mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic material handling system comprising: (i) a storage stocker system having: - a stocker loading station for inputting or outputting substrate containers, operable alternatively manually or automatically, - a bare storage area for storing the substrates in bare form, - a robotic transfer for transferring substrates between the stocker loading station and the bare substrate area , wherein the substrates within the containers are removed from the containers and stored bare in the bare substrate area and vice versa, (ii) an IO-buffer assembly, operable independently of the storage stocker system , having: - a buffer loading station adapted for holding a container, - one or more buffer stations for storing one or more containers containing substrates; - a buffer transfer mechanism to transfer containers between the buffer loading station and the buffer stations ; the automatic material handling system being characterized in that it further comprises (iii) an interface mechanism adapted for transferring directly a container between the one or more buffer stations and the stocker loading station . (i) a storage stocker system having: - a stocker loading station for inputting or outputting substrate containers, operable alternatively manually or automatically, - a bare storage area for storing the substrates in bare form, - a robotic transfer for transferring substrates between the stocker loading station and the bare substrate area , wherein the substrates within the containers are removed from the containers and stored bare in the bare substrate area and vice versa, - a stocker loading station for inputting or outputting substrate containers, operable alternatively manually or automatically, - a bare storage area for storing the substrates in bare form, - a robotic transfer for transferring substrates between the stocker loading station and the bare substrate area , wherein the substrates within the containers are removed from the containers and stored bare in the bare substrate area and vice versa, (ii) an IO-buffer assembly, operable independently of the storage stocker system , having: - a buffer loading station adapted for holding a container, - one or more buffer stations for storing one or more containers containing substrates; - a buffer transfer mechanism to transfer containers between the buffer loading station and the buffer stations ; the automatic material handling system being characterized in that it further comprises - a buffer loading station adapted for holding a container, - one or more buffer stations for storing one or more containers containing substrates; - a buffer transfer mechanism to transfer containers between the buffer loading station and the buffer stations ; the automatic material handling system being characterized in that it further comprises (iii) an interface mechanism adapted for transferring directly a container between the one or more buffer stations and the stocker loading station .
An anti-icing system for a gas turbine system , the anti-icing system comprising: a plurality of nozzles , wherein each nozzle of the plurality of nozzles comprises one or more outlets that are configured to inject a heated fluid into an airflow within an air intake conduit ; and a plurality of plates disposed upstream of the one or more outlets , wherein each plate of the plurality of plates extends laterally across the air intake conduit and is vertically spaced apart from one or more adjacent plates to define one or more vertically-extending gaps , and the plurality of plates is configured to direct the airflow through the one or more vertically-extending gaps to spread the airflow upstream of the one or more outlets to facilitate mixing of the heated fluid and the airflow , characterized in that a respective height of at least one plate of the plurality of plates causes the at least one plate of the plurality of plates to extend vertically across two vertically-stacked rows of the plurality of nozzles . a plurality of nozzles , wherein each nozzle of the plurality of nozzles comprises one or more outlets that are configured to inject a heated fluid into an airflow within an air intake conduit ; and a plurality of plates disposed upstream of the one or more outlets , wherein each plate of the plurality of plates extends laterally across the air intake conduit and is vertically spaced apart from one or more adjacent plates to define one or more vertically-extending gaps , and the plurality of plates is configured to direct the airflow through the one or more vertically-extending gaps to spread the airflow upstream of the one or more outlets to facilitate mixing of the heated fluid and the airflow , characterized in that a respective height of at least one plate of the plurality of plates causes the at least one plate of the plurality of plates to extend vertically across two vertically-stacked rows of the plurality of nozzles .
A carbon-coated thermal conductive material comprising: a coating layer comprising amorphous carbon on the surface of a thermal conductive material, wherein the thermal conductive material comprises a metal oxide, a metal nitride, a metal material, or a carbon-based material having a thermal conductivity of 10 W/mK or greater, the amorphous carbon is derived from carbon contained in an oxazine resin, characterized in that the coating layer has an average film thickness of 500 nm or less and a coefficient of variation (CV value) of a film thickness of 15% or less, the amorphous carbon, when analyzed by Raman spectroscopy, having a ratio of a peak intensity of a G band to a peak intensity of a D band of 1.0 or greater. a coating layer comprising amorphous carbon on the surface of a thermal conductive material, wherein the thermal conductive material comprises a metal oxide, a metal nitride, a metal material, or a carbon-based material having a thermal conductivity of 10 W/mK or greater, the amorphous carbon is derived from carbon contained in an oxazine resin,
A Siegbahn vacuum exhaust mechanism , comprising: a housing in which an inlet port and an outlet port are formed; a rotating shaft contained in the housing and supported rotatably; a rotating body part that has a rotating disc-shaped portion disposed on the rotating shaft or an outer peripheral surface of a cylindrical body disposed around the rotating shaft ; a stator disc-shaped portion that is disposed concentrically with the rotating disc-shaped portion and is opposite to the rotating disc-shaped portion in an axial direction with a space therebetween; and a spacer portion that is formed separately from the stator disc-shaped portion , or integrally with the stator disc-shaped portion in order to fix the stator disc-shaped portion, the Siegbahn vacuum exhaust mechanism transferring a gas suctioned from a side of the inlet port to a side of the outlet port by an interaction between the rotating disc-shaped portion and the stator disc-shaped portion, wherein a spiral-shaped groove with a ridge portion and a root portion is provided in the stator disc-shaped portion, the spiral-shaped groove being engraved between an inner side and an outer side of the stator disc-shaped portion, and characterised in that the rotating disc-shaped portion has, in at least a part of an outer peripheral portion thereof, a groove portion for connecting a surface of the rotating disc-shaped portion on the side of the inlet port with a surface of the same on the side of the outlet port. a housing in which an inlet port and an outlet port are formed; a rotating shaft contained in the housing and supported rotatably; a rotating body part that has a rotating disc-shaped portion disposed on the rotating shaft or an outer peripheral surface of a cylindrical body disposed around the rotating shaft ; the rotating shaft or an outer peripheral surface of a cylindrical body disposed around the rotating shaft ; a stator disc-shaped portion that is disposed concentrically with the rotating disc-shaped portion and is opposite to the rotating disc-shaped portion in an axial direction with a space therebetween; and a spacer portion that is formed separately from the stator disc-shaped portion , or integrally with the stator disc-shaped portion in order to fix the stator disc-shaped portion, the Siegbahn vacuum exhaust mechanism transferring a gas suctioned from a side of the inlet port to a side of the outlet port by an interaction between the rotating disc-shaped portion and the stator disc-shaped portion, wherein a spiral-shaped groove with a ridge portion and a root portion is provided in the stator disc-shaped portion, the spiral-shaped groove being engraved between an inner side and an outer side of the stator disc-shaped portion, and characterised in that the rotating disc-shaped portion has, in at least a part of an outer peripheral portion thereof, a groove portion for connecting a surface of the rotating disc-shaped portion on the side of the inlet port with a surface of the same on the side of the outlet port.
Use of a stationary phase for supercritical fluid chromatography, wherein the stationary phase comprises a carrier and a polymer including a pyrrolidone backbone in repeating units of a main chain of the polymer, the polymer being supported on the carrier, and the stationary phase comprises a structure represented by Formula (II): in Formula II, W' is a single bond or an unbranched or branched alkylene group having carbon number of 1 to 10; X is an amide group, an ester group, a N-alkylamide group having carbon number of 1 to 3, an ether group, a sulfoxide group, a sulfone group, a sulfide group or a phosphate ester group; Y is an alkylene group having carbon number of 1 to 30; V is an ether group bonded to a carrier surface, an alkoxy group having carbon number of 1 to 5 or an alkyl group having carbon number of 1 to 3; p is 1 to 10; and q is 10 to 300.
A communication method, comprising: detecting (S620), by a terminal based on a synchronization signal raster, a synchronization signal from a network device, wherein a size of the synchronization signal raster is determined based on a frequency band in which a carrier is located, and a first physical resource block, PRB, grid is used for the synchronization signal; receiving (S640), by the terminal through a physical broadcast channel, PBCH, first indication information from the network device, wherein the first indication information is used to indicate a first frequency offset between the first PRB grid and a second PRB grid; determining (S650, S121), by the terminal, the second PRB grid based on the first PRB grid and the first frequency offset; receiving (S122), by the terminal through remaining minimum system information, RMSI, second indication information from the network device, wherein the second indication information is used to indicate a second frequency offset between the second PRB grid and a third PRB grid; and performing (S124), by the terminal, information transmission with the network device based on the third PRB grid. detecting (S620), by a terminal based on a synchronization signal raster, a synchronization signal from a network device, wherein a size of the synchronization signal raster is determined based on a frequency band in which a carrier is located, and a first physical resource block, PRB, grid is used for the synchronization signal; receiving (S640), by the terminal through a physical broadcast channel, PBCH, first indication information from the network device, wherein the first indication information is used to indicate a first frequency offset between the first PRB grid and a second PRB grid; determining (S650, S121), by the terminal, the second PRB grid based on the first PRB grid and the first frequency offset; receiving (S122), by the terminal through remaining minimum system information, RMSI, second indication information from the network device, wherein the second indication information is used to indicate a second frequency offset between the second PRB grid and a third PRB grid; and performing (S124), by the terminal, information transmission with the network device based on the third PRB grid.
Amusement ride comprising a stationary track structure which extends along a path trajectory (B), a vehicle guided on the track structure such that it can move along the path trajectory (B), wherein the vehicle is electrically drivable by a linear motor, wherein the linear motor has as motor components : - at least one winding component which can be energised to generate a magnetic field that changes over time and spatially, having a plurality of energisable windings of at least one electrical conductor, and - at least one reaction component , which interacts with the magnetic field of the at least one winding component to generate a force acting between the winding component and the reaction component along the track trajectory (B), wherein a motor component of the at least one winding component and the at least one reaction component is arranged in a fixed position on the track structure , and the other respective motor component is arranged on the vehicle for joint movement with the vehicle , wherein the at least one winding component is arranged on the vehicle and the at least one reaction component is arranged on the track structure , wherein at least one energy coupling device is arranged at least along at least one section of the track structure , wherein the vehicle comprises at least one energy counter-coupling device for mechanical and/or inductive energy-transmitting coupling with the energy coupling device , characterised in that it comprises a stationary converter for outputting an alternating output voltage with variable frequency, wherein one of the at least one energy coupling devices is supplied with the alternating output voltage. - at least one winding component which can be energised to generate a magnetic field that changes over time and spatially, having a plurality of energisable windings of at least one electrical conductor, and - at least one reaction component , which interacts with the magnetic field of the at least one winding component to generate a force acting between the winding component and the reaction component along the track trajectory (B), wherein a motor component of the at least one winding component and the at least one reaction component is arranged in a fixed position on the track structure , and the other respective motor component is arranged on the vehicle for joint movement with the vehicle , wherein the at least one winding component is arranged on the vehicle and the at least one reaction component is arranged on the track structure , wherein at least one energy coupling device is arranged at least along at least one section of the track structure , wherein the vehicle comprises at least one energy counter-coupling device for mechanical and/or inductive energy-transmitting coupling with the energy coupling device , characterised in that it comprises a stationary converter for outputting an alternating output voltage with variable frequency, wherein one of the at least one energy coupling devices is supplied with the alternating output voltage.
A solar cell module comprising: a front side transparent plate ; a rear face sealing plate made of glass; and a solar cell sealed between a rear side of the front side transparent plate and the rear face sealing plate , wherein an area of the rear face sealing plate is larger than a light receiving area of the solar cell and an area of the front side transparent plate , and wherein a surplus region , in which neither the solar cell nor the front side transparent plate is present, is present on a front side of the rear face sealing plate , the solar cell module being characterized by further comprising a step forming plate having a light transmissive property, the step forming plate being placed on a front side of the front side transparent plate in such a manner that a part of the step forming plate overlaps with a region in which the front side transparent plate is present and the rest part of the step forming plate protrudes from the front side transparent plate . a front side transparent plate ; a rear face sealing plate made of glass; and a solar cell sealed between a rear side of the front side transparent plate and the rear face sealing plate , wherein an area of the rear face sealing plate is larger than a light receiving area of the solar cell and an area of the front side transparent plate , and wherein a surplus region , in which neither the solar cell nor the front side transparent plate is present, is present on a front side of the rear face sealing plate , the solar cell module being characterized by further comprising a step forming plate having a light transmissive property, the step forming plate being placed on a front side of the front side transparent plate in such a manner that a part of the step forming plate overlaps with a region in which the front side transparent plate is present and the rest part of the step forming plate protrudes from the front side transparent plate .
A mobile station in a wireless communication network, comprising: a radio communication unit configured to communicate with a target base station via a communication channel formed by aggregating first and second component carriers, transmit an access request message to the target base station via the first component carrier , and receive a timing adjustment value in response to the access request message from the target base station ; an adjustment value storage unit configured to store the timing adjustment value; and a control unit configured to adjust access timing corresponding to the second component carrier based on the timing adjustment value stored in the adjustment value storage unit, to control a handover from a source base station to the target base station characterized in that the control unit is further configured to skip a random access to the target base station on the second component carrier, when the second component carrier is within a predetermined frequency range of the first component carrier. a radio communication unit configured to communicate with a target base station via a communication channel formed by aggregating first and second component carriers, transmit an access request message to the target base station via the first component carrier , and receive a timing adjustment value in response to the access request message from the target base station ; an adjustment value storage unit configured to store the timing adjustment value; and a control unit configured to adjust access timing corresponding to the second component carrier based on the timing adjustment value stored in the adjustment value storage unit, to control a handover from a source base station to the target base station characterized in that the control unit is further configured to skip a random access to the target base station on the second component carrier, when the second component carrier is within a predetermined frequency range of the first component carrier.
An organic light-emitting display device comprising: a light-emitting structure including a lower electrode , an organic light emitting layer and an upper electrode , which are sequentially stacked; a protective layer on the light emitting structure; an auxiliary electrode spaced apart from the lower electrode ; a first bank insulating layer covering an edge of the lower electrode, the first bank insulating layer including a first hole such that at least a portion of an upper surface of the lower electrode is not covered by the first bank insulating layer and a second hole such that at least a portion of an upper surface of the auxiliary electrode is not covered by the first bank insulating layer; a second bank insulating layer inside the second hole of the first bank insulating layer, the second bank insulating layer spaced apart from the first bank insulating layer; and a partition wall on the second bank insulating layer, wherein the partition wall overhangs the second bank insulating layer; wherein a length of the second hole in a widthwise direction of the auxiliary electrode is larger than the width of the auxiliary electrode, such that an edge of the auxiliary electrode is exposed by the second hole, wherein an outermost point of a side surface of the partition wall is disposed over a point between the first bank insulating layer and the second bank insulating layer; and wherein the upper electrode and the protective layer are sequentially stacked on side surfaces of the first bank insulating layer facing the second bank insulating layer. a light-emitting structure including a lower electrode , an organic light emitting layer and an upper electrode , which are sequentially stacked; a protective layer on the light emitting structure; an auxiliary electrode spaced apart from the lower electrode ; a first bank insulating layer covering an edge of the lower electrode, the first bank insulating layer including a first hole such that at least a portion of an upper surface of the lower electrode is not covered by the first bank insulating layer and a second hole such that at least a portion of an upper surface of the auxiliary electrode is not covered by the first bank insulating layer; a second bank insulating layer inside the second hole of the first bank insulating layer, the second bank insulating layer spaced apart from the first bank insulating layer; and a partition wall on the second bank insulating layer, wherein the partition wall overhangs the second bank insulating layer; wherein a length of the second hole in a widthwise direction of the auxiliary electrode is larger than the width of the auxiliary electrode, such that an edge of the auxiliary electrode is exposed by the second hole, wherein an outermost point of a side surface of the partition wall is disposed over a point between the first bank insulating layer and the second bank insulating layer; and wherein the upper electrode and the protective layer are sequentially stacked on side surfaces of the first bank insulating layer facing the second bank insulating layer.
A node unit of a distributed antenna system, the node unit comprising: a delay measuring part configured to transmit a first test signal to a first adjacent node unit, and measure a first round trip delay between the node unit and the first adjacent node unit based on the first test signal looped back via the first adjacent node unit; and a delay providing part configured to provide a delay corresponding to the first round trip delay to a second test signal transmitted from a second adjacent node unit, wherein the second test signal is used for measuring a second round trip delay between the second adjacent node unit and the node unit by the second adjacent node unit. a delay measuring part configured to transmit a first test signal to a first adjacent node unit, and measure a first round trip delay between the node unit and the first adjacent node unit based on the first test signal looped back via the first adjacent node unit; and a delay providing part configured to provide a delay corresponding to the first round trip delay to a second test signal transmitted from a second adjacent node unit, wherein the second test signal is used for measuring a second round trip delay between the second adjacent node unit and the node unit by the second adjacent node unit.