mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication, comprising: transmitting plural downlink signals from plural base stations (210-1, 210-2, 210-3) to a terminal, wherein the plural downlink signals carry same information to the terminal; receiving a feedback from the terminal regarding the plural downlink signals transmitted by the plural base stations (210-1, 210-2, 210-3); and adjusting transmission parameters for each downlink signal based on the feedback from the terminal, wherein each base station (210-1, 210-2, 210-3) transmits its downlink signal on a corresponding downlink channel, and wherein the feedback from the terminal includes information regarding one or more taps of each downlink channel corresponding to each base station (210-1, 210-2, 210-3); characterized in that for at least one base station (210-1, 210-2, 210-3), the downlink signal is transmitted in one or more beams, wherein the feedback from the terminal further includes information on an identity of the beam associated with each tap of the subset of taps of the downlink channel, and wherein transmission parameters include the one or more beams associated with the subset of taps which are adjusted, wherein the feedback from the terminal is such that for each downlink channel, the feedback includes information on a subset of plural taps of a downlink channel model, the subset spanning a duration less than the entire span in time of the downlink channel. transmitting plural downlink signals from plural base stations (210-1, 210-2, 210-3) to a terminal, wherein the plural downlink signals carry same information to the terminal; receiving a feedback from the terminal regarding the plural downlink signals transmitted by the plural base stations (210-1, 210-2, 210-3); and adjusting transmission parameters for each downlink signal based on the feedback from the terminal, wherein each base station (210-1, 210-2, 210-3) transmits its downlink signal on a corresponding downlink channel, and wherein the feedback from the terminal includes information regarding one or more taps of each downlink channel corresponding to each base station (210-1, 210-2, 210-3); characterized in that for at least one base station (210-1, 210-2, 210-3), the downlink signal is transmitted in one or more beams, wherein the feedback from the terminal further includes information on an identity of the beam associated with each tap of the subset of taps of the downlink channel, and wherein transmission parameters include the one or more beams associated with the subset of taps which are adjusted, wherein the feedback from the terminal is such that for each downlink channel, the feedback includes information on a subset of plural taps of a downlink channel model, the subset spanning a duration less than the entire span in time of the downlink channel.
A fermentation unit suitable for use with a microwave oven, comprising a body that is suitable for placement of liquid therein; a cover that covers the body; a receptacle that is placed on the cover so as to extend into the body, characterized by - an intermediate cover that divides the receptacle into two compartments, namely a lower compartment and an upper compartment and that opens at a first limit temperature predetermined by the manufacturer so as to enable the material in the upper compartment to be emptied into the lower compartment, and - a bottom cover that is disposed at the base of the receptacle and that opens at a second limit temperature predetermined by the manufacturer so as to enable the material in the lower compartment to be emptied into the body. - an intermediate cover that divides the receptacle into two compartments, namely a lower compartment and an upper compartment and that opens at a first limit temperature predetermined by the manufacturer so as to enable the material in the upper compartment to be emptied into the lower compartment, and - a bottom cover that is disposed at the base of the receptacle and that opens at a second limit temperature predetermined by the manufacturer so as to enable the material in the lower compartment to be emptied into the body.
Valve for a magnetorheological fluid comprising at least one flow duct through which the magnetorheological fluid can flow, which can be exposed to a variable magnetic field so that the flow resistance of the flow duct can be set by way of the magnetic field in the flow duct wherein a permanent magnetic field can be generated by means of a magnetic device consisting at least in part of a magnetically hard material, wherein the magnetization of the magnetic device can be permanently changed by at least one magnetic pulse from a magnetic field generating device so as to permanently change the magnetic field operative in the flow duct and thus the flow resistance of the flow duct, characterized in that the duration of the permanent change to the magnetization of the magnetic device is longer than is the pulse length of the magnetic pulse.
A mapping system for identifying a parking lot from probe data, the mapping system comprising: a memory configured to store the probe data comprised of a plurality of probe data points, each probe data point associated with a respective location; and processing circuitry in communication with the memory and configured to associate the probe data points with respective grid cells based upon the location associated with each probe data point, wherein the processing circuitry is configured to determine a parking likelihood for each grid cell based upon the probe data points associated with the respective grid cells and to identify likely parking locations in instances in which the parking likelihood for a respective grid cell satisfies a predefined threshold, wherein the processing circuitry is also configured to cluster likely parking locations to identify parking lot clusters, wherein the processing circuitry is also configured to determine a boundary of the parking lot pursuant to a deformable contour model which causes a polygon to expand from a respective parking lot cluster to represent the boundary of the parking lot, and wherein the processing circuitry is further configured to update a map to include the parking lot having the boundary determined pursuant to the deformable contour model. a memory configured to store the probe data comprised of a plurality of probe data points, each probe data point associated with a respective location; and processing circuitry in communication with the memory and configured to associate the probe data points with respective grid cells based upon the location associated with each probe data point, wherein the processing circuitry is configured to determine a parking likelihood for each grid cell based upon the probe data points associated with the respective grid cells and to identify likely parking locations in instances in which the parking likelihood for a respective grid cell satisfies a predefined threshold, wherein the processing circuitry is also configured to cluster likely parking locations to identify parking lot clusters, wherein the processing circuitry is also configured to determine a boundary of the parking lot pursuant to a deformable contour model which causes a polygon to expand from a respective parking lot cluster to represent the boundary of the parking lot, and wherein the processing circuitry is further configured to update a map to include the parking lot having the boundary determined pursuant to the deformable contour model.
A preform neck crystallization method that crystallizes a neck of a preform that includes the neck, a body, and a bottom, the method comprising: inserting a core into the neck; heating the neck using a heater group disposed along a transfer direction while rotating the preform on its axis, and transferring the preform along the transfer direction in a state in which the core is inserted into the neck; and cooling the neck of the preform in a state in which the core is inserted into the neck, the heating of the neck including: a first step that drives first heaters within the heater group at a first power, the first heaters being positioned on an upstream side in the transfer direction; and a second step that drives second heaters within the heater group at a second power that is lower than the first power until a temperature of the neck reaches a crystallization temperature zone, the second heaters being positioned on a downstream side of the first heaters and a step that is provided between the first and the second step, and transfers the preform without heating. inserting a core into the neck; heating the neck using a heater group disposed along a transfer direction while rotating the preform on its axis, and transferring the preform along the transfer direction in a state in which the core is inserted into the neck; and cooling the neck of the preform in a state in which the core is inserted into the neck, the heating of the neck including: a first step that drives first heaters within the heater group at a first power, the first heaters being positioned on an upstream side in the transfer direction; and a second step that drives second heaters within the heater group at a second power that is lower than the first power until a temperature of the neck reaches a crystallization temperature zone, the second heaters being positioned on a downstream side of the first heaters and a step that is provided between the first and the second step, and transfers the preform without heating. a first step that drives first heaters within the heater group at a first power, the first heaters being positioned on an upstream side in the transfer direction; and a second step that drives second heaters within the heater group at a second power that is lower than the first power until a temperature of the neck reaches a crystallization temperature zone, the second heaters being positioned on a downstream side of the first heaters and a step that is provided between the first and the second step, and transfers the preform without heating.
A nozzle device for spatially dispensing fluids and driven by the same, the nozzle device comprising a flow distribution part, via which a fluid to be sprayed passes into the nozzle device, a rotor part rotatably arranged relative to the flow distribution part and enclosing the latter in relation to the same, and a supporting element, which is arranged adjacent to the flow distribution part and the rotor part and serves for rotatably supporting the rotor part, wherein, in the flow distribution part, at least one lateral opening, communicating with a fluid inlet, is formed which, in a cross-section perpendicular to the rotary axis formed by the support, is inclined in at least one direction against the radial direction, characterised in that, in the flow distribution part, at least one further lateral opening communicating with a fluid inlet is formed which, in a cross-section perpendicular to the rotary axis, is inclined in a different, opposite direction with respect to the radial direction, from which openings (24, 25) the fluid to be sprayed flows, in the at least one space (7, 8, 46) between the rotor part and the flow distribution part, in at least two separate flows in opposite directions (28, 30), separately to at least two separate areas (10a, 13a) of the rotor part.
A head for a bridge processing machine comprising: - a support comprising a frame configured to be loosely connected to a bridge and a shaft defining an axis of rotation and at least rotatable with respect to said frame around said axis of rotation, - a tool holder assembly configured to support at least one tool so as to allow the processing of an object by means of said tool and comprising first constraint means configured to integrally constrain said tool holder assembly and said shaft, - gripping means comprising a base portion and at least one gripping device movable with respect to said base portion so as to define at least one operative position wherein it engages an object, and one non-operative position, - wherein said gripping means comprise second constraint means configured to constrain said base portion and said shaft, and - wherein said gripping means and said tool holder assembly comprise interface means configured to block at least a reciprocal rotation between said tool holder assembly and said base portion so that said tool holder assembly may drag said gripping means when rotated around said rotation axis, characterized in that said second constraint means are configured so as to allow a reciprocal rotation between said base portion and said shaft with respect to said axis of rotation. - a support comprising a frame configured to be loosely connected to a bridge and a shaft defining an axis of rotation and at least rotatable with respect to said frame around said axis of rotation, - a tool holder assembly configured to support at least one tool so as to allow the processing of an object by means of said tool and comprising first constraint means configured to integrally constrain said tool holder assembly and said shaft, - gripping means comprising a base portion and at least one gripping device movable with respect to said base portion so as to define at least one operative position wherein it engages an object, and one non-operative position, - wherein said gripping means comprise second constraint means configured to constrain said base portion and said shaft, and - wherein said gripping means and said tool holder assembly comprise interface means configured to block at least a reciprocal rotation between said tool holder assembly and said base portion so that said tool holder assembly may drag said gripping means when rotated around said rotation axis,
A pallet container having a bottom, side walls (4, 6, 8, 10) which extend upwards from the bottom towards a circumferential container rim in a conical and/or stepped manner, and skids (17, 19) each having at least two engagement openings which allow engagement of a fork of a lift truck or another industrial truck under the bottom, wherein the bottom and the side walls (4, 6, 8, 10) are shaped in such a way that the pallet container is nestable in an identically constructed pallet container oriented in the same way and is stackable onto an identically constructed pallet container which is only rotated by 180° with regard to the pallet container with respect to a vertical axis, wherein the outer contour of the skids follows the outer contour of the side walls (4, 6, 8, 10), characterized in that the two skids (17, 19) each have an outer edge (16, 18) with at least one s-shaped portion each, wherein each of the outer edges of the skids has two mutually parallel, offset rectilinear portions and a curved transition portion connecting the mutually parallel, offset portions, wherein the shape of the s-shaped portion of a respective skid corresponds to the shape of a cross-section, parallel to the bottom, of a part of the adjacent side wall, and wherein the two rectilinear portions of a respective skid are parallel to a rim of the bottom and one of the rectilinear portions extends closer to the container interior than the other rectilinear portion. a bottom, side walls (4, 6, 8, 10) which extend upwards from the bottom towards a circumferential container rim in a conical and/or stepped manner, and skids (17, 19) each having at least two engagement openings which allow engagement of a fork of a lift truck or another industrial truck under the bottom, wherein the bottom and the side walls (4, 6, 8, 10) are shaped in such a way that the pallet container is nestable in an identically constructed pallet container oriented in the same way and is stackable onto an identically constructed pallet container which is only rotated by 180° with regard to the pallet container with respect to a vertical axis, wherein the outer contour of the skids follows the outer contour of the side walls (4, 6, 8, 10), characterized in that the two skids (17, 19) each have an outer edge (16, 18) with at least one s-shaped portion each, wherein each of the outer edges of the skids has two mutually parallel, offset rectilinear portions and a curved transition portion connecting the mutually parallel, offset portions, wherein the shape of the s-shaped portion of a respective skid corresponds to the shape of a cross-section, parallel to the bottom, of a part of the adjacent side wall, and wherein the two rectilinear portions of a respective skid are parallel to a rim of the bottom and one of the rectilinear portions extends closer to the container interior than the other rectilinear portion.
A method for forming a capacitor comprising the steps of: providing a plurality of capacitive elements wherein each capacitive element of said capacitive elements comprises a valve metal foil and an anode lead extension, wherein each foil has an inactive region and an active region, wherein said active region comprises a dielectric layer and a conductive layer on said dielectric layer; interleaving said capacitive elements with solid metal current collectors; adhering each solid metal current collector of said solid metal current collectors to at least one said conductive layer thereby forming an active capacitive stack; forming an encasement of non-conducting material with said active capacitive stack in said encasement; exposing a first portion of said anode lead extension on a first face and exposing a second portion of said solid metal current collectors on a second face; forming an intermediate conductive bonding layer (501,701,901) of solid metal to said exposed first portion; electrically connecting a preformed solid metal cathode terminal to said exposed second portion of solid metal current collectors; electrically connecting a preformed solid metal anode terminal to said intermediate conductive bonding layer. providing a plurality of capacitive elements wherein each capacitive element of said capacitive elements comprises a valve metal foil and an anode lead extension, wherein each foil has an inactive region and an active region, wherein said active region comprises a dielectric layer and a conductive layer on said dielectric layer; interleaving said capacitive elements with solid metal current collectors; adhering each solid metal current collector of said solid metal current collectors to at least one said conductive layer thereby forming an active capacitive stack; forming an encasement of non-conducting material with said active capacitive stack in said encasement; exposing a first portion of said anode lead extension on a first face and exposing a second portion of said solid metal current collectors on a second face; forming an intermediate conductive bonding layer (501,701,901) of solid metal to said exposed first portion; electrically connecting a preformed solid metal cathode terminal to said exposed second portion of solid metal current collectors; electrically connecting a preformed solid metal anode terminal to said intermediate conductive bonding layer.
A method for compensating a transmission delay, applied to a terminal device, the method comprising: receiving signal configuration information from a network device, the signal configuration information being used to configure a reference signal for transmission delay compensation between the terminal device and the network device, wherein the reference signal comprises at least one of an uplink reference signal or a downlink reference signal; the method being characterised by transmitting first delay reference information to the network device, wherein the first delay reference information is used to determine a signal transmission delay between the terminal device and the network device or a transmission delay compensated in the transmission delay compensation, and the first delay reference information comprises a time difference between the receiving time of the downlink reference signal and the transmission time of the uplink reference signal. receiving signal configuration information from a network device, the signal configuration information being used to configure a reference signal for transmission delay compensation between the terminal device and the network device, wherein the reference signal comprises at least one of an uplink reference signal or a downlink reference signal; the method being characterised by transmitting first delay reference information to the network device, wherein the first delay reference information is used to determine a signal transmission delay between the terminal device and the network device or a transmission delay compensated in the transmission delay compensation, and the first delay reference information comprises a time difference between the receiving time of the downlink reference signal and the transmission time of the uplink reference signal.
A method for operating an image display apparatus including a display, comprising: displaying a broadcast image on a screen of the display; and recognizing, by the image display apparatus, a specific gesture made with a user's hand as a first gesture at a first position (Pa) of the user's hand; characterized by further comprising the steps of: if an area in the broadcast image will be overlapped when a menu is displayed at a first position of the screen corresponding to the first position (Pa) of the user's hand according to the recognized first gesture: determining a second position of the screen where images of the broadcast image change the least or less than a certain level or where an object being displayed in the broadcast image is not present; displaying an object prompting the user to move the user's hand; recognizing the first gesture at a second and different position (Pd) of the user's hand; and displaying, on the screen of the display, the broadcast image and, on the determined second position of the screen, the menu. displaying a broadcast image on a screen of the display; and recognizing, by the image display apparatus, a specific gesture made with a user's hand as a first gesture at a first position (Pa) of the user's hand; characterized by further comprising the steps of: if an area in the broadcast image will be overlapped when a menu is displayed at a first position of the screen corresponding to the first position (Pa) of the user's hand according to the recognized first gesture: determining a second position of the screen where images of the broadcast image change the least or less than a certain level or where an object being displayed in the broadcast image is not present; displaying an object prompting the user to move the user's hand; recognizing the first gesture at a second and different position (Pd) of the user's hand; and displaying, on the screen of the display, the broadcast image and, on the determined second position of the screen, the menu. determining a second position of the screen where images of the broadcast image change the least or less than a certain level or where an object being displayed in the broadcast image is not present; displaying an object prompting the user to move the user's hand; recognizing the first gesture at a second and different position (Pd) of the user's hand; and displaying, on the screen of the display, the broadcast image and, on the determined second position of the screen, the menu.