mhurhangee/patent-ind-claim-en huggingface dataset:
Cell connector unit for contacting a predeterminable plurality of electrical storage cells , whereby the cell connector unit having an insulating material base body , whereby the cell connector unit having a predeterminable plurality of electrical power connectors for the predeterminable connection of poles of individual storage cells , which power connectors are held in the insulating material base body , whereby at least one, in particular all, of the power connectors being mounted in the insulating material base body so as to be displaceable along a line of displacement , whereby the power connector - for displacement along the straight line of displacement - being held in at least one linear guide , characterized in that the linear guide comprises at least one insulating material extension , which encompasses at least part of the power connector .
A touch display device , comprising: a display cathode electrode (DCE) configured to receive a display cathode voltage a first touch cathode electrode (TCE1a) disposed in a same layer as the display cathode electrode (DCE) and adjacent to the display cathode electrode (DCE); a first touch line (TL1) electrically connected with a touch driving circuit ; a first touch bridge (TB1a) electrically connected with the first touch line (TL1); a second touch cathode electrode (TCE2a) disposed in a same layer as the display cathode electrode (DCE) and adjacent to the display cathode electrode (DCE); a second touch line (TL2) electrically connected with the touch driving circuit ; and a second touch bridge (TB2a) electrically connected with the second touch line (TL2), wherein the first touch cathode electrode (TCE1a) is electrically separated from the display cathode electrode (DCE), wherein the first touch bridge (TB1a) is electrically connected with the first touch cathode electrode (TCE1a), wherein the first touch line (TL1) and the first touch cathode electrode (TCE1a) are electrically connected with each other through the first touch bridge (TB1a), wherein the second touch cathode electrode (TCE2a) is electrically shorted with the display cathode electrode (DCE), wherein the second touch bridge (TB2a) is electrically separated from the second touch cathode electrode (TCE2a), and wherein the second touch line (TL2) and the second touch cathode electrode (TCE2a) are electrically separated from each other. a display cathode electrode (DCE) configured to receive a display cathode voltage a first touch cathode electrode (TCE1a) disposed in a same layer as the display cathode electrode (DCE) and adjacent to the display cathode electrode (DCE); a first touch line (TL1) electrically connected with a touch driving circuit ; a first touch bridge (TB1a) electrically connected with the first touch line (TL1); a second touch cathode electrode (TCE2a) disposed in a same layer as the display cathode electrode (DCE) and adjacent to the display cathode electrode (DCE); a second touch line (TL2) electrically connected with the touch driving circuit ; and a second touch bridge (TB2a) electrically connected with the second touch line (TL2), wherein the first touch cathode electrode (TCE1a) is electrically separated from the display cathode electrode (DCE), wherein the first touch bridge (TB1a) is electrically connected with the first touch cathode electrode (TCE1a), wherein the first touch line (TL1) and the first touch cathode electrode (TCE1a) are electrically connected with each other through the first touch bridge (TB1a), wherein the second touch cathode electrode (TCE2a) is electrically shorted with the display cathode electrode (DCE), wherein the second touch bridge (TB2a) is electrically separated from the second touch cathode electrode (TCE2a), and wherein the second touch line (TL2) and the second touch cathode electrode (TCE2a) are electrically separated from each other.
A system for determining, for an input instance to a classification model, a mask indicating perturbations that disturb a classification of the input instance by the classification model, said disturbing changing the classification or making the classification less certain, the system comprising: - an input interface for accessing a classification model and a generative model , wherein the classification model is configured for determining classifications of input instances, the input instances having a type, and wherein the generative model is configured for generating synthetic instances of the type from latent space representations, - a processor subsystem configured to: - obtain an input instance for the classification model, a classification of the input instance according to the classification model, and a latent space representation for the input instance, wherein the latent space representation, when used as input to the generative model, causes the generative model to generate a synthetic instance that approximates the input instance; - determine a mask indicating perturbations that disturb the classification of the input instance by the classification model, wherein the mask indicates perturbations to the latent space representation for the input instance, and wherein the mask is selected to minimize a loss comprising a classification score of the classification model for a perturbed input instance, the perturbed instance being determined using the mask by: - masking the latent space representation with the mask; and - generating the perturbed input instance from the masked latent space representation using the generative model. - an input interface for accessing a classification model and a generative model , wherein the classification model is configured for determining classifications of input instances, the input instances having a type, and wherein the generative model is configured for generating synthetic instances of the type from latent space representations, - a processor subsystem configured to: - obtain an input instance for the classification model, a classification of the input instance according to the classification model, and a latent space representation for the input instance, wherein the latent space representation, when used as input to the generative model, causes the generative model to generate a synthetic instance that approximates the input instance; - determine a mask indicating perturbations that disturb the classification of the input instance by the classification model, wherein the mask indicates perturbations to the latent space representation for the input instance, and wherein the mask is selected to minimize a loss comprising a classification score of the classification model for a perturbed input instance, the perturbed instance being determined using the mask by: - masking the latent space representation with the mask; and - generating the perturbed input instance from the masked latent space representation using the generative model.
A brushless motor control system for pan-tilt-zoom surveillance cameras, the system comprising: a brushless motor with a series of stationary wire-wound stators; a pulse-with modulation (PWM) driver a programmable controller connected to the PWM driver, the programmable controller generating control signals for the PWM driver: a) in a low-speed mode by sinusoidal synchronous commutation, wherein a sinusoidal waveform oscillator generates sine waves in the low-speed mode; b) in a high-speed mode by block commutation provided by the PWM driver providing PWM output; c) in a transition phase from the low-speed mode to the high-speed mode by modulating integrated pulse-width modulation (PWM) square waves with sine waves by having a center locked phase alignment between each wavelength and by using a fixed frequency between wavelengths, whereby each sine wave adds to or subtracts from a standard PWM output and creates a modulated PWM waveform. a brushless motor with a series of stationary wire-wound stators; a pulse-with modulation (PWM) driver a programmable controller connected to the PWM driver, the programmable controller generating control signals for the PWM driver: a) in a low-speed mode by sinusoidal synchronous commutation, wherein a sinusoidal waveform oscillator generates sine waves in the low-speed mode; b) in a high-speed mode by block commutation provided by the PWM driver providing PWM output; c) in a transition phase from the low-speed mode to the high-speed mode by modulating integrated pulse-width modulation (PWM) square waves with sine waves by having a center locked phase alignment between each wavelength and by using a fixed frequency between wavelengths, whereby each sine wave adds to or subtracts from a standard PWM output and creates a modulated PWM waveform. a) in a low-speed mode by sinusoidal synchronous commutation, wherein a sinusoidal waveform oscillator generates sine waves in the low-speed mode; b) in a high-speed mode by block commutation provided by the PWM driver providing PWM output; c) in a transition phase from the low-speed mode to the high-speed mode by modulating integrated pulse-width modulation (PWM) square waves with sine waves by having a center locked phase alignment between each wavelength and by using a fixed frequency between wavelengths, whereby each sine wave adds to or subtracts from a standard PWM output and creates a modulated PWM waveform.
Ribbon cable comprising a plurality of conductors which are arranged side by side and extend in parallel with one another, a protective cap which covers the conductor ends , being fitted onto the cable end, characterised in that the ends of two adjacent conductors are each cut to different lengths such that the conductor end , of one conductor projects beyond or is set back from the end , of its adjacent conductor .
A plant for manufacturing and printing cup-shaped bodies, comprising an apparatus for manufacturing cup-shaped bodies comprising at least a portion made of plastics, a device for positioning said cup-shaped bodies manufactured by said apparatus on a transfer device that can move along a longitudinal transfer direction , said cup-shaped bodies resting with their lower edge on a resting surface that is defined by said transfer device and with their concavities directed toward said resting surface , said plant comprising, along the extension of said longitudinal transfer direction , a device for the digital printing of said cup-shaped bodies , control means being provided for controlling the position of the top edge of said cup-shaped bodies , on said resting surface , said control means being connected functionally to said digital printing device characterized in that the cup-shaped bodies are stoppers , and in that said control means comprises at least one sensor adapted to detect the position of the top edge of the stoppers that rest on said resting surface to control said printing device , the stoppers having at least a temperature that is higher than the ambient temperature, preferably above 40°C, wherein said control means further comprises at least one longitudinal abutment , which is extended substantially parallel to said longitudinal transfer direction , intended to arrange said stoppers rested on said resting surface in a transverse position that corresponds to the transverse position of action of said digital printing device , wherein the transfer device comprises a conveyor belt, and wherein said conveyor belt is associated with a device for controlling its movement and its speed along said longitudinal transfer direction in order to ensure perfect registration in the application of colors by said digital printing device and wherein upstream of said digital printing station , the plant comprises a station for the surface treatment of the stoppers that is intended to perform a treatment of the corona type or of the plasma type.
A call management method, comprising: detecting a call type of a call, the call type comprising at least one of a conference call and a single line call, the number of participants in the conference call being at least three, and the number of participants in the single line call being two, wherein: the detecting a call type comprises: detecting a number of current participants in the call; and determining a current call type of the call according to the number of participants; and starting a call management interface corresponding to a current call type, when the call type of the call is changed, characterized in that , the starting a call management interface corresponding to a current call type, when the call type of the call is changed comprises: maintaining a connection state of the conference call in a Modem layer and starting a call management interface corresponding to the single line call, when the call type of the call is changed from the conference call to the single line call. detecting a call type of a call, the call type comprising at least one of a conference call and a single line call, the number of participants in the conference call being at least three, and the number of participants in the single line call being two, wherein: the detecting a call type comprises: detecting a number of current participants in the call; and determining a current call type of the call according to the number of participants; and the detecting a call type comprises: detecting a number of current participants in the call; and determining a current call type of the call according to the number of participants; and starting a call management interface corresponding to a current call type, when the call type of the call is changed, characterized in that , the starting a call management interface corresponding to a current call type, when the call type of the call is changed comprises: maintaining a connection state of the conference call in a Modem layer and starting a call management interface corresponding to the single line call, when the call type of the call is changed from the conference call to the single line call.
A method for post installation adjustment of a climate system including a circulation pump providing a pumping pressure, a plurality of radiators (1; 12), a system of pipes connecting the pump with the radiators, and a plurality of fixed valve coefficient (Cv) flow regulators , the method comprising the steps: a) providing (step S10) a software implemented model of the climate system, said model defining a relationship between a set of Cv-values for said flow regulators and a set of radiator flows for a given pumping pressure, b) determining (step S11) a desired change of at least one radiator flow, c) determining (step S12) a change of at least one Cv-value required to achieve the desired flow change, d) using said software implemented model to automatically calculate (step S13) a set of radiator flow changes resulting from said change of at least one Cv-value, e) identifying (step S14) a subset of radiator flow changes from said set of radiator flow changes which have a perceivable impact on climate system performance, f) repeating steps b) - e) until said subset is empty, and g) implementing determined changes of Cv-values by installing suitable flow regulators in the climate system. a) providing (step S10) a software implemented model of the climate system, said model defining a relationship between a set of Cv-values for said flow regulators and a set of radiator flows for a given pumping pressure, b) determining (step S11) a desired change of at least one radiator flow, c) determining (step S12) a change of at least one Cv-value required to achieve the desired flow change, d) using said software implemented model to automatically calculate (step S13) a set of radiator flow changes resulting from said change of at least one Cv-value, e) identifying (step S14) a subset of radiator flow changes from said set of radiator flow changes which have a perceivable impact on climate system performance, f) repeating steps b) - e) until said subset is empty, and g) implementing determined changes of Cv-values by installing suitable flow regulators in the climate system.
A blue-green algal proteoglycan extract or a composition comprising the blue-green algal proteoglycan extract for use in treating or preventing pancreatic cancer, wherein the blue-green algal proteoglycan extract is obtained by the following steps: (a) dissolving blue-green algae powder in 5-20 fold volume of water, and breaking cell wall; (b) heating the resulting mixture in step (a) at a temperature of 60-100°C, and performing solid-liquid separation after cooling; (c) adjusting the pH of the resulting liquid in step (b) to less than 7, and performing solid-liquid separation again; and (d) adjusting the resulting liquid in step (c) to a neutral pH, concentrating, and drying if necessary. (a) dissolving blue-green algae powder in 5-20 fold volume of water, and breaking cell wall; (b) heating the resulting mixture in step (a) at a temperature of 60-100°C, and performing solid-liquid separation after cooling; (c) adjusting the pH of the resulting liquid in step (b) to less than 7, and performing solid-liquid separation again; and (d) adjusting the resulting liquid in step (c) to a neutral pH, concentrating, and drying if necessary.
A method of forming a semiconductor device comprising: providing a substrate having a top side having a mounting location for at least one semiconductor element wherein providing the substrate further comprises providing a bottom side having a plurality of locations electrically connected to locations on the top side; forming a plurality of electrically conductive interconnects at the plurality of locations on the bottom side; partially encapsulating, with an encapsulant, the plurality of electrically conductive interconnects without completely encapsulating the interconnects; and removing a portion of the encapsulant adjacent to each of the interconnects to expose previously encapsulated portions of the interconnects while leaving portions of the interconnects adjacent to the bottom side encapsulated by the encapsulant. providing a substrate having a top side having a mounting location for at least one semiconductor element wherein providing the substrate further comprises providing a bottom side having a plurality of locations electrically connected to locations on the top side; forming a plurality of electrically conductive interconnects at the plurality of locations on the bottom side; partially encapsulating, with an encapsulant, the plurality of electrically conductive interconnects without completely encapsulating the interconnects; and removing a portion of the encapsulant adjacent to each of the interconnects to expose previously encapsulated portions of the interconnects while leaving portions of the interconnects adjacent to the bottom side encapsulated by the encapsulant.
A battery comprising: a cathode comprising an electrochemically active cathode material, the electrochemically active cathode material comprising a beta-delithiated layered nickel oxide; an anode comprising an electrochemically active anode material, the electrochemically active anode material selected from the group consisting of zinc, zinc oxide, zinc hydroxide, cadmium, iron, metal hydride, alloys thereof, and mixtures thereof; a separator between said cathode and said anode ; and an electrolyte; wherein the beta-delithiated layered nickel oxide has an X-ray diffraction pattern , when irradiated by a Cu K-alpha X-ray, comprising a first peak from 14.9°2θ to 16.0°2θ; a second peak from 21.3°2θ to 22.7°2θ; a third peak from 37.1°2θ to 37.4°2θ; a fourth peak from 43.2°2θ to 44.0°2θ; a fifth peak from 59.6°2θ to 60.6°2θ; and a sixth peak from 65.4°2θ to 65.9°2θ. a cathode comprising an electrochemically active cathode material, the electrochemically active cathode material comprising a beta-delithiated layered nickel oxide; an anode comprising an electrochemically active anode material, the electrochemically active anode material selected from the group consisting of zinc, zinc oxide, zinc hydroxide, cadmium, iron, metal hydride, alloys thereof, and mixtures thereof; a separator between said cathode and said anode ; and an electrolyte; wherein the beta-delithiated layered nickel oxide has an X-ray diffraction pattern , when irradiated by a Cu K-alpha X-ray, comprising a first peak from 14.9°2θ to 16.0°2θ; a second peak from 21.3°2θ to 22.7°2θ; a third peak from 37.1°2θ to 37.4°2θ; a fourth peak from 43.2°2θ to 44.0°2θ; a fifth peak from 59.6°2θ to 60.6°2θ; and a sixth peak from 65.4°2θ to 65.9°2θ.
An apparatus comprising: at least one analog section having a current transformer with a transformer core configured to mount around an alternating current (AC) power line making the AC power line a primary winding of the current transformer , the at least one analog section for harvesting energy from a secondary winding wound around the transformer core, and storing harvested energy for use by components of the apparatus and for periodically switching to allow sampling of a current flowing through the current transformer by a sense resistor , wherein a ratio between a first period of time in which the apparatus harvests energy and a total cycle time comprising the first period of time plus a second period of time in which the apparatus senses current samples plus time periods in which neither harvesting nor sensing occurs, is a duty cycle of the apparatus; a microcontroller coupled to the at least one analog section to receive harvested energy, to determine at least a value respective of at least an analog signal responsive to the alternating current in the AC power line by the sense resistor , and a time synchronization signal, the time synchronization signal configured to account for an internal drift of a clock of the microcontroller to be smaller than an allowed error in a current to voltage phase measurement; a temperature sensor communicatively connected to the microcontroller to measure the temperature at the proximity of the apparatus to provide at least a temperature value; the microcontroller also repeatedly responsive of at least a current sample and the temperature value to determine which one of a plurality of duty cycles is to be the duty cycle of operation of the apparatus to prevent overheating of the apparatus during periods of high current in the AC power line or of high ambient temperature; a memory coupled to the microcontroller ; and a transmitter configured to periodically transmit, under the control of the microcontroller , information responsive to power consumption of a load connected to the AC power line that includes at least one of: the value, or the time synchronization signal; such that a receiver of the value may use the at least the value for determination of at least an electrical parameter and correction thereof respective of the time synchronization signal.