mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for cutting vegetable slices, the apparatus comprising: an annular-shaped cutting head, a plurality of knives serially mounted around the cutting head, each knife having a cutting edge extending substantially upwardly and spaced from the cutting head to provide a gap, extending in a radial direction, between the cutting edge and the cutting head, a central impeller coaxially mounted with the cutting head for rotation about an axis within the cutting head for delivering vegetables radially outwardly form a centre of the impeller toward the cutting head, the impeller having a base with an upper surface across which vegetables are, in use, delivered to the cutting head, a cover having a vegetable supply opening fitted above the base, and a plurality of radial orientation elements serially mounted within the impeller between the base and the cover to define a plurality of cutting zones located around the impeller, each cutting zone being between adjacent orientation elements, and a water jet spray device mounted at the base of the impeller and aligned with the axis, the water jet spray device comprising a raised mound having an outer wall surrounding an inner wall defining a central depression, the outer wall extending downwardly and outwardly from an annular rim between the central depression and the outer wall, characterised in that the water jet spray device comprises a plurality of substantially radially oriented channels serially provided around the raised mound, each channel extending outwardly from a channel inlet within the central depression to a channel outlet in the outer wall. an annular-shaped cutting head, a plurality of knives serially mounted around the cutting head, each knife having a cutting edge extending substantially upwardly and spaced from the cutting head to provide a gap, extending in a radial direction, between the cutting edge and the cutting head, a central impeller coaxially mounted with the cutting head for rotation about an axis within the cutting head for delivering vegetables radially outwardly form a centre of the impeller toward the cutting head, the impeller having a base with an upper surface across which vegetables are, in use, delivered to the cutting head, a cover having a vegetable supply opening fitted above the base, and a plurality of radial orientation elements serially mounted within the impeller between the base and the cover to define a plurality of cutting zones located around the impeller, each cutting zone being between adjacent orientation elements, and a water jet spray device mounted at the base of the impeller and aligned with the axis, the water jet spray device comprising a raised mound having an outer wall surrounding an inner wall defining a central depression, the outer wall extending downwardly and outwardly from an annular rim between the central depression and the outer wall, characterised in that the water jet spray device comprises a plurality of substantially radially oriented channels serially provided around the raised mound, each channel extending outwardly from a channel inlet within the central depression to a channel outlet in the outer wall.
A method for manufacturing an airfoil (400; 500; 980) of a gas turbine engine, the method comprising: forming a main body core (652; 872), the main body core including a feed cavity core portion, the main body core configured to form at least a part of an airfoil including an airfoil body (402; 502), a platform (404; 504), and an attachment element (410; 510); the method characterised by comprising: forming a platform circuit core (654; 871) having a platform core extension (660; 873), wherein the platform circuit core is configured to form a cooling circuit (442; 542; 983) in the platform, wherein at least one of the feed cavity core portion and the platform core extension comprises a notch (662; 874); assembling the platform circuit core to the main body core such that the platform core extension engages with the feed cavity core portion at the notch; casting the airfoil using the assembled platform circuit core and main body core; and removing a platform core extension element (444; 544; 982) that is formed at the location of the notch. forming a main body core (652; 872), the main body core including a feed cavity core portion, the main body core configured to form at least a part of an airfoil including an airfoil body (402; 502), a platform (404; 504), and an attachment element (410; 510); the method characterised by comprising: forming a platform circuit core (654; 871) having a platform core extension (660; 873), wherein the platform circuit core is configured to form a cooling circuit (442; 542; 983) in the platform, wherein at least one of the feed cavity core portion and the platform core extension comprises a notch (662; 874); assembling the platform circuit core to the main body core such that the platform core extension engages with the feed cavity core portion at the notch; casting the airfoil using the assembled platform circuit core and main body core; and removing a platform core extension element (444; 544; 982) that is formed at the location of the notch. forming a platform circuit core (654; 871) having a platform core extension (660; 873), wherein the platform circuit core is configured to form a cooling circuit (442; 542; 983) in the platform, wherein at least one of the feed cavity core portion and the platform core extension comprises a notch (662; 874); assembling the platform circuit core to the main body core such that the platform core extension engages with the feed cavity core portion at the notch; casting the airfoil using the assembled platform circuit core and main body core; and removing a platform core extension element (444; 544; 982) that is formed at the location of the notch.
A stacked structure of a fuel cell in which a plurality of fuel cells are stacked, and the fuel cells each include an electrolyte layer, and a cathode layer and an anode layer disposed on both surfaces of the electrolyte layer to generate electricity, the stacked structure of the fuel cell comprising: at least one interconnector disposed between adjacent fuel cells of the plurality of fuel cells, the interconnector including a central area electrically connected to the adjacent fuel cells while supporting one of the adjacent fuel cells and an edge area extending outwardly with respect to end portions of the adjacent fuel cells; at least one frame disposed on the edge area of the interconnector, the frame supporting a side portion of the one of the adjacent fuel cells to reinforce strength of the one fuel cell supported by the interconnector; and at least one complex functional part disposed between the edge area of the interconnector and the frame to constantly maintain an interval therebetween, the complex functional part contacting any one of the interconnector and the frame, characterized in that one of the frame and the interconnector comprises a plurality of supports supporting a side portion of the at least one complex functional part. at least one interconnector disposed between adjacent fuel cells of the plurality of fuel cells, the interconnector including a central area electrically connected to the adjacent fuel cells while supporting one of the adjacent fuel cells and an edge area extending outwardly with respect to end portions of the adjacent fuel cells; at least one frame disposed on the edge area of the interconnector, the frame supporting a side portion of the one of the adjacent fuel cells to reinforce strength of the one fuel cell supported by the interconnector; and at least one complex functional part disposed between the edge area of the interconnector and the frame to constantly maintain an interval therebetween, the complex functional part contacting any one of the interconnector and the frame, characterized in that one of the frame and the interconnector comprises a plurality of supports supporting a side portion of the at least one complex functional part.
A microwave oven comprising: one dial that is rotatable in a first direction to select an automatic cooking mode and is rotatable in a second direction to select a manual cooking mode, and after selecting one of an automatic cooking mode and a manual cooking mode, is rotatable in both first and second directions to set a parameter of the selected cooking mode; and a display unit that displays the cooking mode selected according to rotation manipulation of the dial and a parameter of the selected cooking mode. one dial that is rotatable in a first direction to select an automatic cooking mode and is rotatable in a second direction to select a manual cooking mode, and after selecting one of an automatic cooking mode and a manual cooking mode, is rotatable in both first and second directions to set a parameter of the selected cooking mode; and a display unit that displays the cooking mode selected according to rotation manipulation of the dial and a parameter of the selected cooking mode.
A magnetic steering apparatus (100, 600, 700, 1300, 1404, 1604) for steering a moving metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602), the apparatus (100, 600, 700, 1300, 1404, 1604) comprising: at least one magnetic rotor (110, 610, 710, 1010, 1310) rotatable to induce a changing magnetic field at the moving metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602), wherein the changing magnetic field is suitable to generate a force in the moving metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602) to steer a centerline of the moving metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602) towards a centerline (214, 768, 1502, 1702) of a desired passline, characterized in that the axis of rotation of each rotor (128, 770) is being positioned to intersect a common plane (210, 772) that is perpendicular to the longitudinal direction (112, 712), i.e. direction of travel along the desired passline, of the metal strip, wherein the magnetic steering apparatus is suitable to induce concerted lateral forces on the strip to induce lateral movement of the strip, such as to align the strip to a desired passline of a processing equipment (1406, 1606) or to induce lateral forces in the metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602) towards the desired passline if the metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602) deviates too far from the desired passline of the processing equipm ent. at least one magnetic rotor (110, 610, 710, 1010, 1310) rotatable to induce a changing magnetic field at the moving metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602), wherein the changing magnetic field is suitable to generate a force in the moving metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602) to steer a centerline of the moving metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602) towards a centerline (214, 768, 1502, 1702) of a desired passline, characterized in that the axis of rotation of each rotor (128, 770) is being positioned to intersect a common plane (210, 772) that is perpendicular to the longitudinal direction (112, 712), i.e. direction of travel along the desired passline, of the metal strip, wherein the magnetic steering apparatus is suitable to induce concerted lateral forces on the strip to induce lateral movement of the strip, such as to align the strip to a desired passline of a processing equipment (1406, 1606) or to induce lateral forces in the metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602) towards the desired passline if the metal strip (102, 616, 702, 904, 1002, 1302, 1402, 1602) deviates too far from the desired passline of the processing equipm ent.
A method of continuous hydrothermal carbonization of sludge containing organic matter, said sludge having a dryness between 10 and 30% by weight of dry matter, said method involving a step of hydrothermal reaction carried out in a reactor, characterized in that the hydrothermal reaction step involves the following steps: - a step of injection of sludge in which the sludge is injected into the reactor by a first inlet, - a step of injection of steam in which steam is injected into the reactor by a second inlet, the second inlet being distinct from the first inlet, - a step of placing in circulation, in which a mixture consisting of the sludge and the steam injected into the reactor is placed in circulation within the reactor, - a step of continuous extraction of at least a portion of the mixture contained in the reactor by a sludge outlet, and in that during the steam injection step the steam is injected in counterflow to the mixture circulating in the reactor, the method being characterized in that it further involves a step of heating of water in which heat contained in the sludge extracted from the reactor is transferred to water by means of a heat exchanger, and wherein the water so heated is used to produce the steam used during the step of steam injection, the method being characterized in that it further involves a step of preheating in which the temperature of the sludge prior to its injection into the reactor is raised up to a temperature of preheating, by injection of steam in the sludge. - a step of injection of sludge in which the sludge is injected into the reactor by a first inlet, - a step of injection of steam in which steam is injected into the reactor by a second inlet, the second inlet being distinct from the first inlet, - a step of placing in circulation, in which a mixture consisting of the sludge and the steam injected into the reactor is placed in circulation within the reactor, - a step of continuous extraction of at least a portion of the mixture contained in the reactor by a sludge outlet,
A method for use in a user equipment, 'UE', comprising first and second radio components on a single platform, comprising: detecting that a handover is required as a result of a triggering event which is due to in-device coexistence interference; responsive thereto, sending a measurement report (5.2) to a source to request handover for the first radio component from the source to a target for a keeping time, said measurement report identifying the triggering event; receiving a handover command message (5.5) from the source to handover the first radio component from the source to the target for a specified keeping time to establish a coexistence mode for the first and second radio components; enabling the first radio component to handover the first radio component to the target for the specified keeping time so that the first radio component is not handed back to the source during the specified keeping time, thereby enabling radio resources on the UE to be used by the second radio component without interference from/to the first radio component; and subsequent to said handover of the first radio component to the target, sending a measurement or indication message to the target comprising an updated indication of keeping time. detecting that a handover is required as a result of a triggering event which is due to in-device coexistence interference; responsive thereto, sending a measurement report (5.2) to a source to request handover for the first radio component from the source to a target for a keeping time, said measurement report identifying the triggering event; receiving a handover command message (5.5) from the source to handover the first radio component from the source to the target for a specified keeping time to establish a coexistence mode for the first and second radio components; enabling the first radio component to handover the first radio component to the target for the specified keeping time so that the first radio component is not handed back to the source during the specified keeping time, thereby enabling radio resources on the UE to be used by the second radio component without interference from/to the first radio component; and subsequent to said handover of the first radio component to the target, sending a measurement or indication message to the target comprising an updated indication of keeping time.
Piston for a working cylinder, with two piston elements (23a, 23b) made at least partly of plastic material, of which at least one has a radially outwards fitted piston seal (36a, 36b), and which are coaxially latched from axially opposite sides, by means of a latching device (24a, 24b) provided on each of them and independently of one another, on to a core body of the piston mounted between them, so that they are held axially together by the core body, wherein the latching devices (24a, 24b) overlap the core body on its radially outwards facing outer periphery, characterised in that the latching devices (24a, 24b) of the two piston elements (23a, 23b) are so designed and fitted that together they form a peripheral outer wall of the piston extending around the core body.
Use of a polymer-based hydrogel consisting of at least one water-soluble polymer in a sensor for the concentration of a dissolved glucose-binding protein, where the at least one polymer is able to interact with the glucose-binding protein and where the glucose-binding protein is present in a complex with a ligand, where the polymer-based hydrogel comprises a first hydrogel matrix of alginate and a second hydrogel matrix which forms an interpenetrating network within the first hydrogel matrix.
A central processing unit capable of building a plurality of virtual cores on a physical core, comprising: an element for executing, on an own virtual core, or causing another virtual core on the same physical core to execute, a reference instruction of directly referring to a current register value used by a selected one of the virtual cores executing any program from the another virtual core without influence on an execution context of the selected one of the virtual cores; and an element for giving a permission for executing the reference instruction of referring to the register value among the plurality of virtual cores; wherein the central processing unit further comprises: an element for executing, on the own virtual core, or causing the another virtual core to execute, a reference preparation instruction of stopping processing on the own virtual core or the another virtual core, which causes a change in a register value possibly referred to by the reference instruction. an element for executing, on an own virtual core, or causing another virtual core on the same physical core to execute, a reference instruction of directly referring to a current register value used by a selected one of the virtual cores executing any program from the another virtual core without influence on an execution context of the selected one of the virtual cores; and an element for giving a permission for executing the reference instruction of referring to the register value among the plurality of virtual cores; wherein the central processing unit further comprises: an element for executing, on the own virtual core, or causing the another virtual core to execute, a reference preparation instruction of stopping processing on the own virtual core or the another virtual core, which causes a change in a register value possibly referred to by the reference instruction.
A method (300; 400), comprising: receiving (310; 410) a request to access frames associated with a title for which a unified content representation is available through a master stream (100; 200) of frames, where the request is received from a holder of a license to the master stream of frames for the title, where the master stream includes frame-level mappings to different specific streams (120, 130, 140) of frames associated with the title, where the master stream is configured to control, at least in part, how frames associated with the title are provided, where a frame comprises video data, audio data, and metadata, and where the metadata includes a time sequence index value configured to support a mapping between the frame and the master stream; identifying (320; 420) a first specific stream of frames from the different specific streams to provide frames in response to the request; performing automated scene recognition or automated audio recognition to establish the time sequence index value for a frame; establishing a mapping between the first specific stream of frames and the master stream based, at least in part, on time sequence index values associated with the first specific stream and the master stream; and selectively providing (330; 430) frames from the first specific stream as controlled by the master stream, by a mapping between the first specific stream and the master stream, and by the license. receiving (310; 410) a request to access frames associated with a title for which a unified content representation is available through a master stream (100; 200) of frames, where the request is received from a holder of a license to the master stream of frames for the title, where the master stream includes frame-level mappings to different specific streams (120, 130, 140) of frames associated with the title, where the master stream is configured to control, at least in part, how frames associated with the title are provided, where a frame comprises video data, audio data, and metadata, and where the metadata includes a time sequence index value configured to support a mapping between the frame and the master stream; identifying (320; 420) a first specific stream of frames from the different specific streams to provide frames in response to the request; performing automated scene recognition or automated audio recognition to establish the time sequence index value for a frame; establishing a mapping between the first specific stream of frames and the master stream based, at least in part, on time sequence index values associated with the first specific stream and the master stream; and selectively providing (330; 430) frames from the first specific stream as controlled by the master stream, by a mapping between the first specific stream and the master stream, and by the license.