mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling an intelligent device, comprising: receiving and storing configuration information set by a user, wherein the configuration information comprises a plurality of controllable intelligent devices, a sequence for controlling the plurality of intelligent devices, an execution operation corresponding to said plurality of intelligent devices, and an execution condition corresponding to said execution operation, wherein the plurality of target intelligent devices comprise a target intelligent device corresponding to a target execution condition in the configuration information and other intelligent devices following a target execution operation of the target intelligent device in the sequence; and the target execution operation comprises the execution operation corresponding to the target intelligent device; if the target execution condition is satisfied, querying the configuration information according to the target execution condition, and determining a target intelligent device and the target execution operation corresponding to the target execution condition; and controlling the target intelligent device to perform the target execution operation, and instructing other intelligent devices following the target execution operation of the intelligent device to perform corresponding target execution operations according to the sequence pre-stored in the target intelligent device. receiving and storing configuration information set by a user, wherein the configuration information comprises a plurality of controllable intelligent devices, a sequence for controlling the plurality of intelligent devices, an execution operation corresponding to said plurality of intelligent devices, and an execution condition corresponding to said execution operation, wherein the plurality of target intelligent devices comprise a target intelligent device corresponding to a target execution condition in the configuration information and other intelligent devices following a target execution operation of the target intelligent device in the sequence; and the target execution operation comprises the execution operation corresponding to the target intelligent device; if the target execution condition is satisfied, querying the configuration information according to the target execution condition, and determining a target intelligent device and the target execution operation corresponding to the target execution condition; and controlling the target intelligent device to perform the target execution operation, and instructing other intelligent devices following the target execution operation of the intelligent device to perform corresponding target execution operations according to the sequence pre-stored in the target intelligent device.
A high power appliance system for use in a food service area, the high power appliance system comprising: an energy storage and delivery system to store electrical energy from a power line (202; 302); and characterised by a resistive heating element capable of using electrical energy from the energy storage and delivery system and the power line, wherein the electrical energy delivered from the energy storage and delivery system to the heating element is delivered at a rate that is at least 110% of the rate delivered by the power line and supplements power supplied to the resistive heating element from the power line. an energy storage and delivery system to store electrical energy from a power line (202; 302); and characterised by a resistive heating element capable of using electrical energy from the energy storage and delivery system and the power line, wherein the electrical energy delivered from the energy storage and delivery system to the heating element is delivered at a rate that is at least 110% of the rate delivered by the power line and supplements power supplied to the resistive heating element from the power line.
A composite profile for doors, windows or façade elements with a. at least one first metal profile and b. at least one second metal profile , c. wherein there is at least one middle metal profile between these two metal profiles , d. wherein the first metallic exterior profile is connected to the middle metal profile in a first insulating bar zone (I) via one or more insulating bar(s) , and e. wherein the second metal profile is connected to the middle metal profile in a second insulating bar zone (II) via one or more insulating bar(s) , characterised in that f.the two insulating bar zones (I, II) have different shear strengths orthogonally to the cross sectional plane of the composite profile . a. at least one first metal profile and b. at least one second metal profile , c. wherein there is at least one middle metal profile between these two metal profiles , d. wherein the first metallic exterior profile is connected to the middle metal profile in a first insulating bar zone (I) via one or more insulating bar(s) , and e. wherein the second metal profile is connected to the middle metal profile in a second insulating bar zone (II) via one or more insulating bar(s) , characterised in that f.the two insulating bar zones (I, II) have different shear strengths orthogonally to the cross sectional plane of the composite profile .
A method, performed by a network entity, of assigning a frequency channel, the method comprising: receiving a frequency channel assignment request from a first device; identifying a first device cluster in which the first device is includable from among at least one device cluster being operated by the network entity, wherein the first device cluster is generated based on a condition satisfied by the first device; in case that the first device cluster is identified, updating the first device cluster to include the first device; and assigning, to the first device, at least one frequency channel included in a frequency channel set assigned to the first device cluster including the first device, wherein the first device cluster satisfies the condition and is a set of a plurality of devices sharing at least one frequency channel included in the frequency channel set, and wherein, in case that the first device cluster is not identified, generating a second cluster including the first device. receiving a frequency channel assignment request from a first device; identifying a first device cluster in which the first device is includable from among at least one device cluster being operated by the network entity, wherein the first device cluster is generated based on a condition satisfied by the first device; in case that the first device cluster is identified, updating the first device cluster to include the first device; and assigning, to the first device, at least one frequency channel included in a frequency channel set assigned to the first device cluster including the first device, wherein the first device cluster satisfies the condition and is a set of a plurality of devices sharing at least one frequency channel included in the frequency channel set, and wherein, in case that the first device cluster is not identified, generating a second cluster including the first device.
A method for evaluating an updated version of an analytical procedure in a monitoring system comprising a plurality of monitoring devices , wherein at least some monitoring devices of the plurality of monitoring devices are arranged to monitor similar environments, the method being characterized by : identifying (S110) available processing resources in the monitoring system; selecting (S120) a first monitoring device out of the plurality of monitoring devices for which available processing resources have been identified; selecting (S130) a second monitoring device, monitoring a similar environment as the first monitoring device, out of the plurality of monitoring devices; acquiring (S140) monitoring data by the second monitoring device; performing (S150) a current version of the analytical procedure on the monitoring data, thereby producing a first result; sending (S155) the monitoring data to the first monitoring device; performing (S160), in the first monitoring device, the updated version of the analytical procedure on the monitoring data, thereby producing a second result; calculating (S170), based on the first result, a first performance value indicating a performance of the second monitoring device when performing the current version of the analytical procedure; calculating (S180), based on the second result, a second performance value indicating a performance of the first monitoring device when performing the updated version of the analytical procedure; and evaluating (S190) the updated version of the analytical procedure based on a comparison between the first performance value and the second performance value. identifying (S110) available processing resources in the monitoring system; selecting (S120) a first monitoring device out of the plurality of monitoring devices for which available processing resources have been identified; selecting (S130) a second monitoring device, monitoring a similar environment as the first monitoring device, out of the plurality of monitoring devices; acquiring (S140) monitoring data by the second monitoring device; performing (S150) a current version of the analytical procedure on the monitoring data, thereby producing a first result; sending (S155) the monitoring data to the first monitoring device; performing (S160), in the first monitoring device, the updated version of the analytical procedure on the monitoring data, thereby producing a second result; calculating (S170), based on the first result, a first performance value indicating a performance of the second monitoring device when performing the current version of the analytical procedure; calculating (S180), based on the second result, a second performance value indicating a performance of the first monitoring device when performing the updated version of the analytical procedure; and evaluating (S190) the updated version of the analytical procedure based on a comparison between the first performance value and the second performance value.
A method for transmitting channel status information of a terminal in a wireless communication system, the method comprising: receiving, from a base station, a reference signal ; identifying, a first rank indication for a first transmission scheme associated with a single user and a second rank indication for a second transmission scheme associated with a multi user, based on the reference signal; determining combined rank indication based on the first rank indication and the second rank indication; generating channel status information for the second transmission scheme associated with the multi user based on the combined rank indication ; and transmitting, to the base station, the generated channel status information for the second transmission scheme . receiving, from a base station, a reference signal ; identifying, a first rank indication for a first transmission scheme associated with a single user and a second rank indication for a second transmission scheme associated with a multi user, based on the reference signal; determining combined rank indication based on the first rank indication and the second rank indication; generating channel status information for the second transmission scheme associated with the multi user based on the combined rank indication ; and transmitting, to the base station, the generated channel status information for the second transmission scheme .
Device for measuring a magnetic field, comprising: a magnetic circuit including two substantially parallel branches in which magnetic fluxes (HA, HB) are alternating and flow in opposite directions; and a sensor situated in each of the branches, comprising a stack of two ferromagnetic layers separated by a tunnel insulating barrier layer , said ferromagnetic layers having magnetizations oriented in the plane of the layers, characterized in that each of the two ferromagnetic layers is magnetically coupled only in antiparallel with the other of the two ferromagnetic layers, on the one hand, and to one of the magnetic fluxes and to the magnetic field (Hx) to be measured, on the other hand, each of the sensors being connected to a synchronous measurement and detection circuit , the synchronous measurement and detection circuits having their outputs connected to a canceller circuit , a feedback flux passing through the circuit adding to said magnetic fluxes, the feedback flow being a function of an output signal of the canceller circuit. a magnetic circuit including two substantially parallel branches in which magnetic fluxes (HA, HB) are alternating and flow in opposite directions; and a sensor situated in each of the branches, comprising a stack of two ferromagnetic layers separated by a tunnel insulating barrier layer , said ferromagnetic layers having magnetizations oriented in the plane of the layers, characterized in that each of the two ferromagnetic layers is magnetically coupled only in antiparallel with the other of the two ferromagnetic layers, on the one hand, and to one of the magnetic fluxes and to the magnetic field (Hx) to be measured, on the other hand, each of the sensors being connected to a synchronous measurement and detection circuit , the synchronous measurement and detection circuits having their outputs connected to a canceller circuit , a feedback flux passing through the circuit adding to said magnetic fluxes, the feedback flow being a function of an output signal of the canceller circuit.
A method of manufacturing a coaxial thermocouple wire pair member adapted for use with an electrophysiologic catheter, comprising: assembling a predrawn member by: providing a core of a first metallic material defining a longitudinal axis and configured as a solid rod; coaxially surrounding the core with an insulating ceramic material , configured as a first hollow tube, by inserting the core into the first hollow tube; coaxially surrounding the insulating material with a second metallic material, configured as a second hollow tube, by inserting the core and the insulating ceramic material together into the second hollow tube, wherein the second metallic material is different from the first metallic material; producing a drawn member by repeatedly drawing the predrawn member through a die such that the insulating ceramic material is crushed into powder ; and applying solder on a distal end of the drawn member to electrically connect the core and the metallic layer at the distal end . assembling a predrawn member by: providing a core of a first metallic material defining a longitudinal axis and configured as a solid rod; coaxially surrounding the core with an insulating ceramic material , configured as a first hollow tube, by inserting the core into the first hollow tube; coaxially surrounding the insulating material with a second metallic material, configured as a second hollow tube, by inserting the core and the insulating ceramic material together into the second hollow tube, wherein the second metallic material is different from the first metallic material; providing a core of a first metallic material defining a longitudinal axis and configured as a solid rod; coaxially surrounding the core with an insulating ceramic material , configured as a first hollow tube, by inserting the core into the first hollow tube; coaxially surrounding the insulating material with a second metallic material, configured as a second hollow tube, by inserting the core and the insulating ceramic material together into the second hollow tube, wherein the second metallic material is different from the first metallic material; producing a drawn member by repeatedly drawing the predrawn member through a die such that the insulating ceramic material is crushed into powder ; and applying solder on a distal end of the drawn member to electrically connect the core and the metallic layer at the distal end .
Valve armature for a solenoid valve, at one end of which a depression is arranged, which accommodates a closing element having a closing member (14.1, 14.1A) and interacting with a valve seat (6.1), characterized in that an elastic damping element , which damps a pulse occurring as the closing member (14.1, 14.1A) strikes the valve seat (6.1), is arranged between the closing member (14.1, 14.1A) and the depression .
A test method for characterizing properties of a fluid, comprising: providing a micro fluidic device having a first inlet port , an outlet port , and a microchannel as part of a fluid path between the first inlet port and the outlet port ; while generating a flow of the fluid through the microchannel of the microfluidic device , measuring and recording fluid pressure at the first inlet port of the microfluidic device in conjunction with varying temperature of the microchannel of the micro fluidic device ; characterized by detecting the presence or absence of solid clathrate hydrate formation in the fluid that flows through the microchannel of the microfluidic device so as to characterize properties of the fluid which relate to clathrate hydrate formation in the fluid. providing a micro fluidic device having a first inlet port , an outlet port , and a microchannel as part of a fluid path between the first inlet port and the outlet port ; while generating a flow of the fluid through the microchannel of the microfluidic device , measuring and recording fluid pressure at the first inlet port of the microfluidic device in conjunction with varying temperature of the microchannel of the micro fluidic device ; characterized by detecting the presence or absence of solid clathrate hydrate formation in the fluid that flows through the microchannel of the microfluidic device so as to characterize properties of the fluid which relate to clathrate hydrate formation in the fluid.
An enzyme composition, comprising: (I) a cellobiohydrolase I comprising the mature polypeptide of SEQ ID NO: 6; (II) a cellobiohydrolase II comprising the mature polypeptide of SEQ ID NO: 18; (III) an endoglucanase II comprising the mature polypeptide of SEQ ID NO: 22; (IV) a beta-glucosidase comprising the mature polypeptide of SEQ ID NO: 28; (V) a cellulolytic enhancing activity comprising the mature polypeptide of SEQ ID NO: 42; (VI) a xylanase comprising the mature polypeptide of SEQ ID NO: 48; and (VII) a beta-xylosidase comprising the mature polypeptide of SEQ ID NO: 58. (I) a cellobiohydrolase I comprising the mature polypeptide of SEQ ID NO: 6; (II) a cellobiohydrolase II comprising the mature polypeptide of SEQ ID NO: 18; (III) an endoglucanase II comprising the mature polypeptide of SEQ ID NO: 22; (IV) a beta-glucosidase comprising the mature polypeptide of SEQ ID NO: 28; (V) a cellulolytic enhancing activity comprising the mature polypeptide of SEQ ID NO: 42; (VI) a xylanase comprising the mature polypeptide of SEQ ID NO: 48; and (VII) a beta-xylosidase comprising the mature polypeptide of SEQ ID NO: 58.
A method for optical three-dimensional measurement with an intraoral camera , - the intraoral camera continuously generating individual 2D images or sequences of a plurality of successively generated 2D images in chronological order, - a 3D picture being generated from at least one of the 2D images or from at least one of the sequences and - a 3D picture being generated in a first operating mode (M1) for a plurality of all generated 2D images or generated sequences and the large number of generated 2D images or generated sequences or the generated 3D pictures being used for generating a general 3D picture, characterised in that a choice is made between the first and a second operating mode (M1, M2), - wherein in the second operating mode (M2) only a 3D picture is generated for a plurality of all generated 2D images or generated sequences during a time interval (T) directly before and/or after a trigger command (A), and wherein the plurality of the generated 2D images or generated sequences or the generated 3D pictures are used to generate a general 3D picture. - the intraoral camera continuously generating individual 2D images or sequences of a plurality of successively generated 2D images in chronological order, - a 3D picture being generated from at least one of the 2D images or from at least one of the sequences and - a 3D picture being generated in a first operating mode (M1) for a plurality of all generated 2D images or generated sequences and the large number of generated 2D images or generated sequences or the generated 3D pictures being used for generating a general 3D picture, characterised in that a choice is made between the first and a second operating mode (M1, M2), - wherein in the second operating mode (M2) only a 3D picture is generated for a plurality of all generated 2D images or generated sequences during a time interval (T) directly before and/or after a trigger command (A), and wherein the plurality of the generated 2D images or generated sequences or the generated 3D pictures are used to generate a general 3D picture.
A hand-held power tape dispenser comprising: (a) at least one housing, wherein the said at least one housing further extend to serve as a handle; (b) an electrical power source attached to the said housing; (c) at least one electrical circuit supplied with electrical energy from said electrical power source ; (d) at least one motor component connected to the said electrical circuit; (e) at least one rotatable roller attached to the said at least one motor component ; (f) at least one on-off switch connected to the said electrical circuit; (g) at least one triggering device for triggering said at least one on-off switch ; (h) at least one adapter roller attached to the said housing; and (i) at least one cutter member attached to the said housing, characterized inthat the at least one triggering device comprises at least one tension loaded mechanical component, and the at least one triggering device is a roller or a lever adapted to contact a surface, or the at least one triggering device comprises at least one proximity sensor . (a) at least one housing, wherein the said at least one housing further extend to serve as a handle; (b) an electrical power source attached to the said housing; (c) at least one electrical circuit supplied with electrical energy from said electrical power source ; (d) at least one motor component connected to the said electrical circuit; (e) at least one rotatable roller attached to the said at least one motor component ; (f) at least one on-off switch connected to the said electrical circuit; (g) at least one triggering device for triggering said at least one on-off switch ; (h) at least one adapter roller attached to the said housing; and (i) at least one cutter member attached to the said housing,
A surgical stapling apparatus , comprising: a jaw assembly including a pair of jaw members ; and a surgical buttress positioned adjacent a tissue contacting surface of at least one of the pair of jaw members, the surgical buttress comprising a hemostatic agent and being characterised by a plurality of microbeads each having a polymeric casing defining a core containing the hemostatic agent therewithin, at least a portion of the plurality of microbeads being configured to rupture and release the hemostatic agent therefrom upon actuation of the surgical stapling apparatus to approximate the pair of jaw members and exert a pressure on the surgical buttress, the microbeads having a predetermined rupturing force. a jaw assembly including a pair of jaw members ; and a surgical buttress positioned adjacent a tissue contacting surface of at least one of the pair of jaw members, the surgical buttress comprising a hemostatic agent and being characterised by a plurality of microbeads each having a polymeric casing defining a core containing the hemostatic agent therewithin, at least a portion of the plurality of microbeads being configured to rupture and release the hemostatic agent therefrom upon actuation of the surgical stapling apparatus to approximate the pair of jaw members and exert a pressure on the surgical buttress, the microbeads having a predetermined rupturing force.