mhurhangee/patent-ind-claim-en huggingface dataset:
An organic light emitting device comprising: a first substrate (SU1); a plurality of electrodes (E1, E2, E3) on the first substrate; a pixel definition layer (PDL) on the plurality of electrodes and comprising a plurality of openings (OM1, OM2, OM3) and respectively exposing the plurality of electrodes, the pixel definition layer defining a plurality of pixels that each include a first subpixel, a second subpixel, and a third subpixel which are able to emit colors being different from each other; and a spacer (SPC1, SPC2) on the pixel definition layer, characterised in that the pixel definition layer comprises, for each pixel, a first opening and a second opening adjacent to each other along a first direction by an interval, and a third opening adjacent to the first opening and the second opening by an interval along a second direction crossing the first direction, wherein a side of the first opening and a side of the second opening both face a long side of the third opening along the second direction, wherein the first opening corresponds to the first subpixel, the second opening corresponds to the second subpixel, and the third opening corresponds to the third subpixel, and wherein the spacer is at a crossing point of a first imaginary line extending in the first direction and passing between the first opening of a first pixel and the third opening of the first pixel and a second imaginary line extending in the second direction and passing between the first opening of the first pixel and the second opening of a second pixel adjacent to the first pixel in the first direction. a first substrate (SU1); a plurality of electrodes (E1, E2, E3) on the first substrate; a pixel definition layer (PDL) on the plurality of electrodes and comprising a plurality of openings (OM1, OM2, OM3) and respectively exposing the plurality of electrodes, the pixel definition layer defining a plurality of pixels that each include a first subpixel, a second subpixel, and a third subpixel which are able to emit colors being different from each other; and a spacer (SPC1, SPC2) on the pixel definition layer, characterised in that the pixel definition layer comprises, for each pixel, a first opening and a second opening adjacent to each other along a first direction by an interval, and a third opening adjacent to the first opening and the second opening by an interval along a second direction crossing the first direction, wherein a side of the first opening and a side of the second opening both face a long side of the third opening along the second direction, wherein the first opening corresponds to the first subpixel, the second opening corresponds to the second subpixel, and the third opening corresponds to the third subpixel, and wherein the spacer is at a crossing point of a first imaginary line extending in the first direction and passing between the first opening of a first pixel and the third opening of the first pixel and a second imaginary line extending in the second direction and passing between the first opening of the first pixel and the second opening of a second pixel adjacent to the first pixel in the first direction.
A beverage machine for producing coffee-based beverages comprising - a pump to supply pressurized water, - a heater for heating the water supplied by the pump , - a brewing chamber , which is fillable with coffee powder, - a piping being in fluid connection with the pump , the heater and the brewing chamber for conducting pressurized water into the brewing chamber , the piping is comprising a first feed pipe between the pump and the heater and a second feed pipe between the heater and the brewing chamber , wherein the second feed pipe is comprising at least a first valve , - a dispensing device for dispensing the coffee-based beverage produced in the brewing chamber by brewing the coffee powder with water supplied by the pump , wherein a cooler is arranged in the second feed pipe downstream of the first valve for cooling the water heated by the heater , characterized in that the cooler is a heat exchanger , which is thermally coupling the first feed pipe and the second feed pipe for cooling the heated water fed by the second feed pipe to the brewing chamber . - a pump to supply pressurized water, - a heater for heating the water supplied by the pump , - a brewing chamber , which is fillable with coffee powder, - a piping being in fluid connection with the pump , the heater and the brewing chamber for conducting pressurized water into the brewing chamber , the piping is comprising a first feed pipe between the pump and the heater and a second feed pipe between the heater and the brewing chamber , wherein the second feed pipe is comprising at least a first valve , - a dispensing device for dispensing the coffee-based beverage produced in the brewing chamber by brewing the coffee powder with water supplied by the pump , wherein a cooler is arranged in the second feed pipe downstream of the first valve for cooling the water heated by the heater , characterized in that the cooler is a heat exchanger , which is thermally coupling the first feed pipe and the second feed pipe for cooling the heated water fed by the second feed pipe to the brewing chamber .
An image inspection device for print defect detection in a captured image, wherein the captured image is obtained by capturing a printed image on a printed recording medium, which has been printed to the recording medium on the basis of print data, comprising: an imaging unit configured to capture the printed image; an inspection unit configured to inspect the captured image obtained by capturing the printed image by the imaging unit for detecting the print defects; an image storage unit configured to hold the captured image; and a saving processing unit configured to record the captured image into the image storage unit , wherein the saving processing unit adapts a data size of the recorded captured image by dynamically changing a recording resolution of the captured image at a time of recording the captured image into the image storage unit , in accordance with a result of an inspection for detecting print defects by the inspection unit . an imaging unit configured to capture the printed image; an inspection unit configured to inspect the captured image obtained by capturing the printed image by the imaging unit for detecting the print defects; an image storage unit configured to hold the captured image; and a saving processing unit configured to record the captured image into the image storage unit , wherein the saving processing unit adapts a data size of the recorded captured image by dynamically changing a recording resolution of the captured image at a time of recording the captured image into the image storage unit , in accordance with a result of an inspection for detecting print defects by the inspection unit .
Apparatus comprising a plurality of sensors the apparatus being configured to: determine whether a user is wearing an item in which the apparatus is comprisable, wherein the apparatus is configured to operate at least one sensor in the plurality to perform the determination; in response to a positive determination operate the apparatus in an active operating mode, wherein the active operating mode comprises operating one or more sensors in the plurality to generate data associated with motion of the user at a first sampling rate; in response to a negative determination, determine whether a first predetermined time period has elapsed; in response to determining that the first predetermined time period has elapsed, operate the apparatus in a deep sleep operating mode; in response to determining that the first predetermined time period has not elapsed, determine whether a second predetermined time period has elapsed, the second predetermined time period being shorter than the first predetermined time period; and in response to determining that the second predetermined time period has elapsed, operate the apparatus in a sleep operating mode. determine whether a user is wearing an item in which the apparatus is comprisable, wherein the apparatus is configured to operate at least one sensor in the plurality to perform the determination; in response to a positive determination operate the apparatus in an active operating mode, wherein the active operating mode comprises operating one or more sensors in the plurality to generate data associated with motion of the user at a first sampling rate; in response to a negative determination, determine whether a first predetermined time period has elapsed; in response to determining that the first predetermined time period has elapsed, operate the apparatus in a deep sleep operating mode; in response to determining that the first predetermined time period has not elapsed, determine whether a second predetermined time period has elapsed, the second predetermined time period being shorter than the first predetermined time period; and in response to determining that the second predetermined time period has elapsed, operate the apparatus in a sleep operating mode.
A dispenser assembly comprising a nasal fluid dispenser device having a reservoir forming body containing fluid or that supports such a reservoir in stationary manner, a dispenser head being assembled on said body , said dispenser head being provided with a dispenser orifice , said assembly further comprising a positioner member that co-operates with said nasal dispenser device, said positioner member including at least a first facial bearing zone that, during actuation, co-operates with the forehead or the bridge of the user's nose, the assembly being characterized in that said dispenser head is movable axially relative to said body , said positioner member including at least one hollow sleeve in which said dispenser head is inserted in clamping manner, said positioner member including a second facial bearing zone that is adapted to co-operate with the user's top lip.
A liquid cartridge comprising: a front wall ; a rear wall opposite the front wall; a liquid chamber positioned between the front wall and the rear wall; a liquid outlet through the front wall and configured to supply the liquid from the interior of the chamber to the exterior of the liquid chamber; an actuator being movable between a first position, and a second position; a detector positioned in the chamber, the detector being movable from a restricted position and a released position in which the detector is detective from the exterior of the liquid cartridge; and said liquid cartridge being characterized by a restriction member configured to move between a release position in which the detector is movable to the released position, and a restrict position to position the detector in the restricted position; wherein the restriction member is movable from the restrict position to the release position in response to movement of the actuator from the first to the second position; and the restriction member is movable from the release position to the restrict position in response to movement of the actuator from the second to the first position. a front wall ; a rear wall opposite the front wall; a liquid chamber positioned between the front wall and the rear wall; a liquid outlet through the front wall and configured to supply the liquid from the interior of the chamber to the exterior of the liquid chamber; an actuator being movable between a first position, and a second position; a detector positioned in the chamber, the detector being movable from a restricted position and a released position in which the detector is detective from the exterior of the liquid cartridge; and said liquid cartridge being characterized by a restriction member configured to move between a release position in which the detector is movable to the released position, and a restrict position to position the detector in the restricted position; wherein the restriction member is movable from the restrict position to the release position in response to movement of the actuator from the first to the second position; and the restriction member is movable from the release position to the restrict position in response to movement of the actuator from the second to the first position.
A method of managing a plurality of files in a storage system, comprising: providing at least one metadata location server of the storage system, wherein the storage system has a plurality of interconnected independent servers and wherein the at least one metadata location server has a table with plurality of file identifiers, each of the file identifiers including a pointer to a respective metadata file object stored on a metadata server , the respective metadata file object containing a layout storage object that indicates storage parameters for a respective file of a plurality of files (134-136), the layout storage object indicating at least one synchronous or asynchronous mirror for the respective file; and accessing a particular one of the plurality of files (134-136) by obtaining information from the at least one metadata location server to access the metadata server containing the layout storage object corresponding to the particular file to determine the at least one mirror for the particular file, wherein the at least one mirror is provided on at least one data server that is independent of the at least one metadata location server and wherein the at least one metadata server is independent of the at least one metadata location server and is independent of the at least one data server. providing at least one metadata location server of the storage system, wherein the storage system has a plurality of interconnected independent servers and wherein the at least one metadata location server has a table with plurality of file identifiers, each of the file identifiers including a pointer to a respective metadata file object stored on a metadata server , the respective metadata file object containing a layout storage object that indicates storage parameters for a respective file of a plurality of files (134-136), the layout storage object indicating at least one synchronous or asynchronous mirror for the respective file; and accessing a particular one of the plurality of files (134-136) by obtaining information from the at least one metadata location server to access the metadata server containing the layout storage object corresponding to the particular file to determine the at least one mirror for the particular file, wherein the at least one mirror is provided on at least one data server that is independent of the at least one metadata location server and wherein the at least one metadata server is independent of the at least one metadata location server and is independent of the at least one data server.
A method of producing a decellularized transplantation material, comprising the steps of: (a) decellularizing a branch-bearing blood vessel from a vertebrate animal;and (b) adhering, by a protein denaturation treatment, a portion where a branch has been excised to close the vessel, wherein said protein denaturation treatment is an ultrasound vibration treatment or is carried out by the use of an electric scalpel. (a) decellularizing a branch-bearing blood vessel from a vertebrate animal;and (b) adhering, by a protein denaturation treatment, a portion where a branch has been excised to close the vessel, wherein said protein denaturation treatment is an ultrasound vibration treatment or is carried out by the use of an electric scalpel.
An automatic machine for bending and/or calendering spacer profiles intended to form spacer frames for an insulating glazing unit comprising a carriage provided with clamps and having an intermittent and bidirectional action for moving the spacer profile ; a bending head having jaws and a punch ; a bending lever directly downstream of the punch that is provided with a rotary motion (ω), the coordinated operation of all these mechanisms actuating the bending and/or calendering, characterized in that downstream of the bending head there is arranged a mechanism that mates with and retains a portion of the spacer frame (3, 3', 3"), configured for supporting said portion and movably guiding said portion during all the operating steps of bending and/or calendering along a path that is synchronous with the geometric position described by said portion of the spacer frame during the forming of the spacer frame (3, 3', 3") performed by the carriage and by the bending head , in order to compensate the loads produced by the force of gravity and by inertial and friction reactions, wherein the mechanism comprises at least one arm rotatable by means of a motor and a support/carriage slidable along said arm , wherein said support/carriage comprises clamps for selectively coupling and uncoupling the spacer frame (3, 3', 3") to the support/carriage , .
A flow cell module for use in a liquid sample analyzer , the liquid sample analyzer including a radiation source , a sensing device and a liquid sample source , the flow cell module comprising: a module housing ; a liquid core waveguide mounted in the module housing and configured to receive a flow of a liquid sample from the liquid sample source; an output optical fiber disposed in the module housing and configured to transmit radiation from the liquid core waveguide to the sensing device; an output termination on an output end of the output optical fiber, wherein the output termination is kinematically mounted in the module housing; characterized in that : the flow cell module includes a kinematic connection mechanism operative to bias the output termination in a prescribed direction (K5) along a displacement axis (F-F) while permitting displacement of the output termination in an opposing direction (K6) along the displacement axis. a module housing ; a liquid core waveguide mounted in the module housing and configured to receive a flow of a liquid sample from the liquid sample source; an output optical fiber disposed in the module housing and configured to transmit radiation from the liquid core waveguide to the sensing device; an output termination on an output end of the output optical fiber,
A metal-containing sorbent comprising: a) a precursor comprising a reaction product of a mixture comprising 1) a porous siliceous material having mesopores; and 2) a surface treatment agent in an amount in a range of 0.1 to 4.5 mmoles per gram of the porous siliceous material, the surface treatment agent comprising (a) a silane of Formula (I) R 1 -Si(R 2 ) 3-x (R 3 ) x (I) wherein R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or (b) a disilazane of Formula (II) (R 4 ) 3 -Si-NH-Si(R 4 ) 3 (II) wherein each R 4 is a hydrocarbon group; or (c) a mixture of the silane of Formula (I) and the disilazane of Formula (II); and b) a divalent metal impregnated into the precursor in an amount equal to at least 5 weight percent based on the total weight of the sorbent. a) a precursor comprising a reaction product of a mixture comprising 1) a porous siliceous material having mesopores; and 2) a surface treatment agent in an amount in a range of 0.1 to 4.5 mmoles per gram of the porous siliceous material, the surface treatment agent comprising (a) a silane of Formula (I) R 1 -Si(R 2 ) 3-x (R 3 ) x (I) wherein R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or (b) a disilazane of Formula (II) (R 4 ) 3 -Si-NH-Si(R 4 ) 3 (II) wherein each R 4 is a hydrocarbon group; or (c) a mixture of the silane of Formula (I) and the disilazane of Formula (II); and 1) a porous siliceous material having mesopores; and 2) a surface treatment agent in an amount in a range of 0.1 to 4.5 mmoles per gram of the porous siliceous material, the surface treatment agent comprising (a) a silane of Formula (I) R 1 -Si(R 2 ) 3-x (R 3 ) x (I) wherein R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or (b) a disilazane of Formula (II) (R 4 ) 3 -Si-NH-Si(R 4 ) 3 (II) wherein each R 4 is a hydrocarbon group; or (c) a mixture of the silane of Formula (I) and the disilazane of Formula (II); and (a) a silane of Formula (I) R 1 -Si(R 2 ) 3-x (R 3 ) x (I) wherein R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or R 1 is a hydrocarbon or fluorinated hydrocarbon group; R 2 is a hydrolyzable group; R 3 is a non-hydrolyzable group; x in an integer equal to 0, 1, or 2; or (b) a disilazane of Formula (II) (R 4 ) 3 -Si-NH-Si(R 4 ) 3 (II) wherein each R 4 is a hydrocarbon group; or (c) a mixture of the silane of Formula (I) and the disilazane of Formula (II); and b) a divalent metal impregnated into the precursor in an amount equal to at least 5 weight percent based on the total weight of the sorbent.
Method for synchronization in a satellite communications system , comprising at least one satellite , wherein communication transmissions to the at least one satellite occur via a respective communications link with the satellite, the method comprising: - determining a system timing reference based on a global positioning system, GPS, timing reference and determining a system frequency reference; - periodically determining a timing delay factor and a frequency Doppler factor of the at least one satellite to which the transmissions occur based on respective satellite ephemeris data reflecting velocity and direction vector motion of the satellite; - dynamically adjusting the system timing reference based on the timing delay factor, and dynamically adjusting the system frequency reference based on the frequency Doppler factor, for the at least one satellite to which the communication transmissions occur; and - synchronizing timing and frequency of the transmissions to the at least one satellite based on the respective adjusted system timing reference and the respective adjusted system frequency reference; characterised in that the periodic determination and dynamic adjustment of the system timing reference and the system frequency reference are performed on a frame-by-frame basis or a slot-by-slot basis. - determining a system timing reference based on a global positioning system, GPS, timing reference and determining a system frequency reference; - periodically determining a timing delay factor and a frequency Doppler factor of the at least one satellite to which the transmissions occur based on respective satellite ephemeris data reflecting velocity and direction vector motion of the satellite; - dynamically adjusting the system timing reference based on the timing delay factor, and dynamically adjusting the system frequency reference based on the frequency Doppler factor, for the at least one satellite to which the communication transmissions occur; and - synchronizing timing and frequency of the transmissions to the at least one satellite based on the respective adjusted system timing reference and the respective adjusted system frequency reference; characterised in that the periodic determination and dynamic adjustment of the system timing reference and the system frequency reference are performed on a frame-by-frame basis or a slot-by-slot basis.