mhurhangee/patent-ind-claim-en huggingface dataset:
A method of coating a substrate with cryo-milled, nano-grained particles, the method comprising: forming a face-centered-cubic gamma matrix comprising nickel, cobalt, chromium, tungsten and molybdenum; adding a dispersion strengthening material to the gamma matrix to form a first mixture; cryo-milling the first mixture to form a second mixture, the second mixture having a nano-grained structure; and cold spraying the second mixture onto a substrate to form a coating, the coating having a nano-grained structure, wherein forming the nickel based face-centered-cubic gamma matrix includes admixing 30-50% nickel, 10-30% cobalt, 4-10% molybdenum, 4-10% tungsten, 10-30% chromium and at least one of 0-6% rhenium, 0-6% niobium, 0-6% tantalum, 0-5% aluminum, and 0-5% titanium. forming a face-centered-cubic gamma matrix comprising nickel, cobalt, chromium, tungsten and molybdenum; adding a dispersion strengthening material to the gamma matrix to form a first mixture; cryo-milling the first mixture to form a second mixture, the second mixture having a nano-grained structure; and cold spraying the second mixture onto a substrate to form a coating, the coating having a nano-grained structure, wherein forming the nickel based face-centered-cubic gamma matrix includes admixing 30-50% nickel, 10-30% cobalt, 4-10% molybdenum, 4-10% tungsten, 10-30% chromium and at least one of 0-6% rhenium, 0-6% niobium, 0-6% tantalum, 0-5% aluminum, and 0-5% titanium.
Alignment harness for aligning a person , with a lifting device (L), characterised in that the alignment harness (1, 1.1) comprises a tubular arm receptacle , arranged on the front side in relation to the upper body of the person and open on the end side, for the insertion in each case of a forearm (9, 9.1) at an angle in relation to the upper arm (10, 10.1), from any side of the arm receptacle , as well as two lifting belts (4, 4.1; 4.2, 4.3), connected to the arm receptacle and at a spacing interval from one another, which is guided beneath the shoulders and onto the back of the person who is to be aligned, which can be connected to a lifting device (L)
A zeolite adsorbent comprising zeolite X crystals and comprising barium, potassium and sodium, wherein the content of sodium oxide Na 2 O is less than 0.3% by weight relative to the total mass of the adsorbent, and wherein the K 2 O / (K 2 O + BaO + Na 2 O) mole ratio is comprised between 8.0% and 8.6%, the measuring uncertainty regarding said molar ratio being of 0.2 %.
Method for producing a heat-sealable paper in which a heat-sealing coating, based on a heat-sealable polymer, is applied to a paper web and the paper web is subsequently rolled up onto the application of the heat-sealing coating, wherein the heat-sealing coating contains wax of a first type of wax in a dispersed phase, characterized in that the melting point of the first type of wax is above the maximum drying temperature of the paper web to be wound up and between 105 and 164 degrees Celsius, and the wax contains a second type of wax whose melting point is chosen between the maximum drying temperature of the paper web to be wound up and the melting point of the first type of wax. the heat-sealing coating contains wax of a first type of wax in a dispersed phase, characterized in that the melting point of the first type of wax is above the maximum drying temperature of the paper web to be wound up and between 105 and 164 degrees Celsius, and the wax contains a second type of wax whose melting point is chosen between the maximum drying temperature of the paper web to be wound up and the melting point of the first type of wax.
Method for mixing a sample, wherein a lance is accommodated, at least in part, in a sample-holding sample container while the sample is being mixed, wherein, in order for the sample to be mixed, the sample container is made to move, wherein, while the sample container is moving, it assumes at least a first position and a second position, wherein an area of intersection formed by the first position and the second position of the sample container is smaller than the sample container itself, wherein the sample container comprises a container opening, which is guided via a retaining device, and a container base, which is guided via an accommodating device, wherein, in order for the sample to be mixed, the accommodating device and the retaining device are made to move relative to one another, characterized in that , in order for the sample to be mixed, the sample container is moved relative to the lance.
A dual-camera device, comprising: a first camera, wherein the first camera comprises a first motor , and the first motor comprises at least one first Hall effect sensor ; and a second camera, wherein the second camera comprises a second motor , the second motor and the first motor are disposed in parallel, the second motor comprises N second coils and N second magnets , the second coils are configured to levitate and support the second magnets during power-on, N is a positive integer, and N is a multiple of 4, wherein a distance between a first disposition location of the first Hall effect sensor in the first motor and a second disposition location of the second magnets in the second motor is greater than or equal to a first preset distance, wherein a housing material of the first motor or the second motor is a non-magnetic material, and the first motor further comprises M first coils and M first magnets , the first coils are configured to levitate and support the first magnets during power-on, M is a positive integer, and M is a multiple of 4; the second motor further comprises at least one second Hall effect sensor , and a distance between a third disposition location of the second Hall effect sensor in the second motor and a fourth disposition location of the first magnets in the first motor is greater than or equal to a second preset distance. a first camera, wherein the first camera comprises a first motor , and the first motor comprises at least one first Hall effect sensor ; and a second camera, wherein the second camera comprises a second motor , the second motor and the first motor are disposed in parallel, the second motor comprises N second coils and N second magnets , the second coils are configured to levitate and support the second magnets during power-on, N is a positive integer, and N is a multiple of 4, wherein a distance between a first disposition location of the first Hall effect sensor in the first motor and a second disposition location of the second magnets in the second motor is greater than or equal to a first preset distance, wherein a housing material of the first motor or the second motor is a non-magnetic material, and the first motor further comprises M first coils and M first magnets , the first coils are configured to levitate and support the first magnets during power-on, M is a positive integer, and M is a multiple of 4; the second motor further comprises at least one second Hall effect sensor , and a distance between a third disposition location of the second Hall effect sensor in the second motor and a fourth disposition location of the first magnets in the first motor is greater than or equal to a second preset distance.
A processor-implemented electronic device input method, comprising: identifying a plurality of input items configured to receive information on a displayed screen, by performing either one or both of a layout analysis and an image analysis with respect to the screen ; wherein the displayed screen is a user interface (UI) display; wherein the layout analysis is performed based on a user interface (UI) layout file defining the input items on the displayed screen; wherein the UI layout file defines, for each of the plurality of input items, a value type of the input item and an object type of the input item, said value type being applied as constraints for information to be input into the corresponding input item, and said object type being a type of screen element displayed; wherein each of the plurality of input items is identified in view of the value type and the object type; tagging one of the plurality input items with a text token extracted from a speech recognition result of a speech signal , preferably tagging each of the plurality of input items with a corresponding text token from among a plurality of text tokens of the speech recognition result; and inputting the tagged text token into the one of the plurality of input items, preferably inputting each of the tagged text tokens into the respectively corresponding input items ; wherein the inputting comprises, in response to a format of the text token not corresponding to a format of the one of the input items, converting the text token to the format of the one of the input items and inputting the text token into the one of the input items. identifying a plurality of input items configured to receive information on a displayed screen, by performing either one or both of a layout analysis and an image analysis with respect to the screen ; wherein the displayed screen is a user interface (UI) display; wherein the layout analysis is performed based on a user interface (UI) layout file defining the input items on the displayed screen; wherein the UI layout file defines, for each of the plurality of input items, a value type of the input item and an object type of the input item, said value type being applied as constraints for information to be input into the corresponding input item, and said object type being a type of screen element displayed; wherein each of the plurality of input items is identified in view of the value type and the object type; tagging one of the plurality input items with a text token extracted from a speech recognition result of a speech signal , preferably tagging each of the plurality of input items with a corresponding text token from among a plurality of text tokens of the speech recognition result; and inputting the tagged text token into the one of the plurality of input items, preferably inputting each of the tagged text tokens into the respectively corresponding input items ; wherein the inputting comprises, in response to a format of the text token not corresponding to a format of the one of the input items, converting the text token to the format of the one of the input items and inputting the text token into the one of the input items.
Steam cooking appliance comprising an evaporator unit using which water can be evaporated and the steam produced by the evaporator unit can be supplied into the cooking chamber of the steam cooking appliance, and a water supply unit which has a removable water tank comprising a valve unit for coupling to the evaporator unit, wherein the valve unit has two valves formed separately from one another, wherein in one operating state of the steam cooking appliance, one of the valves is designed for guiding water and the other of the valves for guiding air, and wherein the water supply unit has a receiving unit for receiving the water tank , characterised in that the receiving unit is attached to the rear side of a panel support of the steam cooking appliance and has an essentially elongated design.
A method for hosting a safety critical application on an uncontrolled data processing device, the method comprising: initiating , with the uncontrolled data processing device, performing of a computation by the safety critical application using reference computational input to determine whether the safety critical application is functioning properly on the uncontrolled data processing device; comparing , using the uncontrolled data processing device, a result of the computation with a reference computational data to determine whether the result of the computation is unexpected or expected; and preventing, with the uncontrolled data processing device, safety critical features of the safety critical application from operating on the uncontrolled data processing device if the result of the computation is unexpected, wherein the preventing comprises disabling the safety critical features of the safety critical application from being executed on the uncontrolled data processing device and enabling non-safety critical features of the safety critical application to be executed on the uncontrolled data processing device, wherein the safety critical application is a medically-related application and the uncontrolled data processing device is a wireless personal device comprising a display , the uncontrolled data processing device configured to be in data communication with at least an analyte monitoring device . initiating , with the uncontrolled data processing device, performing of a computation by the safety critical application using reference computational input to determine whether the safety critical application is functioning properly on the uncontrolled data processing device; comparing , using the uncontrolled data processing device, a result of the computation with a reference computational data to determine whether the result of the computation is unexpected or expected; and preventing, with the uncontrolled data processing device, safety critical features of the safety critical application from operating on the uncontrolled data processing device if the result of the computation is unexpected, wherein the preventing comprises disabling the safety critical features of the safety critical application from being executed on the uncontrolled data processing device and enabling non-safety critical features of the safety critical application to be executed on the uncontrolled data processing device, wherein the safety critical application is a medically-related application and the uncontrolled data processing device is a wireless personal device comprising a display , the uncontrolled data processing device configured to be in data communication with at least an analyte monitoring device .
PRG4 for use in a method of reducing or inhibiting an inflammatory response in a patient having brain injury.
A line acquisition system for automatically steering a vehicle , comprising: a processor configured to: identify a destination path ; characterized in that the processor is further configured to: predict different acquisition paths from different locations of the vehicle to the destination path ; display the different acquisition paths for the different locations of the vehicle on a user interface ; detect a request to automatically steer the vehicle ; and use one of the acquisition paths for a current location of the vehicle to automatically steer the vehicle to the destination path . identify a destination path ; characterized in that the processor is further configured to: predict different acquisition paths from different locations of the vehicle to the destination path ; display the different acquisition paths for the different locations of the vehicle on a user interface ; detect a request to automatically steer the vehicle ; and use one of the acquisition paths for a current location of the vehicle to automatically steer the vehicle to the destination path . predict different acquisition paths from different locations of the vehicle to the destination path ; display the different acquisition paths for the different locations of the vehicle on a user interface ; detect a request to automatically steer the vehicle ; and use one of the acquisition paths for a current location of the vehicle to automatically steer the vehicle to the destination path .
Control device with haptic feedback comprising: - a plate for transmitting haptic feedback to a user, - a touch surface sensor borne by the plate , configured to detect a touch of the user on the touch surface, and - at least one actuator comprising: • a movable core linked to the plate configured to drive the plate in movement when a touch is detected on the touch surface so as to generate the haptic feedback, and • a stator fixed to a frame of said device and comprising two armatures between which the movable core is driven in translation when the haptic feedback is generated, said armatures forming a support for the plate , the control device being characterized in that said armatures bear the guiding means of the plate inserted between said armatures and the plate , to allow the movement of the plate with respect to the stator when the haptic feedback is generated, in a driving direction parallel to the plane (P) defined by the plate . - a plate for transmitting haptic feedback to a user, - a touch surface sensor borne by the plate , configured to detect a touch of the user on the touch surface, and - at least one actuator comprising: • a movable core linked to the plate configured to drive the plate in movement when a touch is detected on the touch surface so as to generate the haptic feedback, and • a stator fixed to a frame of said device and comprising two armatures between which the movable core is driven in translation when the haptic feedback is generated, said armatures forming a support for the plate , the control device being characterized in that said armatures bear the guiding means of the plate inserted between said armatures and the plate , to allow the movement of the plate with respect to the stator when the haptic feedback is generated, in a driving direction parallel to the plane (P) defined by the plate . • a movable core linked to the plate configured to drive the plate in movement when a touch is detected on the touch surface so as to generate the haptic feedback, and • a stator fixed to a frame of said device and comprising two armatures between which the movable core is driven in translation when the haptic feedback is generated,
A method executed by an Intermediary Node arranged between a Client and a Server for participating in the setting up of a connection between the Client and a Server, the method comprising: - intercepting a first message transmitted from the Client and destined for the Server, the first message requesting a connection to be set-up between the Client and the Server (2:10); - recognizing, based on content of the intercepted first message, a desire for the Intermediary Node to perform at least one function on content, transmitted over the requested connection between the Client and the Server; - transmitting a second message to the Client, comprising an identity of the Intermediary Node, thereby enabling the Client to accept or reject the Intermediary Node as a node participating in the requested connection set-up (2:30). - intercepting a first message transmitted from the Client and destined for the Server, the first message requesting a connection to be set-up between the Client and the Server (2:10); - recognizing, based on content of the intercepted first message, a desire for the Intermediary Node to perform at least one function on content, transmitted over the requested connection between the Client and the Server; - transmitting a second message to the Client, comprising an identity of the Intermediary Node, thereby enabling the Client to accept or reject the Intermediary Node as a node participating in the requested connection set-up (2:30).
A method for preparing a composite material, comprising: attaching a pressure-sensitive adhesive layer on one surface of a metal porous body ; applying a curable composition to a surface of the metal porous body , on which the pressure-sensitive adhesive layer is not attached; curing the applied curable composition ; and removing the pressure-sensitive adhesive layer after the curing, wherein at least a part of the pressure-sensitive adhesive layer penetrates into the pores of the metal porous body and wherein the metal porous body has porosity in a range of 30% to 99%. attaching a pressure-sensitive adhesive layer on one surface of a metal porous body ; applying a curable composition to a surface of the metal porous body , on which the pressure-sensitive adhesive layer is not attached; curing the applied curable composition ; and removing the pressure-sensitive adhesive layer after the curing, wherein at least a part of the pressure-sensitive adhesive layer penetrates into the pores of the metal porous body and wherein the metal porous body has porosity in a range of 30% to 99%.
Apparatus for applying viscous material to workpieces, having at least two material outlets, wherein a needle valve is assigned to each material outlet, by means of the valve needle of which the corresponding material outlet can be closed off at a valve seat, and wherein a cylinder is assigned to each valve needle , in the piston chamber of which cylinder a piston can be moved by means of a fluid, by applying pressure, and which cylinder has a piston rod that is connected with the piston , is passed through out of the piston chamber at an end face that faces the valve seats, and extends in a longitudinal direction , for applying force to the corresponding valve needle , characterized in that the cylinders are arranged one behind the other in the longitudinal direction , and that the piston rod of at least one of the cylinders is passed through the piston chamber of at least one further cylinder arranged closer to the valve seats in a sealed off manner.
A method for the quantification of a polysorbate in a sample, comprising the steps of: a) providing a sample, comprising at least one polysorbate; b) combining the sample with a carbocyanine dye; c) measuring fluorescence of the mixture; and d) correlating said fluorescence with the amount of polysorbate. a) providing a sample, comprising at least one polysorbate; b) combining the sample with a carbocyanine dye; c) measuring fluorescence of the mixture; and d) correlating said fluorescence with the amount of polysorbate.
A method comprising: forwarding , by a first ingress network device for a network, multicast traffic received for a multicast source and a multicast group on an inclusive provider tunnel; receiving , by the first ingress network device for the network, a source tree join route message from an egress network device for the network, the source tree join route message specifying the multicast source and the multicast group; in response to receiving the source tree join route message, determining , by the first ingress network device, whether the multicast source is multi-homed to the network via the first ingress network device and a second ingress network device for the network; in response to determining that the multicast source is not multi-homed to the network, continuing to forward , by the first ingress network device, multicast traffic for the multicast source and multicast group on an inclusive provider tunnel without initiating setup of a selective provider tunnel to the egress network device; and in response to determining that the multicast source is multi-homed to the network, initiating , by the first ingress network device, setup of a selective provider tunnel to the egress network device and terminating forwarding the multicast traffic on the inclusive provider tunnel to the egress network device. forwarding , by a first ingress network device for a network, multicast traffic received for a multicast source and a multicast group on an inclusive provider tunnel; receiving , by the first ingress network device for the network, a source tree join route message from an egress network device for the network, the source tree join route message specifying the multicast source and the multicast group; in response to receiving the source tree join route message, determining , by the first ingress network device, whether the multicast source is multi-homed to the network via the first ingress network device and a second ingress network device for the network; in response to determining that the multicast source is not multi-homed to the network, continuing to forward , by the first ingress network device, multicast traffic for the multicast source and multicast group on an inclusive provider tunnel without initiating setup of a selective provider tunnel to the egress network device; and in response to determining that the multicast source is multi-homed to the network, initiating , by the first ingress network device, setup of a selective provider tunnel to the egress network device and terminating forwarding the multicast traffic on the inclusive provider tunnel to the egress network device.