mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating an alarm system , the alarm system having registration information for a user device stored such that the user device is registered with the alarm system, the method comprising the alarm system performing the steps of: receiving a motion detection signal which indicates detection of motion within a region monitored by the alarm system; transmitting a notification to the registered user device upon receiving the motion detection signal, the notification being such as to cause the registered user device to play a sound; and disabling the generation of an alarm in the case that the sound played by the registered user device is detected by the alarm system. receiving a motion detection signal which indicates detection of motion within a region monitored by the alarm system; transmitting a notification to the registered user device upon receiving the motion detection signal, the notification being such as to cause the registered user device to play a sound; and disabling the generation of an alarm in the case that the sound played by the registered user device is detected by the alarm system.
An inlet tube of a sample taking arrangement of a rock drilling rig ; wherein the inlet tube is configured to direct a flow of drilling cuttings and air to a sampling point (SP); and the inlet tube comprises cross-sectional inner shape and dimensions; and wherein the inlet tube further comprises a homogenizing section wherein the inner cross-section of the inlet tube comprises at least one homogenizing element forming a physical point of discontinuity wherein shape and dimensions of the inner cross-section differ locally from sections prior and after the homogenizing section and which homogenizing element is configured to generate disturbance in the flow and to thereby homogenize particle distribution of the drilling cuttings in the flow at the section after the homogenizing section and prior to the sampling point (SP); characterized in that the homogenizing element is an active controllable element providing the homogenizing section selectively with the physical point of discontinuity. wherein the inlet tube is configured to direct a flow of drilling cuttings and air to a sampling point (SP); and the inlet tube comprises cross-sectional inner shape and dimensions; and wherein the inlet tube further comprises a homogenizing section wherein the inner cross-section of the inlet tube comprises at least one homogenizing element forming a physical point of discontinuity wherein shape and dimensions of the inner cross-section differ locally from sections prior and after the homogenizing section and which homogenizing element is configured to generate disturbance in the flow and to thereby homogenize particle distribution of the drilling cuttings in the flow at the section after the homogenizing section and prior to the sampling point (SP); characterized in that the homogenizing element is an active controllable element providing the homogenizing section selectively with the physical point of discontinuity.
A method for performing sidelink communication by a first device , the method being characterized by : transmitting (S1910), to a second device , a direct communication request message to establish unicast link between the second device and the first device , which includes an identifier of the first device , information regarding at least one service, and information regarding a security capability; receiving (S1930), from the second device , a direct communication accept message including an identifier of the second device and quality of service, QoS, information related to the at least one service; and performing the sidelink communication based on the unicast link between the second device and the first device . transmitting (S1910), to a second device , a direct communication request message to establish unicast link between the second device and the first device , which includes an identifier of the first device , information regarding at least one service, and information regarding a security capability; receiving (S1930), from the second device , a direct communication accept message including an identifier of the second device and quality of service, QoS, information related to the at least one service; and performing the sidelink communication based on the unicast link between the second device and the first device .
An explosive emulsion composition of the water-in-oil type, comprising - between 80 wt.% and 95 wt.% of an oxidizer phase in view of the total weight of the emulsion composition, comprising • at least 40 wt.% of ammonium nitrate (AN), and • at least 15 wt.% of calcium nitrate (CN), particuarly at least 20 wt.% of CN, and optionally one or more other secondary nitrate salts, in view of the total weight of the oxidizer phase composition, and - between 5 wt.% and 20 wt.% of an organic phase in view of the total weight of the emulsion composition, the organic phase comprising • between 12 wt.% and 50 wt.% of one or more emulsifiers, • between 50 wt.% and 88 wt.% of a fuel composition, in view of the total weight of the organic phase composition, characterized in that the fuel composition comprises between 20wt.% and 100 wt.% of a straight vegetable oil (SVO), in view of the total weight of the fuel composition; and wherein the explosive emulsion composition is stable and has a viscosity between 25,000 cP and 125,000 cP, as measured with a Brookfield viscometer with spindle size 7 at a frequency of 20 rpm at 30°C. - between 80 wt.% and 95 wt.% of an oxidizer phase in view of the total weight of the emulsion composition, comprising • at least 40 wt.% of ammonium nitrate (AN), and • at least 15 wt.% of calcium nitrate (CN), particuarly at least 20 wt.% of CN, and optionally one or more other secondary nitrate salts, in view of the total weight of the oxidizer phase composition, and • at least 40 wt.% of ammonium nitrate (AN), and • at least 15 wt.% of calcium nitrate (CN), particuarly at least 20 wt.% of CN, and optionally one or more other secondary nitrate salts, - between 5 wt.% and 20 wt.% of an organic phase in view of the total weight of the emulsion composition, the organic phase comprising • between 12 wt.% and 50 wt.% of one or more emulsifiers, • between 50 wt.% and 88 wt.% of a fuel composition, in view of the total weight of the organic phase composition, • between 12 wt.% and 50 wt.% of one or more emulsifiers, • between 50 wt.% and 88 wt.% of a fuel composition,
Roll for a machine for producing or processing a fibrous web, comprising a movable roll shell and a positive or negative pressure zone which is arranged within the roll shell and is fixed against rotation relative to the roll shell, and a sealing device for sealing off the positive or negative pressure zone with respect to the surroundings, wherein the sealing device has a sealing strip and a lubricating device , by means of which a lubricant can be introduced between the inside of the roll shell and the sealing surface of the sealing strip , wherein the lubricating device comprises a plurality of lubricant outlet openings and is connected via multiple inlet segments to a supply line for the supply with lubricant, wherein the supply line comprises an inner section which extends within the roll shell , characterized in that this inner section has a storage volume of at least 490 cm 3 /m, in particular at least 2000 cm 3 /m, based on the length of the sealing strip .
A joint-spacing balloon catheter comprising: a shaft having a distal end and a proximal end; a handle attached to the proximal end of the shaft ; and a first balloon attached to the distal end of the shaft , characterised in that the joint-spacing balloon catheter further comprises a second balloon attached to the distal end of the shaft , the first balloon being attached distal to, and spaced from, the second balloon , so that a portion of the shaft extends between the first balloon and the second balloon , the first balloon and the second balloon being capable of supporting opposing bones of a previously-distracted joint when the distraction force is reduced. a shaft having a distal end and a proximal end; a handle attached to the proximal end of the shaft ; and a first balloon attached to the distal end of the shaft , characterised in that the joint-spacing balloon catheter further comprises a second balloon attached to the distal end of the shaft , the first balloon being attached distal to, and spaced from, the second balloon , so that a portion of the shaft extends between the first balloon and the second balloon , the first balloon and the second balloon being capable of supporting opposing bones of a previously-distracted joint when the distraction force is reduced.
An electrode active material comprising: a porous core comprising at least a metal oxide comprising at least one of tin oxide, iron oxide, cobalt oxide, nickel oxide, zinc oxide, manganese oxide, molybdenum oxide, and bismuth oxide which enable intercalation and deintercalation of lithium ions; and a crystalline carbon thin film having a thickness of 2 nm or less that is formed on at least a portion of a surface of the porous core ; characterised in that the electrode active material is in the form of a particle comprising pores and a skeleton that forms walls between adjacent pores , wherein at least one of the size of the particle, the average size of the pores and the thickness of the skeleton have a nano-size.
A system for selecting and activating virtual objects displayed on a user interface, the system comprising at least one motion sensor arranged to detect a motion and, the system being adapted, based on the detected motion, to control a selection object displayed on the user interface, and allow selection of one or more virtual objects based upon a motion direction of the selection object toward said one or more virtual objects, the selection process comprising; differentiating a group of virtual objects towards which the motion direction is directed, determining which virtual object within the group is most aligned with the motion direction, accelerating that virtual object towards the selection object and continuing that acceleration if the selection object stops moving; detecting when the selection object and that virtual object touch and then selecting that virtual object. the system comprising at least one motion sensor arranged to detect a motion and, the system being adapted, based on the detected motion, to control a selection object displayed on the user interface, and allow selection of one or more virtual objects based upon a motion direction of the selection object toward said one or more virtual objects, the selection process comprising; differentiating a group of virtual objects towards which the motion direction is directed, determining which virtual object within the group is most aligned with the motion direction, accelerating that virtual object towards the selection object and continuing that acceleration if the selection object stops moving; detecting when the selection object and that virtual object touch and then selecting that virtual object.
Extracellular vesicles derived from cardiosphere-derived cells (CDC-EVs) for use in a method of treating or preventing cancer in a subject in need thereof, the method comprising: i) administering to the subject a therapeutically effective amount of extracellular vesicles (CDC-EVs); or ii) administering a composition comprising CDC-EVs to a subject who is susceptible to cancer, wherein the subject possesses one or more genetic mutations that make the subject susceptible to cancer. i) administering to the subject a therapeutically effective amount of extracellular vesicles (CDC-EVs); or ii) administering a composition comprising CDC-EVs to a subject who is susceptible to cancer, wherein the subject possesses one or more genetic mutations that make the subject susceptible to cancer.
A memory array comprising vertically-stacked memory cells; each of the memory cells comprising a vertical transistor (T) having channel material comprising GaP and having a bandgap greater than 2 electron-volts, eV; the transistor (T) having first and second source/drain regions which are vertically displaced relative to one another, and wherein the channel material extends between the vertically-displaced first and second source/drain regions ; and a capacitor (C) coupled with the transistor (T); a first set of conductive lines (DL1, DL2, DL3, DL4) extending along a vertical direction, the capacitor (C) being configured as a ring surrounding one of the conductive lines of the first set; a second set of conductive lines (WL1, WL2, WL3) extending along a horizontal direction; and each of the memory cells being uniquely addressed by combination of one of the conductive lines from the first set and one of the conductive lines from the second set. the transistor (T) having first and second source/drain regions which are vertically displaced relative to one another, and wherein the channel material extends between the vertically-displaced first and second source/drain regions ; and a capacitor (C) coupled with the transistor (T); a first set of conductive lines (DL1, DL2, DL3, DL4) extending along a vertical direction, the capacitor (C) being configured as a ring surrounding one of the conductive lines of the first set; a second set of conductive lines (WL1, WL2, WL3) extending along a horizontal direction; and each of the memory cells being uniquely addressed by combination of one of the conductive lines from the first set and one of the conductive lines from the second set.
A method of selectively coordinating a solid-state circuit breaker, SSCB, among one or more downstream mechanical circuit breakers, CBs, in an electrical distribution system , comprising: determining whether a short circuit current is flowing through the SSCB and one or more downstream mechanical CBs in the electrical distribution system; if a short circuit current is determined to be flowing, pulsing the short circuit current by repeatedly switching a solid-state switching device , through which the short circuit current is flowing in the SSCB , ON and OFF; limiting a root-mean-square (RMS) value of the pulsed short circuit current to a value low enough to prevent the SSCB from tripping prematurely and high enough to allow one of the downstream mechanical CBs to trip and isolate the short circuit; and switching the solid-state switching device in the SSCB OFF permanently if none of the downstream mechanical CBs trips to isolate the short circuit after a predetermined short circuit pulsing time. determining whether a short circuit current is flowing through the SSCB and one or more downstream mechanical CBs in the electrical distribution system; if a short circuit current is determined to be flowing, pulsing the short circuit current by repeatedly switching a solid-state switching device , through which the short circuit current is flowing in the SSCB , ON and OFF; limiting a root-mean-square (RMS) value of the pulsed short circuit current to a value low enough to prevent the SSCB from tripping prematurely and high enough to allow one of the downstream mechanical CBs to trip and isolate the short circuit; and switching the solid-state switching device in the SSCB OFF permanently if none of the downstream mechanical CBs trips to isolate the short circuit after a predetermined short circuit pulsing time.
A sensor comprising molecularly imprinted mesoporous silica comprising a silica matrix and one or more target molecule-binding moieties formed of -(CH 2 ) n -X + -(CH 2 ) m -AN - groups, wherein X + represents a cationic -NR 2 + - group or a cationic heterocyclic group comprising at least one N atom wherein the cationic heterocyclic group comprising at least one N atom is selected from the group consisting of alkyl pyrrolidinium: imidazolinium: imidazolium: triazolium: piperazinium: pyridinium: and triazinium: wherein R3 represents C r H 2r+1 , wherein r represents an integer of from 1 to 4, R represents (C 1 -C 4 ) alkyl groups, m and n irrespectively of each other represent an integer of from 1 to 6 and AN - represents -COO - or -SO 3 - , said sensor further comprising a luminophore as a signal element. alkyl pyrrolidinium: imidazolinium: imidazolium: triazolium: piperazinium: pyridinium: and triazinium: wherein R3 represents C r H 2r+1 , wherein r represents an integer of from 1 to 4, R represents (C 1 -C 4 ) alkyl groups, m and n irrespectively of each other represent an integer of from 1 to 6 and AN - represents -COO - or -SO 3 - , said sensor further comprising a luminophore as a signal element.
A testing device , comprising: - a vacuum chamber , - a chuck for holding a wafer that comprises integrated circuits, - a probe card for electrically contacting the integrated circuits on the wafer , wherein: - the vacuum chamber is provided with a gate valve , - the testing device comprises a wafer loading assembly for loading the wafer onto the chuck through the gate valve and a hatch , the wafer loading assembly comprising: - a loading chamber attached to the vacuum chamber in connection with the gate valve , - a loading arm comprising an end defector for carrying the wafer , and - an actuator for moving the end defector between the loading chamber and the chuck , characterised in that : - a radiation shield is arranged inside the vacuum chamber and is enclosing the chuck and the probe card , wherein the radiation shield is provided with the hatch , and - the chuck comprises a plurality of heat conducting pins for holding the wafer on a base plate of the chuck , wherein at least one of the heat conducting pins is attached with a spring to the periphery of the base plate , the spring being movable in the plane of the base plate , wherein the spring-operated pin can be moved with the end defector that loads the wafer onto the chuck . - a vacuum chamber , - a chuck for holding a wafer that comprises integrated circuits, - a probe card for electrically contacting the integrated circuits on the wafer , wherein: - the vacuum chamber is provided with a gate valve , - the testing device comprises a wafer loading assembly for loading the wafer onto the chuck through the gate valve and a hatch , the wafer loading assembly comprising: - a loading chamber attached to the vacuum chamber in connection with the gate valve , - a loading arm comprising an end defector for carrying the wafer , and - an actuator for moving the end defector between the loading chamber and the chuck , - a loading chamber attached to the vacuum chamber in connection with the gate valve , - a loading arm comprising an end defector for carrying the wafer , and - an actuator for moving the end defector between the loading chamber and the chuck , - a radiation shield is arranged inside the vacuum chamber and is enclosing the chuck and the probe card , wherein the radiation shield is provided with the hatch , and - the chuck comprises a plurality of heat conducting pins for holding the wafer on a base plate of the chuck , wherein at least one of the heat conducting pins is attached with a spring to the periphery of the base plate , the spring being movable in the plane of the base plate , wherein the spring-operated pin can be moved with the end defector that loads the wafer onto the chuck .
A power control device for controlling electric power of a hybrid vehicle, the vehicle comprising: an internal combustion engine ; a motor that can be coupled to a drive wheel of the vehicle; a generator that can be coupled to the internal combustion engine ; a first secondary battery that is connected to the motor ; a second secondary battery that is connected to the generator , wherein a voltage of the second secondary battery is lower than that of the first secondary battery ; and a converter that is connected to the first secondary battery and the second secondary battery the power control device being characterized in that : when a charging rate (SOC2) of the second secondary battery is equal to or higher than a specified value or when an increase rate of the charging rate (SOC2) of the second secondary battery is equal to or higher than a specified value, the power control device controls the vehicle as following: the converter steps up a DC voltage received from the second secondary battery , and outputs the stepped-up DC voltage to the first secondary battery ; and the generator generates the electric power and supplies the electric power to the second secondary battery . an internal combustion engine ; a motor that can be coupled to a drive wheel of the vehicle; a generator that can be coupled to the internal combustion engine ; a first secondary battery that is connected to the motor ; a second secondary battery that is connected to the generator , wherein a voltage of the second secondary battery is lower than that of the first secondary battery ; and a converter that is connected to the first secondary battery and the second secondary battery the power control device being characterized in that : when a charging rate (SOC2) of the second secondary battery is equal to or higher than a specified value or when an increase rate of the charging rate (SOC2) of the second secondary battery is equal to or higher than a specified value, the power control device controls the vehicle as following: the converter steps up a DC voltage received from the second secondary battery , and outputs the stepped-up DC voltage to the first secondary battery ; and the generator generates the electric power and supplies the electric power to the second secondary battery . the converter steps up a DC voltage received from the second secondary battery , and outputs the stepped-up DC voltage to the first secondary battery ; and the generator generates the electric power and supplies the electric power to the second secondary battery .
A temperature sensor assembly , comprising at least one temperature sensor and at least one feed line , wherein the temperature sensor has at least one electrically insulating substrate with an upper side and a lower side , wherein a temperature sensor structure with at least one sensor contact surface is at least sectionally formed on the upper side , wherein the feed line has at least one feed line contact surface , wherein the feed line contact surface is at least sectionally connected with the sensor contact surface by means of a first sintered layer , characterized in that the first sintered layer consists of a first pre-applied sintered paste layer , which is applied to the feed line contact surface and/or the sensor contact surface . comprising at least one temperature sensor and at least one feed line , wherein the temperature sensor has at least one electrically insulating substrate with an upper side and a lower side , wherein a temperature sensor structure with at least one sensor contact surface is at least sectionally formed on the upper side , wherein the feed line has at least one feed line contact surface , wherein the feed line contact surface is at least sectionally connected with the sensor contact surface by means of a first sintered layer , characterized in that the first sintered layer consists of a first pre-applied sintered paste layer , which is applied to the feed line contact surface and/or the sensor contact surface .