mhurhangee/patent-ind-claim-en huggingface dataset:
A power management control system for controlling a plurality of power assets (104-108), the system comprising: the plurality of power assets arranged as a tiered network having a tree architecture; a first tier comprising a controller configured to output a data telegram communicating a desired output for a power generation source (104 a ); a second tier and a third tier , the second tier comprising at least one power asset configured to: receive, by a first communication path of the tiered network, the data telegram from the first tier; adjust an output of the power generation source according to the data telegram from the first tier; send, by the first communication path of the tiered network, the data telegram to the third tier of the tiered network; report, by a second communication path of the tiered network, an update of the power generation source to the first tier; and the third tier comprising at least one power asset configured to receive, by the first communication path of the tiered network, the data telegram from the second tier. the plurality of power assets arranged as a tiered network having a tree architecture; a first tier comprising a controller configured to output a data telegram communicating a desired output for a power generation source (104 a ); a second tier and a third tier , the second tier comprising at least one power asset configured to: receive, by a first communication path of the tiered network, the data telegram from the first tier; adjust an output of the power generation source according to the data telegram from the first tier; receive, by a first communication path of the tiered network, the data telegram from the first tier; adjust an output of the power generation source according to the data telegram from the first tier; send, by the first communication path of the tiered network, the data telegram to the third tier of the tiered network; report, by a second communication path of the tiered network, an update of the power generation source to the first tier; and the third tier comprising at least one power asset configured to receive, by the first communication path of the tiered network, the data telegram from the second tier. report, by a second communication path of the tiered network, an update of the power generation source to the first tier; and the third tier comprising at least one power asset configured to receive, by the first communication path of the tiered network, the data telegram from the second tier.
A non-transitory computing device readable medium storing instructions executable by a processor to cause a computing device to perform a method, comprising: identifying, in a treatment plan, a plurality of jaw placements of a jaw of a patient, wherein each of the plurality of jaw placements corresponds with at least one stage of a plurality of stages in the treatment plan for repositioning at least one of the patient's teeth; providing a virtual model of the patient's teeth at a stage of the plurality of stages of the treatment plan; positioning on the virtual model, for at least one of the plurality of jaw placements, virtual repositioning jaw elements of a removable dental appliance , wherein the virtual repositioning jaw elements are designed to extend from the removable dental appliance , and wherein the removable dental appliance is configured to reposition the patient's jaw and at least one of the patient's teeth; and providing a visual indication of the positioning of the virtual repositioning jaw elements relative to a digital representation of the patient's teeth . identifying, in a treatment plan, a plurality of jaw placements of a jaw of a patient, wherein each of the plurality of jaw placements corresponds with at least one stage of a plurality of stages in the treatment plan for repositioning at least one of the patient's teeth; providing a virtual model of the patient's teeth at a stage of the plurality of stages of the treatment plan; positioning on the virtual model, for at least one of the plurality of jaw placements, virtual repositioning jaw elements of a removable dental appliance , wherein the virtual repositioning jaw elements are designed to extend from the removable dental appliance , and wherein the removable dental appliance is configured to reposition the patient's jaw and at least one of the patient's teeth; and providing a visual indication of the positioning of the virtual repositioning jaw elements relative to a digital representation of the patient's teeth .
A method for a network entity in a wireless communication network, the method comprising: determining a sensing node identifier, ID, associated with the network entity; determining a sensing signal configuration, the sensing signal configuration comprising: a resource configuration that is selected from a set of physical resources associated with the wireless communication network, and a symbol sequence that is based on the sensing node ID and is specific to the network entity in the wireless communication network; transmitting a sensing signal according to the sensing signal configuration, the method is further characterized by determining properties of an object based on a reflection of the sensing signal, transmitting a communication signal comprising data, the communication signal being configured based on the properties of the object. determining a sensing node identifier, ID, associated with the network entity; determining a sensing signal configuration, the sensing signal configuration comprising: a resource configuration that is selected from a set of physical resources associated with the wireless communication network, and a symbol sequence that is based on the sensing node ID and is specific to the network entity in the wireless communication network; a resource configuration that is selected from a set of physical resources associated with the wireless communication network, and a symbol sequence that is based on the sensing node ID and is specific to the network entity in the wireless communication network; transmitting a sensing signal according to the sensing signal configuration, the method is further characterized by determining properties of an object based on a reflection of the sensing signal, transmitting a communication signal comprising data, the communication signal being configured based on the properties of the object.
Measurement device intended to be affixed to a wall of a moving object or of a stationary object located in a flow comprising a support having compartments in which sensors are housed, the support having a free face and a face that is intended to come into contact with said wall, the free face being opposite the face , the device comprising a cavity in which a printed circuit board is located, the compartments being provided with an opening that opens to the exterior of the support in the cavity , characterized in that the cavity is made in the free face , that is to say that it opens into same, and in that the circuit board is arranged upside down in the cavity, that is to say with the printed face towards the interior of the support, the sensors attached to the circuit board being suspended in the compartments .
A service indication method for establishing a low-delay service between a multi-link transmit device and a multi-link receive device in a wireless local area network, WLAN, wherein the method comprises: generating (S101), by the multi-link transmit device, quality of service requirement information of a low-delay service, wherein the quality of service requirement information comprises packet loss rate indication information, wherein the packet loss rate indication information comprises an acceptable maximum packet loss rate and a reference number of service data packets, wherein the reference number of service data packets indicates a reference measurement number for counting the packet loss rate and is a number of data packets actually sent by the multi-link transmit device; and sending (S102), by the transmit device to the multi-link receive device, the quality of service requirement information to be used for determining whether to establish the low-delay service between the multi-link transmit device and the multi-link receive device. generating (S101), by the multi-link transmit device, quality of service requirement information of a low-delay service, wherein the quality of service requirement information comprises packet loss rate indication information, wherein the packet loss rate indication information comprises an acceptable maximum packet loss rate and a reference number of service data packets, wherein the reference number of service data packets indicates a reference measurement number for counting the packet loss rate and is a number of data packets actually sent by the multi-link transmit device; and sending (S102), by the transmit device to the multi-link receive device, the quality of service requirement information to be used for determining whether to establish the low-delay service between the multi-link transmit device and the multi-link receive device.
A catheter assembly comprising: a catheter shaft temporarily engaged distal to an outer curve portion of the inner surface of an expandable implant ; the expandable implant having a proximal end and a distal end and being positioned at the leading end of the catheter shaft ; and one or two steering lines having a helical pattern and configured to enable selective and controllable bending of expandable implant and non-concentric temporary engagement; and wherein the helical pattern of the one or two steering lines begins near the distal end on the outer curve of the expandable implant and terminates proximal thereto on the inner curve of the expandable implant ; each steering line continues in a direction substantially parallel to the central axis of the expandable implant and toward the proximal end on the inner curve of the expandable implant where it circumferentially traverses expandable implant back to its outer curve. a catheter shaft temporarily engaged distal to an outer curve portion of the inner surface of an expandable implant ; the expandable implant having a proximal end and a distal end and being positioned at the leading end of the catheter shaft ; and one or two steering lines having a helical pattern and configured to enable selective and controllable bending of expandable implant and non-concentric temporary engagement; and wherein the helical pattern of the one or two steering lines begins near the distal end on the outer curve of the expandable implant and terminates proximal thereto on the inner curve of the expandable implant ; each steering line continues in a direction substantially parallel to the central axis of the expandable implant and toward the proximal end on the inner curve of the expandable implant where it circumferentially traverses expandable implant back to its outer curve.
Pull-out guide comprising a stationary guide rail and a running rail (4, 4', 4") that can be moved relative to the guide rail , whereby a retraction device is provided between the running rail (4, 4', 4") and the guide rail , which is arranged between the running rail (4, 4', 4") and the guide rail in the retracted position of the pull-out guide , whereby the guide rail and the running rail (4, 4', 4") are C- or U-shaped in cross section and the C- or U-shaped legs of the guide rail and the running rail (4, 4', 4") are facing each other , whereby the retraction device comprises a housing , in which a guide for a linearly movable slider and a guide track for a driver (11, 11', 11", 11''') attached to the slider are provided, wherein the driver (11, 11', 11". 11''') can be coupled with an activator and between the housing and the slider a damper comprising a damper housing and a piston rod is provided, whereby around the damper a spring is arranged by means of which the slider is pretensioned on the housing in a retracted position.
Electric motor having connected power electronics and a pump , comprising a pump chamber having a suction-side and a pressure-side connection, and a cooling device of the power electronics and the motor, which cooling device is connected to the pump chamber , wherein the cooling device is realized as liquid cooling and the cooling liquid is provided by the delivery fluid delivered by the pump , wherein a coolant channel is provided, which is routed around the electric motor , wherein the coolant channel is arranged externally on the casing of the electric motor and between the electric motor and the power electronics , wherein the cooling liquid runs from the pressure-side connection of the pump casing through the coolant channel to the suction-side connection of the pump casing , wherein the connections for fluid lines are provided on the pump casing and the coolant channel has the two connections: supply line and return line , wherein the supply line is connected to the pressure-side connection and wherein the return line is connected to the suction-side connection , characterized in that the cooling channel is spiral-shaped, wherein heat pipes are provided on components of the power electronics and/or the electric motor which are remote from the coolant channel , which heat pipes are connected to the coolant channel for cooling purposes, wherein a control element for establishing the flow rate is provided in the supply line and/or the coolant channel . and a cooling device of the power electronics and the motor, which cooling device is connected to the pump chamber , wherein the cooling device is realized as liquid cooling and the cooling liquid is provided by the delivery fluid delivered by the pump , wherein a coolant channel is provided, which is routed around the electric motor , wherein the coolant channel is arranged externally on the casing of the electric motor and between the electric motor and the power electronics , wherein the cooling liquid runs from the pressure-side connection of the pump casing through the coolant channel to the suction-side connection of the pump casing , wherein the connections for fluid lines are provided on the pump casing and the coolant channel has the two connections: supply line and return line , wherein the supply line is connected to the pressure-side connection and wherein the return line is connected to the suction-side connection , characterized in that the cooling channel is spiral-shaped, wherein heat pipes are provided on components of the power electronics and/or the electric motor which are remote from the coolant channel , which heat pipes are connected to the coolant channel for cooling purposes, wherein a control element for establishing the flow rate is provided in the supply line and/or the coolant channel .
A polymer composition comprising: a polymer comprising a lactic acid block and an aliphatic polyester block, polymer having a structure of: wherein G 1 and G 2 are independently (CHR) x , R is an alkyl group or H, and x is an integer ranging between 1 and 10; wherein y is an integer ranging between about 50 and about 500; wherein z is an integer ranging between about 100 and about 600; wherein n is an integer ranging between about 5 and about 10,000; wherein X is H, a functionalized alkylene polymer block containing alcohol functional groups, or a mixture thereof; and wherein Y is H, an acyl group, a functionalized alkylene polymer containing carboxylic acid functional groups, or a mixture thereof. wherein G 1 and G 2 are independently (CHR) x , R is an alkyl group or H, and x is an integer ranging between 1 and 10; wherein y is an integer ranging between about 50 and about 500; wherein z is an integer ranging between about 100 and about 600; wherein n is an integer ranging between about 5 and about 10,000; wherein X is H, a functionalized alkylene polymer block containing alcohol functional groups, or a mixture thereof; and wherein Y is H, an acyl group, a functionalized alkylene polymer containing carboxylic acid functional groups, or a mixture thereof.
A system for creating a prescribed vibration profile within a mechanical device comprising: a mechanical device; at least one circular force generator (CFG) affixed to the mechanical device, the CFG capable of producing a rotating force vector, wherein the rotating force vector includes a magnitude, a phase, and a frequency; at least one sensor positioned on the mechanical device; at least one vibration profile in the mechanical device created by the CFG , wherein the sensor measures the at least one vibration profile; a controller in electronic communication with the sensor and with the CFG , characterized in that the controller operably controls the rotating force vector based upon the measurement of the vibration profile, wherein the magnitude, phase and frequency are independently controllable by the controller , wherein the controller changes the rotating force vector such that a difference between the measured vibration profile and a prescribed vibration profile is reduced. a mechanical device; at least one circular force generator (CFG) affixed to the mechanical device, the CFG capable of producing a rotating force vector, wherein the rotating force vector includes a magnitude, a phase, and a frequency; at least one sensor positioned on the mechanical device; at least one vibration profile in the mechanical device created by the CFG , wherein the sensor measures the at least one vibration profile; a controller in electronic communication with the sensor and with the CFG , characterized in that the controller operably controls the rotating force vector based upon the measurement of the vibration profile, wherein the magnitude, phase and frequency are independently controllable by the controller , wherein the controller changes the rotating force vector such that a difference between the measured vibration profile and a prescribed vibration profile is reduced.
A lens bracket comprising: a fixed portion connectable to a lens assembly; a moving portion connected to the fixed portion and detachably connectable to a rail; a coupling protrusion provided on the moving portion and connectable to a rail; a hooking portion provided on the moving portion , the hooking portion facing the coupling protrusion , and being configured to contact a connectable rail; and characterized in that it further comprises a guide that is spaced apart from the hooking portion and protruding from the moving portion being configured to extend along a surface of a connectable rail. a fixed portion connectable to a lens assembly; a moving portion connected to the fixed portion and detachably connectable to a rail; a coupling protrusion provided on the moving portion and connectable to a rail; a hooking portion provided on the moving portion , the hooking portion facing the coupling protrusion , and being configured to contact a connectable rail; and characterized in that it further comprises a guide that is spaced apart from the hooking portion and protruding from the moving portion being configured to extend along a surface of a connectable rail.
A method of preparing a compound of Formula I-b, comprising providing nicotine of Formula I-a as a mixture of the (R)- and (S)-enantiomer separating enantiomers of the compound of Formula I-a by addition of a chiral O,O'-disubstituted tartaric acid, wherein the chiral O,O'-disubstituted tartaric acid comprises the L-enantiomer; and obtaining the compound of Formula I-b, wherein the O,O'-disubstituted tartaric acid is a mixture of the L-enantiomer and the D-enantiomer, wherein the molar ratio of the L-enantiomer to the D-enantiomer is 90:10 or more and 95:5 or less, and wherein the addition of the chiral O,O'-disubstituted tartaric acid is carried out with ethanol as solvent.
Composite for an acoustic component having - at least one carrier layer and - an electrospun membrane which is arranged on the at least one carrier layer , wherein the electrospun membrane is formed of superimposed fibers with the formation of a pore structure, wherein the pore structure is designed that - the composite has a water column of at least 1 m according to ISO 811:1981 and an air permeability of at least 5 L/m 2 *s according to ISO 9237:1995-12, - the composite is provided with a plasma coating , and - wherein the carrier layer and the electrospun membrane are firmly joined with each other, - wherein as carrier layer a monofilament fabric is provided and the plasma coating is formedboth on the electrospun membrane and on the at least one carrier layer . - at least one carrier layer and - an electrospun membrane which is arranged on the at least one carrier layer , wherein the electrospun membrane is formed of superimposed fibers with the formation of a pore structure, - the composite has a water column of at least 1 m according to ISO 811:1981 and an air permeability of at least 5 L/m 2 *s according to ISO 9237:1995-12, - the composite is provided with a plasma coating , and - wherein the carrier layer and the electrospun membrane are firmly joined with each other, - wherein as carrier layer a monofilament fabric is provided and
Operator control device for a household appliance , having an electronic display panel (11, 11a to 11c), and an operator control element which can be moved relative to the display panel (11, 11a to 11c) to set operating conditions of the household appliance , wherein some areas of the operator control element are embedded in a cover of the at least one electronic display panel (11, 11a to 11c), and some areas of the upper face of an annular front part of the operator control element project above the level of an outer face of the cover , wherein the upper face of the annular front part is funnel-shaped and the outer edge of the front part projects above the outer face of the cover , characterised in that the subcomponents of the operator control element implemented as a ring are disposed in a groove in the outer face of the cover , and wherein a partial area of the outer face of the cover is enclosed by the front part .
A power cable comprising stranded electrically conductive wires, wherein any interstices of the stranded conductive wire are completely filled with a water-blocking composition comprising: from 20 wt% to 90 wt% of a thermoplastic polymer; and from 10 wt% to 30 wt%, of a crosslinked polymer, in the form of a powder having a particle diameter less than 900 μm, dispersed in the thermoplastic polymer; based on a total weight of the water-blocking composition. from 20 wt% to 90 wt% of a thermoplastic polymer; and from 10 wt% to 30 wt%, of a crosslinked polymer, in the form of a powder having a particle diameter less than 900 μm, dispersed in the thermoplastic polymer; based on a total weight of the water-blocking composition.
A dual-interface RFID antenna module (AM, 300, 400) comprising: a module tape (MT, 302, 402); a conductive layer (CL, 330, 430) on a face-up side of the module tape (MT) comprising an array of contact pads (CP), the conductive layer comprising copper; and an antenna (MA, AS, 320) disposed on a face-down side of the module tape opposite and underneath the contact pads; characterized in that at least 50% of the surface area of the conductive layer (CL) has a thickness less than the skin depth of a material of the conductive layer (CL) at 13.56 MHz, wherein the skin depth is 17.7 μm. a module tape (MT, 302, 402); a conductive layer (CL, 330, 430) on a face-up side of the module tape (MT) comprising an array of contact pads (CP), the conductive layer comprising copper; and an antenna (MA, AS, 320) disposed on a face-down side of the module tape opposite and underneath the contact pads; characterized in that at least 50% of the surface area of the conductive layer (CL) has a thickness less than the skin depth of a material of the conductive layer (CL) at 13.56 MHz, wherein the skin depth is 17.7 μm.