mhurhangee/ep-ind-claims huggingface dataset:
A robotic agricultural system, comprising: autonomous delivery vehicles (110, 140), each configured to autonomously perform a respective predetermined agricultural task over respective predefined, non-overlapping paths (1808, 1816) within respective predefined non-overlapping areas (1806, 1814), the respective predefined non-overlapping paths being verified by a respective autonomous delivery vehicle forward-looking sensor or a respective autonomous delivery vehicle video feed or both, and the respective predefined non-overlapping area being verified by a respective autonomous delivery vehicle geolocation sensor; a control center (120, 1820), configured to wirelessly inform the autonomous delivery vehicles (110, 140) of the respective predefined non-overlapping paths (1808, 1816) and respective predefined non-overlapping areas (1806, 1814); and a mapper vehicle configured to identify predefined non-overlapping paths (1808, 1816) in respective predefined non-overlapping areas (1806, 1814); and the mapper vehicle configured to communicate information about the respective predefined non-overlapping paths and the respective predefined non-overlapping areas to the control center (120, 1820). autonomous delivery vehicles (110, 140), each configured to autonomously perform a respective predetermined agricultural task over respective predefined, non-overlapping paths (1808, 1816) within respective predefined non-overlapping areas (1806, 1814), the respective predefined non-overlapping paths being verified by a respective autonomous delivery vehicle forward-looking sensor or a respective autonomous delivery vehicle video feed or both, and the respective predefined non-overlapping area being verified by a respective autonomous delivery vehicle geolocation sensor; a control center (120, 1820), configured to wirelessly inform the autonomous delivery vehicles (110, 140) of the respective predefined non-overlapping paths (1808, 1816) and respective predefined non-overlapping areas (1806, 1814); and a mapper vehicle configured to identify predefined non-overlapping paths (1808, 1816) in respective predefined non-overlapping areas (1806, 1814); and the mapper vehicle configured to communicate information about the respective predefined non-overlapping paths and the respective predefined non-overlapping areas to the control center (120, 1820).
Method for federated privacy management, comprising: receiving, at a user management node, and from a client application executing on an electronic device, a device identifier; receiving, by the user management node, and from a plurality of second layer nodes (130 1, 130 2, 130 3) in a multi-layer federated privacy management network, data comprising at least one of browsing data and application data from a web host or a server, wherein the data is in response to an internet protocol request from the client application via a first layer node and the plurality of second layer nodes (130 1, 130 2, 130 3) to the web host or the server, and the data is associated with the device identifier; and wherein none of the plurality of second layer nodes (130 1, 130 2, 130 3) has access to all of an individual's personal data and/or online browsing or application data; receiving, at the user management node, a request for the data from the client application using the device identifier; and communicating the data to the client application. receiving, at a user management node, and from a client application executing on an electronic device, a device identifier; receiving, by the user management node, and from a plurality of second layer nodes (130 1, 130 2, 130 3) in a multi-layer federated privacy management network, data comprising at least one of browsing data and application data from a web host or a server, wherein the data is in response to an internet protocol request from the client application via a first layer node and the plurality of second layer nodes (130 1, 130 2, 130 3) to the web host or the server, and the data is associated with the device identifier; and wherein none of the plurality of second layer nodes (130 1, 130 2, 130 3) has access to all of an individual's personal data and/or online browsing or application data; receiving, at the user management node, a request for the data from the client application using the device identifier; and communicating the data to the client application.
A digital tachograph (1, 32) having a front end, wherein the front end comprises a connection port and a space, wherein the space is covered by an access panel, wherein the access panel is arranged to be brought between at least an open position and a closed position, wherein the access panel comprises an integrated antenna arranged to be connected to a processing unit, and wherein the integrated antenna is arranged to be connected, via the processing unit, to the connection port, and wherein the integrated antenna is arranged to wirelessly send signals to and receive signals from an external device.
A refrigerator, comprising: a refrigerator storage chamber; and a door (1, 2) for opening and closing the refrigerator storage chamber, wherein the door (1, 2) comprises a steel sheet constituting a door main body, and a door glass positioned in front of the steel sheet, characterized in that: the door (1, 2) further comprises a guide plate positioned between the steel sheet and the door glass, for receiving a crystal, and wherein the guide plate comprises a groove receiving the crystal therein. a refrigerator storage chamber; and a door (1, 2) for opening and closing the refrigerator storage chamber, wherein the door (1, 2) comprises a steel sheet constituting a door main body, and a door glass positioned in front of the steel sheet, a guide plate positioned between the steel sheet and the door glass, for receiving a crystal, and wherein the guide plate comprises a groove receiving the crystal therein.
A device (10, 100) for treating a portion of soil, comprising: a rotary shaft (20, 120) extending along a main axis and presenting a top end pointing upstream and a bottom end pointing downstream; · at least one deployable mixer tool fastened to the rotary shaft (20, 120) in the vicinity of its bottom end; and · a longitudinal pipe for injecting a fluid into the proximity of the bottom end of the rotary shaft (20, 120); characterized in that it further comprises: · a boring tool situated at the bottom end of the shaft; · an outer tubular element (30, 130) extending along an axis parallel to the main axis of the rotary shaft (20, 120), the rotary shaft (20, 120) being arranged inside said tubular element (30, 130); and · a coupling system (50, 150) between the rotary shaft (20, 120) and the tubular element (30, 130), said coupling system (50, 150) being, in a first configuration, capable of constraining the tubular element (30, 130) and the rotary shaft (20, 120) to move together in rotation about the main axis, in at least one direction of rotation, and for constraining the tubular element (30, 130) and the rotary shaft (20, 120) to move together in translation along the main axis, at least in the downstream direction, and said coupling system (50, 150) being, in a second configuration, capable of releasing said movement in rotation and in translation. a rotary shaft (20, 120) extending along a main axis and presenting a top end pointing upstream and a bottom end pointing downstream; · at least one deployable mixer tool fastened to the rotary shaft (20, 120) in the vicinity of its bottom end; and · a longitudinal pipe for injecting a fluid into the proximity of the bottom end of the rotary shaft (20, 120); · a boring tool situated at the bottom end of the shaft; · an outer tubular element (30, 130) extending along an axis parallel to the main axis of the rotary shaft (20, 120), the rotary shaft (20, 120) being arranged inside said tubular element (30, 130); and · a coupling system (50, 150) between the rotary shaft (20, 120) and the tubular element (30, 130), said coupling system (50, 150) being, in a first configuration, capable of constraining the tubular element (30, 130) and the rotary shaft (20, 120) to move together in rotation about the main axis, in at least one direction of rotation, and for constraining the tubular element (30, 130) and the rotary shaft (20, 120) to move together in translation along the main axis, at least in the downstream direction, and said coupling system (50, 150) being, in a second configuration, capable of releasing said movement in rotation and in translation.
An air spring which is characterized by being comprised of a piston, a top plate, a clamp ring, and a flexible member which is affixed to the piston and the top plate, wherein the piston, the top plate and the flexible member define a pressurizable chamber, wherein the clamp ring affixes an upper portion of the flexible member to the top plate and holds the flexible member in air-tight contact with the top plate, characterized in, that the flexible member comprises a retention bead at an upper portion of the flexible member and that the clamp ring comprises a compression hook adapted to press the flexible member against the top plate when the three components are assembled together.
An air conditioner comprising: an outdoor heat exchange unit in which a plurality of refrigerant tubes are disposed to be separated in a plurality of columns in a vertical direction to exchange heat of outdoor air and a refrigerant wherein the refrigerant tubes comprise an upper part (50a-50g) of the refrigerant tubes and a lower part (50h-50n) of the refrigerant tubes; characterized by a first refrigerant distribution device having a plurality of branch pipes (44a-44g) and a first distribution device body to which the branch pipes (44a-44g) are connected; a second refrigerant distribution device having a plurality of branch pipes (46a-46g) and a second distribution device body to which the branch pipes (46a-46g) are connected, wherein the branch pipes (44a-44f) except a lowest branch pipe of the first refrigerant distribution device are connected respectively to refrigerant tubes (50a-50f) except a lowest refrigerant tube of the upper part of the refrigerant tubes and the lowest branch pipe is connected to an uppermost refrigerant tube of the lower part of the refrigerant tubes, and branch pipes (46b-46g) except an uppermost branch pipe of the second refrigerant distribution device are connected respectively to refrigerant tubes (50i-50n) except an uppermost refrigerant tube of the lower part of the refrigerant tubes and the uppermost branch pipe is connected to the lowest refrigerant tube of the upper part of the refrigerant tubes. an outdoor heat exchange unit in which a plurality of refrigerant tubes are disposed to be separated in a plurality of columns in a vertical direction to exchange heat of outdoor air and a refrigerant wherein the refrigerant tubes comprise an upper part (50a-50g) of the refrigerant tubes and a lower part (50h-50n) of the refrigerant tubes; characterized by a first refrigerant distribution device having a plurality of branch pipes (44a-44g) and a first distribution device body to which the branch pipes (44a-44g) are connected; a second refrigerant distribution device having a plurality of branch pipes (46a-46g) and a second distribution device body to which the branch pipes (46a-46g) are connected, wherein the branch pipes (44a-44f) except a lowest branch pipe of the first refrigerant distribution device are connected respectively to refrigerant tubes (50a-50f) except a lowest refrigerant tube of the upper part of the refrigerant tubes and the lowest branch pipe is connected to an uppermost refrigerant tube of the lower part of the refrigerant tubes, and branch pipes (46b-46g) except an uppermost branch pipe of the second refrigerant distribution device are connected respectively to refrigerant tubes (50i-50n) except an uppermost refrigerant tube of the lower part of the refrigerant tubes and the uppermost branch pipe is connected to the lowest refrigerant tube of the upper part of the refrigerant tubes.
A method performed by a computer for blocking command content from being executed by a scripting engine (104, 118), the method comprising: identifying (202, 602) a host process (116, 102) that runs a scripting engine; injecting (204, 604) an unmanaged interface module (112, 124) into the host process; receiving, by the unmanaged interface module, command content that is to be executed by the scripting engine; communicating (504, 506) the command content from a managed interface module to a threat detection component (110, 112) through the unmanaged interface module (112, 124), wherein the threat detection component (110, 112) is installed as a kernel-mode component; receiving, through the unmanaged interface module from the threat detection component, a reply to block the command content; and in response, blocking the command content. identifying (202, 602) a host process (116, 102) that runs a scripting engine; injecting (204, 604) an unmanaged interface module (112, 124) into the host process; receiving, by the unmanaged interface module, command content that is to be executed by the scripting engine; communicating (504, 506) the command content from a managed interface module to a threat detection component (110, 112) through the unmanaged interface module (112, 124), wherein the threat detection component (110, 112) is installed as a kernel-mode component; receiving, through the unmanaged interface module from the threat detection component, a reply to block the command content; and in response, blocking the command content.
A user access control method, comprising: sending, by a first network element, a first request to a second network element, wherein the first request comprises first indication information and second indication information, wherein the first indication information indicates to report first information of at least one network slice to the first network element; receiving, by the first network element, a first response from the second network element, wherein the first response comprises the first information of the at least one network slice, and the first information of the at least one network slice is used to determine a relationship between quality and a quality requirement of the at least one network slice; and controlling, by the first network element, user access to the first network slice based on the relationship between the quality and the quality requirement of the at least one network slice, characterized in that the second indication information indicates that a first network slice is a network slice on which a drive test is being performed, wherein the at least one network slice comprises the first network slice. sending, by a first network element, a first request to a second network element, wherein the first request comprises first indication information and second indication information, wherein the first indication information indicates to report first information of at least one network slice to the first network element; receiving, by the first network element, a first response from the second network element, wherein the first response comprises the first information of the at least one network slice, and the first information of the at least one network slice is used to determine a relationship between quality and a quality requirement of the at least one network slice; and controlling, by the first network element, user access to the first network slice based on the relationship between the quality and the quality requirement of the at least one network slice, characterized in that the second indication information indicates that a first network slice is a network slice on which a drive test is being performed, wherein the at least one network slice comprises the first network slice.
An apparatus comprising: a camera configured to separate light entering the camera into a plurality of sets of pixels, each set of the plurality of sets of pixels being in a different color channel of a plurality of color channels of the camera; an illuminator comprising a plurality of color component illumination sources each configured to output light, a combination of the light output by the plurality of color component illumination sources being non-white light configured such that each color channel of the camera has an about equal response to the non-white light reflected from a purely reflective surface; and a controller communicatively coupled to the plurality of color component illumination sources and configured to adjust an output illumination level of at least one color component illumination source such that the combination of the light output by the plurality of color component illumination sources is the non-white light. a camera configured to separate light entering the camera into a plurality of sets of pixels, each set of the plurality of sets of pixels being in a different color channel of a plurality of color channels of the camera; an illuminator comprising a plurality of color component illumination sources each configured to output light, a combination of the light output by the plurality of color component illumination sources being non-white light configured such that each color channel of the camera has an about equal response to the non-white light reflected from a purely reflective surface; and a controller communicatively coupled to the plurality of color component illumination sources and configured to adjust an output illumination level of at least one color component illumination source such that the combination of the light output by the plurality of color component illumination sources is the non-white light.
A cold rolled steel sheet for a drawn can comprising, as a chemical composition, by mass%: C: 0.0060% to 0.0110%; Si: 0.50% or less; Mn: 0.70% or less; P: 0.070% or less; S: 0.050% or less; Sol. Al: 0.005% to 0.100%; N: less than 0.0025%; Nb satisfying Expression; B: 0% to 0.0030%; and Ti: 0% to 0.035% with a remainder of Fe and an impurity, wherein the steel sheet for a drawn can includes a ferrite single-phase structure with a crystal grain size number of 11.0 or more measured according to JIS G 0551 as defined in the description, a sheet thickness is 0.15 to 0.50 mm, in a tensile test carried out on the steel sheet according to JIS Z 2241 after an aging treatment at 100°C for one hour, using a JIS No.5 tensile test piece according to JIS Z 2201, the tensile test piece having a parallel portion parallel to the L direction, yield strength YP is 220 to 290 MPa, tensile strength TS is 330 to 390 MPa, total elongation EL is 32% or more, and yield point elongation YP-EL is 0%, and in a plastic strain test carried out on the steel sheet according to JIS Z 2254 after the ageing treatment at 100°C for one hour, using JIS No.13B tensile test pieces parallel to individual directions of being parallel, 45°, and 90° with respect to the rolling direction, average plastic strain ratio r m is more than 1.35, and in-plane anisotropy Δr is -0.30 to +0.15, 500 × C ≤ Nb / C ≤ 8.0 here, to element symbols in Expression, the amounts in % by mass of the corresponding elements are assigned. C: 0.0060% to 0.0110%; Si: 0.50% or less; Mn: 0.70% or less; P: 0.070% or less; S: 0.050% or less; Sol. Al: 0.005% to 0.100%; N: less than 0.0025%; Nb satisfying Expression; B: 0% to 0.0030%; and Ti: 0% to 0.035% with a remainder of Fe and an impurity, wherein the steel sheet for a drawn can includes a ferrite single-phase structure with a crystal grain size number of 11.0 or more measured according to JIS G 0551 as defined in the description, a sheet thickness is 0.15 to 0.50 mm, in a tensile test carried out on the steel sheet according to JIS Z 2241 after an aging treatment at 100°C for one hour, using a JIS No.5 tensile test piece according to JIS Z 2201, the tensile test piece having a parallel portion parallel to the L direction, yield strength YP is 220 to 290 MPa, tensile strength TS is 330 to 390 MPa, total elongation EL is 32% or more, and yield point elongation YP-EL is 0%, yield strength YP is 220 to 290 MPa, tensile strength TS is 330 to 390 MPa, total elongation EL is 32% or more, and yield point elongation YP-EL is 0%, and in a plastic strain test carried out on the steel sheet according to JIS Z 2254 after the ageing treatment at 100°C for one hour, using JIS No.13B tensile test pieces parallel to individual directions of being parallel, 45°, and 90° with respect to the rolling direction, average plastic strain ratio r m is more than 1.35, and in-plane anisotropy Δr is -0.30 to +0.15, 500 × C ≤ Nb / C ≤ 8.0 here, to element symbols in Expression, the amounts in % by mass of the corresponding elements are assigned.
Fan apparatus for a cooking appliance, in particular for a baking oven, with a fan wheel, which comprises a base plate and a blade arrangement, which is arranged on the base plate and connected thereto in a form-fitting manner in the direction of rotation, wherein a drive shaft having an axial end stop and a nut are provided, wherein the nut presses the fan wheel against the end stop, and wherein the nut presses radially against the blade arrangement.
A group communication method in a service function entity, comprising: receiving, from a network application, a group access request that requests access to a group, wherein the group access request comprises a group identifier of the group; obtaining group member information of all group members in the group according to the group identifier; determining, according to the group member information, members of a first group that are connected to the service function entity through a same gateway in the group; and sending, to the gateway, a first group member access request that requests access to the members of the first group; receiving a response from the gateway, wherein the response comprises an aggregated access result of all of the members of the first group. receiving, from a network application, a group access request that requests access to a group, wherein the group access request comprises a group identifier of the group; obtaining group member information of all group members in the group according to the group identifier; determining, according to the group member information, members of a first group that are connected to the service function entity through a same gateway in the group; and sending, to the gateway, a first group member access request that requests access to the members of the first group; receiving a response from the gateway, wherein the response comprises an aggregated access result of all of the members of the first group.
A computer implemented method comprising: testing primitives against quads to determine how the primitives cover the quads; interpolating vertex attributes at coarse pixel centers of a shading quad for each of two primitives; computing pixel shader input attributes as a coverage weighted average of the interpolated vertex attributes for the two primitives; merging coarse quad fragments of the two primitives prior to coarse pixel shading, wherein the coarse quad fragments are merged only if the coarse quad fragments are from the same draw call and correspond to the same coarse pixels on screen, but their sample coverage does not overlap; and performing the coarse pixel shading using the merged coarse quad fragments of the two primitives. testing primitives against quads to determine how the primitives cover the quads; interpolating vertex attributes at coarse pixel centers of a shading quad for each of two primitives; computing pixel shader input attributes as a coverage weighted average of the interpolated vertex attributes for the two primitives; merging coarse quad fragments of the two primitives prior to coarse pixel shading, wherein the coarse quad fragments are merged only if the coarse quad fragments are from the same draw call and correspond to the same coarse pixels on screen, but their sample coverage does not overlap; and performing the coarse pixel shading using the merged coarse quad fragments of the two primitives.