mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a conductive particle film comprising: aerosolizing a mixture of conductive particles and a binder, applying a charge to the mixture; applying resistive heat to a substrate, wherein the substrate is electrically grounded or a substrate with a surface with an opposite charge to the charge of the conductive particles; and applying the charged mixture to at least one side of the heated substrate by aerodynamic or electrostatic interaction, forming the conductive particle film for coating the substrate; wherein electrical current is delivered to the substrate which is a foil through one or more rollers that are in electrical contact with the substrate prior to coating and extracted from the substrate through one or more rollers that are in electrical contact with the substrate after coating, or wherein electrical current is delivered to the substrate through one or more rollers that are in electrical contact with the substrate after coating and extracted from the substrate through one or more rollers that are in electrical contact with the substrate prior to coating. aerosolizing a mixture of conductive particles and a binder, applying a charge to the mixture; applying resistive heat to a substrate, wherein the substrate is electrically grounded or a substrate with a surface with an opposite charge to the charge of the conductive particles; and applying the charged mixture to at least one side of the heated substrate by aerodynamic or electrostatic interaction, forming the conductive particle film for coating the substrate; wherein electrical current is delivered to the substrate which is a foil through one or more rollers that are in electrical contact with the substrate prior to coating and extracted from the substrate through one or more rollers that are in electrical contact with the substrate after coating, or wherein electrical current is delivered to the substrate through one or more rollers that are in electrical contact with the substrate after coating and extracted from the substrate through one or more rollers that are in electrical contact with the substrate prior to coating.
A method of selecting a transmission time interval length to be used for communications between a user equipment device and a base station in response to a new service request, the transmission time interval being an interval of time for a transmission of a data unit, wherein a minimum transmission time interval length is determined using a timing advance value to ensure a transmission efficiency is above a threshold and the selected transmission time interval length to be used by the user equipment device for communication with the base station is greater than the minimum transmission time interval length .
An inhaler add-on device for add-on to an inhaler for dispensing a medicament to be inhaled, the inhaler add-on device comprising - a housing (H) comprising an air inlet (A_I), and an air outlet (A_O), wherein the housing (H) defines a flow path (FP) between the air inlet (A_I) and air outlet (A_O), wherein the housing (H) is configured for connection to the inhaler, and - a first passive acoustic element (PAE) arranged in the flow path (FP) inside the housing (H) and dimensioned such that air flow passing the first passive acoustic element (PAE) will generate sound (S) with pre-determined characteristics depending on flow speed of air passing the first passive acoustic element (PAE), so as to allow acoustic monitoring of air flow passing the first passive acoustic element (PAE) external to the housing (H), wherein the first passive acoustic element (PAE) is a non-vibrating structure having two or more gaps arranged to be passed by the air flow, wherein the movement of air passing the two or more gaps of the passive acoustic element (PAE) generates the sound, and wherein the two or more gaps are shaped and separated by a distance (D2) such that the sound has predetermined characteristics, comprising at least two spectral peaks, optionally 2-4 spectral peaks, depending on said flow speed of the air passing the first passive acoustic element (PAE), and wherein the sound varies in dependence of the air flow speed by variation in frequency, and optionally amplitude, of the at least two spectral peaks. - a housing (H) comprising an air inlet (A_I), and an air outlet (A_O), wherein the housing (H) defines a flow path (FP) between the air inlet (A_I) and air outlet (A_O), wherein the housing (H) is configured for connection to the inhaler, and - a first passive acoustic element (PAE) arranged in the flow path (FP) inside the housing (H) and dimensioned such that air flow passing the first passive acoustic element (PAE) will generate sound (S) with pre-determined characteristics depending on flow speed of air passing the first passive acoustic element (PAE), so as to allow acoustic monitoring of air flow passing the first passive acoustic element (PAE) external to the housing (H),
A composite structure comprising: an outer panel , the outer panel being constructed of a composite material, the outer panel having a thickness between an exterior surface of the outer panel and an interior surface of the outer panel , the exterior surface of the outer panel and the interior surface of the outer panel being smooth, continuous surfaces that are substantially parallel; an inner panel , the inner panel being constructed of a composite material, the inner panel having a thickness between an exterior surface of the inner panel and an interior surface of the inner panel , the exterior surface of the inner panel and the interior surface of the inner panel being smooth, continuous surfaces that are substantially parallel; a space between the interior surface of the outer panel and the interior surface of the inner panel ; a support structure in the space , the support structure being connected to the interior surface of the outer panel and the interior surface of the inner panel ; a foam interposed in the space and the support structure ; and, a wire extending through the space between the interior surface of the outer panel and the interior surface of the inner panel , the wire having a high electrical conductivity, wherein the wire has a helix configuration that extends through the space between the interior surface of the outer panel and the interior surface of the inner panel . an outer panel , the outer panel being constructed of a composite material, the outer panel having a thickness between an exterior surface of the outer panel and an interior surface of the outer panel , the exterior surface of the outer panel and the interior surface of the outer panel being smooth, continuous surfaces that are substantially parallel; an inner panel , the inner panel being constructed of a composite material, the inner panel having a thickness between an exterior surface of the inner panel and an interior surface of the inner panel , the exterior surface of the inner panel and the interior surface of the inner panel being smooth, continuous surfaces that are substantially parallel; a space between the interior surface of the outer panel and the interior surface of the inner panel ; a support structure in the space , the support structure being connected to the interior surface of the outer panel and the interior surface of the inner panel ; a foam interposed in the space and the support structure ; and, a wire extending through the space between the interior surface of the outer panel and the interior surface of the inner panel , the wire having a high electrical conductivity, wherein the wire has a helix configuration that extends through the space between the interior surface of the outer panel and the interior surface of the inner panel .
A router operable to communicate with a controller over a control network and one or more devices on a device network , comprising: a processor , and a non-transient computer readable medium including instructions that upon execution cause the router to: (i) poll for a device over the device network at a predetermined address; (ii) receive a valid response to the poll from an unconfigured device; (iii) upon receiving a valid response to the poll, broadcast an identification request to each device on the device network having a device object ID within a predetermined set of device object IDs; (iv) receive responses to the identification requests from each device on the device network having a device object ID within a predetermined set of device object IDs, the responses including the MAC address of the devices; (v) store the MAC addresses received in the responses to the identification requests; (vi) select a proposed MAC address based upon the stored MAC addresses; (vii) select a proposed device object ID; (viii) poll the control network for a device having the proposed device object ID and determine whether a device has the proposed device object ID; (ix) transmit instructions to the unconfigured device to write the proposed object ID to non-transient computer readable medium of the unconfigured device; and, (x) transmit instructions to the unconfigured device to write the proposed MAC address to the non-transient computer readable medium of the unconfigured device, and wherein the router is a BACnet router, the device network is a MS/TP network, and the devices are BACnet devices in communication with the BACnet router over the MS/TP network. (i) poll for a device over the device network at a predetermined address; (ii) receive a valid response to the poll from an unconfigured device; (iii) upon receiving a valid response to the poll, broadcast an identification request to each device on the device network having a device object ID within a predetermined set of device object IDs; (iv) receive responses to the identification requests from each device on the device network having a device object ID within a predetermined set of device object IDs, the responses including the MAC address of the devices; (v) store the MAC addresses received in the responses to the identification requests; (vi) select a proposed MAC address based upon the stored MAC addresses; (vii) select a proposed device object ID; (viii) poll the control network for a device having the proposed device object ID and determine whether a device has the proposed device object ID; (ix) transmit instructions to the unconfigured device to write the proposed object ID to non-transient computer readable medium of the unconfigured device; and, (x) transmit instructions to the unconfigured device to write the proposed MAC address to the non-transient computer readable medium of the unconfigured device, and
A photovoltaic module comprising: - at least two strings, each string comprising a plurality of solar cells connected in series, - a circuit for obtaining power from a photovoltaic unit, the circuit comprising at least two intra-module DC-DC power converters connected in parallel, each intra-module DC-DC power converter being connected in series with a string, wherein each of said intra-module DC-DC power converters comprises: - at least one multiplier stage, said multiplier stage comprising two capacitors (C M1 , C M2 ), each capacitor respectively connected to a diode (D M1 , D M2 ), and wherein said diodes (D M1 , D M2 ) of the at least one multiplier cell are adapted to charge the multiplier capacitors (C M1 , CM2) with a charge voltage (V M ), and wherein an input signal (V in ) from the photovoltaic unit is converted into an output signal (V out ), wherein said output signal is (M+1) times the charge voltage (V M ), and wherein M denotes the number of multiplier stages, characterized in that - each of said at least two intra-module DC-DC power converters comprises two multiplier stages (M=2), - the maximal voltage gain of each of said at least two intra-module DC-DC power converters is 12, - the multiplier stages of each of said at least two intra-module DC-DC power converters comprise switches operating at a switching frequency ranging between 400 kHz and 500 kHz, - the input voltage (V in ) range of each of said at least two intra-module DC-DC power converters is 10 V to 30 V, - the output voltage (V out ) range of each of said at least two intra-module DC-DC power converters is 30 V to 360 V, - the maximum input current of each of said at least two intra-module DC-DC power converters is 8 A. - at least two strings, each string comprising a plurality of solar cells connected in series, - a circuit for obtaining power from a photovoltaic unit, the circuit comprising at least two intra-module DC-DC power converters connected in parallel, each intra-module DC-DC power converter being connected in series with a string, - at least one multiplier stage, said multiplier stage comprising two capacitors (C M1 , C M2 ), each capacitor respectively connected to a diode (D M1 , D M2 ), and wherein said diodes (D M1 , D M2 ) of the at least one multiplier cell are adapted to charge the multiplier capacitors (C M1 , CM2) with a charge voltage (V M ), and - each of said at least two intra-module DC-DC power converters comprises two multiplier stages (M=2), - the maximal voltage gain of each of said at least two intra-module DC-DC power converters is 12, - the multiplier stages of each of said at least two intra-module DC-DC power converters comprise switches operating at a switching frequency ranging between 400 kHz and 500 kHz, - the input voltage (V in ) range of each of said at least two intra-module DC-DC power converters is 10 V to 30 V, - the output voltage (V out ) range of each of said at least two intra-module DC-DC power converters is 30 V to 360 V, - the maximum input current of each of said at least two intra-module DC-DC power converters is 8 A.
Control electronics comprising a user interface , the control electronics being further configured to control a radio frequency (RF) heating system configured to provide RF energy into a cooking chamber of an oven using solid state electronic components, wherein the control electronics are configured to define one or more control consoles , at least one of the control consoles enabling a user to select a cooking program for execution to cooking a food product in the cooking chamber via the RF heating system , wherein the user interface provides a control operator comprising a selectable operator that is operable to control progress toward completing the selected cooking program and a goal indicator entirely surrounding the selectable operator , characterized in that the goal indicator defines a geometrical shape having a perimeter indicative of the full commitment of time to complete the selected cooking program, and that the control operator is a combined progress indicator and control operator further comprising a progress indicator in form of a non-user selectable graphic representation extending while following the shape of the goal indicator proportional to an amount of the full commitment of time that has already been completed, forming a dynamic representation of the progress toward completion of that full commitment. wherein the user interface provides a control operator comprising a selectable operator that is operable to control progress toward completing the selected cooking program and a goal indicator entirely surrounding the selectable operator , characterized in that the goal indicator defines a geometrical shape having a perimeter indicative of the full commitment of time to complete the selected cooking program, and that the control operator is a combined progress indicator and control operator further comprising a progress indicator in form of a non-user selectable graphic representation extending while following the shape of the goal indicator proportional to an amount of the full commitment of time that has already been completed, forming a dynamic representation of the progress toward completion of that full commitment.
Wheel hub assembly of a bicycle wheel, comprising: a wheel axle ; a rotary pump comprising a pump housing , a pump rotor , a first fluid port configured for fluidly coupling to a pneumatic tire and a second fluid port configured for fluidly coupling to a fluid reservoir , wherein the pump is configured for displacing fluid between the first and second fluid ports; and control means for controlling actuation of the pump, wherein the pump rotor is configured for rotating relative to the pump housing coaxially with the wheel axle , and the pump housing is configured for rotating relative to the wheel axle , characterized in that the wheel hub assembly has a first state of operation wherein the pump, when actuated, is configured for pumping fluid from the first fluid port to the second fluid port , thereby deflating the pneumatic tire , wherein in the first state of operation, the pump rotor is configured to be kept static relative to the wheel axle , and the pump housing is configured to rotate integrally with a hub of the wheel, such that the pump is actuated by forward wheel movement. a wheel axle ; a rotary pump comprising a pump housing , a pump rotor , a first fluid port configured for fluidly coupling to a pneumatic tire and a second fluid port configured for fluidly coupling to a fluid reservoir , wherein the pump is configured for displacing fluid between the first and second fluid ports; and control means for controlling actuation of the pump, wherein the pump rotor is configured for rotating relative to the pump housing coaxially with the wheel axle , and the pump housing is configured for rotating relative to the wheel axle , characterized in that the wheel hub assembly has a first state of operation wherein the pump, when actuated, is configured for pumping fluid from the first fluid port to the second fluid port , thereby deflating the pneumatic tire , wherein in the first state of operation, the pump rotor is configured to be kept static relative to the wheel axle , and the pump housing is configured to rotate integrally with a hub of the wheel, such that the pump is actuated by forward wheel movement.
A method, comprising: receiving, by a processor of an apparatus , a first reject message from a network apparatus in a location area; receiving, by the processor , a second reject message from the network apparatus in the location area; storing, by the processor , an identification of the location area in a forbidden location area list; and searching, by the processor , for another location area or tracking area characterized in that the first reject message comprises a first reject cause, the second reject message comprises a second reject cause, and the first reject cause and the second reject cause are different. receiving, by a processor of an apparatus , a first reject message from a network apparatus in a location area; receiving, by the processor , a second reject message from the network apparatus in the location area; storing, by the processor , an identification of the location area in a forbidden location area list; and searching, by the processor , for another location area or tracking area characterized in that the first reject message comprises a first reject cause, the second reject message comprises a second reject cause, and the first reject cause and the second reject cause are different.
A single-part, light-curable, self-adhering dental restorative composition comprising: (A) one or more first polymerizable monomers having at least one phosphorus-containing acidic moiety and at least one ethylenically unsaturated group, wherein the one or more first polymerizable monomers are selected from the group consisting of glyceryldi(meth)acrylate phosphate, dipentaerythritol penta(meth)acrylate phosphate, pentaerythritol tri(meth)acrylate phosphate, and bis{hydroxyethyl(meth)acrylate} phosphate, or mixtures thereof; (B) one or more second polymerizable monomers having a molecular weight of 100-250, at least one hydroxyl group, and at least one ethylenically unsaturated group; (C) one or more third polymerizable monomers having a molecular weight of 270-900, at least two ethylenically unsaturated groups and no acidic functional group; (D) at least one photo-initiator; and (E) one or more fillers each having a mean particle size of more than 0.005 microns and less than 70 microns; wherein the weight ratio of (A + B) : (C) ranges from 30:70 to 90:10; the concentration of component (A) in the restorative composition, excluding fillers, is in the range of 10-50% by weight; the concentration of component (B) in the restorative composition, excluding fillers, is in the range of 15-60% by weight; and the composition has a shear bond strength of at least 10MPa to both dentin and enamel after being light cured. (A) one or more first polymerizable monomers having at least one phosphorus-containing acidic moiety and at least one ethylenically unsaturated group, wherein the one or more first polymerizable monomers are selected from the group consisting of glyceryldi(meth)acrylate phosphate, dipentaerythritol penta(meth)acrylate phosphate, pentaerythritol tri(meth)acrylate phosphate, and bis{hydroxyethyl(meth)acrylate} phosphate, or mixtures thereof; (B) one or more second polymerizable monomers having a molecular weight of 100-250, at least one hydroxyl group, and at least one ethylenically unsaturated group; (C) one or more third polymerizable monomers having a molecular weight of 270-900, at least two ethylenically unsaturated groups and no acidic functional group; (D) at least one photo-initiator; and (E) one or more fillers each having a mean particle size of more than 0.005 microns and less than 70 microns; wherein the weight ratio of (A + B) : (C) ranges from 30:70 to 90:10; the concentration of component (A) in the restorative composition, excluding fillers, is in the range of 10-50% by weight; the concentration of component (B) in the restorative composition, excluding fillers, is in the range of 15-60% by weight; and the composition has a shear bond strength of at least 10MPa to both dentin and enamel after being light cured.
A method comprising: a base station obtaining air interface related measurements (2-1), the air interface related measurements including physical resource block usage measurements; the base station forming from the air interface related measurements at least one merely relay node related measurement result including relay node related physical resource block usage; and the base station providing (2-4) the result to an operation, administration and maintenance system. a base station obtaining air interface related measurements (2-1), the air interface related measurements including physical resource block usage measurements; the base station forming from the air interface related measurements at least one merely relay node related measurement result including relay node related physical resource block usage; and the base station providing (2-4) the result to an operation, administration and maintenance system.
A therapeutically effective amount of a polynucleotide agent which is substantially complementary to a nucleotide sequence of human miR-132, for use in treating a fatty liver disease, wherein said fatty liver disease is selected from the group consisting of hypertriglyceridemia, steatohepatitis and hypercholesterolemia.