mhurhangee/patent-ind-claim-en huggingface dataset:
A display device, comprising: a substrate having a wiring electrode; and a plurality of semiconductor light-emitting elements electrically connected to the wiring electrode, wherein each of the plurality of semiconductor light-emitting elements comprises: a buffer layer ; an oxide layer formed on the buffer layer , and wherein the oxide layer is made of an oxide of the buffer layer , wherein the semiconductor light-emitting elements are separated from a growth substrate (W) by a laser lift-off method, wherein each of the semiconductor light-emitting elements separated from the growth substrate (W) has the buffer layer , and wherein the oxide layer is formed by oxidizing a surface of the buffer layer provided in the semiconductor light-emitting element . a substrate having a wiring electrode; and a plurality of semiconductor light-emitting elements electrically connected to the wiring electrode, wherein each of the plurality of semiconductor light-emitting elements comprises: a buffer layer ; an oxide layer formed on the buffer layer , and wherein the oxide layer is made of an oxide of the buffer layer , wherein the semiconductor light-emitting elements are separated from a growth substrate (W) by a laser lift-off method, wherein each of the semiconductor light-emitting elements separated from the growth substrate (W) has the buffer layer , and wherein the oxide layer is formed by oxidizing a surface of the buffer layer provided in the semiconductor light-emitting element . a buffer layer ; an oxide layer formed on the buffer layer , and wherein the oxide layer is made of an oxide of the buffer layer , wherein the semiconductor light-emitting elements are separated from a growth substrate (W) by a laser lift-off method, wherein each of the semiconductor light-emitting elements separated from the growth substrate (W) has the buffer layer , and wherein the oxide layer is formed by oxidizing a surface of the buffer layer provided in the semiconductor light-emitting element .
A liquid applicator device for dispensing an applicator liquid from an applicator liquid container , comprising: a closure having an internal passageway for sealing with the applicator liquid container , a valve body disposed in said internal passageway of said closure , a valve seal having a sealing surface secured to said valve body , a valve element disposed within said closure , a spring acting between said valve body and said valve element for biasing said valve element into sealing engagement with said sealing surface of said valve seal for inhibiting the flow of the applicator liquid from the applicator liquid container an applicator located in said internal passageway of said closure and engaging with said valve element for enabling a depression of said applicator to displace said valve element from said sealing surface to enable the flow of the applicator liquid from the applicator liquid container into said applicator ; and a capture extending from said valve element for grasping said applicator for inhibiting removal of said applicator from said internal passageway , wherein said applicator defines a first end and a second end , characterised in that said first end of said applicator has reduced cross-section , wherein a groove is defined in said reduced cross-section , and wherein said capture comprises a plurality of resilient fingers (101-104) with each of said plurality of resilient fingers (101-104) having an inwardly projecting hook (101H -104H) or an inward protrusion (101P-104P) for resiliently engaging said groove for inhibiting removal of said applicator tip from said internal passageway . a closure having an internal passageway for sealing with the applicator liquid container , a valve body disposed in said internal passageway of said closure , a valve seal having a sealing surface secured to said valve body , a valve element disposed within said closure , a spring acting between said valve body and said valve element for biasing said valve element into sealing engagement with said sealing surface of said valve seal for inhibiting the flow of the applicator liquid from the applicator liquid container an applicator located in said internal passageway of said closure and engaging with said valve element for enabling a depression of said applicator to displace said valve element from said sealing surface to enable the flow of the applicator liquid from the applicator liquid container into said applicator ; and a capture extending from said valve element for grasping said applicator for inhibiting removal of said applicator from said internal passageway , wherein said applicator defines a first end and a second end , characterised in that said first end of said applicator has reduced cross-section , wherein a groove is defined in said reduced cross-section , and wherein said capture comprises a plurality of resilient fingers (101-104) with each of said plurality of resilient fingers (101-104) having an inwardly projecting hook (101H -104H) or an inward protrusion (101P-104P) for resiliently engaging said groove for inhibiting removal of said applicator tip from said internal passageway .
A media coupling on a roll chock lockable in a roll stand by means of a locking device , the media coupling having a first coupling part disposed on the roll chock and a second coupling part disposed on the roll stand , the second coupling part serving to connect an external media line to a media line realized on the roll chock , the locking device of the roll chock serving to execute a coupling movement between the first coupling part and the second coupling part , the second coupling part interacting with an actuator in order to execute the coupling movement between the first coupling part and the second coupling part , the actuator being formed by an actuator of the locking device , an actuation mechanism for executing the coupling movement being formed, at least in part, by an actuation mechanism of the locking device , the second coupling part having at least one coupling element intended for mating with a mating coupling element of the first coupling part , the coupling element being connected to a latch element of the locking device in such a manner that when the latch element is moved into a locking position, the coupling element and the mating coupling element inevitably mate, characterized in that the coupling element of the second coupling part is disposed on a coupling element support which is disposed in a vertically displaceable manner on a vertical guide connected to the latch element .
A method of controlling an operation of a wind turbine, the method comprising: controlling the operation of the wind turbine in accordance with a control strategy for a first period of time; obtaining a first plurality of extreme load measures indicative of extreme loads experienced by at least part of the wind turbine during the first period of time; determining, by statistical analysis, a load probability characteristic based on a distribution of at least the first plurality of extreme load measures; comparing the load probability characteristic and a design load limit; modifying the control strategy based at least in part on the comparison of the load probability characteristic and the design load limit; and controlling the operation of the wind turbine in accordance with the modified control strategy for a second period of time. controlling the operation of the wind turbine in accordance with a control strategy for a first period of time; obtaining a first plurality of extreme load measures indicative of extreme loads experienced by at least part of the wind turbine during the first period of time; determining, by statistical analysis, a load probability characteristic based on a distribution of at least the first plurality of extreme load measures; comparing the load probability characteristic and a design load limit; modifying the control strategy based at least in part on the comparison of the load probability characteristic and the design load limit; and controlling the operation of the wind turbine in accordance with the modified control strategy for a second period of time.
An engine (E) for mounting on a motorcycle, comprising: a crankshaft ; and a supercharger drivingly connected with the crankshaft , the supercharger having a centrifugal impeller , wherein: as the supercharger is driven at a maximum permissible engine speed, an inlet diameter (Ii) of the impeller is chosen to be a value that allows a peripheral velocity of an inlet side tip end portion of the impeller to exceed the sonic velocity; a speed of rotation of the crankshaft is increased by a planetary gear device and then transmitted to a supercharger rotary shaft ; the impeller is fixed to one end portion of the supercharger rotary shaft , and the other end portion of the supercharger rotary shaft is drivingly connected with the planetary gear device ; and the inlet diameter (Ii) is so set that the peripheral velocity of the inlet side tip end portion of the impeller at the maximum permissible engine speed is equal to or lower than 1.3 times the sonic velocity. a crankshaft ; and a supercharger drivingly connected with the crankshaft , the supercharger having a centrifugal impeller , wherein: as the supercharger is driven at a maximum permissible engine speed, an inlet diameter (Ii) of the impeller is chosen to be a value that allows a peripheral velocity of an inlet side tip end portion of the impeller to exceed the sonic velocity; a speed of rotation of the crankshaft is increased by a planetary gear device and then transmitted to a supercharger rotary shaft ; the impeller is fixed to one end portion of the supercharger rotary shaft , and the other end portion of the supercharger rotary shaft is drivingly connected with the planetary gear device ; and the inlet diameter (Ii) is so set that the peripheral velocity of the inlet side tip end portion of the impeller at the maximum permissible engine speed is equal to or lower than 1.3 times the sonic velocity. as the supercharger is driven at a maximum permissible engine speed, an inlet diameter (Ii) of the impeller is chosen to be a value that allows a peripheral velocity of an inlet side tip end portion of the impeller to exceed the sonic velocity; a speed of rotation of the crankshaft is increased by a planetary gear device and then transmitted to a supercharger rotary shaft ; the impeller is fixed to one end portion of the supercharger rotary shaft , and the other end portion of the supercharger rotary shaft is drivingly connected with the planetary gear device ; and the inlet diameter (Ii) is so set that the peripheral velocity of the inlet side tip end portion of the impeller at the maximum permissible engine speed is equal to or lower than 1.3 times the sonic velocity.
A water supply system comprising: - a central water supply , - a plurality of water taps ; - an operation device located at one water tap , - a piping system connecting the central water supply and the plurality of water taps , the piping system comprising a separate flow path from the central water supply to each water tap ; and - a controller for individually controlling a flow of water from the central water supply to the plurality of water taps and individually controlling an outlet temperature of the flow of water at an outlet of the central water supply ; the controller comprising a flow regulator for each water tap , the flow regulator being configured for controlling both the flow of water and the outlet temperature of the flow of water; wherein the controller is located at the central water supply , and wherein the controller is operable via the operation device at the water tap and is configured to control the flow of water and the outlet temperature based on a received demand from the operation device . - a central water supply , - a plurality of water taps ; - an operation device located at one water tap , - a piping system connecting the central water supply and the plurality of water taps , the piping system comprising a separate flow path from the central water supply to each water tap ; and - a controller for individually controlling a flow of water from the central water supply to the plurality of water taps and individually controlling an outlet temperature of the flow of water at an outlet of the central water supply ; the controller comprising a flow regulator for each water tap , the flow regulator being configured for controlling both the flow of water and the outlet temperature of the flow of water;
A fixation assembly for medical procedures comprising: a driver having a driver body and a coupling extending from a distal end of the driver body, the coupling configured to engage a coupling defined by a fixation element, and a holding sleeve having a holding sleeve body , a channel extending through the holding sleeve body, and a fixation element coupler disposed at a distal portion of the holding sleeve body, the channel configured to receive the driver, the fixation element coupler configured to temporarily hold the fixation element such that as the driver rotates the fixation element, the fixation element engages an underlying structure and simultaneously disengages from the holding sleeve, characterized in that the driver includes a first protrusion that extends radially outward from the driver body proximate to a proximal end of the driver body, and a second protrusion that extends radially outward from the driver body at a location that is distal to the first protrusion, the first and second protrusions are separated by a distance that limits the translation of the driver within the holding sleeve to the distance of separation. a driver having a driver body and a coupling extending from a distal end of the driver body, the coupling configured to engage a coupling defined by a fixation element, and a holding sleeve having a holding sleeve body , a channel extending through the holding sleeve body, and a fixation element coupler disposed at a distal portion of the holding sleeve body, the channel configured to receive the driver, the fixation element coupler configured to temporarily hold the fixation element such that as the driver rotates the fixation element, the fixation element engages an underlying structure and simultaneously disengages from the holding sleeve, characterized in that the driver includes a first protrusion that extends radially outward from the driver body proximate to a proximal end of the driver body, and a second protrusion that extends radially outward from the driver body at a location that is distal to the first protrusion, the first and second protrusions are separated by a distance that limits the translation of the driver within the holding sleeve to the distance of separation.
Roll covering for a roll for the treatment of a fibrous web made of paper, of paperboard, of tissue or of another material in a machine for the production and/or finishing of the same, comprising a radially outermost layer, hereinafter termed functional layer, which has been produced from a polymer that is a blend made of a roll-millable polyurethane rubber and of at least one other rubber, where the polymer comprises 15% by weight to 35% by weight of roll-millable polyurethane rubber and 65% to 85% by weight of the at least one other rubber, where the other rubber is selected from the group consisting of crosslinked natural rubbers, crosslinked nitrile rubbers (NBR), crosslinked hydrogenated nitrile rubbers (HNBR), crosslinked carboxylated nitrile rubbers, styrene-butadiene rubbers (SBR), ethylenepropylene-diene rubbers (EPDM) and any desired mixtures of two or more of the abovementioned crosslinked other rubbers.
A method for wireless communication in a multicarrier system, the method comprising: determining, at a user equipment, UE , to re-provision one or more of a plurality of radio frequency, RF, processing chains of the UE in response to determining to allocate the one or more of the plurality of RF processing chains to another network; generating, at the UE , an activation message, wherein the activation message includes activation request information regarding one or more secondary cells configured for the UE , wherein the activation request information includes a request to deactivate the one or more secondary cells; and transmitting, from the UE , the activation message to a serving base station . determining, at a user equipment, UE , to re-provision one or more of a plurality of radio frequency, RF, processing chains of the UE in response to determining to allocate the one or more of the plurality of RF processing chains to another network; generating, at the UE , an activation message, wherein the activation message includes activation request information regarding one or more secondary cells configured for the UE , wherein the activation request information includes a request to deactivate the one or more secondary cells; and transmitting, from the UE , the activation message to a serving base station .
Equipment for the centrifugal clarification of a suspension (M) by providing a clarified liquid medium (M2) with a medium pressure (p(M2)), comprising a centrifuge and a device for damping pressure surges comprising a container for passing through the medium with at least one in regions arranged tubular jacket surface , which container is arranged at a liquid outlet of the centrifuge , wherein the container comprises an inlet for supplying a pressurization gas, characterized in that the volume of the container is at most twice larger than the intake volume of the centrifuge , wherein the Equipment comprises an evaluation unit and is equipped for setting a gas volume as a function of a limit level of the medium (M) in the container , and wherein the inlet for the pressurization gas (SG) comprises a separate discharge connection for a cleaning medium.
Exoskeleton system comprising: - a first exoskeleton unit adapted to support a first body part ; - a second exoskeleton unit adapted to support a second body part ; and - a control device ; wherein the control device is adapted to control the first exoskeleton unit and/or the second exoskeleton unit based on a control model , wherein the control model is based on a multibody system which models - the first exoskeleton unit ; - the second exoskeleton unit ; and - the first and/or second body part ; and wherein the first exoskeleton unit and the second exoskeleton unit are mechanically decoupled from each other; characterized in that the first body part supported by the first exoskeleton unit is a body part of a first user ; and wherein the second body part supported by the second exoskeleton unit is a body part of a second user . - a first exoskeleton unit adapted to support a first body part ; - a second exoskeleton unit adapted to support a second body part ; and - a control device ; - the first exoskeleton unit ; - the second exoskeleton unit ; and - the first and/or second body part ; and
Electrode instrument for a resectoscope , wherein the electrode instrument has an electrode at a distal end and is able to be releasably coupled at a proximal end to a working element of the resectoscope via an electrical contact, wherein two electrode casing tubes run from the electrode to the proximal end and each have a respective electrical contact, namely an active contact and a return contact , characterized in that the electrical active contact is arranged electrically insulated inside an electrode casing tube , and the electrical return contact is formed by a casing of an electrode casing tube or is conductively connected to the casing of at least one electrode casing tube, and the active contact protrudes from the electrode casing tube for the electrical contacting at the proximal end .
A fluid processing tube for use in optical analysis, comprising: a fluid containing part being configured to contain a fluid and being formed by: a) at least one first portion suitable for optical analysis, and b) at least one second portion connected to said first portion , wherein the first portion is made from a first material suitable for optical analysis and the second portion is made from a second material that is less brittle than said first material; and a cap comprised by the second portion for closing the fluid containing part of the tube , wherein the cap is made from the second material and is connected to the fluid containing part over a joint . a fluid containing part being configured to contain a fluid and being formed by: a) at least one first portion suitable for optical analysis, and b) at least one second portion connected to said first portion , wherein the first portion is made from a first material suitable for optical analysis and the second portion is made from a second material that is less brittle than said first material; and a) at least one first portion suitable for optical analysis, and b) at least one second portion connected to said first portion , a cap comprised by the second portion for closing the fluid containing part of the tube , wherein the cap is made from the second material and is connected to the fluid containing part over a joint .
A silver powder comprising a large number of particles, wherein each particle has a body containing silver as a main component, and a coating layer covering a surface of the body and containing organic matter as a main component, the particles include polyhedral particles having an aspect ratio of equal to or less than 3.0, and a ratio P1 of a number of the polyhedral particles to a total number of the particles is equal to or greater than 80%, wherein the silver powder has a tap density (TD) of equal to or greater than 5.5 g/cm 3 , wherein the tap density (TD) is measured in accordance with the standards of JIS Z 2512: 2012, characterized in that the silver powder has a median diameter (D50) of equal to or less than 0.5 pm, wherein, in measurement of the median diameter (D50), a cumulative curve of the silver powder is determined by a laser diffraction/scattering particle-size distribution measurement method, wherein the cumulative curve is determined by using a laser diffraction/scattering particle-size distribution meter. each particle has a body containing silver as a main component, and a coating layer covering a surface of the body and containing organic matter as a main component, the particles include polyhedral particles having an aspect ratio of equal to or less than 3.0, and a ratio P1 of a number of the polyhedral particles to a total number of the particles is equal to or greater than 80%, wherein the silver powder has a tap density (TD) of equal to or greater than 5.5 g/cm 3 , wherein the tap density (TD) is measured in accordance with the standards of JIS Z 2512: 2012,
A composition for reducing a pathogen in an environment or for reducing a biofilm in an environment, comprising: a stabilizer, at least one species of Bacillus, one or more surfactants, a protease or an amylase, and a disinfectant, wherein the stabilizer is propylene glycol, glycerol, an oligomer or polymer of ethylene oxide, a methoxypolyethylene glycol, 1,2- dihydroxypropane, methyl glycol or trimethyl glycol; the disinfectant is chlorine, chlorine dioxide, hydrogen peroxide or sodium hypochlorite; and wherein the at least one species of Bacillus is Bacillus subtilis, Bacillus licheniformis, Bacillus pumilus, Bacillus coagulans, Bacillus amyloliquefaciens, Bacillus megaterium, or Bacillus mojavensis. a stabilizer, at least one species of Bacillus, one or more surfactants, a protease or an amylase, and a disinfectant, wherein the stabilizer is propylene glycol, glycerol, an oligomer or polymer of ethylene oxide, a methoxypolyethylene glycol, 1,2- dihydroxypropane, methyl glycol or trimethyl glycol; the disinfectant is chlorine, chlorine dioxide, hydrogen peroxide or sodium hypochlorite; and