mhurhangee/ep-ind-claims huggingface dataset:
A system for conducting build calls to a target person, the system comprising: an automated calling system configured and arranged to place an automated initial call including one or more spoken voice prompts to a target person at a called party telephone and to conduct one or more subsequent calls to the target person, wherein conducting a subsequent call comprises using the automated system to convey voice prompts to the called person, and wherein the voice prompts of each subsequent call are based on one or more responses of the target person during the initial call, and wherein during the one or more subsequent calls the automated system is configured to recognise an inbound caller as the target person; and a storage system configured and arranged to record responses of the target person during the initial call and one or more subsequent calls, wherein the one or more subsequent calls incorporate information gathered from the target person during the initial call to form the build call. an automated calling system configured and arranged to place an automated initial call including one or more spoken voice prompts to a target person at a called party telephone and to conduct one or more subsequent calls to the target person, wherein conducting a subsequent call comprises using the automated system to convey voice prompts to the called person, and wherein the voice prompts of each subsequent call are based on one or more responses of the target person during the initial call, and wherein during the one or more subsequent calls the automated system is configured to recognise an inbound caller as the target person; and a storage system configured and arranged to record responses of the target person during the initial call and one or more subsequent calls,
A compound of formula I: or a pharmaceutically acceptable salt or ester thereof; wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, and R 10 are independently hydrogen or halogen; and R 11 is hydrogen or hydroxy.
A hybrid refrigeration system for a transportation refrigeration vehicle, comprising: a first refrigeration device for regulating a temperature of a cargo box of the transportation refrigeration vehicle, wherein the first refrigeration device is a liquid nitrogen based refrigeration device; and a second refrigeration device for regulating the temperature of the cargo box of the transportation refrigeration vehicle, wherein the second refrigeration device is a mechanical refrigeration device; a controller connected to the first refrigeration device and the second refrigeration device; wherein, the controller is configured to determine whether a difference between the temperature of the cargo box and a set temperature is greater than or equal to a first threshold when receiving a refrigeration demand for the cargo box; if so, start the first refrigeration device alone or start both the first refrigeration device and the second refrigeration device simultaneously; and if not, start the second refrigeration device alone. a first refrigeration device for regulating a temperature of a cargo box of the transportation refrigeration vehicle, wherein the first refrigeration device is a liquid nitrogen based refrigeration device; and a second refrigeration device for regulating the temperature of the cargo box of the transportation refrigeration vehicle, wherein the second refrigeration device is a mechanical refrigeration device; a controller connected to the first refrigeration device and the second refrigeration device; wherein, the controller is configured to determine whether a difference between the temperature of the cargo box and a set temperature is greater than or equal to a first threshold when receiving a refrigeration demand for the cargo box; if so, start the first refrigeration device alone or start both the first refrigeration device and the second refrigeration device simultaneously; and if not, start the second refrigeration device alone.
A method of reading machine-readable labels on sample receptacles, comprising: moving, between a first position and a second position in a housing, a sample rack configured to hold a plurality of sample receptacles, each having a machine-readable label; measuring an absolute position of the sample rack as the sample rack moves between the first position and the second position; acquiring, by using a camera, an image of the machine-readable label of each sample receptacle of the plurality of sample receptacles as the sample rack moves from the first position to the second position; and decoding the acquired image of the machine-readable label of each sample receptacle of the plurality of sample receptacles, wherein decoding the acquired image occurs after the sample rack is moved to the second position. moving, between a first position and a second position in a housing, a sample rack configured to hold a plurality of sample receptacles, each having a machine-readable label; measuring an absolute position of the sample rack as the sample rack moves between the first position and the second position; acquiring, by using a camera, an image of the machine-readable label of each sample receptacle of the plurality of sample receptacles as the sample rack moves from the first position to the second position; and decoding the acquired image of the machine-readable label of each sample receptacle of the plurality of sample receptacles, wherein decoding the acquired image occurs after the sample rack is moved to the second position.
Lighting device for a vehicle comprising a cup-shaped housing body designed to be mounted on a vehicle body and having a front inlet opening facing in use a forward march direction of the vehicle, at least one lighting module arranged inside the housing body facing the inlet opening and spaced apart from the inlet opening, the lighting module (5;6) being visible from the outside through the inlet opening, and an aesthetic mask to cover a gap between the inlet opening and the at least one light module, the aesthetic mask extending parallel to said gap in a substantially horizontal direction and being delimited towards the at least one lighting module (5;6) by an upper surface which hides the gap; wherein: i)- the upper surface is formed by a plurality of individual surface portions (9,10) arranged adjacent to one another; ii)- at least part of said individual surface portions are bulged upwards, and iii)- the individual surface portions bulged upwards are delimited by at least one first complex curved surface which is continuous and which is defined by the convolution of a first and a second spline curve, iv)- each first complex curved surface having been generated by the translation of the second spline curve along the first spline curve or vice-versa; characterized in that each one of all the individual surface portions bulged upwards is delimited by said one first complex curved surface and by one second complex curved surface, which is also continuous and which is also defined by the convolution of a first and a second spline curve (12,13); in each and the same individual surface portions bulged upwards the second complex curved surface being arranged immediately adjacent to the first one and being separated from the first one by a mathematical discontinuity forming a separation edge between the first and the second complex curved surfaces. i)- the upper surface is formed by a plurality of individual surface portions (9,10) arranged adjacent to one another; ii)- at least part of said individual surface portions are bulged upwards, and iii)- the individual surface portions bulged upwards are delimited by at least one first complex curved surface which is continuous and which is defined by the convolution of a first and a second spline curve, iv)- each first complex curved surface having been generated by the translation of the second spline curve along the first spline curve or vice-versa; characterized in that each one of all the individual surface portions bulged upwards is delimited by said one first complex curved surface and by one second complex curved surface, which is also continuous and which is also defined by the convolution of a first and a second spline curve (12,13); in each and the same individual surface portions bulged upwards the second complex curved surface being arranged immediately adjacent to the first one and being separated from the first one by a mathematical discontinuity forming a separation edge between the first and the second complex curved surfaces.
An interaction system comprising: a detector configured to detect respective positions of a plurality of users in the proximity of a surface on which information may be displayed; and a processor configured to activate a portion of the surface and associate said portion with a particular user of a plurality of users to display information such that an activated portion associated with said particular user is in proximity to said particular user; and to move said activated portion to follow movement of said particular user, characterised in that the processor is configured to control a plurality of activated portions associated with a plurality of users such that a separation or distance between said activated portions is maximised whilst the proximity of an activated portion to its particular user is maintained. a detector configured to detect respective positions of a plurality of users in the proximity of a surface on which information may be displayed; and a processor configured to activate a portion of the surface and associate said portion with a particular user of a plurality of users to display information such that an activated portion associated with said particular user is in proximity to said particular user; and to move said activated portion to follow movement of said particular user, characterised in that the processor is configured to control a plurality of activated portions associated with a plurality of users such that a separation or distance between said activated portions is maximised whilst the proximity of an activated portion to its particular user is maintained.
A lubrication system (30, 50) for lubricating a work implement at the boom assembly of a working machine, the system comprising a lubricant source (31, 51) which is installable at the base machine of the working machine and coupleable to the implement to be lubricated, wherein said lubricant source (31; 51) of said lubrication system comprises a lubricant reservoir (311; 511) for a lubricant, and a feeder pump (312; 512) for pumping the lubricant, and wherein the lubricating system (30; 50) further comprises a dispensing unit (33; 53) that is separate from lubricant source (31, 51) and which can be connected to the implement to be lubricated, for dispensing lubricant to the implement to be lubricated, characterized in that the dispensing unit (33; 53) comprises a dispensing pump (332; 531) which can be controlled by the control system of the base machine.
A fuel system comprising: first and second drive assemblies independently drivable relative to one another, the second drive assembly having a first speed selectively controlled based upon a desired fuel flow; a first non-positive displacement pump; a second non-positive displacement pump driven by the first drive assembly, the second non-positive displacement pump being configured to receive fuel from the first non-positive displacement pump and to provide a desired fuel pressure; a positive displacement pump driven by the second drive assembly in first and second rotational directions, the positive displacement pump being in fluid communication with the first non-positive displacement pump, and the positive displacement pump being arranged to meter a desired volume in response to the speed in a first direction and evacuating fuel in the second direction; a fuel delivery device; a bypass valve fluidly arranged between the pumps (24, 26, 32) and the fuel delivery device for selectively controlling the flow of fuel through the bypass valve, the bypass valve having open and closed positions, the bypass valve moving from the closed position to the open position in response to a predetermined fuel pressure and returning to the closed position at a low fuel pressure less than the predetermined fuel pressure; and an actuator moving the bypass valve from the closed position to the open position with the positive displacement pump operating in a second rotational direction to evacuate fuel from the fuel delivery device. first and second drive assemblies independently drivable relative to one another, the second drive assembly having a first speed selectively controlled based upon a desired fuel flow; a first non-positive displacement pump; a second non-positive displacement pump driven by the first drive assembly, the second non-positive displacement pump being configured to receive fuel from the first non-positive displacement pump and to provide a desired fuel pressure; a positive displacement pump driven by the second drive assembly in first and second rotational directions, the positive displacement pump being in fluid communication with the first non-positive displacement pump, and the positive displacement pump being arranged to meter a desired volume in response to the speed in a first direction and evacuating fuel in the second direction; a fuel delivery device; a bypass valve fluidly arranged between the pumps (24, 26, 32) and the fuel delivery device for selectively controlling the flow of fuel through the bypass valve, the bypass valve having open and closed positions, the bypass valve moving from the closed position to the open position in response to a predetermined fuel pressure and returning to the closed position at a low fuel pressure less than the predetermined fuel pressure; and an actuator moving the bypass valve from the closed position to the open position with the positive displacement pump operating in a second rotational direction to evacuate fuel from the fuel delivery device.
A network function, NF, information management method, comprising: obtaining (S101, S201), by a network slice subnet management function unit, identification information of a network repository function, NRF, instance out of a plurality of NRF instances, storing information about a NF instance, wherein the identification information of the NRF instance is used to indicate the NRF instance associated with the NF instance; and sending (S103, S203), by the network slice subnet management function unit, a first message to a NF manager unit which is a management unit of the NF instance, wherein the first message comprises the identification information of the NRF instance and the information about the NF instance. obtaining (S101, S201), by a network slice subnet management function unit, identification information of a network repository function, NRF, instance out of a plurality of NRF instances, storing information about a NF instance, wherein the identification information of the NRF instance is used to indicate the NRF instance associated with the NF instance; and sending (S103, S203), by the network slice subnet management function unit, a first message to a NF manager unit which is a management unit of the NF instance, wherein the first message comprises the identification information of the NRF instance and the information about the NF instance.
An automatic identification system communications payload for a space vehicle traveling in earth orbit, the communications payload comprising: an antenna; a receiver connected to the antenna to receive an AIS signal including a reported vessel position transmitted from a vessel; a processor to process the received AIS messages; and to determine a position of the satellite; and to determine an arrival time of the signal from the vessel to the satellite (110, or to determine a propagation delay of the signal from the vessel to the satellite by determining a time delay from a communications timing slot; and to determine an expected arrival time or an expected propagation delay from the vessel to the satellite based on the vessel position included in the received AIS signal and the satellite position; to compare the arrival time to the expected arrival time or to compare the propagation delay to the expected propagation delay, respectively; and to determine the accuracy of the reported vessel position based on the comparison; and a transmitter to transmit the processed AIS messages and the determined accuracy to a ground earth element. an antenna; a receiver connected to the antenna to receive an AIS signal including a reported vessel position transmitted from a vessel; a processor to process the received AIS messages; and to determine a position of the satellite; and to determine an arrival time of the signal from the vessel to the satellite (110, or to determine a propagation delay of the signal from the vessel to the satellite by determining a time delay from a communications timing slot; and to determine an expected arrival time or an expected propagation delay from the vessel to the satellite based on the vessel position included in the received AIS signal and the satellite position; to compare the arrival time to the expected arrival time or to compare the propagation delay to the expected propagation delay, respectively; and to determine the accuracy of the reported vessel position based on the comparison; and a transmitter to transmit the processed AIS messages and the determined accuracy to a ground earth element.
A method for analysing a component which is adsorbed to an insoluble metal salt, comprising steps of: (i) labelling the adsorbed component with a binding reagent to produce a labelled adsorbed component; and (ii) analysing the labelled adsorbed component by flow cytometry.
A respiratory mask (10, 60, 80, 100), the respiratory mask (10, 60, 80, 100) comprising: a mask shell that can be fitted over a user's nose; a breathable gas inlet (20, 62) that can conduct gas through the shell to a breathing cavity formed between the shell and a user's face when the mask (10, 60, 80, 100) is in use; and, a gas washout vent, characterized in that the gas washout vent comprises an air-permeable membrane (28, 114, 118) for allowing gas to exit from the breathing cavity, wherein the membrane (28, 114, 118) is thinner than the mask shell. a mask shell that can be fitted over a user's nose; a breathable gas inlet (20, 62) that can conduct gas through the shell to a breathing cavity formed between the shell and a user's face when the mask (10, 60, 80, 100) is in use; and, a gas washout vent, characterized in that the gas washout vent comprises an air-permeable membrane (28, 114, 118) for allowing gas to exit from the breathing cavity, wherein the membrane (28, 114, 118) is thinner than the mask shell.
Method of mass producing a flexible portable electronic device capable of at least processing information, said portable electronic device including an electronic assembly for processing information, the method including the steps consisting in passing a first impermeable plastic strip through an overmoulding station in which the first impermeable plastic strip is overmoulded using a flexible plastic material which will give the resulting flexible portable electronic devices a thickness and a mechanical resistance, the method further including the steps consisting in passing a second impermeable plastic strip with a bottom surface facing upwards, in succession: - through a printing station in which the second impermeable plastic strip receives, on the bottom surface thereof, at least one decorative ink; - through an assembly station in which the second impermeable plastic strip receives, in various places on the bottom surface thereof, the electronic assemblies for processing information, the method further including the step consisting in joining and welding the first overmoulded impermeable plastic strip to the second decorated impermeable plastic strip, and then in cutting out and releasing the portable electronic devices. - through a printing station in which the second impermeable plastic strip receives, on the bottom surface thereof, at least one decorative ink; - through an assembly station in which the second impermeable plastic strip receives, in various places on the bottom surface thereof, the electronic assemblies for processing information,
A weight blanket for therapeutic treatment, comprising means for increasing the weight of the blanket, characterized in that said means includes at least one linked object; said at least one linked object is placed in several corresponding channels between a first and a second cloth layer (11, 12) in the blanket; said at least one linked object creating bands of weights spread over the blanket, in order for the pressure to follow the shape of the body of the user of the blanket, wherein the at least one linked object is completely enclosed inside the blanket, wherein said weight blanket is void of crossing linked objects of the same size.
A system comprising local positioning system hardware (1, 30) comprising a video camera (2, 52) coupled to a pan-tilt mechanism (3, 38), a nondestructive evaluation instrument which is mounted on the pan-tilt mechanism (3, 38), and a computer system programmed to execute the following operations: (a) controlling said local positioning system hardware (1, 30) to determine a direction vector to a target object; (b) controlling said video camera (2, 52) to acquire image data representing an image of an area on a surface of the target object which is intersected by the direction vector; (c) processing the image data to determine whether the image of the area includes information indicating presence of an anomaly in the area; (d) if it is determined in operation (c) that the image data includes information indicating the presence of an anomaly in the area, determining coordinates of a position of the anomaly relative to a coordinate system of the target object based on the image data; (e) directing a nondestructive evaluation instrument toward an area on the target object having said coordinates; and (f) controlling said nondestructive evaluation instrument to acquire nondestructive evaluation measurement data representing a first characteristic of the anomaly using a stand-off nondestructive evaluation technique. (a) controlling said local positioning system hardware (1, 30) to determine a direction vector to a target object; (b) controlling said video camera (2, 52) to acquire image data representing an image of an area on a surface of the target object which is intersected by the direction vector; (c) processing the image data to determine whether the image of the area includes information indicating presence of an anomaly in the area; (d) if it is determined in operation (c) that the image data includes information indicating the presence of an anomaly in the area, determining coordinates of a position of the anomaly relative to a coordinate system of the target object based on the image data; (e) directing a nondestructive evaluation instrument toward an area on the target object having said coordinates; and (f) controlling said nondestructive evaluation instrument to acquire nondestructive evaluation measurement data representing a first characteristic of the anomaly using a stand-off nondestructive evaluation technique.