mhurhangee/ep-ind-claims huggingface dataset:
An operation state determination system, comprising: a receiver configured to acquire, from a meter, power values respectively consumed through two or more branch circuits branched in a distribution board installed in a facility of a power consumer; a first memory configured to store a history of a transition in a power value per branch circuit, acquired by the receiver, in association with date and time; and a determiner configured to compare, at a prescribed determination time point (tx), the power value stored in the first memory with a reference value to determine whether or not an electric load connected to a branch circuit corresponding to the power value, of the two or more branch circuits, is in operation, and output a signal in accordance with a determination result, the determiner being configured to determine that the electric load is in operation at the prescribed determination time point (tx), when a time period during which the power value is equal to or more than the reference value occurs at least once within a comparison time in past before the prescribed determination time point (tx). a receiver configured to acquire, from a meter, power values respectively consumed through two or more branch circuits branched in a distribution board installed in a facility of a power consumer; a first memory configured to store a history of a transition in a power value per branch circuit, acquired by the receiver, in association with date and time; and a determiner configured to compare, at a prescribed determination time point (tx), the power value stored in the first memory with a reference value to determine whether or not an electric load connected to a branch circuit corresponding to the power value, of the two or more branch circuits, is in operation, and output a signal in accordance with a determination result, the determiner being configured to determine that the electric load is in operation at the prescribed determination time point (tx), when a time period during which the power value is equal to or more than the reference value occurs at least once within a comparison time in past before the prescribed determination time point (tx).
Use of a fibroin layer made of nanofibers having an average fiber diameter of less than 900 nm as an element for entrapping bacteria in a device for treating wounds.
A battery module, comprising: a cell assembly having a plurality of secondary batteries stacked in at least one direction and configured so that electrode leads of the secondary batteries protrude in at least one direction of a forward direction and a rearward direction thereof; an upper housing disposed at an upper portion of the cell assembly; and a sensing block located at at least one of a front side and a rear side of the cell assembly and having a bus bar made of an electrically conductive material and contacting the electrode leads of the secondary batteries, wherein the sensing block is configured to be slidably coupled to the upper housing, wherein the cell assembly is configured so that the electrode leads protrude on both the front side and the rear side of the cell assembly, wherein the sensing block includes a front block located at the front side of the cell assembly and a rear block located at the rear side of the cell assembly, and characterized in that the sensing block is configured to be slidable along a forward and rearward direction of the cell assembly in a state where a top end thereof is coupled to the upper housing, wherein the sensing block further includes a bus bar mounting portion located at at least one of the front side and the rear side of the cell assembly so that the bus bar is mounted thereto, and at least one sliding portion located at an upper portion of the bus bar mounting portion to protrude toward the upper housing, the sliding portion being configured to be slidably coupled to the upper housing. a cell assembly having a plurality of secondary batteries stacked in at least one direction and configured so that electrode leads of the secondary batteries protrude in at least one direction of a forward direction and a rearward direction thereof; an upper housing disposed at an upper portion of the cell assembly; and a sensing block located at at least one of a front side and a rear side of the cell assembly and having a bus bar made of an electrically conductive material and contacting the electrode leads of the secondary batteries, wherein the sensing block is configured to be slidably coupled to the upper housing, wherein the cell assembly is configured so that the electrode leads protrude on both the front side and the rear side of the cell assembly, wherein the sensing block includes a front block located at the front side of the cell assembly and a rear block located at the rear side of the cell assembly, and characterized in that the sensing block is configured to be slidable along a forward and rearward direction of the cell assembly in a state where a top end thereof is coupled to the upper housing, wherein the sensing block further includes a bus bar mounting portion located at at least one of the front side and the rear side of the cell assembly so that the bus bar is mounted thereto, and at least one sliding portion located at an upper portion of the bus bar mounting portion to protrude toward the upper housing, the sliding portion being configured to be slidably coupled to the upper housing.
A fusion polypeptide comprising a human serum albumin and a p53-peptide capable of binding BCL-XL and MCL-1, the fusion polypeptide further comprising one or more anticancer agent, for use in a method of inducing cancer cell death by inhibiting BCL-XL and MCL-1 mediated inhibition of apoptosis, and disrupting p53-MDM2 interactions, wherein the p53-peptide is a p53-derived peptide or a p53-activating peptide.
A composition comprising or produced from at least one ionomer and at least one blend wherein the blend comprises at least one polyamide and at least one ionomer; the blend is a dispersion of the ionomer in a continuous phase of the polyamide and the blend is a dispersed phase dispersed in a continuous phase of the ionomer; the polyamide is an aliphatic polyamide; the ionomer is a copolymer of ethylene, 5 to 15 weight % of an C 3 to C 8 α,β ethylenically unsaturated carboxylic acid, 3 to 25 weight % of at least one comonomer, and 0 to 30 weight % of alkyl (meth)acrylate; all weight% is based on the weight of ionomer; the comonomer is an ethylenically unsaturated dicarboxylic acid or derivative thereof; the alkyl (meth)acrylate is alkyl acrylate, alkyl methacrylate, or combinations thereof; the alkyl group has 1 to 8 carbon atoms; and the carboxylic acid functionalities present in the ionomer are at least partially neutralized by one or more alkali metal cations, transition metal cations, alkaline earth metal cations, or combinations of two or more thereof.
A vented oven door for a domestic cooking oven, wherein: - the oven door comprises at least three glass panels (12, 14, 16), - the inner space of the oven door is subdivided into at least two door channels (18, 20) by the at least three glass panels (12, 14, 16), and - at least one upper opening of at least one outer door channel is connected or connectable to a suction of a cooling channel with air moving means in a closed state of the oven door, so that an outer air stream from the outer door channel runs into the suction of the cooling channel, characterized in that - at least one upper opening of at least one inner door channel is connected or connectable to the ambient on the one hand and an exhaust of the cooling channel on the other hand in the closed state of the oven door, so that an inner air stream from the inner door channel is entrained by the air from the exhaust and runs into the ambient. - the oven door comprises at least three glass panels (12, 14, 16), - the inner space of the oven door is subdivided into at least two door channels (18, 20) by the at least three glass panels (12, 14, 16), and - at least one upper opening of at least one outer door channel is connected or connectable to a suction of a cooling channel with air moving means in a closed state of the oven door, so that an outer air stream from the outer door channel runs into the suction of the cooling channel, characterized in that - at least one upper opening of at least one inner door channel is connected or connectable to the ambient on the one hand and an exhaust of the cooling channel on the other hand in the closed state of the oven door, so that an inner air stream from the inner door channel is entrained by the air from the exhaust and runs into the ambient.
An apparatus, comprising: an oscillator comprising a frequency determining element and circuitry responsive to a digital frequency setting value to cause a change in an output frequency of the oscillator; characterized in that the apparatus further comprising circuitry responsive to a digital phase setting value to cause a specified phase across the frequency determining element; circuitry to determine frequency differences at different instants of time between the output frequency of the oscillator and a reference frequency; control logic; a first control loop controlled by the control logic to, under a temperature condition, apply temperature modulation to the oscillator, determine a temperature sensitivity of the output frequency of the oscillator, and search for and identify a final digital phase setting value that results in a temperature sensitivity that matches a predetermined criterion; and a second control loop controlled by the control logic to, under the temperature condition, determine a final digital frequency setting value that minimizes the frequency differences; wherein the final digital phase setting value and the final digital frequency setting value simultaneously satisfy a frequency accuracy requirement and a requirement of frequency stability over temperature. an oscillator comprising a frequency determining element and circuitry responsive to a digital frequency setting value to cause a change in an output frequency of the oscillator; characterized in that the apparatus further comprising circuitry responsive to a digital phase setting value to cause a specified phase across the frequency determining element; circuitry to determine frequency differences at different instants of time between the output frequency of the oscillator and a reference frequency; control logic; a first control loop controlled by the control logic to, under a temperature condition, apply temperature modulation to the oscillator, determine a temperature sensitivity of the output frequency of the oscillator, and search for and identify a final digital phase setting value that results in a temperature sensitivity that matches a predetermined criterion; and a second control loop controlled by the control logic to, under the temperature condition, determine a final digital frequency setting value that minimizes the frequency differences; wherein the final digital phase setting value and the final digital frequency setting value simultaneously satisfy a frequency accuracy requirement and a requirement of frequency stability over temperature.
A method for loading a hydroxyapatite coated implant with a therapeutic agent, comprising the steps of: providing an implant; applying a hydroxyapatite coating on a surface of the implant; contacting the hydroxyapatite coated implant with a solution including the therapeutic agent; heating the hydroxyapatite coated implant and solution to a temperature of 60°C to 100 °C; and applying pressure to the hydroxyapatite coated implant and solution of 2 bar to 10 bar to load the hydroxyapatite coated implant with the therapeutic agent for improved therapeutic agent delivery at an implant site. providing an implant; applying a hydroxyapatite coating on a surface of the implant; contacting the hydroxyapatite coated implant with a solution including the therapeutic agent; heating the hydroxyapatite coated implant and solution to a temperature of 60°C to 100 °C; and applying pressure to the hydroxyapatite coated implant and solution of 2 bar to 10 bar to load the hydroxyapatite coated implant with the therapeutic agent for improved therapeutic agent delivery at an implant site.
A coupling integrity confirmation device for confirming the integrity of a coupling of a railway convoy comprising at least one first car (6A; 6B) and one second car (6B, 6A), the device comprising a communication medium extending between the first car (6A; 6B) and the second car (6B, 6A), a first on board beacon installed aboard one of the cars (6A; 6B) and connected to the communication medium, a second on board beacon installed aboard the other of the cars (6B; 6A) and connected to communication medium; - said second beacon is capable of generating a signal that is modulated by the predetermined coding data, and of applying the modulated signal to the communication medium; - said communication medium is capable of routing the said signal to the first beacon, the communication medium being further capable of breaking in the event of breaking of a coupling between the two cars (6A, 6B) thereby preventing the propagation of the signal to the first beacon; - said first beacon is capable of receiving a signal routed by the communication medium and of extracting the coding data extracted from the signal received; said device is capable of confirming the integrity of a coupling between the cars (6A, 6B) of the railway convoy if the coding data extracted by the first beacon are identical to the predetermined code data; and said device being characterised in that the second beacon is capable of calculating the image of a predetermined code by means of a first predetermined function so as to form a calculated key, the calculated key forming the coding data, the second beacon in addition being capable of modulating the said signal generated by the second beacon by means of the predetermined code; and in that the first beacon is capable of extracting an extracted code and an extracted key from the signal received via the communication medium, and of applying the first predetermined function to the extracted code in order to form a calculated key; and in that the device is capable of confirming the integrity of a coupling between the cars (6A, 6B) of the railway convoy if the key extracted by the first beacon is identical to the key calculated by the first beacon. - said second beacon is capable of generating a signal that is modulated by the predetermined coding data, and of applying the modulated signal to the communication medium; - said communication medium is capable of routing the said signal to the first beacon, the communication medium being further capable of breaking in the event of breaking of a coupling between the two cars (6A, 6B) thereby preventing the propagation of the signal to the first beacon; - said first beacon is capable of receiving a signal routed by the communication medium and of extracting the coding data extracted from the signal received;
A cable comprising: a first twisted pair; a second twisted pair; a third twisted pair; a fourth twisted pair; a spacer surrounding said first, second, third and fourth twisted pairs (A, B, C, D); and a jacket disposed around said spacer, characterized by said spacer having a dielectric constant per unit volume which is less than a dielectric constant per same unit volume of said jacket, wherein said spacer is formed of plural fibers. a first twisted pair; a second twisted pair; a third twisted pair; a fourth twisted pair; a spacer surrounding said first, second, third and fourth twisted pairs (A, B, C, D); and a jacket disposed around said spacer, characterized by said spacer having a dielectric constant per unit volume which is less than a dielectric constant per same unit volume of said jacket, wherein said spacer is formed of plural fibers.
A fault detection method, applied in a stack system, wherein the stack system comprises a first communications device and a second communications device, wherein the first communications device comprises a first service board and a second service board, the first service board comprises a first processor and a first component, and the second service board comprises a second processor and a second component, wherein the first processor and the second processor are used for service processing, the first communications device and the second communications device are interconnected by using M ports, the first component comprises a processor and/or a programmable logic device, and the second component comprises a processor and/or a programmable logic device; and the fault detection method comprises: receiving, by the second component, a first signal from the first component, updating the current total number of abnormal ports of the second communications device based on the number, which is indicated by the first signal, of abnormal ports of the second communications device, and informing, if the updated current total number of abnormal ports of the second communications device satisfies a failure confirmation condition corresponding to the second communications device, the second processor that the second communications device partially or entirely fails, wherein the first signal is sent by the first component after the first component receives a port abnormality interrupt signal initiated by N1 ports of the first service board, the first signal indicates that N1 ports of the second communications device are abnormal, and the N1 ports are a part or all of ports in the M ports. receiving, by the second component, a first signal from the first component, updating the current total number of abnormal ports of the second communications device based on the number, which is indicated by the first signal, of abnormal ports of the second communications device, and informing, if the updated current total number of abnormal ports of the second communications device satisfies a failure confirmation condition corresponding to the second communications device, the second processor that the second communications device partially or entirely fails, wherein the first signal is sent by the first component after the first component receives a port abnormality interrupt signal initiated by N1 ports of the first service board, the first signal indicates that N1 ports of the second communications device are abnormal, and the N1 ports are a part or all of ports in the M ports.
An electronics with a DCC adaptive filter for attenuating noise in a feedback path of a flow controller, wherein the electronics is comprised of: a signal processor configured to: receive a flow signal indicative of a flow rate of a pulsating fluid flow from a flow sensor; receive a constant reference signal; and generate a flow rate signal using the constant reference signal and the flow signal; a controller communicatively coupled to the signal processor, the controller being configured to generate a flow rate control signal using the flow rate signal; and a signal generator communicatively coupled to the controller, the signal generator being configured to: receive the flow rate control signal; generate a valve signal configured to control the flow rate of the pulsating flow based on the flow rate control signal; and provide the valve signal to a valve; wherein the signal processor comprises the DCC adaptive filter which comprises a first summation for receiving the flow signal and for generating a feedback error, the DCC adaptive filter configured to determine coefficients using the feedback error and to generate an estimate of a DC component of the flow signal using the coefficients. a signal processor configured to: receive a flow signal indicative of a flow rate of a pulsating fluid flow from a flow sensor; receive a constant reference signal; and generate a flow rate signal using the constant reference signal and the flow signal; receive a flow signal indicative of a flow rate of a pulsating fluid flow from a flow sensor; receive a constant reference signal; and generate a flow rate signal using the constant reference signal and the flow signal; a controller communicatively coupled to the signal processor, the controller being configured to generate a flow rate control signal using the flow rate signal; and a signal generator communicatively coupled to the controller, the signal generator being configured to: receive the flow rate control signal; generate a valve signal configured to control the flow rate of the pulsating flow based on the flow rate control signal; and provide the valve signal to a valve; receive the flow rate control signal; generate a valve signal configured to control the flow rate of the pulsating flow based on the flow rate control signal; and provide the valve signal to a valve; wherein the signal processor comprises the DCC adaptive filter which comprises a first summation for receiving the flow signal and for generating a feedback error, the DCC adaptive filter configured to determine coefficients using the feedback error and to generate an estimate of a DC component of the flow signal using the coefficients.
A zeolitic framework, comprising the general structure: M-L-M, wherein L is a linking moiety and M-L-M has structure I: wherein R 1 is H, wherein R 2 and R 3 are each individually hydrogen, an alkyl, an aryl, halo-, cyano-, or nitro-, wherein M 1 and M 2 are each zinc, the framework having zeolithic topology selected from the group consisting of DFT, GIS and MER. M-L-M, wherein L is a linking moiety and M-L-M has structure I: wherein R 1 is H, wherein R 2 and R 3 are each individually hydrogen, an alkyl, an aryl, halo-, cyano-, or nitro-, wherein M 1 and M 2 are each zinc, the framework having zeolithic topology selected from the group consisting of DFT, GIS and MER.
An auxetic structure comprising: a first sheet defining therein a first plurality of structural elements and a second plurality of structural elements, the first plurality of structural elements projecting from the first sheet in the form of convex dimples, the first sheet further defining therein a second plurality of structural elements projecting from the first sheet in the form of concave dimples, the first plurality of structural elements being disposed in an alternating relationship relative to the second plurality of structural elements, the first plurality of structural elements and the second plurality of structural elements being arranged to provide a negative Poisson's ratio, the first plurality of structural elements and the second plurality of structural elements being non-porous with a zero-porosity that prevents fluids from passing through the plurality of structural elements; and a second sheet disposed adjacent the first sheet to define a first internal cavity between the first sheet and the second sheet. a first sheet defining therein a first plurality of structural elements and a second plurality of structural elements, the first plurality of structural elements projecting from the first sheet in the form of convex dimples, the first sheet further defining therein a second plurality of structural elements projecting from the first sheet in the form of concave dimples, the first plurality of structural elements being disposed in an alternating relationship relative to the second plurality of structural elements, the first plurality of structural elements and the second plurality of structural elements being arranged to provide a negative Poisson's ratio, the first plurality of structural elements and the second plurality of structural elements being non-porous with a zero-porosity that prevents fluids from passing through the plurality of structural elements; and a second sheet disposed adjacent the first sheet to define a first internal cavity between the first sheet and the second sheet.