mhurhangee/ep-ind-claims huggingface dataset:
Method for preparing microbeads having a size of at least about 10μm comprising the following steps: a) preparing an alkaline aqueous solution comprising an amount of at least one polysaccharide and an amount of a cross linking agent; b) dispersing said alkaline aqueous solution into a hydrophobic phase in order to obtain w/o emulsion; and c) transforming the w/o emulsion into beads by placing said w/o emulsion at a temperature from 4°C to 80°C for a sufficient time to allow the cross- linking of said amount of polysaccharide; wherein, said polysaccharide is selected from the group consisting of dextran, pullulan, agar, alginic acid, starch hyaluronic acid, inulin, heparin, fucoidan, chitosan and mixtures thereof; and step b) is performed in the absence of any surfactant. a) preparing an alkaline aqueous solution comprising an amount of at least one polysaccharide and an amount of a cross linking agent; b) dispersing said alkaline aqueous solution into a hydrophobic phase in order to obtain w/o emulsion; and c) transforming the w/o emulsion into beads by placing said w/o emulsion at a temperature from 4°C to 80°C for a sufficient time to allow the cross- linking of said amount of polysaccharide;
Mixing device suitable to mix substances or liquid or semi-liquid mixtures to increase the volume thereof, comprising a hub which develops along a central axis and two mixing spokes connected to the hub, wherein each of said spokes comprises an external lateral fin and two upper and lower connection segments, which connect respective upper and lower ends of said lateral fin to said hub, and wherein said lateral fins and said upper and lower connection segments have respective longitudinal axes of development inclined with respect to each other and/or with respect to said central axis, characterized in that said spokes are disposed angled with respect to each other by an angle (α) of 180° with respect to said central axis and develop with respect to said central axis in a truncated cone-shaped volume, and in that said fins have respective external edges lying on a common truncated cone-shaped surface, having a flared shape between said lower connection segment and said upper connection segment, and the lateral fin of at least one spoke lies on a vertical lying plane (λ) inclined with respect to said central axis by an angle of vertical inclination (β) comprised between 2° and 10°.
A low slope electrode device, comprising: at least one electrode; at least one container (120; 220) comprising an internal buffer solution, at least partially enclosing the at least one electrode and having two separate pH sensitive regions separated by a separating element; an external buffer container comprising an external buffer solution (106; 206) and a charge transfer component or charge junction, the external buffer at least partially enclosing the at least one container (120; 220); wherein the first pH sensitive area separates the internal buffer solution bathing the at least one electrode and an external sample solution (115; 215), and the second pH sensitive area separates the internal buffer solution bathing the at least one electrode and the external buffer solution; wherein the charge transfer component or charge junction, the first pH sensitive area, and the second pH sensitive area are arranged to establish a charge flow circuit formed in sequence by the internal buffer solution, the first pH sensitive area, the external sample solution (115; 215), the separating element, the external buffer solution (106; 206) and the second pH sensitive area, wherein the charge flow circuit acts as a voltage divider. at least one electrode; at least one container (120; 220) comprising an internal buffer solution, at least partially enclosing the at least one electrode and having two separate pH sensitive regions separated by a separating element; an external buffer container comprising an external buffer solution (106; 206) and a charge transfer component or charge junction, the external buffer at least partially enclosing the at least one container (120; 220); wherein the first pH sensitive area separates the internal buffer solution bathing the at least one electrode and an external sample solution (115; 215), and the second pH sensitive area separates the internal buffer solution bathing the at least one electrode and the external buffer solution; wherein the charge transfer component or charge junction, the first pH sensitive area, and the second pH sensitive area are arranged to establish a charge flow circuit formed in sequence by the internal buffer solution, the first pH sensitive area, the external sample solution (115; 215), the separating element, the external buffer solution (106; 206) and the second pH sensitive area, wherein the charge flow circuit acts as a voltage divider.
A compound selected from the group consisting of: I-1 I-2 I-3 I-5 I-6 I-7 I-8 I-9 I-10 I-11 I-12 I-13 I-14 I-15 I-16 I-17 I-22 I-26 I-27 I-30 I-31 I-32 I-33 I-34 I-35 I-36 I-37 I-38 I-39 I-44 I-45 I-46 I-48 I-52 I-53 I-54 I-55 I-56 I-57 I-58 I-61 I-62 and I-63 or a pharmaceutically acceptable salt thereof, for use in treating or lessening the severity of a disease or disorder, which disease or disorder is: a tauopathy selected from Alzheimer's disease, neurodegeneration in adult cases of Down's syndrome, dementia pugilistica, Pick disease, Guam parkinsonism dementia complex, fronto-temporal dementia, cortico-basal degeneration, pallido-pontal-nigral degeneration and progressive supranuclear palsy; a synucleinopathy selected from Parkinson's disease, dementia with Lewy bodies and multiple system atrophy; diabetes; metabolic syndrome; or a metabolic syndrome disorder selected from hyperglycemia, reduced insulin production, reduced insulin secretion and insulin resistance. a tauopathy selected from Alzheimer's disease, neurodegeneration in adult cases of Down's syndrome, dementia pugilistica, Pick disease, Guam parkinsonism dementia complex, fronto-temporal dementia, cortico-basal degeneration, pallido-pontal-nigral degeneration and progressive supranuclear palsy; a synucleinopathy selected from Parkinson's disease, dementia with Lewy bodies and multiple system atrophy; diabetes; metabolic syndrome; or a metabolic syndrome disorder selected from hyperglycemia, reduced insulin production, reduced insulin secretion and insulin resistance.
An element, in particular a closure or fastening element for inserting into a bore in a component, such as into a bore in an engine, a valve block, a hydraulic unit or a container, whereby at least one electric element which is arranged in or on the element is provided, whereby the respective electric element is transmitting and/or receiving electric signals, whereby a sleeve-shaped base body that can be inserted into the bore, the outer circumference of which in the fitted state lies tight against the inner surface of the bore, a splaying body that can brace this base body in the bore and at least one electric element disposed in or on the base body or splaying body is provided, characterised in that the base and splaying body are made in one piece, whereby the base body being connected to the splaying body by a bent crossover region, whereby the splaying body has an inwardly angled connection region to the base body with a lower and an upper arm (36', 36") which are formed such that in the pressed in state of the splaying body in the base body the two arms (36', 36") lie on top of one another bent around 180° and serve as the lower stop of the electric element.
A method of determining the performance of a digital subscriber line, the method comprising: i) generating a model for each of a plurality of data transmission parameters based on measurements taken from a plurality of digital subscriber lines, wherein each model models the relationship between a data transmission parameter as a function of the upstream line attenuation; ii) measuring the data transmission parameters and an upstream line attenuation associated with a test digital subscriber line; and for each of the measured data transmission parameters a) determining an expected value for the measured data transmission parameter corresponding to the measured upstream attenuation using the model associated with said measured data transmission parameter; and b) calculating a parameter performance indicator based on the difference between the expected value and the measured value for the measured data transmission parameter; and then iii) calculating a line performance indicator for the test digital subscriber line based on the sum of the parameter performance indicators for each of the measured data transmission parameters. i) generating a model for each of a plurality of data transmission parameters based on measurements taken from a plurality of digital subscriber lines, wherein each model models the relationship between a data transmission parameter as a function of the upstream line attenuation; ii) measuring the data transmission parameters and an upstream line attenuation associated with a test digital subscriber line; and for each of the measured data transmission parameters a) determining an expected value for the measured data transmission parameter corresponding to the measured upstream attenuation using the model associated with said measured data transmission parameter; and b) calculating a parameter performance indicator based on the difference between the expected value and the measured value for the measured data transmission parameter; and then a) determining an expected value for the measured data transmission parameter corresponding to the measured upstream attenuation using the model associated with said measured data transmission parameter; and b) calculating a parameter performance indicator based on the difference between the expected value and the measured value for the measured data transmission parameter; and then iii) calculating a line performance indicator for the test digital subscriber line based on the sum of the parameter performance indicators for each of the measured data transmission parameters.
An insulator (900, 920, 940) for a coaxial connector, the insulator (900, 920, 940) comprising: dielectric material; characterized by said dielectric material being one unitary piece; and a plurality of sections laser-cut in the dielectric material to increase the flexibility of the insulator (900, 920, 940) such that the insulator (900, 920, 940) is able to move laterally, transversely, and rotationally to accommodate at least one of gimballing and misalignment of a transmission medium connected to the coaxial connector, while maintaining dielectric properties to insulate and separate components of the coaxial connector. dielectric material; characterized by said dielectric material being one unitary piece; and a plurality of sections laser-cut in the dielectric material to increase the flexibility of the insulator (900, 920, 940) such that the insulator (900, 920, 940) is able to move laterally, transversely, and rotationally to accommodate at least one of gimballing and misalignment of a transmission medium connected to the coaxial connector, while maintaining dielectric properties to insulate and separate components of the coaxial connector.
A method of managing authenticator information in a computerized system, the method comprising: receiving an access request to a host, the access request comprising an authenticator for enabling access to the host, characterized by causing, in response to the received access request, searching in an authenticator management host for authenticator information corresponding to the authenticator based on the received access request and searching in a directory internal to the host for authenticator information corresponding to the authenticator based on the received access request, and causing modification of authenticator information corresponding to the authenticator in at least one of the authenticator management host and the directory internal to the host based on the searching in the authenticator management host and the directory internal to the host. receiving an access request to a host, the access request comprising an authenticator for enabling access to the host, characterized by causing, in response to the received access request, searching in an authenticator management host for authenticator information corresponding to the authenticator based on the received access request and searching in a directory internal to the host for authenticator information corresponding to the authenticator based on the received access request, and causing modification of authenticator information corresponding to the authenticator in at least one of the authenticator management host and the directory internal to the host based on the searching in the authenticator management host and the directory internal to the host.
A computing device for customization of an audio system of a vehicle, the audio system including an amplifier and being coupled to the computing device, the amplifier including a communication interface, the computing device comprising: a display configured to present a user interface; a processor; and a storage device storing instructions executable by the processor; wherein the processor is configured to execute the instructions to: generate the user interface for presentation via the display; receive user input to the user interface requesting one or more adjustments to the audio system, the one or more requested adjustments including instructions to tune the amplifier of the vehicle by adjusting digital signal processing settings of the amplifier; responsive to identifying an indication that one or more of the requested adjustments exceed a threshold for the amplifier, present a prompt for different adjustments; and transmit the one or more requested adjustments or the different adjustments to the communication interface of the amplifier of the vehicle, the adjusted DSP settings being stored in the amplifier and retrievable by the computing device. a display configured to present a user interface; a processor; and a storage device storing instructions executable by the processor; wherein the processor is configured to execute the instructions to: generate the user interface for presentation via the display; receive user input to the user interface requesting one or more adjustments to the audio system, the one or more requested adjustments including instructions to tune the amplifier of the vehicle by adjusting digital signal processing settings of the amplifier; responsive to identifying an indication that one or more of the requested adjustments exceed a threshold for the amplifier, present a prompt for different adjustments; and transmit the one or more requested adjustments or the different adjustments to the communication interface of the amplifier of the vehicle, the adjusted DSP settings being stored in the amplifier and retrievable by the computing device. generate the user interface for presentation via the display; receive user input to the user interface requesting one or more adjustments to the audio system, the one or more requested adjustments including instructions to tune the amplifier of the vehicle by adjusting digital signal processing settings of the amplifier; responsive to identifying an indication that one or more of the requested adjustments exceed a threshold for the amplifier, present a prompt for different adjustments; and transmit the one or more requested adjustments or the different adjustments to the communication interface of the amplifier of the vehicle, the adjusted DSP settings being stored in the amplifier and retrievable by the computing device.
A system interconnection inverter comprising: an inverter configured to perform pulse width modulation on an output from a DC power source; a first capacitor pair provided at an input side of the inverter and including two capacitors (41a, 41b) serially connected to form a neutral point (c); a second capacitor pair provided at an output side of the inverter and including two capacitors (42a, 42b) serially connected to form a neutral point (f); a bypass path (g) for a leakage current formed by connecting the neutral point (c) of the first capacitor pair and the neutral point (f) of the second capacitor pair to each other; at least one common mode choke coil provided between the first capacitor pair and the second capacitor pair on either the input side or the output side of the inverter and configured to suppress a common mode current generated in the inverter; and an output filter configured to convert a voltage, which is output from the inverter and subjected to the pulse width modulation, into a voltage in a sine wave form, wherein the bypass path (g) has an impedance smaller than a leakage current path through which the leakage current flows into a floating capacitance (6a, 6b) of the DC power source through a ground from a system transformer connected through the second capacitor pair at the switching frequency of the inverter, and the at least one common mode choke coil has a higher impedance than the leakage current path and the bypass path (g). an inverter configured to perform pulse width modulation on an output from a DC power source; a first capacitor pair provided at an input side of the inverter and including two capacitors (41a, 41b) serially connected to form a neutral point (c); a second capacitor pair provided at an output side of the inverter and including two capacitors (42a, 42b) serially connected to form a neutral point (f); a bypass path (g) for a leakage current formed by connecting the neutral point (c) of the first capacitor pair and the neutral point (f) of the second capacitor pair to each other; at least one common mode choke coil provided between the first capacitor pair and the second capacitor pair on either the input side or the output side of the inverter and configured to suppress a common mode current generated in the inverter; and an output filter configured to convert a voltage, which is output from the inverter and subjected to the pulse width modulation, into a voltage in a sine wave form, wherein the bypass path (g) has an impedance smaller than a leakage current path through which the leakage current flows into a floating capacitance (6a, 6b) of the DC power source through a ground from a system transformer connected through the second capacitor pair at the switching frequency of the inverter, and the at least one common mode choke coil has a higher impedance than the leakage current path and the bypass path (g).
Method for eliminating electrical malfunctions, in particular flicker, in a network by means of a control device, wherein a converter connected to the network supplies an electric motor, wherein the control device comprises - at least one first input for supplying an input signal, - at least one further input for supplying a further input signal which contains mechanical information derived from the electric motor, in particular regarding the rotary speed and/or the rotor angle, and - at least one output for outputting an output signal to the converter supplying the electric motor wherein the control system of the control device generates at least one output signal from the input signal and makes said signal available to the converter supplying the electric motor, wherein the input signal is formed from a power signal, wherein the power signal is generated from information at the electric motor through means for power determination and wherein by means of a highpass filter, the low frequency components are removed, wherein the further input signal represents a rotary speed signal from which, with the aid of an integrator, the mechanical rotor angle is formed and is fed to the means for frequency analysis, wherein in order to form additional torque portions, auxiliary signals for frequency analysis are respectively multiplied by the input signal and are subsequently integrated, in order to be then multiplied again by the respective same auxiliary signals as before, wherein the auxiliary signals are formed from sine and cosine values of the mechanical rotor angle and its multiples, wherein the total of the additional torque portions are fed to a proportional member, from which an additional torque target value results, wherein the additional torque target value corresponds to the output signal of the control device, wherein the additional torque target value is overlaid negatively onto a target torque and is fed as the overall target torque to a converter control system of a converter. - at least one first input for supplying an input signal, - at least one further input for supplying a further input signal which contains mechanical information derived from the electric motor, in particular regarding the rotary speed and/or the rotor angle, and - at least one output for outputting an output signal to the converter supplying the electric motor
Cooling and heating device (1, 33, 39, 41) for a vehicle, wherein the cooling and heating device (1, 33, 39, 41) comprises a refrigerant circuit which comprises an electrically operable compressor, a liquid-refrigerant heat exchanger which is operable as a condenser/gas cooler, at least one expansion element (9, 25) and a single air-refrigerant heat exchanger, wherein said air-refrigerant heat exchanger is operable as an evaporator, and connections configured to also connect the liquid-refrigerant heat exchanger to a liquid circuit, characterized - in that the cooling and heating device (1, 33, 39, 41) has a single liquid-air heat exchanger, - in that the cooling and heating device (1, 33, 39, 41) has a bypass to that region of the liquid-refrigerant heat exchanger which is provided for a liquid circuit and/or to a heat exchanger-free other region of the liquid line, provided for a liquid circuit, of the cooling and heating device (1, 33, 39, 41), - in that the cooling and heating device (1, 33, 39, 41) has at least a first valve configured to open and close the bypass, - in that the liquid-air heat exchanger is arranged in the bypass, wherein the liquid-air heat exchanger is configured in such a way that there heat is transferable between the liquid and the air when liquid is flowing through the bypass and when air is flowing through the liquid-air heat exchanger, and - in that the air conveying device which is provided for conveying air through the air-refrigerant heat exchanger is also provided for conveying air through the liquid-air heat exchanger, wherein the air flow path runs both through the air-refrigerant heat exchanger and through the liquid-air heat exchanger. - in that the cooling and heating device (1, 33, 39, 41) has a single liquid-air heat exchanger, - in that the cooling and heating device (1, 33, 39, 41) has a bypass to that region of the liquid-refrigerant heat exchanger which is provided for a liquid circuit and/or to a heat exchanger-free other region of the liquid line, provided for a liquid circuit, of the cooling and heating device (1, 33, 39, 41), - in that the cooling and heating device (1, 33, 39, 41) has at least a first valve configured to open and close the bypass, - in that the liquid-air heat exchanger is arranged in the bypass, wherein the liquid-air heat exchanger is configured in such a way that there heat is transferable between the liquid and the air when liquid is flowing through the bypass and when air is flowing through the liquid-air heat exchanger, and - in that the air conveying device which is provided for conveying air through the air-refrigerant heat exchanger is also provided for conveying air through the liquid-air heat exchanger, wherein the air flow path runs both through the air-refrigerant heat exchanger and through the liquid-air heat exchanger.