mhurhangee/ep-ind-claims huggingface dataset:
A private part washing nozzle comprising: a nozzle head including a plurality of types of spray ports (11, 12) each spraying washing water; and a head support body including a plurality of flow passages (201, 202) delivering the washing water to the respective plurality of types of spray ports (11, 12), the head support body including a connection portion provided at a distal end side of the head support body, the connection portion being connected to the nozzle head; wherein a central axis of the nozzle head and a central axis of the head support body coincide with each other; characterized in that the connection portion being provided at a position in such a manner that, in a direction being orthogonal to both a direction in which the central axis of the nozzle head extends and a direction in which a washing water is sprayed through the spray ports (11, 12), a central axis of the connection portion is eccentric relative to the central axis of the nozzle head; in that the connection portion includes a multilayer pipe structure in which a plurality of pipe portions (211, 212) are arranged to overlap with each other in a radial direction; and in that a space portion formed inside the pipe portion arranged most inwardly in the radial direction corresponds to a part of the flow passage delivering the washing water to one of the plurality of types of spray ports (11, 12), and a space portion formed between the plurality of pipe portions (211, 212) corresponds to a part of the flow passage delivering the washing water to another of the plurality of types of spray ports (11, 12). a nozzle head including a plurality of types of spray ports (11, 12) each spraying washing water; and a head support body including a plurality of flow passages (201, 202) delivering the washing water to the respective plurality of types of spray ports (11, 12), the head support body including a connection portion provided at a distal end side of the head support body, the connection portion being connected to the nozzle head; wherein a central axis of the nozzle head and a central axis of the head support body coincide with each other; characterized in that the connection portion being provided at a position in such a manner that, in a direction being orthogonal to both a direction in which the central axis of the nozzle head extends and a direction in which a washing water is sprayed through the spray ports (11, 12), a central axis of the connection portion is eccentric relative to the central axis of the nozzle head; in that the connection portion includes a multilayer pipe structure in which a plurality of pipe portions (211, 212) are arranged to overlap with each other in a radial direction; and in that a space portion formed inside the pipe portion arranged most inwardly in the radial direction corresponds to a part of the flow passage delivering the washing water to one of the plurality of types of spray ports (11, 12), and a space portion formed between the plurality of pipe portions (211, 212) corresponds to a part of the flow passage delivering the washing water to another of the plurality of types of spray ports (11, 12).
A light emitting device, comprising: a p-side heterostructure comprising a short period superlattice (SPSL) including alternating layers of Al xhigh Ga 1-xhigh N doped with a p-type dopant and Al xlow Ga 1-xlow N doped with the p-type dopant, where x low ≤x high ≤ 0.9, wherein x high - x low is greater than or equal to 0.25 and each layer of the SPSL has a thickness of less than or equal to six bi-layers of AlGaN, each bi-layer being one layer of Al and Ga atoms and one layer of N atoms and having a thickness of 0.25 nm; an n-side heterostructure; and an active region configured to emit light disposed between the SPSL and the n-side heterostructure. a p-side heterostructure comprising a short period superlattice (SPSL) including alternating layers of Al xhigh Ga 1-xhigh N doped with a p-type dopant and Al xlow Ga 1-xlow N doped with the p-type dopant, where x low ≤x high ≤ 0.9, wherein x high - x low is greater than or equal to 0.25 and each layer of the SPSL has a thickness of less than or equal to six bi-layers of AlGaN, each bi-layer being one layer of Al and Ga atoms and one layer of N atoms and having a thickness of 0.25 nm; an n-side heterostructure; and an active region configured to emit light disposed between the SPSL and the n-side heterostructure.
An electrochromic display apparatus comprising: a stacked body which includes a display electrode (13A, 13B, 13C) and an electrochromic layer (14A, 14B, 14C) that are stacked directly on each other; a film which includes through holes, and is disposed on the display electrode (13A, 13B, 13C) or the electrochromic layer (14A, 14B, 14C) of the stacked body; and an opposed substrate on which an opposed electrode that faces toward the display electrode (13A, 13B, 13C) is formed, characterized in that at least a part of the materials that constitute the electrochromic layer (14A, 14B, 14C) is included or held in the film. a stacked body which includes a display electrode (13A, 13B, 13C) and an electrochromic layer (14A, 14B, 14C) that are stacked directly on each other; a film which includes through holes, and is disposed on the display electrode (13A, 13B, 13C) or the electrochromic layer (14A, 14B, 14C) of the stacked body; and an opposed substrate on which an opposed electrode that faces toward the display electrode (13A, 13B, 13C) is formed, characterized in that at least a part of the materials that constitute the electrochromic layer (14A, 14B, 14C) is included or held in the film.
A non-freezing meat fresh-preservation control method, characterized in comprising the steps: S1) acquiring a current temperature of meat food in a compartment of a refrigerator in real time; followed by S2) judging whether the current temperature of the meat food is greater than or equal to a first temperature threshold t 0, and if yes, performing step S3); S3) controlling the compartment to perform a cooling operation; followed by S4) judging whether the meat food is frozen during the cooling operation, and if yes, performing step S5; S5) controlling the compartment to perform a heating operation; wherein after the performance of the step S5 is completed, the performance of the step S1 is continued. S1) acquiring a current temperature of meat food in a compartment of a refrigerator in real time; followed by S2) judging whether the current temperature of the meat food is greater than or equal to a first temperature threshold t 0, and if yes, performing step S3); S3) controlling the compartment to perform a cooling operation; followed by S4) judging whether the meat food is frozen during the cooling operation, and if yes, performing step S5; S5) controlling the compartment to perform a heating operation;
A method for frequency hopping of a downlink dedicated pilot signal, comprising: for the downlink dedicated pilot signal, determining a frequency hopping offset corresponding to the downlink dedicated pilot signal according to a cell identity of a cell to which the downlink dedicated pilot signal pertains; determining a frequency domain position of the downlink dedicated pilot signal in a physical resource block to which the downlink dedicated pilot signal belongs after a frequency hopping according to the frequency hopping offset and a relative frequency domain position of the downlink dedicated pilot signal; performing resource mapping for the downlink dedicated pilot signal on the entire frequency domain according to the determined frequency domain position; wherein, the frequency hopping offset corresponding to the downlink dedicated pilot frequency determined according to the cell identity to which the downlink dedicated pilot frequency pertains is a frequency hopping offset v shift of the downlink dedicated pilot signal, and v shift = N ID cell mod 3, or v shift = N ID cell + 2 mod 3, or v shift = N ID cell mod 6, or v shift = N ID cell + 2 mod 6, wherein, N ID cell represents the cell identity. for the downlink dedicated pilot signal, determining a frequency hopping offset corresponding to the downlink dedicated pilot signal according to a cell identity of a cell to which the downlink dedicated pilot signal pertains; determining a frequency domain position of the downlink dedicated pilot signal in a physical resource block to which the downlink dedicated pilot signal belongs after a frequency hopping according to the frequency hopping offset and a relative frequency domain position of the downlink dedicated pilot signal; performing resource mapping for the downlink dedicated pilot signal on the entire frequency domain according to the determined frequency domain position; wherein, the frequency hopping offset corresponding to the downlink dedicated pilot frequency determined according to the cell identity to which the downlink dedicated pilot frequency pertains is a frequency hopping offset v shift of the downlink dedicated pilot signal, and v shift = N ID cell mod 3, or v shift = N ID cell + 2 mod 3, or v shift = N ID cell mod 6, or v shift = N ID cell + 2 mod 6, wherein, N ID cell represents the cell identity.
A trans-critical thermodynamic system, comprising: a high pressure circuit through which supercritical fluid containing solutes flows; a fluid extraction point operable to extract a portion of the supercritical fluid from the high pressure circuit; an expansion device receiving the portion of supercritical fluid, the expansion device operable to expand the portion of supercritical fluid to produce a sub-critical gas by reducing a temperature and a pressure of the supercritical fluid; and a separator for removing the solutes from the sub-critical gas characterized in that the fluid extraction point is in fluid communication with a cooling circuit, wherein the supercritical fluid in the high pressure circuit that is not extracted at the fluid extraction point is circulated through the cooling circuit, the cooling circuit comprising: at least one heat exchanger (112, 114); and another expansion device. a high pressure circuit through which supercritical fluid containing solutes flows; a fluid extraction point operable to extract a portion of the supercritical fluid from the high pressure circuit; an expansion device receiving the portion of supercritical fluid, the expansion device operable to expand the portion of supercritical fluid to produce a sub-critical gas by reducing a temperature and a pressure of the supercritical fluid; and a separator for removing the solutes from the sub-critical gas characterized in that the fluid extraction point is in fluid communication with a cooling circuit, wherein the supercritical fluid in the high pressure circuit that is not extracted at the fluid extraction point is circulated through the cooling circuit, the cooling circuit comprising: at least one heat exchanger (112, 114); and another expansion device. at least one heat exchanger (112, 114); and another expansion device.
A reflective security element for checking authenticity with polarized light, having a retroreflective layer and a birefringent layer arranged on the retroreflective layer in a structured manner, characterized in that the birefringent layer forms a λ/4 layer.
An article-transport container comprising: a floor having a respective left-side and right-side closures (16,20,220) foldably joined thereto, a front end wall foldably joined to the floor and to the respective left-side and right-side closures (16,20,220) a rear end wall foldably joined to the floor and to the respective left-side and right-side closures (16,20,220) and four tri-layer corners (21,22,23,24,221A) defined by a first tri-layer corner, a second tri-layer corner, a third tri-layer corner, and a fourth tri-layer corner cooperate with the respective left-sjde and right-side closures to define an interior region adapted to receive articles therein characterised in that the first tri-layer corner is formed by coupling a first right wall anchor flap (62,262) to a front right corner bridge and by coupling a first right auxiliary canopy anchor flap to the first right wall anchor flap (62,622) a floor having a respective left-side and right-side closures (16,20,220) foldably joined thereto, a front end wall foldably joined to the floor and to the respective left-side and right-side closures (16,20,220) a rear end wall foldably joined to the floor and to the respective left-side and right-side closures (16,20,220) and four tri-layer corners (21,22,23,24,221A) defined by a first tri-layer corner, a second tri-layer corner, a third tri-layer corner, and a fourth tri-layer corner cooperate with the respective left-sjde and right-side closures to define an interior region adapted to receive articles therein characterised in that the first tri-layer corner is formed by coupling a first right wall anchor flap (62,262) to a front right corner bridge and by coupling a first right auxiliary canopy anchor flap to the first right wall anchor flap (62,622)
A method of testing the piston of an injection pump of a pressure medium, the piston comprising a longitudinal groove that begins from a frontal face thereof and extends on the side, and a screw-shaped guide edge that abuts on the envelope surface of the piston, where the piston is inserted, with its frontal face first, into a testing cylinder, wherein the clearance between the piston and the testing cylinder is tight and wherein a specific testing pressure is exerted on a measurement point on the envelope surface of the piston, in a limited area, said measurement point being in the vicinity of the said guide edge, characterized in that the piston is moved in the testing cylinder, including a rotational movement, so that the said measurement point moves, following the guide edge; and that the changes in the testing pressure are monitored to observe any failures in the piston and the said guide edge.
A method comprising: receiving a communication comprising a connection preference, identification information for a terminal associated with a user, and identification of one or more channels designated for the terminal associated with the user; identifying a buffer designated for only the terminal based on the identification information for the terminal and the identification of the one or more channels designated for the terminal, wherein the buffer designated for only the terminal is configured to store data to be sent to the terminal or data received from the terminal; determining a buffer size for the buffer designated for only the terminal based on the received connection preference; and adjusting a size of the buffer designated for only the terminal based on the determined buffer size. receiving a communication comprising a connection preference, identification information for a terminal associated with a user, and identification of one or more channels designated for the terminal associated with the user; identifying a buffer designated for only the terminal based on the identification information for the terminal and the identification of the one or more channels designated for the terminal, wherein the buffer designated for only the terminal is configured to store data to be sent to the terminal or data received from the terminal; determining a buffer size for the buffer designated for only the terminal based on the received connection preference; and adjusting a size of the buffer designated for only the terminal based on the determined buffer size.
A method of making a glass article having a non-flat portion, said method comprising the steps of: (i) perforating a glass blank along a contour with a laser and forming multiple perforations in the glass blank, the perforations comprising holes or sections of dislodged solid material; (ii) bending the glass bank along at least one area containing perforations, such that the glass is curved, forming a glass article having the non-flat portion. (i) perforating a glass blank along a contour with a laser and forming multiple perforations in the glass blank, the perforations comprising holes or sections of dislodged solid material; (ii) bending the glass bank along at least one area containing perforations, such that the glass is curved, forming a glass article having the non-flat portion.
A device, comprising: a substrate; a sheet of metallic nanowires comprising gold (Au) disposed on the substrate; and wherein the sheet of metallic nanowires is configured to stretch to 200% in at least one dimension and comprises a sheet resistance less than 30 Ω/□. a substrate; a sheet of metallic nanowires comprising gold (Au) disposed on the substrate; and wherein the sheet of metallic nanowires is configured to stretch to 200% in at least one dimension and comprises a sheet resistance less than 30 Ω/□.
Installation for conveying and storing items to be transported, comprising: - a frame which has at least one transport aisle and a plurality of storage channels which open into the transport aisle and into which an item to be transported or a plurality of items to be transported can be placed into storage one behind another, and - a transport car which is movable in the longitudinal direction of the transport aisle and which is designed to move the items to be transported along the transport aisle and to place them into storage in the storage channels or remove them from storage in the storage channels, wherein the transport aisle has two rails, running in the longitudinal direction of the transport aisle, for the transport car, wherein the transport aisle furthermore has at least one cross strut which runs in the transverse direction of the transport aisle and connects the rails to each other, characterized in that at least one of the rails has a downwardly open U profile, wherein the cross strut is guided through an inner limb of the U profile and extends further as far as an outer limb of the U profile. - a frame which has at least one transport aisle and a plurality of storage channels which open into the transport aisle and into which an item to be transported or a plurality of items to be transported can be placed into storage one behind another, and - a transport car which is movable in the longitudinal direction of the transport aisle and which is designed to move the items to be transported along the transport aisle and to place them into storage in the storage channels or remove them from storage in the storage channels,
A food processor, comprising: a motor; a lid having a feed tube; a processing bowl having a handle; a pusher device having a body; and a safety linkage mechanism in an external housing (37, 474); wherein the safety linkage mechanism is configured to cooperate with a safety rail formed on the pusher device, wherein the safety rail extends above a surface of the body of the pusher device; wherein the motor is configured to not operate unless the safety rail is in engagement with the safety linkage mechanism, wherein the feed tube includes a longitudinal slot for receiving the safety rail, and a channel having an opening through which protrudes, from the external housing (37, 474), a nose of an upper link of the safety linkage mechanism that is configured to pivot in response to a contact with the safety rail; wherein the safety linkage mechanism extends from the upper link to a projection that forms a terminal part that extends to contact a first intermediate link contained in the handle of the processing bowl; and wherein the channel comprises a neck of a pilot opening for receiving the safety rail and the slot comprises a relief area that is substantially exposed to an interior of the feed tube and that is configured to receive the safety rail, the pilot opening being associated with the relief area, characterized in that the feed tube further comprises a partition that isolates an interior of the channel from the interior of the feed tube, wherein internal surfaces of the partition are blended into the interior of the guide tube and a lower extent of the partition slopes downward and blends with the interior of the feed tube to promote the discharge of waste and cleaning when required. a motor; a lid having a feed tube; a processing bowl having a handle; a pusher device having a body; and a safety linkage mechanism in an external housing (37, 474); wherein the safety linkage mechanism is configured to cooperate with a safety rail formed on the pusher device, wherein the safety rail extends above a surface of the body of the pusher device; wherein the motor is configured to not operate unless the safety rail is in engagement with the safety linkage mechanism, wherein the feed tube includes a longitudinal slot for receiving the safety rail, and a channel having an opening through which protrudes, from the external housing (37, 474), a nose of an upper link of the safety linkage mechanism that is configured to pivot in response to a contact with the safety rail; wherein the safety linkage mechanism extends from the upper link to a projection that forms a terminal part that extends to contact a first intermediate link contained in the handle of the processing bowl; and wherein the channel comprises a neck of a pilot opening for receiving the safety rail and the slot comprises a relief area that is substantially exposed to an interior of the feed tube and that is configured to receive the safety rail, the pilot opening being associated with the relief area, characterized in that
A method for use in a system comprising a first teleport in communication with a first satellite, the first satellite having an established total transmission capacity to transmit data and an excess capacity at a particular time to transmit data that is provided to the first satellite by the first teleport, the method comprising acts of: A: determining a rate at which the first satellite transmitted data for receipt by at least one vehicle during at least one previous time period; B: determining, based at least in part on the rate determined in the act A, a rate at which to provide data to the first satellite for subsequent transmission; and C: providing data to the first satellite at the rate determined in the act B, wherein the act B comprises determining the rate at which to provide data to the first satellite based at least in part on the first satellite's excess capacity to transmit data at the particular time, wherein the excess capacity to transmit data at the particular time depends at least in part on how much of the established total transmission capacity is being used to transmit other data at the particular time. A: determining a rate at which the first satellite transmitted data for receipt by at least one vehicle during at least one previous time period; B: determining, based at least in part on the rate determined in the act A, a rate at which to provide data to the first satellite for subsequent transmission; and C: providing data to the first satellite at the rate determined in the act B,