mhurhangee/patent-ind-claim-en huggingface dataset:
A radiation detector comprising: a printed circuit board ; and a detector assembly operably connected to the printed circuit board and comprising: a silicon photomultiplier ; an organic scintillator coating applied to a surface of the silicon photomultiplier ; a layer of varnish on a surface of the organic scintillator coating ; an optical reflector covering the layer of varnish and the organic scintillator coating , wherein the optical reflector , the varnish layer, and the organic scintillator are adhered together without an air gap; and a light sealing container surrounding the printed circuit board and the detector assembly such that the printed circuit board and the detector assembly are encapsulated within the light sealing container . a printed circuit board ; and a detector assembly operably connected to the printed circuit board and comprising: a silicon photomultiplier ; an organic scintillator coating applied to a surface of the silicon photomultiplier ; a layer of varnish on a surface of the organic scintillator coating ; an optical reflector covering the layer of varnish and the organic scintillator coating , wherein the optical reflector , the varnish layer, and the organic scintillator are adhered together without an air gap; and a light sealing container surrounding the printed circuit board and the detector assembly such that the printed circuit board and the detector assembly are encapsulated within the light sealing container . a silicon photomultiplier ; an organic scintillator coating applied to a surface of the silicon photomultiplier ; a layer of varnish on a surface of the organic scintillator coating ; an optical reflector covering the layer of varnish and the organic scintillator coating , wherein the optical reflector , the varnish layer, and the organic scintillator are adhered together without an air gap; and a light sealing container surrounding the printed circuit board and the detector assembly such that the printed circuit board and the detector assembly are encapsulated within the light sealing container .
Lighting unit for installation in common flush-mounted installation boxes , wherein the lighting unit comprises a power supply unit arranged in a first housing and a second housing provided with a metal bearing ring for housing a luminaire module, wherein the luminaire module is electrically connected to the power supply unit for power supply, which power supply unit , for its part, can be connected to the electrical installation system of a building, wherein the luminaire module comprises a ball-shaped luminaire , which is held pivotably and/or rotatably in a metal bearing shell at the second housing , wherein the 2-part luminaire housing of the ball-shaped luminaire has at least two pins , each of which interacts with at least one control geometry provided in the bearing shell for pivot and/or rotation limitation, and wherein two clips are provided to hold the luminaire housing at the bearing shell , which clips on the one hand clip into the bearing ring and on the other hand their bearing surface interacts slidingly with the first part of the luminaire housing and/or the second part of the luminaire housing of the ball-shaped luminaire , which part is on that side of the luminaire housing which is beyond the area of the luminaire housing with the largest diameter, on the side facing away from the inside of the lighting unit, and wherein inside the two-part luminaire housing one PCB equipped with at least one luminaire and one light box equipped with at least one light guide body are placed.
A security system for controlling and/or monitoring door locking devices for escape route security, having door locking controllers , wherein a door locking controller serves to activate a locking mechanism , which is to be assigned to the door locking controller , and having trigger elements , in particular emergency buttons , wherein, as a result of an actuation of a trigger element , it is possible to initiate an activation of at least one locking mechanism , wherein a number of door locking controllers and a number of trigger elements are connected to one another via a common, first bus system , wherein the number of door locking controllers and the number of trigger elements each correspond to a natural number of at least two, and the number of door locking controllers are assigned to the number of trigger elements in such manner that, when one of the trigger elements is actuated, only the at least one door locking controller assigned to the actuated trigger element activates the respective locking mechanism for unlocking, wherein, as a result of the actuation of one of the trigger elements, which are connected to the first bus system, not all door locking controllers, which are connected to the first bus system, are initiated to activate the respective locking mechanism for unlocking, wherein in the door locking controllers , which belong to the number of door locking controllers , it is stored in each case to which at least one trigger element the respective door locking controller is assigned, characterised in that all door locking controllers of the number of door locking controllers are notified of the actuation by the trigger element as a result of the actuation of the trigger element and the respective door locking controller decides whether the locking mechanism assigned to the door locking controllers is to be activated for unlocking, for which purpose each door locking controller , which is connected to the first bus system , verifies whether the respective door locking controller is assigned to the trigger element sending the message, wherein only if the door locking controller determines that the door locking controller is assigned to the trigger element sending the message does the door locking controller activate the locking mechanism for unlocking.
Bypass steam system for introducing a flow of high-energy steam into a condenser, comprising an arrangement making the flow uniform, wherein the arrangement has a housing , which is designed to limit the flow, wherein the housing has holes , through which the flow flows as a jet into a space outside the housing , characterized in that the spacing D of the holes is such that, at a distance A from the housing , no merging of jets coming from two adjacent holes takes place, where D = A, wherein the spacing D of two adjacent hole centers is at least D = 50 mm. characterized in that the spacing D of the holes is such that, at a distance A from the housing , no merging of jets coming from two adjacent holes takes place, where D = A, wherein the spacing D of two adjacent hole centers is at least D = 50 mm.
Method of allocating a virtual register stack of a processing unit in a stack machine comprising allocating a given number of topmost elements of the virtual register stack in a physical register file of the stack machine and allocating additional elements of the virtual register stack in a hierarchical register cache of the stack machine, characterized in that the register cache takes the form of on-chip memory and the register file comprises multiple segments , each segment containing a given number of registers of a virtual processing unit and being defined by special-purpose registers of the virtual processing unit, the special-purpose registers comprising an offset (RO) of the registers within the register file . in a stack machine comprising allocating a given number of topmost elements of the virtual register stack in a physical register file of the stack machine and allocating additional elements of the virtual register stack in a hierarchical register cache of the stack machine, characterized in that the register cache takes the form of on-chip memory and the register file comprises multiple segments , each segment containing a given number of registers of a virtual processing unit and being defined by special-purpose registers of the virtual processing unit, the special-purpose registers comprising an offset (RO) of the registers within the register file .
A method for obtaining the blood pressure of a person comprising steps of: with a blood pulsation monitor , monitoring pulsation of blood in a body part of the person while moving the body part from a first height to a second height; characterised by : with a movement detector , detecting a first height position above the person's heart in which: a) the amplitude of the pulsation of blood changes if the body part moves from the first height position in one direction; and b) the amplitude of blood pulsation remains generally constant if the body part moves from the first height position in the reverse direction; and with a data treatment module , providing the first height position as an input to a first calculation model suitable for obtaining the diastolic pressure of the person; monitoring pulsation of blood in the body part while moving the body part from a third height to a fourth height; with the movement detector , detecting a second height position below the person's heart in which a) the amplitude of the pulsation of blood changes if the body part moves from the second height position in one direction; and b) the amplitude of blood pulsation remains generally constant if the body part moves from the second height position in the reverse direction; and with the data treatment module , providing the second height position as an input to a second calculation model suitable for obtaining the systolic pressure of the person. with a movement detector , detecting a first height position above the person's heart in which: a) the amplitude of the pulsation of blood changes if the body part moves from the first height position in one direction; and b) the amplitude of blood pulsation remains generally constant if the body part moves from the first height position in the reverse direction; and with a data treatment module , providing the first height position as an input to a first calculation model suitable for obtaining the diastolic pressure of the person; monitoring pulsation of blood in the body part while moving the body part from a third height to a fourth height; with the movement detector , detecting a second height position below the person's heart in which a) the amplitude of the pulsation of blood changes if the body part moves from the second height position in one direction; and b) the amplitude of blood pulsation remains generally constant if the body part moves from the second height position in the reverse direction; and with the data treatment module , providing the second height position as an input to a second calculation model suitable for obtaining the systolic pressure of the person.
Electric machine, - wherein the electric machine has a stator device and a rotor , - wherein the rotor is arranged in a rotationally fixed manner on a rotor shaft , - wherein the rotor shaft is mounted in bearings of the electric machine so that the rotor shaft including the rotor can be rotated around a rotational axis , - wherein limiting elements are mounted on the stator device axially on both sides so that the stator device and limiting elements bound an internal rotor space radially externally and axially on both sides, - wherein axially extending first cooling channels are arranged in the stator device which at their axial ends are connected in a communicating manner to the internal rotor space so that by means of the first cooling channels an internal air-cooling circuit will be completed from the internal rotor space through the first cooling channels and back into the internal rotor space , - wherein a liquid cooling medium is ducted to the stator device and then ducted out of the stator device again, - wherein the liquid cooling medium is ducted at least partially through second cooling channels arranged in the stator device , - wherein the first cooling channels and the second cooling channels are separated from one another by partitions of the stator device and the partitions have cooling-fin-like primary projections on their sides facing the first cooling channels , characterised in that - the primary projections in turn have cooling-fin-like secondary projections on their sides facing the first cooling channels . - wherein the electric machine has a stator device and a rotor , - wherein the rotor is arranged in a rotationally fixed manner on a rotor shaft , - wherein the rotor shaft is mounted in bearings of the electric machine so that the rotor shaft including the rotor can be rotated around a rotational axis , - wherein limiting elements are mounted on the stator device axially on both sides so that the stator device and limiting elements bound an internal rotor space radially externally and axially on both sides, - wherein axially extending first cooling channels are arranged in the stator device which at their axial ends are connected in a communicating manner to the internal rotor space so that by means of the first cooling channels an internal air-cooling circuit will be completed from the internal rotor space through the first cooling channels and back into the internal rotor space , - wherein a liquid cooling medium is ducted to the stator device and then ducted out of the stator device again, - wherein the liquid cooling medium is ducted at least partially through second cooling channels arranged in the stator device , - wherein the first cooling channels and the second cooling channels are separated from one another by partitions of the stator device and the partitions have cooling-fin-like primary projections on their sides facing the first cooling channels , characterised in that - the primary projections in turn have cooling-fin-like secondary projections on their sides facing the first cooling channels .
An apparatus (100; 200; 300; 400) for monitoring an actuator system with a plurality of actuators and a plurality of data output signals , the apparatus (100; 200; 300; 400) comprising: an anomaly detector (110; 310) configured to detect, based on the plurality of data output signals , an anomaly occurring in the actuator system , and further configured to output an anomaly signal indicating at least one anomaly time period in which the detected anomaly has occurred; a suppressing engine comprising a first trained artificial intelligence entity trained and configured to determine, based on the plurality of data output signals , that a actuator-affecting intervention procedure has been performed in or on the actuator system , and to output a suppressing signal indicating at least one suppressing time period based on the actuator-affecting intervention procedure that has been performed; and a combiner logic configured to determine time periods of interest for the monitoring of the actuator system and to output a monitoring signal indicating the determined time periods of interest , wherein the combiner logic determines each anomaly time period indicated by the anomaly signal as a time period of interest if and only if and only as long as the suppressing signal does not indicate a simultaneous suppressing time period . an anomaly detector (110; 310) configured to detect, based on the plurality of data output signals , an anomaly occurring in the actuator system , and further configured to output an anomaly signal indicating at least one anomaly time period in which the detected anomaly has occurred; a suppressing engine comprising a first trained artificial intelligence entity trained and configured to determine, based on the plurality of data output signals , that a actuator-affecting intervention procedure has been performed in or on the actuator system , and to output a suppressing signal indicating at least one suppressing time period based on the actuator-affecting intervention procedure that has been performed; and a combiner logic configured to determine time periods of interest for the monitoring of the actuator system and to output a monitoring signal indicating the determined time periods of interest , wherein the combiner logic determines each anomaly time period indicated by the anomaly signal as a time period of interest if and only if and only as long as the suppressing signal does not indicate a simultaneous suppressing time period .
A reflector antenna, comprising: a feed array , comprising N feeds (a1, b1), wherein N is an integer greater than 1; a reflector , configured to: reflect a signal from the feed array or reflect a signal to the feed array ; and M radio frequency channels , wherein each radio frequency channel comprises an adjustable gain amplifier , configured to control a signal, M is an integer greater than 1 and less than N, each radio frequency channel corresponds to one of the N feeds (a1, b1), a correspondence between each radio frequency channel and the one feed of the N feeds (a1, b1) is changeable, and each radio frequency channel is configured to transmit or receive a signal by using a corresponding feed (a1, b1), wherein the antenna further comprises M single-pole multi-throw switches , each radio frequency channel corresponds to one single-pole multi-throw switch , each single-pole multi-throw switch corresponds to a plurality of feeds (a1, b1), each radio frequency channel is connected to a single-pole end of a single-pole multi-throw switch , the feeds (a1, b1) of the plurality of feeds are connected to multi-throw ends of a single-pole multi-throw switch , and a correspondence between each radio frequency channel and the feeds (a1, b1) is controlled by a single-pole multi-throw switch, characterized in that the reflector antenna further comprises a cross waveguide , wherein the N feeds (a1, b1) are connected to the multi-throw ends of the M single-pole multi-throw switches by the cross waveguide . a feed array , comprising N feeds (a1, b1), wherein N is an integer greater than 1; a reflector , configured to: reflect a signal from the feed array or reflect a signal to the feed array ; and M radio frequency channels , wherein each radio frequency channel comprises an adjustable gain amplifier , configured to control a signal, M is an integer greater than 1 and less than N, each radio frequency channel corresponds to one of the N feeds (a1, b1), a correspondence between each radio frequency channel and the one feed of the N feeds (a1, b1) is changeable, and each radio frequency channel is configured to transmit or receive a signal by using a corresponding feed (a1, b1), wherein the antenna further comprises M single-pole multi-throw switches , each radio frequency channel corresponds to one single-pole multi-throw switch , each single-pole multi-throw switch corresponds to a plurality of feeds (a1, b1), each radio frequency channel is connected to a single-pole end of a single-pole multi-throw switch , the feeds (a1, b1) of the plurality of feeds are connected to multi-throw ends of a single-pole multi-throw switch , and a correspondence between each radio frequency channel and the feeds (a1, b1) is controlled by a single-pole multi-throw switch, characterized in that the reflector antenna further comprises a cross waveguide , wherein the N feeds (a1, b1) are connected to the multi-throw ends of the M single-pole multi-throw switches by the cross waveguide .
A compound having the Formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is halo, hydrogen, (C 1 -C 4 )alkyl, or halo(C 1 -C 4 )alkyl; R 2 is hydrogen, (C 1 -C 4 )alkyl, halo(C 1 -C 4 )alkyl, -(C 1 -C 4 )alkylOR a , -(C 1 -C 4 )alkylSR a , - (C 1 -C 4 )alkylNR a R b , R a and R d are each independently selected from hydrogen, (C 1 -C 4 )alkyl, halo(C 1 -C 4 )alkyl, COOR e , and -C(O)NR c R d ; R 3 and R 4 are each independently hydrogen, halo, (C 1 -C 4 )alkyl, or halo(C 1 -C 4 )alkyl, wherein when R 3 is halo then R 4 is halo and wherein when R 3 is hydrogen then R 4 is (C 1 -C 4 )alkyl or halo(C 1 -C 4 )alkyl; R 5 and R 6 are each independently (C 1 -C 4 )alkyl, halo(C 1 -C 4 )alkyl, halo, cyano, or - C(O)NR c R d ; R c and R d are each independently hydrogen or (C 1 -C 4 )alkyl; t is 1, 2, or 3; and q is 0, 1, 2, or 3. R 1 is halo, hydrogen, (C 1 -C 4 )alkyl, or halo(C 1 -C 4 )alkyl; R 2 is hydrogen, (C 1 -C 4 )alkyl, halo(C 1 -C 4 )alkyl, -(C 1 -C 4 )alkylOR a , -(C 1 -C 4 )alkylSR a , - (C 1 -C 4 )alkylNR a R b , R a and R d are each independently selected from hydrogen, (C 1 -C 4 )alkyl, halo(C 1 -C 4 )alkyl, COOR e , and -C(O)NR c R d ; R 3 and R 4 are each independently hydrogen, halo, (C 1 -C 4 )alkyl, or halo(C 1 -C 4 )alkyl, wherein when R 3 is halo then R 4 is halo and wherein when R 3 is hydrogen then R 4 is (C 1 -C 4 )alkyl or halo(C 1 -C 4 )alkyl; R 5 and R 6 are each independently (C 1 -C 4 )alkyl, halo(C 1 -C 4 )alkyl, halo, cyano, or - C(O)NR c R d ; R c and R d are each independently hydrogen or (C 1 -C 4 )alkyl; t is 1, 2, or 3; and q is 0, 1, 2, or 3.
A terminal comprising: a light receiver configured to receive a light signal emitted by a first base station (470; 470-1, 470-2, 470-3; 2000), the light signal including a first identifier (600-1, 2301-1, 2301-2, 2301-3) of the first base station (470; 470-1, 470-2, 470-3; 2000); characterized in that the terminal comprises a data analyzing circuit configured to select, based on the first identifier and a second identifier, one base station (470; 470-1, 470-2, 470-3; 2000) among the first base station (470; 470-1, 470-2, 470-3; 2000) and a second base station (470, 470-1, 470-2, 470-3, 2000), in a case where the light signal includes the second identifier of the second base station, the first base station is associated with a first class among classes of services, and the second base station is associated with a second class among the classes of services; and a radio device configured to establish, a wireless connection with the selected base station (470; 470-1, 470-2, 470-3; 2000) by using the identifier (600-1) of the selected base station (470; 470-1, 470-2, 470-3; 2000), and to wirelessly communicate with the selected base station (470; 470-1, 470-2, 470-3; 2000), wherein, as a rank of a class increases, a maximum transmission speed of a wireless communication scheme supported by a base station associated with the class increases, and a rank of the second class is lower than a rank of the first class. a light receiver configured to receive a light signal emitted by a first base station (470; 470-1, 470-2, 470-3; 2000), the light signal including a first identifier (600-1, 2301-1, 2301-2, 2301-3) of the first base station (470; 470-1, 470-2, 470-3; 2000); characterized in that the terminal comprises a data analyzing circuit configured to select, based on the first identifier and a second identifier, one base station (470; 470-1, 470-2, 470-3; 2000) among the first base station (470; 470-1, 470-2, 470-3; 2000) and a second base station (470, 470-1, 470-2, 470-3, 2000), in a case where the light signal includes the second identifier of the second base station, the first base station is associated with a first class among classes of services, and the second base station is associated with a second class among the classes of services; and a radio device configured to establish, a wireless connection with the selected base station (470; 470-1, 470-2, 470-3; 2000) by using the identifier (600-1) of the selected base station (470; 470-1, 470-2, 470-3; 2000), and to wirelessly communicate with the selected base station (470; 470-1, 470-2, 470-3; 2000), wherein, as a rank of a class increases, a maximum transmission speed of a wireless communication scheme supported by a base station associated with the class increases, and a rank of the second class is lower than a rank of the first class.