the combustion units starts a combustion operation, the controller determines whether each of the combustion units is in a combustion operation state, and when one or more of the combustion units among the plurality of the combustion units are in the combustion operation state and the other one or more of the combustion units are continuously maintained in a non-combustion operation state for a predetermined reference stoppage time or longer, the controller rotates the air supply fans in the other one or more of the combustion units for a certain time. a plurality of combustion units each having a burner and an air supply fan ; an exhaust collecting pipe connecting the plurality of the combustion units to each other; a check valve provided in each of the combustion units, which opens by rotation of the air supply fan and prevents backflow of combustion exhaust gas from the exhaust collecting pipe into each of the combustion units; and a controller (c) for controlling operations of the plurality of the combustion units, configured so that when at least one of the combustion units starts a combustion operation, the controller determines whether each of the combustion units is in a combustion operation state, and when one or more of the combustion units among the plurality of the combustion units are in the combustion operation state and the other one or more of the combustion units are continuously maintained in a non-combustion operation state for a predetermined reference stoppage time or longer, the controller rotates the air supply fans in the other one or more of the combustion units for a certain time.
A method , performed by a server, of establishing a communication link between first and second devices, the method comprising: receiving a link request from a first device with a first unique identifier; allocating a media content from multiple media content to the first unique identifier; sending the media content to the first device ; receiving a media identifier from a second device with a second unique identifier; comparing the media identifier and the media content, and in dependence on identifying a match, transmitting the first unique identifier to the second device and the second unique identifier to the first device , whereby the first and second device can establish a communication link based on the exchanged first and second unique identifiers. receiving a link request from a first device with a first unique identifier; allocating a media content from multiple media content to the first unique identifier; sending the media content to the first device ; receiving a media identifier from a second device with a second unique identifier; comparing the media identifier and the media content, and in dependence on identifying a match, transmitting the first unique identifier to the second device and the second unique identifier to the first device , whereby the first and second device can establish a communication link based on the exchanged first and second unique identifiers.
Method for preparing a thin layer of alkali-based ferroelectric material, having a predetermined Curie temperature, said layer being transferred from a donor substrate onto a support substrate by a transfer technique including implantation of atomic species into the donor substrate to generate an embrittlement plane , the thin layer having a first free face and a second face that is arranged on the support substrate , the method for preparing the thin layer being characterized in that it includes: - applying a first heat treatment to the transferred thin layer at a temperature above the predetermined Curie temperature, the thin layer having a multi-domain nature at the end of the first heat treatment; - after the first heat treatment, introducing protons into the thin layer , followed by applying a second heat treatment to the thin layer at a temperature below the predetermined Curie temperature to generate an internal electric field, resulting in the thin layer being made single domain. - applying a first heat treatment to the transferred thin layer at a temperature above the predetermined Curie temperature, the thin layer having a multi-domain nature at the end of the first heat treatment; - after the first heat treatment, introducing protons into the thin layer , followed by applying a second heat treatment to the thin layer at a temperature below the predetermined Curie temperature to generate an internal electric field, resulting in the thin layer being made single domain.
A method of controlling a transmission apparatus of a vehicle, the apparatus comprising a drive engine , a mechanical transmission connected to the drive engine, and a hydraulic transmission having a pump and n hydraulic motors , where n is greater than or equal to 1, the pump being suitable for being driven by the drive engine for feeding fluid to the hydraulic motors; said method being characterized in that it comprises performing a "low-speed" assistance stage, during which, while the vehicle is driven by the mechanical transmission, a setpoint pressure (CP) for the pressure difference between the feed and the discharge of each of the hydraulic motors is established, the hydraulic motors are fed by the pump, the pressure difference between the feed and the discharge of each of the hydraulic motors is detected, and the delivery rate of the pump is adjusted so that said pressure difference is substantially equal to said setpoint pressure.
A combination of a therapeutic agent and a biologically inert fluid for use in the treatment of a CNS disorder, wherein the biologically inert fluid is infused into the subcortical white matter of the brain via convection enhanced delivery (CED) in combination with the therapeutic agent such that the biologically inert fluid drives the therapeutic agent to the cerebral cortex.
A pharmaceutical composition comprising a recombinant Glial cell line-Derived Neurotrophic Factor (GDNF) polypeptide and a pharmaceutically acceptable carrier for use in treating an enteric neuropathy in a human subject by inducing enteric neurogenesis in an aganglionic or hypoganglionic segment of the distal colon, wherein the composition is administered into the distal colon of the subject rectally via enema at a dose of recombinant GDNF polypeptide of about 10 mg to about 15 mg per kg.
A plant growing system comprising (a) plant life; (b) a super amount of a controlled-release fertilizer to provide season-long performance, said controlled-release fertilizer releases nutrients over a four, five, six, seven, eight, or nine month time period; and (c) growing media, wherein said plant growing system is contained in a pot or container, characterized in that said super amount of a controlled-release fertilizer is 15 to 60 grams of a controlled-release fertilizer per a greater than a 0.8 liter pot or container, and further the plant growing system has an electrical conductivity (EC) of 7 mS/cm to 18 mS/cm using the PourThru method, wherein the growing media are soilless growing media. (a) plant life; (b) a super amount of a controlled-release fertilizer to provide season-long performance, said controlled-release fertilizer releases nutrients over a four, five, six, seven, eight, or nine month time period; and (c) growing media, wherein said plant growing system is contained in a pot or container, characterized in that said super amount of a controlled-release fertilizer is 15 to 60 grams of a controlled-release fertilizer per a greater than a 0.8 liter pot or container, and further the plant growing system has an electrical conductivity (EC) of 7 mS/cm to 18 mS/cm using the PourThru method, wherein the growing media are soilless growing media.
Method for managing the transmission times of messages from a first device (DISP1) to a second device (MOB21, MOB22), the devices having respective levels of electric charge at a given time, the method comprising: a. a step of the first device (DISP1) receiving a request to modify the transmission times of the messages, the request including the current level of electric charge associated with the second device (MOB21, MOB22); the request furthermore including an attribute representative of desired sending times of messages from the first device to the second device; b. a step of comparing the level of electric charge of the first device and the level of electric charge of the second device, c. a step of determining the transmission times of the messages from the first device on the basis of the result of the step of comparing the levels of charge of the first and second devices, the transmission times being the desired times if the level of charge of the first device is greater than the level of charge of the second device. a. a step of the first device (DISP1) receiving a request to modify the transmission times of the messages, the request including the current level of electric charge associated with the second device (MOB21, MOB22); the request furthermore including an attribute representative of desired sending times of messages from the first device to the second device; b. a step of comparing the level of electric charge of the first device and the level of electric charge of the second device, c. a step of determining the transmission times of the messages from the first device on the basis of the result of the step of comparing the levels of charge of the first and second devices, the transmission times being the desired times if the level of charge of the first device is greater than the level of charge of the second device.
An assembly for treating plant matter, comprising a spraying apparatus , the spraying apparatus comprising: a mounting portion for mounting a cartridge within the spraying apparatus; and a multi-layered manifold assembly comprising abutting layers, wherein the manifold assembly is received or mounted within the mounting portion such that as the cartridge is received within the mounting portion , the cartridge engages and couples with the manifold assembly to allow fluid to be extracted from the cartridge into the spraying apparatus , the manifold assembly comprising: a first layer and a second layer ; a fluid port located in the second layer , for receiving liquid concentrate from a reservoir of liquid concentrate within the cartridge; a fluid inlet , located in the first layer , for receiving water from the spraying apparatus ; and a fluid outlet , located in the first layer , for outputting a mixture of water and liquid concentrate to the spraying apparatus; wherein the manifold assembly comprises a flow path between the fluid inlet and the fluid outlet , and wherein the flow path between the fluid inlet and the fluid outlet includes a mixing section fluidly connected to the fluid port and configured to mix liquid concentrate received from the fluid port with water received at the fluid inlet . a mounting portion for mounting a cartridge within the spraying apparatus; and a multi-layered manifold assembly comprising abutting layers, wherein the manifold assembly is received or mounted within the mounting portion such that as the cartridge is received within the mounting portion , the cartridge engages and couples with the manifold assembly to allow fluid to be extracted from the cartridge into the spraying apparatus , the manifold assembly comprising: a first layer and a second layer ; a fluid port located in the second layer , for receiving liquid concentrate from a reservoir of liquid concentrate within the cartridge; a fluid inlet , located in the first layer , for receiving water from the spraying apparatus ; and a fluid outlet , located in the first layer , for outputting a mixture of water and liquid concentrate to the spraying apparatus; a first layer and a second layer ; a fluid port located in the second layer , for receiving liquid concentrate from a reservoir of liquid concentrate within the cartridge; a fluid inlet , located in the first layer , for receiving water from the spraying apparatus ; and a fluid outlet , located in the first layer , for outputting a mixture of water and liquid concentrate to the spraying apparatus; wherein the manifold assembly comprises a flow path between the fluid inlet and the fluid outlet , and wherein the flow path between the fluid inlet and the fluid outlet includes a mixing section fluidly connected to the fluid port and configured to mix liquid concentrate received from the fluid port with water received at the fluid inlet .
A method for wireless communication, performed by a receiver, the method comprising: monitoring , according to a search space configuration, wherein the search space configuration includes a cross control resource set, coreset, configuration having one of a cross-control channel subband configuration, a cross-symbol configuration or a cross-beam configuration, one or more groups of one or more control channel elements, CCEs, to detect one or more downlink control information, DCI, messages, based on the cross-control channel subband configuration, the one or more groups of one or more CCEs on at least two control channel subbands to detect the one or more DCI message, or based on the cross-symbol configuration, the one or more groups of one or more CCEs during at least two symbols to detect the one or more DCI message, or based on the cross-beam configuration, the one or more groups of one or more CCEs on at least two beamformed signals to detect the one or more DCI message; and decoding , based at least in part on the monitoring, at least one DCI message of the one or more DCI messages. monitoring , according to a search space configuration, wherein the search space configuration includes a cross control resource set, coreset, configuration having one of a cross-control channel subband configuration, a cross-symbol configuration or a cross-beam configuration, one or more groups of one or more control channel elements, CCEs, to detect one or more downlink control information, DCI, messages, based on the cross-control channel subband configuration, the one or more groups of one or more CCEs on at least two control channel subbands to detect the one or more DCI message, or based on the cross-symbol configuration, the one or more groups of one or more CCEs during at least two symbols to detect the one or more DCI message, or based on the cross-beam configuration, the one or more groups of one or more CCEs on at least two beamformed signals to detect the one or more DCI message; and decoding , based at least in part on the monitoring, at least one DCI message of the one or more DCI messages.