mhurhangee/ep-ind-claims huggingface dataset:
A method for drone detection using an outdoor lighting network, the method comprising the steps of: detecting, by one or more radar sensors in the outdoor lighting network, a moving object in an outside environment; monitoring, by the one or more radar sensors in the outdoor lighting network, the moving object's velocity or velocity change rate over a period of time; characterized by determining, by the one or more radar sensors in the outdoor lighting network, if the moving object is a drone based on the monitored velocity or velocity change rate of the moving object, the moving object being determined to be a drone if the monitored velocity or velocity change rate is substantially constant; and if the moving object is determined to be a drone: analyzing, by the outdoor lighting network, flight data pertaining to the drone to determine a starting location of the drone; and sending, by the outdoor lighting network, a signal indicating the starting location of the drone. detecting, by one or more radar sensors in the outdoor lighting network, a moving object in an outside environment; monitoring, by the one or more radar sensors in the outdoor lighting network, the moving object's velocity or velocity change rate over a period of time; characterized by determining, by the one or more radar sensors in the outdoor lighting network, if the moving object is a drone based on the monitored velocity or velocity change rate of the moving object, the moving object being determined to be a drone if the monitored velocity or velocity change rate is substantially constant; and if the moving object is determined to be a drone: analyzing, by the outdoor lighting network, flight data pertaining to the drone to determine a starting location of the drone; and sending, by the outdoor lighting network, a signal indicating the starting location of the drone.
An engine block (104, 105) comprising: a cylinder (106, 107); a piston slidably received within the cylinder (106, 107); a liner (128, 129) positioned between the cylinder (106, 107) and the piston; at least two oil nozzles (124, 126) arranged spaced apart from each other, wherein one of the oil nozzles is provided on a first side of the piston and another of the oil nozzles is provided on a second side of the piston such that the first and second sides (120, 122) oppose each other, the oil nozzles (124, 126) configured to spray oil on the piston; an oil channel located on the first side; a passage provided on the first side as being provided in the engine block (104, 105) to fluidly connect the oil channel with one of the oil nozzles (124; 126) provided on the first side; and a passage provided on the second side as being provided in the engine block (104, 105) to fluidly connect the groove (134, 135) with one of the oil nozzles (124, 126) provided on the second side, characterized in that a groove (134, 135) is disposed about and provided in communication with the liner (128, 129) and the cylinder (106, 107), and the oil channel is configured to supply oil to at least one of the at least two oil nozzles (124, 126) via the groove (134, 135), wherein the groove (134, 135) is in fluid communication with the oil nozzles (124, 126). a cylinder (106, 107); a piston slidably received within the cylinder (106, 107); a liner (128, 129) positioned between the cylinder (106, 107) and the piston; at least two oil nozzles (124, 126) arranged spaced apart from each other, wherein one of the oil nozzles is provided on a first side of the piston and another of the oil nozzles is provided on a second side of the piston such that the first and second sides (120, 122) oppose each other, the oil nozzles (124, 126) configured to spray oil on the piston; an oil channel located on the first side; a passage provided on the first side as being provided in the engine block (104, 105) to fluidly connect the oil channel with one of the oil nozzles (124; 126) provided on the first side; and a passage provided on the second side as being provided in the engine block (104, 105) to fluidly connect the groove (134, 135) with one of the oil nozzles (124, 126) provided on the second side, characterized in that a groove (134, 135) is disposed about and provided in communication with the liner (128, 129) and the cylinder (106, 107), and the oil channel is configured to supply oil to at least one of the at least two oil nozzles (124, 126) via the groove (134, 135), wherein the groove (134, 135) is in fluid communication with the oil nozzles (124, 126).
Method for selecting operating points of a gas turbine while taking into consideration at least one controlled variable, the operating points being defined at least by parameter combinations of manipulated variables, wherein the operating points are selected automatically using an interpolation method based on already known parameter combinations, characterized in that the Kriging interpolation method is used as the interpolation method.
A shock and vibration absorber system for securing a structure in a shipping container during shipment, comprising: at least one elastic device (131, 275); and at least one mounting device (200, 200A, 200B) connected to the at least one elastic device (131, 275), the at least one mounting device (200, 200A, 200B) comprising: at least two securing elements, wherein each securing element is configured to secure an opposing portion of the structure; and at least two sliders, wherein each slider has at least two corresponding surfaces which are interconnected by at least one inclined surface and at least one ground surface, wherein the inclined surface is facing an opposing slider and slidably connected to one of the at least two securing elements, wherein each slider is arranged to move in response to an applied force, and wherein the at least one ground surface is configured to slidably connect to an inner wall (128, 129) of the shipping container; wherein a first end of the elastic device (131, 275) is connected to a first of the at least two sliders and a second end of the elastic device (131, 275) is connected to a second of the at least two sliders or the inner wall (128, 129). at least one elastic device (131, 275); and at least one mounting device (200, 200A, 200B) connected to the at least one elastic device (131, 275), the at least one mounting device (200, 200A, 200B) comprising: at least two securing elements, wherein each securing element is configured to secure an opposing portion of the structure; and at least two sliders, wherein at least two securing elements, wherein each securing element is configured to secure an opposing portion of the structure; and at least two sliders, wherein each slider has at least two corresponding surfaces which are interconnected by at least one inclined surface and at least one ground surface, wherein the inclined surface is facing an opposing slider and slidably connected to one of the at least two securing elements, wherein each slider is arranged to move in response to an applied force, and wherein the at least one ground surface is configured to slidably connect to an inner wall (128, 129) of the shipping container; wherein a first end of the elastic device (131, 275) is connected to a first of the at least two sliders and a second end of the elastic device (131, 275) is connected to a second of the at least two sliders or the inner wall (128, 129).
A computerized system comprising: one or more processors; and one or more computer storage media storing computer-useable instructions that, when used by the one or more processors, cause the one or more processors to: receive, at an SNMP proxy in a first cloud computing environment, a request for telemetry data for a network device in the first cloud computing environment, the request being received from a monitoring service in a second cloud computing environment remote from the first cloud computing environment; obtain, by the SNMP proxy, an SNMP community string for the network device from an access data store maintained in the first cloud computing environment and not accessible to the monitoring service; issue, by the SNMP proxy, a request for the telemetry data to the network device using the SNMP community string; receive, at the SNMP proxy, a response from the network device; and sending the telemetry data from the SNMP proxy to the monitoring service based on the response from the network device. one or more processors; and one or more computer storage media storing computer-useable instructions that, when used by the one or more processors, cause the one or more processors to: receive, at an SNMP proxy in a first cloud computing environment, a request for telemetry data for a network device in the first cloud computing environment, the request being received from a monitoring service in a second cloud computing environment remote from the first cloud computing environment; obtain, by the SNMP proxy, an SNMP community string for the network device from an access data store maintained in the first cloud computing environment and not accessible to the monitoring service; issue, by the SNMP proxy, a request for the telemetry data to the network device using the SNMP community string; receive, at the SNMP proxy, a response from the network device; and sending the telemetry data from the SNMP proxy to the monitoring service based on the response from the network device. receive, at an SNMP proxy in a first cloud computing environment, a request for telemetry data for a network device in the first cloud computing environment, the request being received from a monitoring service in a second cloud computing environment remote from the first cloud computing environment; obtain, by the SNMP proxy, an SNMP community string for the network device from an access data store maintained in the first cloud computing environment and not accessible to the monitoring service; issue, by the SNMP proxy, a request for the telemetry data to the network device using the SNMP community string; receive, at the SNMP proxy, a response from the network device; and sending the telemetry data from the SNMP proxy to the monitoring service based on the response from the network device.
A method to extend a shelf life of a sodium nitroprusside solution comprising: dissolving two parts by weight of a 2-hydroxybenzyl alcohol and one part by weight of a sodium nitroprusside in seventy-five parts by weight of a polyethylene glycol
Toilet monument comprising: - a receptacle; - a mobile sanitary unit; - a first opening; and - a second opening; wherein the receptacle is configured to accommodate the mobile sanitary unit; wherein the mobile sanitary unit is removable from the toilet monument and comprises all components necessary for operating the sanitary unit; wherein the first opening is designed for entering the toilet monument; and wherein the second opening differs from the first opening and is designed for introducing the mobile sanitary unit into the toilet monument and removing it therefrom. - a receptacle; - a mobile sanitary unit; - a first opening; and - a second opening;
A process of manufacturing a cardboard building construction material, said cardboard building construction material comprising a plurality of glued cardboard plies, wherein, the cardboard plies are rolled on a drum into a roll and wherein glue is circumferentially applied, and a cutter cuts the cardboard plies from an outer diameter toward an inner diameter of the roll, thus permitting simultaneous cutting of the roll as the roll is formed, characterized in that the glue is applied in strips spaced a safety clearance from cutting points thereby defining a non-glued region between the strips so as to avoid fouling of the cutter with glue.
Process for detection of an object within a monitored area allocated to a presence or motion sensor, comprising: generating and sending of a radar signal, reception of a signal reflected by an object within the detection range (reception signal) and evaluation of the same with regard to its distance to the sensors, wherein for presence or motion detection within the monitored area at least two presence or motion detectors are used which are arranged in horizontal distance to one another and designed to receive an impulse-radarsignal, wherein the sensors (6, 6.1) are aligned in a way that their detection ranges at least partly overlap and that the area monitored by both sensors is the monitored area, characterized by the fact that within the monitored area at least one inclusion area (8, 8.1) and/or at least one exclusion area (14, 15) is defined whose edge, at least partially, is made known to the system as distance value groups during setting up of the monitoring installation, wherein the distance values of a distance value group correspond to the distance between the edge and the sensors (6, 6.1) at a certain point, and that during operation of the monitoring installation in monitoring mode by comparison of the current distance to the object detected by the sensors (6, 6.1) with the stored distance value groups it is determined whether the object in the monitoring area is inside or outside the at least one inclusion area (8, 8.1).
A system for tracking and control in medical procedures, the system comprising: a device configured to deploy fluorescent markers (451, 452) on at least one of an organ under surgery and a surgical tool; a visual light source; a fluorescent light source corresponding to an excitation wavelength of the fluorescent markers; an image acquisition and control element configured to: control the visual light source and the fluorescent light source, and capture and digitize resulting visual images and fluorescent images; and an image-based tracking module configured to apply image processing to the visual and fluorescent images in order to: detect fluorescent markers on at least one of the organ and the surgical tool, and track coordinates of those markers in real-time. a device configured to deploy fluorescent markers (451, 452) on at least one of an organ under surgery and a surgical tool; a visual light source; a fluorescent light source corresponding to an excitation wavelength of the fluorescent markers; an image acquisition and control element configured to: control the visual light source and the fluorescent light source, and capture and digitize resulting visual images and fluorescent images; and control the visual light source and the fluorescent light source, and capture and digitize resulting visual images and fluorescent images; and an image-based tracking module configured to apply image processing to the visual and fluorescent images in order to: detect fluorescent markers on at least one of the organ and the surgical tool, and track coordinates of those markers in real-time. detect fluorescent markers on at least one of the organ and the surgical tool, and track coordinates of those markers in real-time.
A turbine stator for a gas turbine engine comprising: a vane; an outer vane platform located at a radially outboard extent of the vane; a first cooling passage disposed at the stator to provide a cooling fluid flow to a first portion of the stator, the first cooling passage being a vane leading edge cooling passage of the vane, and having a leading edge cooling inlet; a second cooling passage disposed at the stator to provide a cooling fluid flow to a second portion of the stator, the second cooling passage being a platform cooling passage of the vane, and having a platform cooling inlet; a connection passage extending at least partially through the stator to connect said leading edge cooling inlet of the first cooling passage to the platform cooling inlet of the second cooling passage; and a common cooling flow source from which the cooling fluid flow is directed into the first cooling passage and the second cooling passage via said leading edge cooling inlet; wherein the leading edge cooling inlet extends radially outwardly to a greater extent than the platform cooling inlet. a vane; an outer vane platform located at a radially outboard extent of the vane; a first cooling passage disposed at the stator to provide a cooling fluid flow to a first portion of the stator, the first cooling passage being a vane leading edge cooling passage of the vane, and having a leading edge cooling inlet; a second cooling passage disposed at the stator to provide a cooling fluid flow to a second portion of the stator, the second cooling passage being a platform cooling passage of the vane, and having a platform cooling inlet; a connection passage extending at least partially through the stator to connect said leading edge cooling inlet of the first cooling passage to the platform cooling inlet of the second cooling passage; and a common cooling flow source from which the cooling fluid flow is directed into the first cooling passage and the second cooling passage via said leading edge cooling inlet;
A method, performed in a wireless device, of determining radio coverage of at least one small cell base station in a wireless communications network, the method comprising the steps of: receiving an indication to initiate determination of radio coverage of the small cell base station; receiving (S1c) at least one predefined path, along which radio condition measurements are to be performed; - obtaining radio condition measurements as the wireless device moves along the at least one predefined path, wherein a respective first time value is associated to each radio condition measurement; - obtaining position estimates defining the position of the wireless device performing the radio condition measurements as the wireless device moves along the at least one predefined path, wherein a respective second time value is associated to each position estimate; and - determining (S4a) radio coverage by correlating each radio condition measurement to one of the obtained position estimates using the first and second time values. receiving an indication to initiate determination of radio coverage of the small cell base station; receiving (S1c) at least one predefined path, along which radio condition measurements are to be performed; - obtaining radio condition measurements as the wireless device moves along the at least one predefined path, wherein a respective first time value is associated to each radio condition measurement; - obtaining position estimates defining the position of the wireless device performing the radio condition measurements as the wireless device moves along the at least one predefined path, wherein a respective second time value is associated to each position estimate; and - determining (S4a) radio coverage by correlating each radio condition measurement to one of the obtained position estimates using the first and second time values. - obtaining radio condition measurements as the wireless device moves along the at least one predefined path, wherein a respective first time value is associated to each radio condition measurement; - obtaining position estimates defining the position of the wireless device performing the radio condition measurements as the wireless device moves along the at least one predefined path, wherein a respective second time value is associated to each position estimate; and - determining (S4a) radio coverage by correlating each radio condition measurement to one of the obtained position estimates using the first and second time values.
A method for checking whether program instructions have been executed by an end device, having the method steps of: - calling at least a portion of the program instructions by the end device from a trustworthy instance, wherein the program instructions are stored in executable form in the trustworthy entity, in particular a chip card; - variably modifying the requested portion of the executable program instructions by the trustworthy entity such that upon each execution of the method the modified portion of the program instructions varies; - transferring the modified portion of the program instructions from the trustworthy entity to the end device; - executing the program instructions while employing the modified portion of the program instructions by the end device, wherein by the executing of the modified program instructions a check value is obtained; - transferring the obtained check value from the end device to the trustworthy entity; and - verifying the obtained check value in the trustworthy entity for checking whether the modified portions of the program instructions and/or the already executed program instructions have been executed in the end device. - calling at least a portion of the program instructions by the end device from a trustworthy instance, wherein the program instructions are stored in executable form in the trustworthy entity, in particular a chip card; - variably modifying the requested portion of the executable program instructions by the trustworthy entity such that upon each execution of the method the modified portion of the program instructions varies; - transferring the modified portion of the program instructions from the trustworthy entity to the end device; - executing the program instructions while employing the modified portion of the program instructions by the end device, wherein by the executing of the modified program instructions a check value is obtained; - transferring the obtained check value from the end device to the trustworthy entity; and - verifying the obtained check value in the trustworthy entity for checking whether the modified portions of the program instructions and/or the already executed program instructions have been executed in the end device.
A method of assisting communication between a dockee and at least one peripheral device by a docking center in a wireless docking network, the method comprising: transmitting, by the docking center being a group owner of a first group, to the dockee, information for a direct connection between the dockee and the at least one peripheral device, wherein the docking center is connected to the at least one peripheral device; receiving, from the dockee, an assist request for setting of the direct connection based on the information; transmitting, to the dockee, a response indicating whether the assist request is accepted; receiving, from the dockee, a provision discovery, PD, request for requesting to join a second group after initiating the direct connection with the at least one peripheral device by the dockee; transmitting, to the dockee, a PD response for joining the second group as a client, wherein the dockee is set to an owner in the second group; and operating as the group owner of the first group and a client of the second group. transmitting, by the docking center being a group owner of a first group, to the dockee, information for a direct connection between the dockee and the at least one peripheral device, wherein the docking center is connected to the at least one peripheral device; receiving, from the dockee, an assist request for setting of the direct connection based on the information; transmitting, to the dockee, a response indicating whether the assist request is accepted; receiving, from the dockee, a provision discovery, PD, request for requesting to join a second group after initiating the direct connection with the at least one peripheral device by the dockee; transmitting, to the dockee, a PD response for joining the second group as a client, wherein the dockee is set to an owner in the second group; and operating as the group owner of the first group and a client of the second group.