mhurhangee/patent-ind-claim-en huggingface dataset:
A heating control device comprising: input/output (I/O) ports configured to transmit and receive electrical signals; a memory storing a temperature map that maps temperatures to speeds of an air circulation fan ; and a microprocessor operably coupled to the I/O ports and the memory , and configured to: transmit a first electrical signal to operate the air circulation fan at a first speed and a heating unit in a first configuration with at least one active burner from a plurality of burners to achieve a first temperature, wherein less than all of the burners are active when the heating unit is in the first configuration; receive a temperature set point; determine a second speed for the air circulation fan using the temperature set point and the temperature map in response to receiving the temperature set point; and transmit a second electrical signal to transition the air circulation fan from the first speed to the second speed in response to determining the second speed. input/output (I/O) ports configured to transmit and receive electrical signals; a memory storing a temperature map that maps temperatures to speeds of an air circulation fan ; and a microprocessor operably coupled to the I/O ports and the memory , and configured to: transmit a first electrical signal to operate the air circulation fan at a first speed and a heating unit in a first configuration with at least one active burner from a plurality of burners to achieve a first temperature, wherein less than all of the burners are active when the heating unit is in the first configuration; receive a temperature set point; determine a second speed for the air circulation fan using the temperature set point and the temperature map in response to receiving the temperature set point; and transmit a second electrical signal to transition the air circulation fan from the first speed to the second speed in response to determining the second speed. transmit a first electrical signal to operate the air circulation fan at a first speed and a heating unit in a first configuration with at least one active burner from a plurality of burners to achieve a first temperature, wherein less than all of the burners are active when the heating unit is in the first configuration; receive a temperature set point; determine a second speed for the air circulation fan using the temperature set point and the temperature map in response to receiving the temperature set point; and transmit a second electrical signal to transition the air circulation fan from the first speed to the second speed in response to determining the second speed.
Bending device for bending a wire for a lattice truss welding machine , wherein the device comprises two clamping units for clamping the wire , wherein a first clamping unit is provided fixed in position in the direction of a bending section and a second clamping unit is provided to be displaceable parallel to the bending section, wherein the bending section in an advancing direction of the wire is parallel to a longitudinal axis of the bent wire , wherein the bending device comprises a bending punch , wherein the bending device has a bending surface over which the wire runs during the bending process, wherein the bending punch is provided between the first and the second clamping unit , wherein the bending punch can be secured pivotably at a second end to a machine frame of the lattice truss welding machine , wherein a displacement unit is provided which is connected movably by means of a pivot arm to a first end of the bending punch , characterised in that the bending surface , over which the wire runs, is provided on the pivot arm offset relative to a longitudinal axis of the bending punch .
An apparatus comprising: a multi-level flying capacitor inverter; a DC link capacitor (Cdc) at the inputs of the multi-level flying capacitor inverter; and a circuit comprising a leg comprising a first node, a second node, a third node and a fourth node connected at the inputs of the multi-level flying capacitor inverter at the first and second nodes; wherein the leg comprises a buck-boost circuit comprising an inductor (L72) connected between the first and third nodes, a first switch bank (137A-C) connected between the third and fourth nodes and a second switch bank (138A-C) connected to the third node; wherein the first switch bank comprises a plurality of series connected switches (137A-C); the second switch bank comprises a plurality of series connected switches (138A-C) and the buck-boost circuit further comprises one or more capacitors (C105, C106) that are nested within each other between the first and second switch banks by connecting the ends of each capacitor between corresponding switches in each switch bank; wherein the circuit comprises a ripple capacitance spread over a first and a second ripple capacitor (Cdc_H, Cdc_L), wherein the first ripple capacitor (Cdc_H) is connected between the second and fourth nodes and the second ripple capacitor (Cdc_L) is connected between the second switch bank and the second node; wherein the buck-boost circuit is configured to act to transfer capacitive charge between the DC link capacitor (Cdc) and the first and second ripple capacitors (Cdc_H, Cdc_L) to compensate for low frequency pulsation at the DC link capacitor. a multi-level flying capacitor inverter; a DC link capacitor (Cdc) at the inputs of the multi-level flying capacitor inverter; and a circuit comprising a leg comprising a first node, a second node, a third node and a fourth node connected at the inputs of the multi-level flying capacitor inverter at the first and second nodes; wherein the leg comprises a buck-boost circuit comprising an inductor (L72) connected between the first and third nodes, a first switch bank (137A-C) connected between the third and fourth nodes and a second switch bank (138A-C) connected to the third node; wherein the first switch bank comprises a plurality of series connected switches (137A-C); the second switch bank comprises a plurality of series connected switches (138A-C) and the buck-boost circuit further comprises one or more capacitors (C105, C106) that are nested within each other between the first and second switch banks by connecting the ends of each capacitor between corresponding switches in each switch bank; wherein the circuit comprises a ripple capacitance spread over a first and a second ripple capacitor (Cdc_H, Cdc_L), wherein the first ripple capacitor (Cdc_H) is connected between the second and fourth nodes and the second ripple capacitor (Cdc_L) is connected between the second switch bank and the second node; wherein the buck-boost circuit is configured to act to transfer capacitive charge between the DC link capacitor (Cdc) and the first and second ripple capacitors (Cdc_H, Cdc_L) to compensate for low frequency pulsation at the DC link capacitor.
A heating element for an e-vapor device, comprising: a planar portion including at least one filament , first and second lead portions extending away from the planar portion , wherein the planar portion , the first lead portion , and the second lead portion are a unitary body, the first lead portion includes a first tip , the second lead portion includes a second tip , and the first tip and the second tip being on opposite sides of the planar portion, characterized in that the filament defines an air channel through a central area of the planar portion and in that the filament is arranged so as to form a plurality of u-shaped portions encircling at least a majority of the air channel . a planar portion including at least one filament , first and second lead portions extending away from the planar portion , wherein the planar portion , the first lead portion , and the second lead portion are a unitary body, the first lead portion includes a first tip , the second lead portion includes a second tip , and the first tip and the second tip being on opposite sides of the planar portion, characterized in that the filament defines an air channel through a central area of the planar portion and in that the filament is arranged so as to form a plurality of u-shaped portions encircling at least a majority of the air channel .
A method , performed in an accessory device , for communicating a leakage state of an ostomy appliance comprising a base plate configured to be placed on a skin surface of a user, the base plate comprising a plurality of electrodes configured to detect presence of fluid on a proximal side of a first adhesive layer of the base plate in a primary sensing zone and a secondary sensing zone separate from the primary sensing zone, the plurality of electrodes including a first leakage electrode, a second leakage electrode, and a third leakage electrode, wherein the accessory device comprises an interface configured to communicate with a monitor device of an ostomy system comprising the ostomy appliance , the method comprising: - obtaining monitor data from the monitor device , the monitor data comprising ostomy data obtained from the plurality of electrodes of the base plate by the monitor device , the monitor data being representative of detection of fluid on the proximal side in the primary sensing zone and secondary sensing zone; - determining the leakage state at the proximal side of the first adhesive layer of the base plate based on the monitor data, wherein determining the leakage state comprises determining one or more moisture pattern types based on the monitor data; and - communicating the leakage state of the base plate via the interface . - obtaining monitor data from the monitor device , the monitor data comprising ostomy data obtained from the plurality of electrodes of the base plate by the monitor device , the monitor data being representative of detection of fluid on the proximal side in the primary sensing zone and secondary sensing zone; - determining the leakage state at the proximal side of the first adhesive layer of the base plate based on the monitor data, wherein determining the leakage state comprises determining one or more moisture pattern types based on the monitor data; and - communicating the leakage state of the base plate via the interface .
Control system of a technical installation, in particular a manufacturing or process installation, which comprises at least one operator station server , at least one operator station client and at least one engineering station server , wherein the operator station server is embodied to transfer visualization information to the operator station client , and wherein the operator station client is embodied to generate a graphical presentation for an operator of the technical installation by means of the visualization information, and wherein the operator station client is embodied to adjust the graphical presentation in response to an instruction of the operator to the operator station client , and wherein the operator station client is embodied to transmit an item of information regarding the adjustment of the graphical presentation to the operator station server , and wherein the operator station server is embodied to record the information received from the operator station client regarding the adjustment of the graphical presentation in a memory of the operator station server , characterised in that the operator station server is embodied to transmit the information regarding the adjustment of the graphical presentation to the engineering station server , in order to make the information regarding the adjustment of the graphical presentation available to a project engineer of the technical installation. and wherein the operator station client is embodied to generate a graphical presentation for an operator of the technical installation by means of the visualization information, and wherein the operator station client is embodied to adjust the graphical presentation in response to an instruction of the operator to the operator station client , and wherein the operator station client is embodied to transmit an item of information regarding the adjustment of the graphical presentation to the operator station server , and wherein the operator station server is embodied to record the information received from the operator station client regarding the adjustment of the graphical presentation in a memory of the operator station server , characterised in that the operator station server is embodied to transmit the information regarding the adjustment of the graphical presentation to the engineering station server , in order to make the information regarding the adjustment of the graphical presentation available to a project engineer of the technical installation.
A method of manufacturing a catheter, comprising providing an inner liner defining at least one lumen , wherein the inner liner comprises a gamma-irradiated polymeric material and a gamma radiation activated cross-linking agent, forming an outer layer over the inner liner , and reflow bonding the outer layer to the inner liner . providing an inner liner defining at least one lumen , wherein the inner liner comprises a gamma-irradiated polymeric material and a gamma radiation activated cross-linking agent, forming an outer layer over the inner liner , and reflow bonding the outer layer to the inner liner .
A hot-melt adhesive resin film comprising a first adhesive layer, a first intermediate layer, a substrate layer having heat resistance, a second intermediate layer, and a second adhesive layer, which are laminated in this order, wherein said first intermediate layer is a layer having adhesiveness to said substrate layer and said first adhesive layer, said second intermediate layer is a layer having adhesiveness to said substrate layer and said second adhesive layer, and said first adhesive layer and said second adhesive layer include an acid-modified polyolefin resin, and said substrate layer is a layer formed of a cyclic olefin polymer or a methylpentene polymer. wherein said first intermediate layer is a layer having adhesiveness to said substrate layer and said first adhesive layer, said second intermediate layer is a layer having adhesiveness to said substrate layer and said second adhesive layer, and said first adhesive layer and said second adhesive layer include an acid-modified polyolefin resin, and said substrate layer is a layer formed of a cyclic olefin polymer or a methylpentene polymer.
A terminal device (210-1) comprising: means for receiving, from a network device , information indicating one or more occasions configured for detection of physical downlink control channel, PDCCH, transmission carrying a wake-up indication; means for determining, based on transmission information available at a first time point (t2), whether a predetermined number of the one or more occasions overlap with an active time of the terminal device (210-1), wherein the first time point (t2) is 4 ms prior to start of a last occasion of the one or more occasions configured for detection of PDCCH transmission carrying the wake-up indication, wherein the predetermined number of the one or more occasions are after the first time point (t2), and the transmission information available at the first time point (t2) comprises at least one of the following: a grant, an assignment, a discontinuous reception command medium access control (MAC) control element (CE), a long discontinuous reception command MAC CE, and a scheduling request; means for determining a configuration for transmitting uplink information based on a determination by the means for determining whether the predetermined number of the one or more occasions overlap with the active time of the terminal device (210-1); and means for transmitting the uplink information to the network device based on the configuration. means for receiving, from a network device , information indicating one or more occasions configured for detection of physical downlink control channel, PDCCH, transmission carrying a wake-up indication; means for determining, based on transmission information available at a first time point (t2), whether a predetermined number of the one or more occasions overlap with an active time of the terminal device (210-1), wherein the first time point (t2) is 4 ms prior to start of a last occasion of the one or more occasions configured for detection of PDCCH transmission carrying the wake-up indication, wherein the predetermined number of the one or more occasions are after the first time point (t2), and the transmission information available at the first time point (t2) comprises at least one of the following: a grant, an assignment, a discontinuous reception command medium access control (MAC) control element (CE), a long discontinuous reception command MAC CE, and a scheduling request; means for determining a configuration for transmitting uplink information based on a determination by the means for determining whether the predetermined number of the one or more occasions overlap with the active time of the terminal device (210-1); and means for transmitting the uplink information to the network device based on the configuration.
A gravimetric measuring system , comprising - a scale having a weighing chamber surrounded by a weighing chamber wall , an electromechanical weighing system , an electronic control apparatus for controlling the system operation, and - a plurality of function modules generating heat during operation, which can be optionally inserted into module receptacles arranged at the weighing chamber wall , characterized in that the scale has a cooling device controllable by the control apparatus for cooling the weighing chamber ; and that the module receptacles have device-side thermal interface components thermally connected to the cooling device and the function modules have corresponding module-side thermal interface components which in the inserted state of the respective function module thermally contact the device-side thermal interface component of the respectively assigned module receptacle . - a scale having a weighing chamber surrounded by a weighing chamber wall , an electromechanical weighing system , an electronic control apparatus for controlling the system operation, and - a plurality of function modules generating heat during operation, which can be optionally inserted into module receptacles arranged at the weighing chamber wall , that the scale has a cooling device controllable by the control apparatus for cooling the weighing chamber ; and that the module receptacles have device-side thermal interface components thermally connected to the cooling device and the function modules have corresponding module-side thermal interface components which in the inserted state of the respective function module thermally contact the device-side thermal interface component of the respectively assigned module receptacle .
A liquid crystal emulsification method comprising: in a water-in-oil type pre-emulsion production unit 12 a water-in-oil type pre-emulsion is produced, then transferred to a liquid crystal phase formation unit 14, wherein a liquid crystal phase in a transition state between a water-in-oil type pre-emulsion and an oil-in-water type emulsion is formed, then transferred to the oil-in-water type emulsion production unit 16, wherein an oil-in-water type emulsion is produced, characterized in that , adding a moisture content and a silicone composition as an oil content at a predetermined ratio to a nonionic surfactant having an HLB falling within a predetermined range which represents a balance of hydrophilicity and lipophilicity, of 8.0 to 19.0; and setting a temperature during formation of a dispersion or an emulsion to a predetermined temperature by cooling to a temperature selected from a temperature range of -40°C to -5°C to adjust the particle diameter of a final oil-in-water type emulsion by controlling particle diameter of a final oil-in-water type emulsion, and a predetermined shear energy is applied according to the selected temperature to adjust a lamellar liquid crystal having a regular molecular arrangement in which the oil content and the moisture content are alternately arranged in a bilayer membrane formed from the surfactant. in a water-in-oil type pre-emulsion production unit 12 a water-in-oil type pre-emulsion is produced, then transferred to a liquid crystal phase formation unit 14, wherein a liquid crystal phase in a transition state between a water-in-oil type pre-emulsion and an oil-in-water type emulsion is formed, then transferred to the oil-in-water type emulsion production unit 16, wherein an oil-in-water type emulsion is produced, characterized in that , adding a moisture content and a silicone composition as an oil content at a predetermined ratio to a nonionic surfactant having an HLB falling within a predetermined range which represents a balance of hydrophilicity and lipophilicity, of 8.0 to 19.0; and setting a temperature during formation of a dispersion or an emulsion to a predetermined temperature by cooling to a temperature selected from a temperature range of -40°C to -5°C to adjust the particle diameter of a final oil-in-water type emulsion by controlling particle diameter of a final oil-in-water type emulsion, and a predetermined shear energy is applied according to the selected temperature to adjust a lamellar liquid crystal having a regular molecular arrangement in which the oil content and the moisture content are alternately arranged in a bilayer membrane formed from the surfactant.
A vaso-occlusive device delivery assembly, comprising: a pusher assembly having a proximal end , a distal end , and a pusher lumen extending therebetween; a vaso-occlusive device ; and a tubular member mechanically connecting the pusher assembly to the vaso-occlusive device , the tubular member having a proximal end , a distal end , a tube lumen extending therebetween, and a detach zone, wherein a heat generating member is disposed in the tube lumen , such that, when activated, the heat generating member generates heat that melts or otherwise thermally degrades the tubular member at the detach zone, thereby detaching the vaso-occlusive device from the pusher assembly , characterized in that the proximal end of the tubular member extends into the pusher assembly lumen at the distal end of the pusher assembly , and in that the device further comprising proximal and distal seals attached to the respective proximal and distal ends of the tubular member , and forming respective seals therewith, such that the tube lumen is sealed.. a pusher assembly having a proximal end , a distal end , and a pusher lumen extending therebetween; a vaso-occlusive device ; and a tubular member mechanically connecting the pusher assembly to the vaso-occlusive device , the tubular member having a proximal end , a distal end , a tube lumen extending therebetween, and a detach zone,