mhurhangee/ep-ind-claims huggingface dataset:
A sweat monitoring apparatus (101, 401, 501, 601, 701, 801, 901) for continuous monitoring of fluid content comprising: a multilayer structure comprising at least two electrode layers (103, 104, 402, 502, 602, 603, 802, 803, 902) for detection of fluid content, said electrode layers being separated by at least one insulating layer (107, 108, 403, 504), wherein the multilayer structure defines at least one flow channel, said at least one flow channel providing a flow path for continuous flow of sweat in use, wherein said at least one flow channel runs in a direction substantially perpendicular to said layers, and wherein said electrode layers form part of the sidewall of said at least one flow channel, and one of said electrode layers comprises a reference electrode layer (103, 105) comprising an electrode in contact with a first material, wherein the first material does not wholly overlap with the electrode and forms said part of the sidewall of said at least one flow channel, the electrode itself does not form part of the sidewall, and the first material provides a substantially constant ionic concentration in use. a multilayer structure comprising at least two electrode layers (103, 104, 402, 502, 602, 603, 802, 803, 902) for detection of fluid content, said electrode layers being separated by at least one insulating layer (107, 108, 403, 504), wherein the multilayer structure defines at least one flow channel, said at least one flow channel providing a flow path for continuous flow of sweat in use, wherein said at least one flow channel runs in a direction substantially perpendicular to said layers, and
High strength geotextile mesh structure including reinforcing fibers assembled into parallel cable-cords (101, 103, 105) forming strips oriented in at least one of two directions, - said strips are separated by intervals of at least 15 mm, - said strips have a consistent or different widths, ranging between 1 and 20 cm, Wide strips, wider than 6 cm, are formed at least on the edges of the mesh structure. - said strips are separated by intervals of at least 15 mm, - said strips have a consistent or different widths, ranging between 1 and 20 cm,
Filter device for the water from garden ponds or aquariums, comprising a housing, a water inlet, a water outlet and at least one filter that can be compressed by an actuation device in the housing, has a substantially hollow-cylindrical basic shape having a central recess, is arranged in the flow path between the water inlet and the water outlet (4, 5) and has at least one water inflow surface and one water outflow surface, the water outflow surface forming, within the central recess, at least one channel in the axial direction along the outside of a wall part that is closed in the peripheral direction, in which channel the water can be transported towards the water outlet, characterised in that a plurality of channels are formed on the water outflow surface, between which channels the filter rests on the wall part.
A process for treating hair wherein an aqueous composition comprising one or more cationic quaternary ammonium polymers having a cationic charge density of 3.0 mEq/g or more and having a pH in the range of 3.0 to 6.5 is applied onto hair, optionally left on the hair for a period of 1 to 15 min, optionally rinsed off from hair and the hair temperature is increased to the range of 80 to 140°C.
A method of operation of a Home eNB base station in a cellular communication network, the method comprising: the Home eNB base station determining that it is powering down; and the Home eNB base station notifying one or more eNB radio network nodes (28, 30), with which it has an X2 connection, via a Stream Control Transmission Protocol, SCTP, message over said X2 connection that the Home eNB base station is powering down, wherein the SCTP message has a Chunk Type set to "Shutdown". the Home eNB base station determining that it is powering down; and the Home eNB base station notifying one or more eNB radio network nodes (28, 30), with which it has an X2 connection, via a Stream Control Transmission Protocol, SCTP, message over said X2 connection that the Home eNB base station is powering down, wherein the SCTP message has a Chunk Type set to "Shutdown".
Method for preparing a positive electrode made of a composite material comprising the following ingredients: - at least one positive electrode active material chosen from among iron phosphate-based materials, - at least one water-soluble polymer having ionic conduction properties in the presence of a lithium salt, - at least one lithium salt; and - optionally at least one material conferring electronic conduction properties, wherein the method comprises at least one step of mixing, by extrusion, the ingredients of the composite material in order to obtain an extruded composite material, at least one step of shaping the extruded material through a die, at least one step for rolling or calendering the extruded composite material in the form of a positive electrode film on a current collector, and at least one step of drying the positive electrode film applied to the current collector, wherein the method is characterized in that the extrusion step is carried out by means of a mixer, a twin-screw extruder, or a multi-screw extruder, in the presence of an aqueous solvent consisting of demineralized or distilled water or a mixture of demineralized or distilled water, and at least one hydromiscible solvent representing at most 30% by weight of the total mass of the aqueous solvent, wherein the aqueous solvent represents from 3 to 25% by weight relative to the total mass of the ingredients constituting the composite material, and at a temperature of 20 to 95°C, and in that the water-soluble polymer is selected from among polymers, copolymers and terpolymers of polyoxyethylene, polyoxypropylene and polyoxybutylene. - at least one positive electrode active material chosen from among iron phosphate-based materials, - at least one water-soluble polymer having ionic conduction properties in the presence of a lithium salt, - at least one lithium salt; and - optionally at least one material conferring electronic conduction properties,
A display control apparatus comprising: a position control section adapted to control a position of an object arranged in a virtual three-dimensional space based on a relative position between an input apparatus used by a user wearing a head-mounted display and the head-mounted display; and a display control section adapted to generate an image in the virtual three-dimensional space including the object and display the image on the head-mounted display, wherein when a distance between the input apparatus and the head-mounted display is equal to a first distance or more, the position control section linearly changes the object position in response to a change in position of the input apparatus, and when the distance between the input apparatus and the head-mounted display is less than the first distance, the position control section determines the object position in accordance with a criterion different from that used when the distance between the input apparatus and the head-mounted display is equal to the first distance or more, characterized in that when the input apparatus is moved closer to the head-mounted display such that the distance between the input apparatus and the head-mounted display becomes shorter than the first distance, the position control section does not move the object closer than a second distance in the virtual three-dimensional space, arranges the object at a position farther away from a viewpoint position than the second distance, and displays the object in magnified form by magnifying the object. a position control section adapted to control a position of an object arranged in a virtual three-dimensional space based on a relative position between an input apparatus used by a user wearing a head-mounted display and the head-mounted display; and a display control section adapted to generate an image in the virtual three-dimensional space including the object and display the image on the head-mounted display, wherein when a distance between the input apparatus and the head-mounted display is equal to a first distance or more, the position control section linearly changes the object position in response to a change in position of the input apparatus, and when the distance between the input apparatus and the head-mounted display is less than the first distance, the position control section determines the object position in accordance with a criterion different from that used when the distance between the input apparatus and the head-mounted display is equal to the first distance or more, characterized in that when the input apparatus is moved closer to the head-mounted display such that the distance between the input apparatus and the head-mounted display becomes shorter than the first distance, the position control section does not move the object closer than a second distance in the virtual three-dimensional space, arranges the object at a position farther away from a viewpoint position than the second distance, and displays the object in magnified form by magnifying the object.
Method for producing an electromechanical component comprising layered metal laminations, in which - the powdery material has a binder and magnetic particles in a predetermined manner is filled into a pressing chamber arrangement of a die and is pressed therein between a lower punch and an upper punch with a coordinated pressure in order to form pressed permanent magnet bodies (30, 31), - before or after pressing, the component with cavities (20, 21) of a cavity arrangement whose cross-sectional contour is adapted to pressing chambers to be assigned of the pressing chamber arrangement, which cavities have been introduced into said component by punching and extend axially with a constant cross-section in the pressing direction, is brought into alignment with the assigned pressing chambers with respect to an axial projection so that the cavities (20, 21) in the projection surround the respective pressing chambers with their inner surface in circumferential alignment, - the pressed permanent magnet bodies (30, 31) are subsequently pushed in the punching direction into the assigned cavities (20, 21) by means of the lower punch, and - the permanent magnet bodies (30, 31) inserted by pushing, assembled in the predetermined manner and pressed with the coordinated pressure are automatically fixed by their expansion in the respective cavities in a force-fitting manner. - the powdery material has a binder and magnetic particles in a predetermined manner is filled into a pressing chamber arrangement of a die and is pressed therein between a lower punch and an upper punch with a coordinated pressure in order to form pressed permanent magnet bodies (30, 31), - before or after pressing, the component with cavities (20, 21) of a cavity arrangement whose cross-sectional contour is adapted to pressing chambers to be assigned of the pressing chamber arrangement, which cavities have been introduced into said component by punching and extend axially with a constant cross-section in the pressing direction, is brought into alignment with the assigned pressing chambers with respect to an axial projection so that the cavities (20, 21) in the projection surround the respective pressing chambers with their inner surface in circumferential alignment, - the pressed permanent magnet bodies (30, 31) are subsequently pushed in the punching direction into the assigned cavities (20, 21) by means of the lower punch, and - the permanent magnet bodies (30, 31) inserted by pushing, assembled in the predetermined manner and pressed with the coordinated pressure are automatically fixed by their expansion in the respective cavities in a force-fitting manner.
A drinking apparatus for an animal, comprising: a basin for holding water; a capacitive touch sensor comprising a sense electrode disposed underneath the basin; and a processor coupled to the capacitive touch sensor and configured to determine a capacitance value of capacitance coupled to the sense electrode, wherein the processor is configured to detect touching by an animal of the water held by the basin, said detection based on detecting a change of the capacitance to a capacitance value that exceeds a detection threshold relative to a reference capacitance value, wherein the processor is configured to determine the reference capacitance value based on an average of earlier capacitance values sensed by the capacitive touch sensor. a basin for holding water; a capacitive touch sensor comprising a sense electrode disposed underneath the basin; and a processor coupled to the capacitive touch sensor and configured to determine a capacitance value of capacitance coupled to the sense electrode, wherein the processor is configured to detect touching by an animal of the water held by the basin, said detection based on detecting a change of the capacitance to a capacitance value that exceeds a detection threshold relative to a reference capacitance value, wherein the processor is configured to determine the reference capacitance value based on an average of earlier capacitance values sensed by the capacitive touch sensor.
A shovel comprising: an operating element; a recognition part (70, 301) configured to recognize a worker in a surrounding area and recognize a predetermined gesture made by the recognized worker; a control part configured to perform operation control on the operating element in response to the predetermined gesture made by the worker recognized by the recognition part (70, 301); and a storage part configured to store correspondence information showing correspondence between the predetermined gesture and operation details of the operating element with respect to each of a plurality of predetermined gestures. an operating element; a recognition part (70, 301) configured to recognize a worker in a surrounding area and recognize a predetermined gesture made by the recognized worker; a control part configured to perform operation control on the operating element in response to the predetermined gesture made by the worker recognized by the recognition part (70, 301); and a storage part configured to store correspondence information showing correspondence between the predetermined gesture and operation details of the operating element with respect to each of a plurality of predetermined gestures.
Scanning unit for determining a relative angular position of an angle scale which can be rotated about an axis with respect to the scanning unit, comprising - a printed circuit board which has a first surface (1.1) and a second surface (1.2), - a detector arrangement which is arranged such that the angle scale which is situated opposite the first surface (1.1) of the printed circuit board can be scanned, - an evaluation electronics system, - a housing body (5; 5') which • comprises a base (5.1) and • has recesses (5.21, 5.22, 5.23, 5.24) which extend in the circumferential direction about the axis and also • webs (5.31, 5.32) which extend between two recesses (5.21, 5.22, 5.23, 5.24) in the axial direction, so that the housing body (5; 5') is axially flexible but torsionally rigid and radially rigid, wherein the base (5.1) is arranged axially between the recesses (5.21, 5.22, 5.23, 5.24) and the printed circuit board. - a printed circuit board which has a first surface (1.1) and a second surface (1.2), - a detector arrangement which is arranged such that the angle scale which is situated opposite the first surface (1.1) of the printed circuit board can be scanned, - an evaluation electronics system, - a housing body (5; 5') which • comprises a base (5.1) and • has recesses (5.21, 5.22, 5.23, 5.24) which extend in the circumferential direction about the axis and also • webs (5.31, 5.32) which extend between two recesses (5.21, 5.22, 5.23, 5.24) in the axial direction, so that the housing body (5; 5') is axially flexible but torsionally rigid and radially rigid, wherein the base (5.1) is arranged axially between the recesses (5.21, 5.22, 5.23, 5.24) and the printed circuit board. • comprises a base (5.1) and • has recesses (5.21, 5.22, 5.23, 5.24) which extend in the circumferential direction about the axis and also • webs (5.31, 5.32) which extend between two recesses (5.21, 5.22, 5.23, 5.24) in the axial direction, so that the housing body (5; 5') is axially flexible but torsionally rigid and radially rigid, wherein
A Synchrophasor measurement method Applying to P Class Phasor Measurement Unit comprising the step of: defining a dynamic phasor mathematic model ( ẋ) for approximating a dynamic input signal ( x(t)), so that all parameters of the dynamic phasor model are functions of time; wherein said approximating of said dynamic input signal is performed by applying a second-order Taylor series to the parameters of the dynamic phasor model; filtering phasor factors ( C x, S x) of a measured phasor of the dynamic input signal with a low pass digital filter, said low pass digital filter performing a discrete Fourier transform so that spectrum leakage caused by the dynamic phasor inputs are eliminated; computing a raw phasor X ̇ ̃ based on the filtered phasor factors ( C x, S x); computing a linear relationship between raw phasor errors and the second-order coefficients of the Taylor series; said errors being the difference between the raw phasor X ̇ ̃ and the measured dynamic phasor ( ẋ) after application of the second order coefficients of the Taylor series, compensating the errors of the raw phasor X ̇ ̃ by using the linear relationship when the dynamic signal (x(t)) changes, computing accurate dynamic phasor measurements of the dynamic input signal ( x(t)). defining a dynamic phasor mathematic model ( ẋ) for approximating a dynamic input signal ( x(t)), so that all parameters of the dynamic phasor model are functions of time; wherein said approximating of said dynamic input signal is performed by applying a second-order Taylor series to the parameters of the dynamic phasor model; filtering phasor factors ( C x, S x) of a measured phasor of the dynamic input signal with a low pass digital filter, said low pass digital filter performing a discrete Fourier transform so that spectrum leakage caused by the dynamic phasor inputs are eliminated; computing a raw phasor X ̇ ̃ based on the filtered phasor factors ( C x, S x); computing a linear relationship between raw phasor errors and the second-order coefficients of the Taylor series; said errors being the difference between the raw phasor X ̇ ̃ and the measured dynamic phasor ( ẋ) after application of the second order coefficients of the Taylor series, compensating the errors of the raw phasor X ̇ ̃ by using the linear relationship when the dynamic signal (x(t)) changes, computing accurate dynamic phasor measurements of the dynamic input signal ( x(t)).
Star screen comprising a drive, frame profiles (7.1, 7.2), and screen shafts (2.1, 2.2) that are arranged substantially parallel to one another and have screening stars arranged thereon, wherein every second screen shaft (2.1) can be mobilized substantially orthogonally relative to at least one of the frame profiles (7.1, 7.2), characterized in that the mobilizable screen shafts (2.1) are telescopic.
A household appliance (1; 31), in particular washer-dryer, comprising: - a process air circuit for circulating process air comprising a treatment chamber (2, 3) having an air inlet opening and an air outlet opening and a process air channel connecting the openings (5, 6), - a heating device (19, 19') for heating the process air, and - a water circuit comprising: a water/process air heat exchanger adapted to cool process air flowing within the process air circuit, and a water circulation device for circulating the water in the water circuit characterized in that - the water / process air heat exchanger is made of at least one capillary tube mat (11a to 11c, 36, 37, 38) being positioned within the process air channel and/or being integrated into at least one wall section of the process air channel and - the water/process air heat exchanger comprises a water outlet opening that opens into the process air circuit such that the water circuit and the process air circuit partly coincide. - a process air circuit for circulating process air comprising a treatment chamber (2, 3) having an air inlet opening and an air outlet opening and a process air channel connecting the openings (5, 6), - a heating device (19, 19') for heating the process air, and - a water circuit comprising: a water/process air heat exchanger adapted to cool process air flowing within the process air circuit, and a water circulation device for circulating the water in the water circuit characterized in that - the water / process air heat exchanger is made of at least one capillary tube mat (11a to 11c, 36, 37, 38) being positioned within the process air channel and/or being integrated into at least one wall section of the process air channel and - the water/process air heat exchanger comprises a water outlet opening that opens into the process air circuit such that the water circuit and the process air circuit partly coincide.
A method for purification of a refolded Fc-peptide fusion protein from a composition comprising the Fc-peptide fusion protein and at least one impurity, the method comprising the following steps in the following order: a) performing an affinity capture chromatography in bind-elute mode; b) performing a mixed-mode chromatography in bind-elute mode; c) performing a cation exchange chromatography in bind-elute mode; and d) performing an ultrafiltration/diafiltration; wherein the chromatographies a), b), and c) are performed optionally with one or more washing steps. a) performing an affinity capture chromatography in bind-elute mode; b) performing a mixed-mode chromatography in bind-elute mode; c) performing a cation exchange chromatography in bind-elute mode; and d) performing an ultrafiltration/diafiltration;
A determination method for determining, in an immunodepressed subject, a humoral response due to the presence of a target infectious agent, by detection, in a biological sample E1 of said subject, of at least one target antibody that is susceptible of being produced by said subject when the latter is infected with or has been infected with said target infectious agent, the method comprising the following steps: a) providing a volume V1 of the sample E1; b) diluting the volume V1 with a volume D1 of diluent, with a dilution ratio R1 that is equal to V1/(V1+D1), the dilution ratio R1 being higher than a dilution ratio R2, with 1.5R2 ≤ R1 ≤ 5R2, R2 being the dilution ratio used for a non-immunodepressed subject, and R2 being equal to V2/(V2+D2), with V2 and D2 respectively being the volume of the sample E2 and the volume of diluent used for a non-immunosuppressed subject, in a manner such as to obtain a diluted sample; c) detecting said at least one target antibody on the resulting diluted sample, by an immulogical assay leading to the obtaining of a signal and drawing a conclusion concerning the possible presence of the humoral response by comparion of the detected signal to a reference signal. a) providing a volume V1 of the sample E1; b) diluting the volume V1 with a volume D1 of diluent, with a dilution ratio R1 that is equal to V1/(V1+D1), the dilution ratio R1 being higher than a dilution ratio R2, with 1.5R2 ≤ R1 ≤ 5R2, R2 being the dilution ratio used for a non-immunodepressed subject, and R2 being equal to V2/(V2+D2), with V2 and D2 respectively being the volume of the sample E2 and the volume of diluent used for a non-immunosuppressed subject, in a manner such as to obtain a diluted sample; c) detecting said at least one target antibody on the resulting diluted sample, by an immulogical assay leading to the obtaining of a signal and drawing a conclusion concerning the possible presence of the humoral response by comparion of the detected signal to a reference signal.