mhurhangee/patent-ind-claim-en huggingface dataset:
Device for moving a furniture part accommodated on a basic structure of a piece of furniture , wherein the device has guide means , wherein, when the device has been installed on the piece of furniture , the furniture part can be moved, by way of the guide means , out of a closed position relative to the basic structure into an open position relative to the basic structure , and back, wherein, in the closed position, the furniture part assumes a position in which it has been moved up against a front side of the basic structure , wherein a guide means is designed in the form of an articulated lever , wherein the articulated lever is formed in a releasably arrangeable manner on installation means of the device , wherein the installation means can be installed on the furniture part , wherein the guide means comprise a securing member , wherein the securing member is arranged in a movable manner on the articulated lever and can be positioned relative to the articulated lever , wherein, in a first position of the securing member , a pivoting range of the guide means is delimited by the securing member so that, over the course of a closing movement from the open position, the guide means cannot be moved into the closed position, wherein, in a second position of the securing member , the pivoting range of the guide means is freed so that, over the course of the closing movement from the open position, the guide means reach the closed position, wherein the guide means have a spring , wherein the spring is designed such that the securing member has been forced into the first position in a springloaded manner by the spring , wherein a connecting element is provided on the installation means, wherein the connecting element can be arranged on a locking means , wherein the locking means is formed on the articulated lever , wherein, in the state in which the guide means have been connected to the installation means, the connecting element forces the securing member from the first position into the second position so that the pivoting range of the guide means is freed and, over the course of the closing movement from the open position, the guide means reach the closed position, characterized in that the articulated lever has formed on it locking means in the form of a locking element , which is provided in a linearly movable manner on the articulated lever by means of a guide member in the form of a guide contour, wherein the spring is connected to the locking element , so that the locking element is subjected to a spring force applied by the spring , and wherein, in the state in which the guide means have been connected to the installation means, the locking element has been forced, by the spring force, into a locking position in relation to the connecting element .
A method of communicating information from a first node to a second node during a node discovery phase of a communication protocol, the method in the second node comprising: detecting a device name, being a textual name of the first node, transmitted by the first node during the node discovery phase; and characterized by further comprising: determining the occurrence of a fall event detected by the first node from the device name for the first node detected during the node discovery phase by: determining that the fall event has been detected by the first node by virtue of detecting the device name for the first node; or determining that the fall event has been detected by the first node by processing the detected device name to determine if the detected device name comprises a predetermined character string corresponding to the first node, and if so, processing the remaining part of the detected device name to identify the occurrence of the fall event indicated in the processed part of the detected device name; or determining that the fall event has been detected by the first node by determining that the device name is associated with a fall event, wherein the first node has a predetermined set of names to select from when an event, including a fall event, occurs. detecting a device name, being a textual name of the first node, transmitted by the first node during the node discovery phase; and characterized by further comprising: determining the occurrence of a fall event detected by the first node from the device name for the first node detected during the node discovery phase by: determining that the fall event has been detected by the first node by virtue of detecting the device name for the first node; or determining that the fall event has been detected by the first node by processing the detected device name to determine if the detected device name comprises a predetermined character string corresponding to the first node, and if so, processing the remaining part of the detected device name to identify the occurrence of the fall event indicated in the processed part of the detected device name; or determining that the fall event has been detected by the first node by determining that the device name is associated with a fall event, wherein the first node has a predetermined set of names to select from when an event, including a fall event, occurs. determining that the fall event has been detected by the first node by virtue of detecting the device name for the first node; or determining that the fall event has been detected by the first node by processing the detected device name to determine if the detected device name comprises a predetermined character string corresponding to the first node, and if so, processing the remaining part of the detected device name to identify the occurrence of the fall event indicated in the processed part of the detected device name; or determining that the fall event has been detected by the first node by determining that the device name is associated with a fall event, wherein the first node has a predetermined set of names to select from when an event, including a fall event, occurs.
An apparatus comprising a processor, a memory, and communication circuitry, the apparatus being connected to a communications network via its communication circuitry, the apparatus further comprising computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus , cause the apparatus to perform operations comprising: receiving an attach request message from a user equipment, UE , the attach request message including an indication that the UE supports small data procedures, and a request that the UE uses small data procedures; receiving a second message from a network node , the second message indicative of one or more packet data network, PDN, connections that should use small data procedures, the second message further indicative of a type of small data procedure that corresponds to each of the one or more PDN connections; and based on the second message, responding to the attach request message. receiving an attach request message from a user equipment, UE , the attach request message including an indication that the UE supports small data procedures, and a request that the UE uses small data procedures; receiving a second message from a network node , the second message indicative of one or more packet data network, PDN, connections that should use small data procedures, the second message further indicative of a type of small data procedure that corresponds to each of the one or more PDN connections; and based on the second message, responding to the attach request message.
A thermally conductive sheet comprising: a matrix resin; and thermally conductive particles, wherein the thermally conductive particles are alumina particles, a content of the alumina particles is 200 parts by volume or more with respect to 100 parts by volume of the matrix resin component, the alumina particles with an average particle size of 30 to 100 μm are 50 vol% or more and the alumina particles with an average particle size of less than 30 μm are 50 vol% or less when the total amount of the alumina particles is taken as a parameter, the alumina particles with an average particle size of 30 to 100 μm are spherical in shape, the alumina particles with an average particle size of less than 30 μm are irregular in shape, a polymer viscosity of the matrix resin component after a crosslinking reaction in the absence of the alumina particles is 500 Pa·s or less at 25°C and no unreacted oil is added, a thermal conductivity of the thermally conductive sheet is 2.0 W/m·K or more, and when the thermally conductive sheet with an initial thickness of 1.5 mm is compressed at a compression rate of 5.0 mm/min to measure a 50% compressive load value, a maximum load value is 100 kPa or more and a load value after 1 minute is more than 0 kPa and 100 kPa or less. a matrix resin; and thermally conductive particles, wherein the thermally conductive particles are alumina particles, a content of the alumina particles is 200 parts by volume or more with respect to 100 parts by volume of the matrix resin component, the alumina particles with an average particle size of 30 to 100 μm are 50 vol% or more and the alumina particles with an average particle size of less than 30 μm are 50 vol% or less when the total amount of the alumina particles is taken as a parameter, the alumina particles with an average particle size of 30 to 100 μm are spherical in shape, the alumina particles with an average particle size of less than 30 μm are irregular in shape, a polymer viscosity of the matrix resin component after a crosslinking reaction in the absence of the alumina particles is 500 Pa·s or less at 25°C and no unreacted oil is added, a thermal conductivity of the thermally conductive sheet is 2.0 W/m·K or more, and when the thermally conductive sheet with an initial thickness of 1.5 mm is compressed at a compression rate of 5.0 mm/min to measure a 50% compressive load value, a maximum load value is 100 kPa or more and a load value after 1 minute is more than 0 kPa and 100 kPa or less.
A method for pre-treating lithium metal for a lithium secondary battery comprising: a stripping step of removing the surface oxide film formed on the lithium metal by discharging the battery, and a plating step of replenishing lithium metal on the lithium metal, from which the surface oxide film has been removed by the stripping step, by charging the battery, wherein the stripping step is performed by discharging the battery 1 time to 13 times at a current density of 5 to 20 mA/cm 2 for a time period of 20 to 120 seconds each, and wherein the plating step is performed by charging the battery 1 time to 13 times at a current density of 0.01 to 0.2 mA/cm 2 for a time period of 1,000 to 7,000 seconds each. a stripping step of removing the surface oxide film formed on the lithium metal by discharging the battery, and a plating step of replenishing lithium metal on the lithium metal, from which the surface oxide film has been removed by the stripping step, by charging the battery, wherein the stripping step is performed by discharging the battery 1 time to 13 times at a current density of 5 to 20 mA/cm 2 for a time period of 20 to 120 seconds each, and wherein the plating step is performed by charging the battery 1 time to 13 times at a current density of 0.01 to 0.2 mA/cm 2 for a time period of 1,000 to 7,000 seconds each.
Adapter for a patient stretcher which is configured to be fixed to a chassis of the patient stretcher and to receive an upper stretcher or an incubator, comprising - a trough-shaped base body which is configured to be fixed to the chassis of the patient stretcher; - at least one fixing element , which is fixed on the base body and is configured to receive and secure a connecting element of an incubator attachment or an incubator frame; and - at least one holding element which is fixed on the base body and is configured to hold a frame bar of an upper stretcher; and - a lock case , which is fixed on the base body and is configured to receive and secure a locking element of the upper stretcher. characterised in that the at least one fixing element is formed as a fixing shoe having an opening , which is configured to receive a bolt-shaped connecting element of the incubator attachment or the incubator frame, and has a securing element for securing the bolt-shaped connecting element. - a trough-shaped base body which is configured to be fixed to the chassis of the patient stretcher; - at least one fixing element , which is fixed on the base body and is configured to receive and secure a connecting element of an incubator attachment or an incubator frame; and - at least one holding element which is fixed on the base body and is configured to hold a frame bar of an upper stretcher; and - a lock case , which is fixed on the base body and is configured to receive and secure a locking element of the upper stretcher.
A system for determining changes in capacitance of a capacitor unit , the system comprising: the capacitor unit having one or more capacitors within a body of the capacitor unit , wherein the capacitor unit comprises at least two bushings ; and a monitoring system having a first antenna , wherein the monitoring system is configured to couple to the at least two bushings to form a resonant frequency (LC) circuit having a capacitance based at least in part on an effective capacitance of the capacitor unit , wherein the monitoring system is configured to send a first signal to a radio frequency (RF) reader at a frequency based at least in part on the effective capacitance of the capacitor unit via the first antenna , wherein the first signal is associated with changes in capacitance of the capacitor unit. the capacitor unit having one or more capacitors within a body of the capacitor unit , wherein the capacitor unit comprises at least two bushings ; and a monitoring system having a first antenna , wherein the monitoring system is configured to couple to the at least two bushings to form a resonant frequency (LC) circuit having a capacitance based at least in part on an effective capacitance of the capacitor unit , wherein the monitoring system is configured to send a first signal to a radio frequency (RF) reader at a frequency based at least in part on the effective capacitance of the capacitor unit via the first antenna , wherein the first signal is associated with changes in capacitance of the capacitor unit.
Method for preparing a sequencing library, the method comprising: (a) addition of an agent binding to chromatin to a sample comprising a nucleic acid; (b) isolating chromatin bound by said agent; (c) addition of transposase to isolated chromatin of step (b); (d) isolating nucleic acid from chromatin; and (e) obtaining a sequencing library. (a) addition of an agent binding to chromatin to a sample comprising a nucleic acid; (b) isolating chromatin bound by said agent; (c) addition of transposase to isolated chromatin of step (b); (d) isolating nucleic acid from chromatin; and (e) obtaining a sequencing library.
A laser device comprising: a light source configured to output pulsed light to be amplified; a pumping unit ; an amplifier configured to amplify the pulsed light to be amplified with an amplification medium pumped by the pumping unit ; a monitor unit configured to monitor an intensity of light output from the amplifier toward the pulsed light source , the monitor unit being provided between the light source and the amplifier ; and a light source controller configured to control the light source , characterized in that , when the light input to the monitor unit has an intensity equal to or higher than a predetermined intensity while a light pulse to be amplified is not input to the amplifier , the light source controller forces the pulsed light source to output a light pulse to be amplified. a light source configured to output pulsed light to be amplified; a pumping unit ; an amplifier configured to amplify the pulsed light to be amplified with an amplification medium pumped by the pumping unit ; a monitor unit configured to monitor an intensity of light output from the amplifier toward the pulsed light source , the monitor unit being provided between the light source and the amplifier ; and a light source controller configured to control the light source , characterized in that , when the light input to the monitor unit has an intensity equal to or higher than a predetermined intensity while a light pulse to be amplified is not input to the amplifier , the light source controller forces the pulsed light source to output a light pulse to be amplified.
A starch-free soft chew formulation for oral delivery of at least one active ingredient to an animal, the formulation consisting essentially of at least two non-starch solid excipients and at least two non-water liquid excipients, the at least two non-water liquid excipients comprising (a) glycerin and (b) triglycerides of fatty acids that are caprylic/capric triglycerides, medium-chain triglycerides, long-chain triglycerides, or any combination thereof.
An apparatus comprising: a memory physical layer interface (PHY) to couple to an external memory having timing requirements for commands based on a design of the external memory; a plurality of registers implemented in association with the memory PHY, the plurality of registers to store a plurality of instruction words , each instruction word indicating a command and a delay , wherein the delay is based on the timing requirements and is a time interval that is to elapse before executing the command; and a first programmable training engine implemented in the memory PHY to generate at-speed programmable sequences of commands for delivery to the external memory in response to the instruction words, and to delay the commands based on said respective delay indicated by each instruction word, wherein, in response to the instruction words indicating first, second, and third commands, the first training engine is to execute the first command, execute the second command after a first delay relative to executing the first command, and execute the third command after a second delay relative to executing the second command, and wherein a sum of the first delay and the second delay satisfies a latency requirement for the first command and the third command. a memory physical layer interface (PHY) to couple to an external memory having timing requirements for commands based on a design of the external memory; a plurality of registers implemented in association with the memory PHY, the plurality of registers to store a plurality of instruction words , each instruction word indicating a command and a delay , wherein the delay is based on the timing requirements and is a time interval that is to elapse before executing the command; and a first programmable training engine implemented in the memory PHY to generate at-speed programmable sequences of commands for delivery to the external memory in response to the instruction words, and to delay the commands based on said respective delay indicated by each instruction word, wherein, in response to the instruction words indicating first, second, and third commands, the first training engine is to execute the first command, execute the second command after a first delay relative to executing the first command, and execute the third command after a second delay relative to executing the second command, and wherein a sum of the first delay and the second delay satisfies a latency requirement for the first command and the third command.
An output control system comprising: a first power controller configured to control an output of a first power source; a second power controller configured to control an output of a second power source; and a controller configured to determine a control mode based on a state of a motor and to control one or both of the first power controller and the second power controller based on the control mode, wherein the first power source is a battery, and the second power source is a fuel cell, wherein the control mode includes one of a first control mode, a second control mode, and a third control mode, wherein the controller is configured to determine the control mode to be the first control mode, when a temperature of the motor is a first temperature or more, wherein the controller is configured to determine the control mode to be the second control mode, when the temperature of the motor is less than the first temperature and is a second temperature or more, wherein the controller is configured to determine the control mode to be the third control mode, when the temperature of the motor is less than the second temperature, and wherein, in the second control mode, the controller is configured to allow the second power controller to fix the output of the second power source to a given value and to allow the first power controller to control the output of the first power source based on the state of the motor. a first power controller configured to control an output of a first power source; a second power controller configured to control an output of a second power source; and a controller configured to determine a control mode based on a state of a motor and to control one or both of the first power controller and the second power controller based on the control mode, wherein the first power source is a battery, and the second power source is a fuel cell, wherein the control mode includes one of a first control mode, a second control mode, and a third control mode, wherein the controller is configured to determine the control mode to be the first control mode, when a temperature of the motor is a first temperature or more, wherein the controller is configured to determine the control mode to be the second control mode, when the temperature of the motor is less than the first temperature and is a second temperature or more, wherein the controller is configured to determine the control mode to be the third control mode, when the temperature of the motor is less than the second temperature, and wherein, in the second control mode, the controller is configured to allow the second power controller to fix the output of the second power source to a given value and to allow the first power controller to control the output of the first power source based on the state of the motor.
Firearm comprising a barrel comprising a gas opening, and a gas system , which gas system comprises a gas block , a gas piston , a force transmitter assembly comprising at least one force transmitter , gas openings located on the gas piston , which gas block is fixedly attached to the barrel , in which gas system gas is configured to pass through the gas opening of the barrel via the gas openings of the gas system into the gas block and to set the gas piston to movement, in which gas system the gas piston during its movement backwards is configured to close the gas opening of the barrel for a defined time period and that the gas piston is not transmitting power/energy from combustion gas to the force transmitter assembly unless the gas openings of the gas system are closed, which gas system comprises an exhaust opening in the gas block and after a certain period of time the exhaust opening connected to ambient pressure is opened, characterized in that the gas system comprises an indexing part comprising beveled surfaces and an indexing groove , and an indexing counterpart with an indexing protrusion corresponding to the indexing groove of the indexing part of the gas piston , to keep the gas openings of the gas piston aligned with gas openings in the barrel and the gas block , and wherein the gas piston is positioned by the indexing part , and that the gas piston is connected via a spring-loaded pin or bushing (14; 14B) to at least one force transmitter of the force transmitter assembly .