mhurhangee/ep-ind-claims huggingface dataset:
A method of image processing, the method comprising: transmitting structured light, with an optical transmitter, the optical transmitter having a first angle of view relative to a transmitter optical axis; receiving, with an optical receiver, a reflection of the structured light, the optical receiver having a second angle of view relative to a receiver optical axis, wherein the optical transmitter is angled relative to the optical receiver so that the transmitter optical axis intersects the receiver optical axis forming an angle of tilt therebetween, and wherein a position of the optical transmitter relative to the optical receiver is constant; scaling a position of each element in the received reflection of the structured light based on the angle of tilt of the optical transmitter relative to the optical receiver and a focal length of the optical receiver; and generating a depth map for one or more images based on: i) the scaled position of each element in the received reflection of the structured light, ii) each element in the structured light that corresponds to a respective element in the received reflection of the structured light, iii) the focal length of the optical receiver, and iv) a distance between the optical transmitter and the optical receiver. transmitting structured light, with an optical transmitter, the optical transmitter having a first angle of view relative to a transmitter optical axis; receiving, with an optical receiver, a reflection of the structured light, the optical receiver having a second angle of view relative to a receiver optical axis, wherein the optical transmitter is angled relative to the optical receiver so that the transmitter optical axis intersects the receiver optical axis forming an angle of tilt therebetween, and wherein a position of the optical transmitter relative to the optical receiver is constant; scaling a position of each element in the received reflection of the structured light based on the angle of tilt of the optical transmitter relative to the optical receiver and a focal length of the optical receiver; and generating a depth map for one or more images based on: i) the scaled position of each element in the received reflection of the structured light, ii) each element in the structured light that corresponds to a respective element in the received reflection of the structured light, iii) the focal length of the optical receiver, and iv) a distance between the optical transmitter and the optical receiver.
A ligand compound represented by the following Chemical Formula 1: which is selected from the group consisting of (C 6 H 5) 2 PN(CH 2 CH 2 NMe 2)P(C 6 H 5) 2, (C 6 H 5) 2 PN(CH 2 CH 2 NEt 2)P(C 6 H 5) 2, (C 6 H 5) 2 PN(CH 2 CH 2 NiPr 2)P(C 6 H 5) 2, and (C 6 H 5) 2 PN(CH 2 CH 2 CH 2 NMe 2)P(C 6 H 5) 2.
An adjustable brake controller of an elevator brake, comprising: - a DC bus; - first terminals (159, 259) for connecting the brake controller to a first magnetizing coil (9, L1); - second terminals (359, 459) for connecting the brake controller to a second magnetizing coil (9, L2); - a first controllable power switch coupled between the first terminals (159, 259) and the DC bus, the first controllable power switch being configured to supply electric power from the DC bus to the first magnetic coil (9, L1) responsive to a first control signal (BW2A); - a second controllable power switch coupled between the second terminals (359, 459) and the DC bus, the second controllable power switch being configured to supply electric power from the DC bus to the second magnetizing coil (9, L2) responsive to a second control signal (BW2B); and - a controller configured to generate the first and the second control signals (BW2A, BW2B) for controlling the first and second power switches (155, 255), respectively, characterised by the controller having ∘ a brake open mode, wherein the first and second control signals (BW2A, BW2B) have a same pattern, and ∘ a brake holding mode wherein the first and second control signals (BW2A, BW2B) have a different pattern. - a DC bus; - first terminals (159, 259) for connecting the brake controller to a first magnetizing coil (9, L1); - second terminals (359, 459) for connecting the brake controller to a second magnetizing coil (9, L2); - a first controllable power switch coupled between the first terminals (159, 259) and the DC bus, the first controllable power switch being configured to supply electric power from the DC bus to the first magnetic coil (9, L1) responsive to a first control signal (BW2A); - a second controllable power switch coupled between the second terminals (359, 459) and the DC bus, the second controllable power switch being configured to supply electric power from the DC bus to the second magnetizing coil (9, L2) responsive to a second control signal (BW2B); and - a controller configured to generate the first and the second control signals (BW2A, BW2B) for controlling the first and second power switches (155, 255), respectively, characterised by the controller having ∘ a brake open mode, wherein the first and second control signals (BW2A, BW2B) have a same pattern, and ∘ a brake holding mode wherein the first and second control signals (BW2A, BW2B) have a different pattern. ∘ a brake open mode, wherein the first and second control signals (BW2A, BW2B) have a same pattern, and ∘ a brake holding mode wherein the first and second control signals (BW2A, BW2B) have a different pattern.
Feed device for components, wherein the feed device has a downwardly inclined guide track, a mobile component carrier connected detachably to the guide track, and cooperating sliding and guide means (15, 16), in particular rolling elements and rails, on the guide track and on the component carrier, wherein the feed device has a loading point at which a component carrier is connected to the guide track by a worker and optionally loaded with one or more components, characterized in that the feed device has, at the loading point, a manually operable transfer device, which is actuable by manual force counter to a restoring element (31, 40), for transferring a component carrier to the guide track in a positioned manner.
Vehicle control unit having a processor and a flash memory, the processor being designed to perform a plurality of processes (111, 112, 113, 114), each process being associated with a corresponding vehicle control component; wherein the processor is designed to execute an asynchronous driver that is designed to respond to a write request of a respective process of the plurality of processes (111, 112, 113, 114) by writing vehicle state data pertaining to the respective process in an applicable process context to the flash memory, the flash memory being written to by the asynchronous driver in accordance with a first-in-first-out, FIFO, characteristic; wherein the processor is furthermore designed to execute a synchronous driver that is designed to respond to a write request of a predetermined process of the plurality of processes (111, 112, 113, 114) by stopping execution of the asynchronous driver on the processor and writing vehicle state data pertaining to the predetermined process to the flash memory, the asynchronous driver being stopped by saving the applicable process context under which the asynchronous driver is writing to the flash memory at the time of the stopping, wherein the synchronous driver is furthermore designed to reactivate the asynchronous driver by restoring the saved process context after the vehicle state data pertaining to the predetermined process have been written to the flash memory. wherein the processor is designed to execute an asynchronous driver that is designed to respond to a write request of a respective process of the plurality of processes (111, 112, 113, 114) by writing vehicle state data pertaining to the respective process in an applicable process context to the flash memory, the flash memory being written to by the asynchronous driver in accordance with a first-in-first-out, FIFO, characteristic; wherein the processor is furthermore designed to execute a synchronous driver that is designed to respond to a write request of a predetermined process of the plurality of processes (111, 112, 113, 114) by stopping execution of the asynchronous driver on the processor and writing vehicle state data pertaining to the predetermined process to the flash memory, the asynchronous driver being stopped by saving the applicable process context under which the asynchronous driver is writing to the flash memory at the time of the stopping, wherein the synchronous driver is furthermore designed to reactivate the asynchronous driver by restoring the saved process context after the vehicle state data pertaining to the predetermined process have been written to the flash memory.
A composition comprising: a) a polyester base polymer; b) at least one non-polymeric oxidizable organic compound selected from the group consisting of: a compound of formula or: wherein, Ar is aryl or heteroaryl; X is or -O-; Y is alkylene, cycloalkylene, or arylene; R 1 and R 2 are each independently H or alkyl; R 3 and R 4 are each independently H, alky, cycloalkyl, aryl, or aralkyl; R 5 is alkyl, cycloalkyl, or aryl; Z and Z' are each independently H, alkyl, cycloalkyl, aryl, or aralkyl; and n and p are each independently 0, 1, 2, 3, 4, or 5; and a compound of Formula III or IV: wherein, Ar is an o-, m-, or p-phenylene moiety, a substituted phenylene moiety, or a naphthalene moiety; R 11 and R 12 are independently selected from the group consisting of: hydrogen, alkyl, alkenyl, and aryl; X is O or -(CH 2) n -; n = 0, 1, or 2; and p = 0, 1, or 2; and c) at least one transition metal in a positive oxidation state, said metal being present in the composition in an amount of from 10 to 400 ppm, wherein the polyester base polymer comprises less than or equal to 10 ppm of total phosphorous. a) a polyester base polymer; b) at least one non-polymeric oxidizable organic compound selected from the group consisting of: a compound of formula or: wherein, Ar is aryl or heteroaryl; X is or -O-; Y is alkylene, cycloalkylene, or arylene; R 1 and R 2 are each independently H or alkyl; R 3 and R 4 are each independently H, alky, cycloalkyl, aryl, or aralkyl; R 5 is alkyl, cycloalkyl, or aryl; Z and Z' are each independently H, alkyl, cycloalkyl, aryl, or aralkyl; and n and p are each independently 0, 1, 2, 3, 4, or 5; and a compound of Formula III or IV: wherein, Ar is an o-, m-, or p-phenylene moiety, a substituted phenylene moiety, or a naphthalene moiety; R 11 and R 12 are independently selected from the group consisting of: hydrogen, alkyl, alkenyl, and aryl; X is O or -(CH 2) n -; n = 0, 1, or 2; and p = 0, 1, or 2; and Ar is aryl or heteroaryl; X is or -O-; Y is alkylene, cycloalkylene, or arylene; R 1 and R 2 are each independently H or alkyl; R 3 and R 4 are each independently H, alky, cycloalkyl, aryl, or aralkyl; R 5 is alkyl, cycloalkyl, or aryl; Z and Z' are each independently H, alkyl, cycloalkyl, aryl, or aralkyl; and n and p are each independently 0, 1, 2, 3, 4, or 5; Ar is an o-, m-, or p-phenylene moiety, a substituted phenylene moiety, or a naphthalene moiety; R 11 and R 12 are independently selected from the group consisting of: hydrogen, alkyl, alkenyl, and aryl; X is O or -(CH 2) n -; n = 0, 1, or 2; and p = 0, 1, or 2; and c) at least one transition metal in a positive oxidation state, said metal being present in the composition in an amount of from 10 to 400 ppm, wherein the polyester base polymer comprises less than or equal to 10 ppm of total phosphorous.
A radio frequency identification system comprising: a transport device comprising a load transporter and configured to move items loaded on the load transporter, the load transporter comprising a load receiving space for receiving and for moving a radio frequency identification tagged item (1711 - 1713) with a true tag from an external region external to the load receiving space to the load receiving space of the load transporter; a radio frequency identification reader system comprising a radio frequency identification antenna (1771 - 1774) configured to take tag readings during movement of the true tag along a path from the external region to the load receiving space of the load transporter by projecting a radio frequency activating field to the load receiving space for maintaining a powered status of true tags in the load receiving space of the load transporter; and a processing system configured to receive the received tag readings from the radio frequency identification reader system and to determine true tag motional information as to predetermined or measured movement of the true tag along said path from the external region to the load receiving space based on the received tag readings, and to compare tag motional data based on the tag readings with the true tag motional information to establish whether the tag readings represent a true tag moving along said path to the load receiving space or represent an extraneous tag. a transport device comprising a load transporter and configured to move items loaded on the load transporter, the load transporter comprising a load receiving space for receiving and for moving a radio frequency identification tagged item (1711 - 1713) with a true tag from an external region external to the load receiving space to the load receiving space of the load transporter; a radio frequency identification reader system comprising a radio frequency identification antenna (1771 - 1774) configured to take tag readings during movement of the true tag along a path from the external region to the load receiving space of the load transporter by projecting a radio frequency activating field to the load receiving space for maintaining a powered status of true tags in the load receiving space of the load transporter; and a processing system configured to receive the received tag readings from the radio frequency identification reader system and to determine true tag motional information as to predetermined or measured movement of the true tag along said path from the external region to the load receiving space based on the received tag readings, and to compare tag motional data based on the tag readings with the true tag motional information to establish whether the tag readings represent a true tag moving along said path to the load receiving space or represent an extraneous tag.
An attack detection device to detect an attack on a control system that transitions in a plurality of system states, the control system including equipment (400, 500) and a server device (104,300) to control the equipment, the attack detection device comprising: a white list storage unit to correlate and store, for each system state of the plurality of system states, a white list defining system information that belongs to the control system and is permitted in the system state; a state estimation unit to acquire communication data communicated between the server device and the equipment, which communication data is collected by the attack detection device, the communication data including an operation amount transmitted from the server device to the equipment (400, 500) and an observation amount transmitted from the equipment (400, 500) to the server device, the state estimation unit being configured to classify the communication data into the operation amount and the observation amount and to estimate a current system state of the control system from the operation amount and the observation amount included in the communication data; and an attack determination unit to acquire a white list corresponding to the current system state from the white list storage unit, and determine whether or not the attack has been detected based on the acquired white list and system information belonging to the control system in the current system state, by collating the collected communication data with the white list. a white list storage unit to correlate and store, for each system state of the plurality of system states, a white list defining system information that belongs to the control system and is permitted in the system state; a state estimation unit to acquire communication data communicated between the server device and the equipment, which communication data is collected by the attack detection device, the communication data including an operation amount transmitted from the server device to the equipment (400, 500) and an observation amount transmitted from the equipment (400, 500) to the server device, the state estimation unit being configured to classify the communication data into the operation amount and the observation amount and to estimate a current system state of the control system from the operation amount and the observation amount included in the communication data; and an attack determination unit to acquire a white list corresponding to the current system state from the white list storage unit, and determine whether or not the attack has been detected based on the acquired white list and system information belonging to the control system in the current system state, by collating the collected communication data with the white list.
CONNECTION OF A MEMORY ALLOY MATERIAL, characterized by being a sleeve connection made of a shaped memory alloy material, originally manufactured with an internal diameter shorter than the external diameter of the tubing, internally having a cover material made of dielectric material and, most internally, a layer of an anti-corrosive material which is contiguous to the external face of said tubing, said layer of an anti-corrosive material internally having protruding portions designed to grasp the external surface of the tubing, forming streaks.
A seal assembly for a rotary preheater, the seal assembly comprising: at least one leaf having a base section, the base section defining a fastening area for securing the at least one leaf to a diaphragm of the preheater, the at least one leaf having an elongate section extending away from the base section and terminating at a distal end thereof; and at least one wear resistant member being secured to the at least one leaf proximate the distal end thereof, characterised in that each of the at least one wear resistant members comprises a plurality of elongate strips, each of the plurality of elongate strips comprising a bend having a wear resistant material applied thereto. at least one leaf having a base section, the base section defining a fastening area for securing the at least one leaf to a diaphragm of the preheater, the at least one leaf having an elongate section extending away from the base section and terminating at a distal end thereof; and at least one wear resistant member being secured to the at least one leaf proximate the distal end thereof, characterised in that each of the at least one wear resistant members comprises a plurality of elongate strips, each of the plurality of elongate strips comprising a bend having a wear resistant material applied thereto.
A defrosting method for a power transmission device provided on a ground side, wherein: - the power transmission device includes: - a movable part configured to come up and down with respect to the ground; and - an elevating mechanism arranged on a lower side of the movable part in a vertical direction and configured to move the movable part up and down, - the movable part includes a power transmission coil for supplying electric power via a wireless connection to a power reception coil mounted on a vehicle, and a flat nonmagnetic plate provided on a lower side of the power transmission coil in the vertical direction, and - the nonmagnetic plate has a penetration part penetrating in the vertical direction, - the method comprises: - measuring a temperature of the power transmission device; - comparing the measured temperature with a threshold preliminarily set for determining a freeze of the power transmission device so as to determine whether the power transmission device is frozen; and - exciting the power transmission coil when determining that the power transmission device is frozen, and - wherein the nonmagnetic plate has a penetration part allowing magnetic flux from the power transmission coil to leak in the vertical direction to the rear side of the nonmagnetic plate to heat the elevating mechanism. - the power transmission device includes: - a movable part configured to come up and down with respect to the ground; and - an elevating mechanism arranged on a lower side of the movable part in a vertical direction and configured to move the movable part up and down, - a movable part configured to come up and down with respect to the ground; and - an elevating mechanism arranged on a lower side of the movable part in a vertical direction and configured to move the movable part up and down, - the movable part includes a power transmission coil for supplying electric power via a wireless connection to a power reception coil mounted on a vehicle, and a flat nonmagnetic plate provided on a lower side of the power transmission coil in the vertical direction, and - the nonmagnetic plate has a penetration part penetrating in the vertical direction, - the method comprises: - measuring a temperature of the power transmission device; - comparing the measured temperature with a threshold preliminarily set for determining a freeze of the power transmission device so as to determine whether the power transmission device is frozen; and - exciting the power transmission coil when determining that the power transmission device is frozen, and - measuring a temperature of the power transmission device; - comparing the measured temperature with a threshold preliminarily set for determining a freeze of the power transmission device so as to determine whether the power transmission device is frozen; and - exciting the power transmission coil when determining that the power transmission device is frozen, and - wherein the nonmagnetic plate has a penetration part allowing magnetic flux from the power transmission coil to leak in the vertical direction to the rear side of the nonmagnetic plate to heat the elevating mechanism.