mhurhangee/ep-ind-claims huggingface dataset:
A printer comprising: an ink storage unit that stores an ink; a head unit that ejects the ink onto a medium; a plurality of supply flow tubes (372, 374, 376, 378) that connect the ink storage unit to the head unit thereby functioning as a supply flow channel for supplying the ink from the ink storage unit to the head unit; a plurality of bypass flow tubes (382, 384, 386, 388) hung between the supply flow tubes thereby to form a closed flow channel providing a circulation flow channel within which ink can circulate; a maintenance solution storage unit that stores a maintenance solution; and a controller that manages the operation of the printer, wherein: the controller is configured to perform an ink circulation process in which ink is circulated inside the circulation flow channel which is configured only by the supply flow tubes and the bypass flow tubes; and the controller is configured to perform a maintenance solution process in which the maintenance solution flows from the maintenance solution storage unit into a section which is located further to the downstream side of the supply flow channel than the circulation flow channel, and into the head unit. an ink storage unit that stores an ink; a head unit that ejects the ink onto a medium; a plurality of supply flow tubes (372, 374, 376, 378) that connect the ink storage unit to the head unit thereby functioning as a supply flow channel for supplying the ink from the ink storage unit to the head unit; a plurality of bypass flow tubes (382, 384, 386, 388) hung between the supply flow tubes thereby to form a closed flow channel providing a circulation flow channel within which ink can circulate; a maintenance solution storage unit that stores a maintenance solution; and a controller that manages the operation of the printer, wherein: the controller is configured to perform an ink circulation process in which ink is circulated inside the circulation flow channel which is configured only by the supply flow tubes and the bypass flow tubes; and the controller is configured to perform an ink circulation process in which ink is circulated inside the circulation flow channel which is configured only by the supply flow tubes and the bypass flow tubes; and the controller is configured to perform a maintenance solution process in which the maintenance solution flows from the maintenance solution storage unit into a section which is located further to the downstream side of the supply flow channel than the circulation flow channel, and into the head unit.
A method for staging and/or typing of a cancerous disease, said method comprising the following steps: (a) detecting somatic alterations of the DNA of one or more disseminated cancer cell(s) (DCC(s)) obtained from one or more lymph node(s); and (b) determining the somatic evolution of the DCC(s), based on the detected somatic alteration(s) in step (a), wherein the somatic evolution of the DCC(s) is indicative of the stage/type of the cancerous disease and wherein the cancerous disease is a melanoma. (a) detecting somatic alterations of the DNA of one or more disseminated cancer cell(s) (DCC(s)) obtained from one or more lymph node(s); and (b) determining the somatic evolution of the DCC(s), based on the detected somatic alteration(s) in step (a),
A paper sheet storage device performing a storage operation of storing a paper sheet sent into the device and a feeding operation of feeding the paper sheet, the paper sheet storage device comprising: a first tape; a second tape; a first reel configured to wind the first tape from one end of the first tape; a second reel configured to wind the second tape from one end of the second tape; and a drum configured to wind the first tape and the second tape from other ends of the first tape and the second tape, wherein in the storage operation, the first tape and the second tape are wound around the drum with the paper sheet sandwiched therebetween to store the paper sheet, the first tape being positioned outside the paper sheet in a radial direction of the drum, in the feeding operation, the first tape is wound around the first reel and the second tape is wound around the second reel to feed the paper sheet from the drum, characterized in that in at least one of the storage operation or the feeding operation, greater tension acts on the first tape than on the second tape. a first tape; a second tape; a first reel configured to wind the first tape from one end of the first tape; a second reel configured to wind the second tape from one end of the second tape; and a drum configured to wind the first tape and the second tape from other ends of the first tape and the second tape, wherein in the storage operation, the first tape and the second tape are wound around the drum with the paper sheet sandwiched therebetween to store the paper sheet, the first tape being positioned outside the paper sheet in a radial direction of the drum, in the feeding operation, the first tape is wound around the first reel and the second tape is wound around the second reel to feed the paper sheet from the drum, characterized in that in at least one of the storage operation or the feeding operation, greater tension acts on the first tape than on the second tape.
A fan comprising: a fan seat; a fan head having a first surface opposing a second surface of the fan seat; and a first rotating shaft provided at edges of the first surface and the second surface and configured to rotatably couple the fan seat and the fan head, in particular such that the angle between the first surface of the fan head and the second surface of the fan seat is variable; characterized in that the fan seat comprises: a first seat body; and a second seat body, wherein a bottom surface of the second seat body is opposing a top surface of the first seat body, and a top surface of the second seat body is the second surface of the fan seat, and the second seat body is rotatable relative to the first seat body. a fan seat; a fan head having a first surface opposing a second surface of the fan seat; and a first rotating shaft provided at edges of the first surface and the second surface and configured to rotatably couple the fan seat and the fan head, in particular such that the angle between the first surface of the fan head and the second surface of the fan seat is variable; a first seat body; and a second seat body, wherein a bottom surface of the second seat body is opposing a top surface of the first seat body, and a top surface of the second seat body is the second surface of the fan seat, and the second seat body is rotatable relative to the first seat body.
A method performed by a secondary device, the method comprising: listening to a primary device during a receiving slot group of a primary/secondary piconet shared between the primary device and the secondary device, characterized by determining based on the listening during the receiving slot group whether the primary device is attempting to communicate with the secondary device; listening to a host device on a host piconet during a transmitting slot group of the primary/secondary piconet in response to a determination that the primary device is not attempting to communicate with the secondary device; and transmitting to the primary device over the primary/secondary piconet during the transmitting slot group of the primary/secondary piconet in response to a determination that the primary device is attempting to communicate with the secondary device. listening to a primary device during a receiving slot group of a primary/secondary piconet shared between the primary device and the secondary device, characterized by determining based on the listening during the receiving slot group whether the primary device is attempting to communicate with the secondary device; listening to a host device on a host piconet during a transmitting slot group of the primary/secondary piconet in response to a determination that the primary device is not attempting to communicate with the secondary device; and transmitting to the primary device over the primary/secondary piconet during the transmitting slot group of the primary/secondary piconet in response to a determination that the primary device is attempting to communicate with the secondary device.
A processor comprising: at least one memory controller; a decode unit to decode a persistent commit demarcate instruction, the persistent commit demarcate instruction to indicate a destination storage location, and to decode a persistent commit block instruction, the persistent commit block instruction to indicate a source storage location; and an execution unit coupled with the decode unit and the at least one memory controller, the execution unit, in response to the persistent commit demarcate instruction, to store a demarcation value in the destination storage location, wherein the demarcation value is to demarcate at least all first store to persistent memory operations that are to have been accepted to memory when the persistent commit demarcate instruction is performed, but which are not necessarily to have been stored persistently, from at least all second store to persistent memory operations that are not yet to have been accepted to memory when the persistent commit demarcate instruction is performed, and the execution unit, in response to the persistent commit block instruction, to store the demarcation value, wherein the processor is to ensure that said at least all first store to persistent memory operations have been stored persistently, before at least any store to persistent memory instructions are executed after execution of the persistent commit block instruction. at least one memory controller; a decode unit to decode a persistent commit demarcate instruction, the persistent commit demarcate instruction to indicate a destination storage location, and to decode a persistent commit block instruction, the persistent commit block instruction to indicate a source storage location; and an execution unit coupled with the decode unit and the at least one memory controller, the execution unit, in response to the persistent commit demarcate instruction, to store a demarcation value in the destination storage location, wherein the demarcation value is to demarcate at least all first store to persistent memory operations that are to have been accepted to memory when the persistent commit demarcate instruction is performed, but which are not necessarily to have been stored persistently, from at least all second store to persistent memory operations that are not yet to have been accepted to memory when the persistent commit demarcate instruction is performed, and the execution unit, in response to the persistent commit block instruction, to store the demarcation value, wherein the processor is to ensure that said at least all first store to persistent memory operations have been stored persistently, before at least any store to persistent memory instructions are executed after execution of the persistent commit block instruction.
A swimming wearable device, comprising an upper body wearable device, wherein the upper body wearable device comprises an electronic airbag; characterized in that: the swimming wearable device further comprises a lower limb wearable device, wherein the lower limb wearable device comprises a muscle condition monitoring device; the muscle condition monitoring device is connected by signal with the upper body wearable device or with the electronic airbag of the upper body wearable device, and when detecting a muscle spasm in lower limb, the muscle condition monitoring device sends a signal to the upper body wearable device or the electronic airbag of the upper body wearable device, so as to make the upper body wearable device activate the electronic airbag to open or to activate the electronic airbag to open.
A system configured to inspect a wafer, comprising: an illumination subsystem configured to illuminate the wafer; a collection subsystem configured to collect light scattered from the wafer and to preserve the polarization of the scattered light; an optical element configured to separate the scattered light collected in different segments (148, 150) of the collection numerical aperture of the collection subsystem, wherein the optical element is positioned at a Fourier plane or a conjugate of the Fourier plane of the collection subsystem, the optical element including one or more reflective portions for reflecting light scattered in one of said segments of the collection numerical aperture; at least one other reflective optical element in an optical path of the scattered light; a polarizing element configured to separate the scattered light in one of the different segments into different portions (134, 136) of the scattered light based on polarization; and a detector configured to detect one of the different portions of the scattered light and to generate output responsive to the detected light, wherein the output is used to detect defects on the wafer; wherein a thin film coating is formed on the one or more reflective portions of the optical element, and wherein the thin film coating is configured such that phase retardation of p- and s-polarized light caused by the one or more reflective portions is canceled upon reflection by the at least one other reflective optical element of the system. an illumination subsystem configured to illuminate the wafer; a collection subsystem configured to collect light scattered from the wafer and to preserve the polarization of the scattered light; an optical element configured to separate the scattered light collected in different segments (148, 150) of the collection numerical aperture of the collection subsystem, wherein the optical element is positioned at a Fourier plane or a conjugate of the Fourier plane of the collection subsystem, the optical element including one or more reflective portions for reflecting light scattered in one of said segments of the collection numerical aperture; at least one other reflective optical element in an optical path of the scattered light; a polarizing element configured to separate the scattered light in one of the different segments into different portions (134, 136) of the scattered light based on polarization; and a detector configured to detect one of the different portions of the scattered light and to generate output responsive to the detected light, wherein the output is used to detect defects on the wafer; wherein a thin film coating is formed on the one or more reflective portions of the optical element, and wherein the thin film coating is configured such that phase retardation of p- and s-polarized light caused by the one or more reflective portions is canceled upon reflection by the at least one other reflective optical element of the system.
Coupling element having a receiving portion for attachment to a threaded spindle and a coupling portion for connection to a steering column, the coupling portion and the receiving portion being aligned in an axial direction, wherein a plate-shaped base body comprises said receiving portion and said coupling portion, characterized in that said receiving portion comprises two arms extending in an axial direction from said coupling portion with inner sides opposite to each other transversely to said axial direction, wherein at least one arm comprises at least one positive locking member projecting from its inner side.
An induction cooking device comprising: a housing in which at least one of a heat generating component and a heat dissipating component is disposed; a top plate which is held at an upper portion of the housing and on which an object to be heated is to be placed; a heating coil unit disposed inside the housing, below an undersurface of the top plate; a first cooling fan which is disposed inside the housing, and blows first cooling air to cool the at least one of the heat generating component and the heat dissipating component; a second cooling fan which is disposed inside the housing, directly takes in at least a portion of the first cooling air, and blows second cooling air to cool the heating coil unit; and an air guide which guides the second cooling air to the heating coil unit; characterized in that the first cooling fan and the second cooling fan are disposed one above another such that at least a portion of the first cooling fan and at least a portion of the second cooling fan overlap in plan view. a housing in which at least one of a heat generating component and a heat dissipating component is disposed; a top plate which is held at an upper portion of the housing and on which an object to be heated is to be placed; a heating coil unit disposed inside the housing, below an undersurface of the top plate; a first cooling fan which is disposed inside the housing, and blows first cooling air to cool the at least one of the heat generating component and the heat dissipating component; a second cooling fan which is disposed inside the housing, directly takes in at least a portion of the first cooling air, and blows second cooling air to cool the heating coil unit; and an air guide which guides the second cooling air to the heating coil unit; characterized in that the first cooling fan and the second cooling fan are disposed one above another such that at least a portion of the first cooling fan and at least a portion of the second cooling fan overlap in plan view.
An actuation mechanism comprising: a first jaw rotatable about a jaw axis and comprising a first jaw engagement portion, a second jaw rotatable about the jaw axis and comprising a second jaw engagement portion, and a driver rotatable about a drive axis parallel to the jaw axis and comprising a first drive engagement portion and a second drive engagement portion; wherein the first jaw engagement portion and the first drive engagement portion are slidably engageable with one another and the second jaw engagement portion and the second drive engagement portion are slidably engageable with one another; whereby, when the first jaw engagement portion is engaged with the first drive engagement portion and the second jaw engagement portion is engaged with the second drive engagement portion, rotation of the driver about the drive axis causes rotation of the first jaw in a first sense and the second jaw in an opposite sense, wherein one of the first jaw engagement portion and the first drive engagement portion comprises a first pin, and the other one comprises a first radially extending slot; and one of the second jaw engagement portion and the second drive engagement portion comprises a second pin, and the other one comprises a second radially extending slot. a first jaw rotatable about a jaw axis and comprising a first jaw engagement portion, a second jaw rotatable about the jaw axis and comprising a second jaw engagement portion, and a driver rotatable about a drive axis parallel to the jaw axis and comprising a first drive engagement portion and a second drive engagement portion; wherein the first jaw engagement portion and the first drive engagement portion are slidably engageable with one another and the second jaw engagement portion and the second drive engagement portion are slidably engageable with one another; whereby, when the first jaw engagement portion is engaged with the first drive engagement portion and the second jaw engagement portion is engaged with the second drive engagement portion, rotation of the driver about the drive axis causes rotation of the first jaw in a first sense and the second jaw in an opposite sense, wherein one of the first jaw engagement portion and the first drive engagement portion comprises a first pin, and the other one comprises a first radially extending slot; and one of the second jaw engagement portion and the second drive engagement portion comprises a second pin, and the other one comprises a second radially extending slot.
A simmer plate (10;60) for use in cooking liquid food materials in a cooking vessel comprising: the simmer plate (10;60) forming a center section (20;62) defining a top surface on an upper plane, a lower surface (22;70) defining a lower plane displaced from the upper plane and configured to lie on a metal grate above a stove burner, a plurality of radially extending channels (24;64) projecting from the center section (20;62) and terminating at an outer perimeter (26;68) of the plate (10;60), the channels (24;64) formed having an inverted generally U-shaped profile with an upper surface (28;66) located at or near the upper plane and blending into the lower surface (22;70), wherein each of the radially extending channels (24;64) has a tapered cross-section with a larger width at the center section (20;62) and with a width and cross-sectional area decreasing to the outer edge (26;68) of the simmer plate (10;60), a slanted wall (31;74) extending concentrically from the center section (20;62) and between adjacent ones of the channels (24;64), and extending from the top surface to the lower surface (22;70), and at least one first hole (30;34;72;76) formed in the simmer plate (10;60) between the center section (20;62) and the outer perimeter (26;68) and allowing venting of cooking gases. the simmer plate (10;60) forming a center section (20;62) defining a top surface on an upper plane, a lower surface (22;70) defining a lower plane displaced from the upper plane and configured to lie on a metal grate above a stove burner, a plurality of radially extending channels (24;64) projecting from the center section (20;62) and terminating at an outer perimeter (26;68) of the plate (10;60), the channels (24;64) formed having an inverted generally U-shaped profile with an upper surface (28;66) located at or near the upper plane and blending into the lower surface (22;70), wherein each of the radially extending channels (24;64) has a tapered cross-section with a larger width at the center section (20;62) and with a width and cross-sectional area decreasing to the outer edge (26;68) of the simmer plate (10;60), a slanted wall (31;74) extending concentrically from the center section (20;62) and between adjacent ones of the channels (24;64), and extending from the top surface to the lower surface (22;70), and at least one first hole (30;34;72;76) formed in the simmer plate (10;60) between the center section (20;62) and the outer perimeter (26;68) and allowing venting of cooking gases.