mhurhangee/patent-ind-claim-en huggingface dataset:
Drive system having a motor , a drive controller , and a superordinate safety controller , wherein a data transmission medium having a safety-oriented protocol connects the drive controller to the superordinate safety controller , wherein the drive controller comprises an evaluation unit in order to receive and evaluate first feedback information from the motor connected to the drive controller , an input unit comprising a control signal block connected to secure inputs of the drive controller in order to use the secure inputs to condition control signals received from the superordinate safety controller and to make said control signals available as input signals, a drive signal block , which is connected to the evaluation unit in order to take the first feedback information as a basis for calculating a first speed and/or a first position on at least one first channel and makes a first speed signal and/or a first position signal available, a programmable logic unit , which is connected to the control signal block and the drive signal block of the input unit and provides a realise safety functions on the basis of the input signals and the speed signal and/or the position signal in order to provide shutdown signals, and an output unit , which is connected to the logic unit and to secure outputs of the drive controller in order to output the shutdown signals to safety shutdown paths of the drive controller , characterized in that the safety controller comprises a safety editor , wherein logic chips that are present in a programming environment are edited by means of the safety editor , wherein the safety functions are a stop function, a speed function, a position function, an acceleration function and/or a direction of rotation function, which are each assembled from the logic chips, and wherein the programmable logic unit comprises the logic chips that are edited by means of the safety editor and have been loaded onto the logic unit by means of the data transmission line .
Apparatus to feed and form at least two different organized groups of smoking articles , said apparatus comprising a feed unit configured to receive respective smoking articles and to feed organized groups of said smoking articles separately toward an introduction unit configured to introduce said organized groups of smoking articles into drawers , suitable to contain an overall quantity N of smoking articles , of a transfer mean , wherein said feed unit comprises a feed hopper divided at least terminally into adjacent compartments , each suitable to receive, in a selective and selected manner, respectively in at least one first compartment smoking articles of the first type , to simultaneously receive in an intermediate compartment , separate and in order, smoking articles of the first type and of the second type , and to receive in at least a second compartment smoking articles of the second type , wherein said at least one first compartment is configured to feed exclusively organized groups consisting of a desired quantity N1 of smoking articles of the first type , said introduction unit being configured to selectively cooperate with said compartments to introduce on each occasion said organized groups of smoking articles of the first type and of the second type into respective sections of each of the drawers of the transfer mean in order to complete the filling thereof, characterized in that said intermediate compartment is configured to feed said overall quantity N of smoking articles, divided into an organized group consisting of a desired quantity N1 of smoking articles of the first type and into an organized group consisting of a desired quantity N2 of smoking articles of the second type and said at least one second compartment being configured to exclusively feed organized groups consisting of a desired quantity N2 of smoking articles of the second type .
A wireless network comprising a plurality of nodes including plural routers and plural end devices , which nodes each include a wireless interface for wireless communication, the nodes of the network being arranged to communicate in accordance a network protocol, in accordance with which: the routers transmit beacons in respective timeslots within a periodic beaconing interval, passively scan for messages, and, in response to receiving a message, transmit an acknowledgement of the received message; and when an end device has a message that is pending transmission, the end device a) passively scans for beacons transmitted from any router ; and b) in response to receiving a beacon, transmits the message, and passively scans for an acknowledgement, the end device repeating steps a) and b) if no acknowledgement is received. the routers transmit beacons in respective timeslots within a periodic beaconing interval, passively scan for messages, and, in response to receiving a message, transmit an acknowledgement of the received message; and when an end device has a message that is pending transmission, the end device a) passively scans for beacons transmitted from any router ; and b) in response to receiving a beacon, transmits the message, and passively scans for an acknowledgement, the end device repeating steps a) and b) if no acknowledgement is received.
A gas turbine engine comprising: a high spool , the high spool comprising a high pressure turbine coupled by a high pressure shaft to a high pressure compressor ; an intermediate spool , the intermediate spool comprising an intermediate pressure turbine coupled by an intermediate pressure shaft to both a ducted fan and an intermediate pressure compressor ; a low spool , the low spool comprising a power turbine coupled by a low pressure shaft to an open-rotor propeller ; and a variable area turbine section positioned between the intermediate pressure turbine and the power turbine , wherein the variable area turbine section varies an expansion ratio across the intermediate pressure turbine to control rotational speeds of the low spool and the intermediate spool. a high spool , the high spool comprising a high pressure turbine coupled by a high pressure shaft to a high pressure compressor ; an intermediate spool , the intermediate spool comprising an intermediate pressure turbine coupled by an intermediate pressure shaft to both a ducted fan and an intermediate pressure compressor ; a low spool , the low spool comprising a power turbine coupled by a low pressure shaft to an open-rotor propeller ; and a variable area turbine section positioned between the intermediate pressure turbine and the power turbine , wherein the variable area turbine section varies an expansion ratio across the intermediate pressure turbine to control rotational speeds of the low spool and the intermediate spool.
A method for use in creating a binary spatial filter for use in an optical path of an inspection system , the method comprising: Receiving intensity data indicative of an intensity distribution map corresponding to a desired exposure condition to be emulated by the inspection system; Processing the intensity data , based on predetermined tolerance data , and generating filter data indicative of a binary spatial filter corresponding to said intensity distribution map; and operating a pattern generation module , thereby enabling use of said filter data to generate the binary spatial filter , characterised in that the processing of said intensity data comprises: based on said intensity data , determining a set of transmission values, and associating values of said intensity distribution map with values in said set, thereby dividing said intensity distribution map into blobs of corresponding transmission values selected from said set, wherein a number of transmission values in said set is equal to or greater than two and less than a number of distinct transmission values in said intensity distribution map; and replacing one or more of said blobs with one or more binary transmission patterns having corresponding transmission values respectively thereby obtaining said filter data . Receiving intensity data indicative of an intensity distribution map corresponding to a desired exposure condition to be emulated by the inspection system; Processing the intensity data , based on predetermined tolerance data , and generating filter data indicative of a binary spatial filter corresponding to said intensity distribution map; and based on said intensity data , determining a set of transmission values, and associating values of said intensity distribution map with values in said set, thereby dividing said intensity distribution map into blobs of corresponding transmission values selected from said set, wherein a number of transmission values in said set is equal to or greater than two and less than a number of distinct transmission values in said intensity distribution map; and replacing one or more of said blobs with one or more binary transmission patterns having corresponding transmission values respectively thereby obtaining said filter data .
A camera stabilization apparatus having an elongate pendulum arm which can be gimballed via a coupling apparatus and which has a camera holder apparatus at a first side of the coupling apparatus , wherein the camera holder apparatus comprises: - a first ring element ; - a second ring element supported rotatably about a roll axis , in particular concentrically to the first ring element , within the first ring element ; - a camera fastening apparatus fastened to the second ring element ; and - a stabilization arrangement comprising at least one motion sensor for detecting movements affecting a camera fastened to the camera fastening apparatus , drive means which can be controlled to rotate the second ring element about the roll axis , and a control device which is configured to compensate movements of the camera detected by means of the at least one motion sensor from a desired alignment by controlling the drive means , characterized in that the camera holder apparatus further comprises an outer holding frame which is fastened to the pendulum arm , with the first ring element being supported in the holding frame and being rotatable about a tilt axis , with the roll axis of the second ring element being perpendicular to the tilt axis , and with the drive means further being able to be controlled to rotate the first ring element about the tilt axis . - a first ring element ; - a second ring element supported rotatably about a roll axis , in particular concentrically to the first ring element , within the first ring element ; - a camera fastening apparatus fastened to the second ring element ; and - a stabilization arrangement comprising at least one motion sensor for detecting movements affecting a camera fastened to the camera fastening apparatus , drive means which can be controlled to rotate the second ring element about the roll axis , and a control device which is configured to compensate movements of the camera detected by means of the at least one motion sensor from a desired alignment by controlling the drive means ,
A shielding film , comprising a first film layer , wherein the first film layer comprises a first conductive part ; wherein the first conductive part constitutes a main part of the first film layer, a plurality of first insulating parts are disposed in the first film layer, the plurality of first insulating parts are dispersed in the first conductive part , and the plurality of first insulating parts penetrate the first conductive part in a thickness direction of the first film layer ; wherein the shielding film further comprising a second film layer , wherein the second film layer comprises a second conductive part ; wherein the second insulating part constitutes a main part of the second film layer , a plurality of second conductive parts are disposed in the second film layer, and the plurality of second conductive parts penetrate the second insulating part in a thickness direction of the second film layer ; wherein the second film layer and the first film layer are disposed in a stacked manner; wherein the first conductive part in the first film layer is disposed corresponding to the second insulating part in the second film layer , and the plurality of first insulating parts in the first film layer are disposed corresponding to the plurality of second conductive parts in the second film layer ; wherein the contour of the plurality of first insulating parts is less than the contour of the plurality of second conductive parts . the first film layer comprises a first conductive part ; wherein the first conductive part constitutes a main part of the first film layer, a plurality of first insulating parts are disposed in the first film layer, the plurality of first insulating parts are dispersed in the first conductive part , and the plurality of first insulating parts penetrate the first conductive part in a thickness direction of the first film layer ; wherein the shielding film further comprising a second film layer , wherein the second film layer comprises a second conductive part ; wherein the second insulating part constitutes a main part of the second film layer , a plurality of second conductive parts are disposed in the second film layer, and the plurality of second conductive parts penetrate the second insulating part in a thickness direction of the second film layer ; wherein the second film layer and the first film layer are disposed in a stacked manner; wherein the first conductive part in the first film layer is disposed corresponding to the second insulating part in the second film layer , and the plurality of first insulating parts in the first film layer are disposed corresponding to the plurality of second conductive parts in the second film layer ; wherein the contour of the plurality of first insulating parts is less than the contour of the plurality of second conductive parts .
An elevator apparatus, comprising: a car provided in a hoistway; a motor for driving raising and lowering of the car ; a brake device for braking rotation of the motor ; signal generation means for generating a brake diagnosis signal relating to an operation of the brake device ; an operation control section for collectively controlling an operation of the car ; a motor control section for controlling the driving of the motor in response to a command from the operation control section ; a brake control section for controlling an operation of the brake device in response to a command from the operation control section , the brake control section being capable of generating a brake-control-section diagnosis signal; and characterized in that a plurality of diagnosis sections capable of performing at least failure diagnosis for the brake device based on the brake diagnosis signal from the signal generating means among the failure diagnosis for the brake device and failure diagnosis for the brake control section based on the brake-control-section diagnosis signal from the brake control section , wherein when each of the plurality of diagnosis sections compares a content of diagnosis performed by the self diagnosis section with a content of diagnosis performed by another one of the plurality of diagnosis sections and confirms that the contents of diagnosis are not identical with each other, it is determined that a failure occurs in at least any one of the plurality of diagnosis sections including the self diagnosis section. a car provided in a hoistway; a motor for driving raising and lowering of the car ; a brake device for braking rotation of the motor ; signal generation means for generating a brake diagnosis signal relating to an operation of the brake device ; an operation control section for collectively controlling an operation of the car ; a motor control section for controlling the driving of the motor in response to a command from the operation control section ; a brake control section for controlling an operation of the brake device in response to a command from the operation control section , the brake control section being capable of generating a brake-control-section diagnosis signal; and characterized in that a plurality of diagnosis sections capable of performing at least failure diagnosis for the brake device based on the brake diagnosis signal from the signal generating means among the failure diagnosis for the brake device and failure diagnosis for the brake control section based on the brake-control-section diagnosis signal from the brake control section , wherein when each of the plurality of diagnosis sections compares a content of diagnosis performed by the self diagnosis section with a content of diagnosis performed by another one of the plurality of diagnosis sections and confirms that the contents of diagnosis are not identical with each other, it is determined that a failure occurs in at least any one of the plurality of diagnosis sections including the self diagnosis section.
Counting x-ray detector having a stack arrangement comprising a converter element , a rewiring unit and an evaluation unit , wherein a. the converter element has a first electrode on a surface facing away from the evaluation unit and a pixelated second electrode having a plurality of electrode elements on a surface facing toward the evaluation unit , b. the evaluation unit has pixel electrodes , c. the rewiring unit is embodied on a surface of the converter element facing toward the evaluation unit , wherein d. the rewiring unit has at least one insulating layer which is deposited onto the converter element , e. first contacts of electrically conductive connections between the electrode elements and the pixel electrodes are provided on a surface of the rewiring unit facing toward the converter element and have a first areal distribution, and f. second contacts of the electrically conductive connections between the electrode elements and the pixel electrodes are provided on a surface of the rewiring unit facing toward the evaluation unit and have a smaller second areal distribution compared to the first areal distribution, and g. an areal extent of the evaluation unit is smaller than an areal extent of the converter element , characterised in that the rewiring unit has a metallic intermediate layer . a. the converter element has a first electrode on a surface facing away from the evaluation unit and a pixelated second electrode having a plurality of electrode elements on a surface facing toward the evaluation unit , b. the evaluation unit has pixel electrodes , c. the rewiring unit is embodied on a surface of the converter element facing toward the evaluation unit , wherein d. the rewiring unit has at least one insulating layer which is deposited onto the converter element , e. first contacts of electrically conductive connections between the electrode elements and the pixel electrodes are provided on a surface of the rewiring unit facing toward the converter element and have a first areal distribution, and f. second contacts of the electrically conductive connections between the electrode elements and the pixel electrodes are provided on a surface of the rewiring unit facing toward the evaluation unit and have a smaller second areal distribution compared to the first areal distribution, and g. an areal extent of the evaluation unit is smaller than an areal extent of the converter element , characterised in that the rewiring unit has a metallic intermediate layer .
A method of preventing aggregation of adeno-associated virus (AAV) virions, comprising: 1) purifying AAV virions; and 2) adding one or more excipients comprising a multivalent ion to said purified virions to produce an isotonic preparation of virions with an ionic strength of at least 200 mM, wherein the concentration of purified AAV virions in said preparation exceeds 1x10 13 vg/ml, and the concentration of purified AAV virions in said preparation is up to 6.4×10 13 vg/ml. 1) purifying AAV virions; and 2) adding one or more excipients comprising a multivalent ion to said purified virions to produce an isotonic preparation of virions with an ionic strength of at least 200 mM, wherein the concentration of purified AAV virions in said preparation exceeds 1x10 13 vg/ml, and the concentration of purified AAV virions in said preparation is up to 6.4×10 13 vg/ml.
A process for increasing light transmittance of a three-dimensional printed article comprising: providing a three-dimensional printed article having a light transmittance in the range of from 20% to 55% when measured in the range of from 450 to 700 nm in accordance with ASTM D1003-13, said article having a first surface, applying to the first surface a photocurable acrylate composition, said composition comprising, based on the total weight of the composition: from 10 to 30 wt.% of (a) an aliphatic polyether urethane acrylate component; from 20 to 55 wt.% of (b) a (meth)acrylate ester reactive monomer component; and, from 0.05 to 5 wt.% of (c) a photoinitiator; and, curing the photocurable acrylate composition by exposure to radiation in the electromagnetic spectrum to form on the three-dimensional printed article a light transmitting coating, thereby forming a coated three-dimensional printed article having a light transmittance in the range of from 60% to 98% when measured in the range of from 450 to 700 nm in accordance with ASTM D1003-13 and/or a coated three-dimensional printed article having a light transmittance which is at least 10% greater than the light transmittance of the three-dimensional printed article prior to coating. providing a three-dimensional printed article having a light transmittance in the range of from 20% to 55% when measured in the range of from 450 to 700 nm in accordance with ASTM D1003-13, said article having a first surface, applying to the first surface a photocurable acrylate composition, said composition comprising, based on the total weight of the composition: from 10 to 30 wt.% of (a) an aliphatic polyether urethane acrylate component; from 20 to 55 wt.% of (b) a (meth)acrylate ester reactive monomer component; and, from 0.05 to 5 wt.% of (c) a photoinitiator; and, from 10 to 30 wt.% of (a) an aliphatic polyether urethane acrylate component; from 20 to 55 wt.% of (b) a (meth)acrylate ester reactive monomer component; and, from 0.05 to 5 wt.% of (c) a photoinitiator; and, curing the photocurable acrylate composition by exposure to radiation in the electromagnetic spectrum to form on the three-dimensional printed article a light transmitting coating, thereby forming a coated three-dimensional printed article having a light transmittance in the range of from 60% to 98% when measured in the range of from 450 to 700 nm in accordance with ASTM D1003-13 and/or a coated three-dimensional printed article having a light transmittance which is at least 10% greater than the light transmittance of the three-dimensional printed article prior to coating.