mhurhangee/patent-ind-claim-en huggingface dataset:
Circuit assembly for monitoring a sinusoidal alternating voltage signal (I_k), the circuit assembly comprising: - a comparator to which a sinusoidal alternating voltage signal (I_k) to be monitored having a period T or a signal obtained therefrom can be supplied at an input, the comparator being configured to generate a first output signal (S1) at an output if the sinusoidal alternating voltage signal (I_k) or the signal obtained therefrom exceeds a defined threshold value (A), - a zero crossing detector to which the sinusoidal alternating voltage signal (I_k) to be monitored or a signal obtained therefrom can be supplied at a monitoring input such that a second output signal (S2) can be generated at an output of the zero crossing detector , - a timing element which is connected downstream of the zero crossing detector and is intended for generating a clock signal (S3) depending on the second output signal (S2), - an edge-controlled flip-flop , the output of the comparator being connected to a state-controlled input (D) of the flip-flop and an output of the timing element being connected to an edge-controlled input (Clk) of the flip-flop such that a state signal (S4) can be generated at an output of the flip-flop , characterized in that the timing element is configured to specify a defined state change of the clock signal (S3) at a time at T/8 or 3T/8 of the period T after a zero crossing of the sinusoidal alternating voltage signal (I_k). - a comparator to which a sinusoidal alternating voltage signal (I_k) to be monitored having a period T or a signal obtained therefrom can be supplied at an input, the comparator being configured to generate a first output signal (S1) at an output if the sinusoidal alternating voltage signal (I_k) or the signal obtained therefrom exceeds a defined threshold value (A), - a zero crossing detector to which the sinusoidal alternating voltage signal (I_k) to be monitored or a signal obtained therefrom can be supplied at a monitoring input such that a second output signal (S2) can be generated at an output of the zero crossing detector , - a timing element which is connected downstream of the zero crossing detector and is intended for generating a clock signal (S3) depending on the second output signal (S2), - an edge-controlled flip-flop , the output of the comparator being connected to a state-controlled input (D) of the flip-flop and an output of the timing element being connected to an edge-controlled input (Clk) of the flip-flop such that a state signal (S4) can be generated at an output of the flip-flop , characterized in that the timing element is configured to specify a defined state change of the clock signal (S3) at a time at T/8 or 3T/8 of the period T after a zero crossing of the sinusoidal alternating voltage signal (I_k).
A method for calibrating a force platform comprising: providing a force platform and applying an nXm grid on a top surface of the force platform via a computing device , wherein said nXm grid comprises n points along an X-axis, and m points along a Y-axis of said force platform ; applying p known loads on each of the nXm grid points of the top surface along a Z-axis being perpendicular to said X and Y axes and along said X and Y axes ; taking multipoint measurements at each grid point and for each applied known load along said X, Y and Z axes ; characterized by n and m ≥ 2; generating six measured output signals, exact position coordinates and applied known load magnitude for each grid point; assembling an array of nXmXp of six equations with six unknown for each grid point and applied known load; solving the assembled equations and deriving a position and load specific calibration matrix for each grid point; entering the derived position and load specific calibration matrices for all grid points in a calibration table and storing the calibration table in a non-volatile memory. providing a force platform and applying an nXm grid on a top surface of the force platform via a computing device , wherein said nXm grid comprises n points along an X-axis, and m points along a Y-axis of said force platform ; applying p known loads on each of the nXm grid points of the top surface along a Z-axis being perpendicular to said X and Y axes and along said X and Y axes ; taking multipoint measurements at each grid point and for each applied known load along said X, Y and Z axes ; characterized by n and m ≥ 2; generating six measured output signals, exact position coordinates and applied known load magnitude for each grid point; assembling an array of nXmXp of six equations with six unknown for each grid point and applied known load; solving the assembled equations and deriving a position and load specific calibration matrix for each grid point; entering the derived position and load specific calibration matrices for all grid points in a calibration table and storing the calibration table in a non-volatile memory.
A cable support structure comprising a cable structure which comprises latitudinal cables , the latitudinal cables extending between two sides of an enclosure of a roof, panels or solar modules being arranged in a row on the latitudinal cables forming an array, the array being supported and anchored by the cable structure, the cable structure in turn being supported by the sides of the enclosure in such a way that weight of the array and force loads on the array are completely or partially distributed on the sides of the enclosure, said latitudinal cables extending between the two sides of the enclosure and being located on a plane that has an adjustable angle with respect to the horizontal plane, characterised in that said panels or solar modules being fixed on the back thereof to said latitudinal cables with hooks or different fasteners inclined, to form one said array, the terminals of said latitudinal cables being anchored at said two sides of the enclosure of the roof.
A safety buffer for an elevator or a crane, comprising - an elastic buffer element , and - a fastening device , - wherein said buffer element comprises a fastening face at a first end , - wherein said fastening device comprises a plate , - wherein said fastening device comprises at least one embedded element , wherein said at least one embedded element at least partly protrudes from said fastening device towards said buffer element and is embedded in said buffer element , wherein said fastening device is permanently connected to said fastening face of said buffer element and said buffer element is foamed to said fastening device , characterized in that said at least one embedded element is enclosed by the foam of said buffer element . - an elastic buffer element , and - a fastening device , - wherein said buffer element comprises a fastening face at a first end , - wherein said fastening device comprises a plate , - wherein said fastening device comprises at least one embedded element , wherein said at least one embedded element at least partly protrudes from said fastening device towards said buffer element and is embedded in said buffer element , wherein said fastening device is permanently connected to said fastening face of said buffer element and said buffer element is foamed to said fastening device ,
An applicator for gripping a urinary catheter, comprising: a body having a proximal end , a distal end , and intermediate portion between the proximal and distal ends; the applicator being characterized by a lumen extending through the proximal and distal ends , of the body , the lumen having a proximal end opening and a distal end opening and being configured to receive a shaft of a urinary catheter therethrough so that the body is movable distally and proximally along the catheter, the intermediate portion being made of a deformable, flexible material that may be deformed to grasp the catheter; and by a plurality of petals disposed within the lumen and extending radially inwardly from the body into the lumen , wherein the petals are separated from adjacent petals by a slit , and when the catheter shaft is received through the lumen , the plurality of petals contacting the catheter shaft to resist movement of the body along the catheter shaft. a body having a proximal end , a distal end , and intermediate portion between the proximal and distal ends; the applicator being characterized by a lumen extending through the proximal and distal ends , of the body , the lumen having a proximal end opening and a distal end opening and being configured to receive a shaft of a urinary catheter therethrough so that the body is movable distally and proximally along the catheter, the intermediate portion being made of a deformable, flexible material that may be deformed to grasp the catheter; and by a plurality of petals disposed within the lumen and extending radially inwardly from the body into the lumen , wherein the petals are separated from adjacent petals by a slit , and when the catheter shaft is received through the lumen , the plurality of petals contacting the catheter shaft to resist movement of the body along the catheter shaft.
A pump in reservoir implant for inflating at least one inflatable medical implant , the pump in reservoir implant comprising: a reservoir case , which is configured to hold isotonic fluid as the working fluid for the at least one inflatable medical implant , and a pump package contained in the reservoir case , the pump package including: at least one nonferrous motor ; a nonferrous fluid pump connected to the at least one nonferrous motor; and at least one nonferrous valve connected to the nonferrous fluid pump , configured to allow fluid to pass from the pump to the at least one inflatable medical implant , wherein an internal gear pump orifice directly connected to a piezoelectric valve orifice connects the at least one nonferrous valve and the nonferrous fluid pump ; a reservoir orifice tube that connects another internal gear pump's orifice to the inside of the reservoir case in operation in contact with the isotonic fluid; and an external orifice tube that connects another piezoelectric valve's orifice to a connector leading outside the reservoir case . a reservoir case , which is configured to hold isotonic fluid as the working fluid for the at least one inflatable medical implant , and a pump package contained in the reservoir case , the pump package including: at least one nonferrous motor ; a nonferrous fluid pump connected to the at least one nonferrous motor; and at least one nonferrous valve connected to the nonferrous fluid pump , configured to allow fluid to pass from the pump to the at least one inflatable medical implant , wherein an internal gear pump orifice directly connected to a piezoelectric valve orifice connects the at least one nonferrous valve and the nonferrous fluid pump ; a reservoir orifice tube that connects another internal gear pump's orifice to the inside of the reservoir case in operation in contact with the isotonic fluid; and an external orifice tube that connects another piezoelectric valve's orifice to a connector leading outside the reservoir case . at least one nonferrous motor ; a nonferrous fluid pump connected to the at least one nonferrous motor; and at least one nonferrous valve connected to the nonferrous fluid pump , configured to allow fluid to pass from the pump to the at least one inflatable medical implant , wherein an internal gear pump orifice directly connected to a piezoelectric valve orifice connects the at least one nonferrous valve and the nonferrous fluid pump ; a reservoir orifice tube that connects another internal gear pump's orifice to the inside of the reservoir case in operation in contact with the isotonic fluid; and an external orifice tube that connects another piezoelectric valve's orifice to a connector leading outside the reservoir case .
A production method for a composition containing non-polymer catechins, comprising the following step (B) after the following step (A): (A) a step of bringing tea leaves into contact with an aqueous solution having a Brix of from 0.2% to 1.0% at from 80°C to 100°, and (B) a step of extracting the tea leaves after the step (A) with water at from 50°C to 100°C. (A) a step of bringing tea leaves into contact with an aqueous solution having a Brix of from 0.2% to 1.0% at from 80°C to 100°, and (B) a step of extracting the tea leaves after the step (A) with water at from 50°C to 100°C.
An electronic device , comprising: a processor; and a touch circuit configured to output, to the processor, information associated with a touch to at least one surface of the electronic device, wherein the touch circuit is configured to: generate first raw data including a first value associated with capacitance for each of a plurality of channels of the touch circuit, generate a first baseline based on the first raw data, identify whether the first raw data meets a designated condition, and identify to reset the first baseline if the designated condition is met; reset the first baseline if the designated condition is met, characterized in that : the designated condition includes a case in which a difference between data among the first raw data exceeds a threshold, wherein the data includes a value associated with a first channel and a value associated with a second channel, wherein the first and second channel are adjacent to each other . a processor; and a touch circuit configured to output, to the processor, information associated with a touch to at least one surface of the electronic device, wherein the touch circuit is configured to: generate first raw data including a first value associated with capacitance for each of a plurality of channels of the touch circuit, generate a first baseline based on the first raw data, identify whether the first raw data meets a designated condition, and identify to reset the first baseline if the designated condition is met; generate first raw data including a first value associated with capacitance for each of a plurality of channels of the touch circuit, generate a first baseline based on the first raw data, identify whether the first raw data meets a designated condition, and identify to reset the first baseline if the designated condition is met; reset the first baseline if the designated condition is met, characterized in that : the designated condition includes a case in which a difference between data among the first raw data exceeds a threshold, wherein the data includes a value associated with a first channel and a value associated with a second channel, wherein the first and second channel are adjacent to each other .
A vaccine, comprising (a) one or more polypeptides comprising an amino acid sequence having at least 94% identity to SEQ ID NO:2 capable of eliciting an immune response against an Ehrlichia sp .; and (b) a pharmaceutically acceptable adjuvant. (a) one or more polypeptides comprising an amino acid sequence having at least 94% identity to SEQ ID NO:2 capable of eliciting an immune response against an Ehrlichia sp .; and (b) a pharmaceutically acceptable adjuvant.
A method for a base station to configure a bearer for transport of user data in a user plane based cellular Internet of Things, CIoT, in a wireless communication system, the method comprising: receiving an RRC Connection Resume Request message including a tracking area update, TAU, request message from a user equipment, UE, transmitting an initial UE message comprising the TAU request message to a mobility management entity, MME, receiving a downlink NAS transport message comprising a Resume Indication from the MME, and transmitting a UE Context Resume Request message to the MME based on the Resume Indication, wherein the RRC Connection Resume Request message does not include a bearer indication, and wherein a suspension of an RRC connection is prohibited and a transmission of the UE Context Resume Request message is triggered by the Resume Indication. receiving an RRC Connection Resume Request message including a tracking area update, TAU, request message from a user equipment, UE, transmitting an initial UE message comprising the TAU request message to a mobility management entity, MME, receiving a downlink NAS transport message comprising a Resume Indication from the MME, and transmitting a UE Context Resume Request message to the MME based on the Resume Indication, wherein the RRC Connection Resume Request message does not include a bearer indication, and wherein a suspension of an RRC connection is prohibited and a transmission of the UE Context Resume Request message is triggered by the Resume Indication.
An adaptive camouflage device that includes: at least one non-emissive layer which includes a guest-host liquid crystal, GHLC, characterized in that the adaptive camouflage system further comprises a diffuse static reflector layer.
A radio-frequency , RF, shielding box for use inside a connector for a medical instrument , in particular an endoscope , wherein the shielding box has a base area which is conically tapered from a first end of the shielding box to a second end of the shielding box ; wherein both a first end face and a second end face of the shielding box are rectangular shaped; wherein two rectangular shaped plates protruding from the area of the first end face and the second end face are arranged each on the first end face or on the second end face of the shielding box , respectively, where the plates are parallel to the first end face or the second end face , respectively; and wherein the plates of the first end face and the second end face of the shielding box are parallel to each other, respectively; wherein the protruding parts of the plates are adapted and installed such that the shielding box can be mounted inside the connector wherein at least two of the protruding parts of the plates are adapted and installed to be arranged inside at least two holes , wherein the holes are arranged inside a first and a second rail of the connector which, when the shielding box is mounted inside the connector , are parallel to conically tapered faces of the shielding box , and the connector further comprising: the first rail and the second rail ; and wherein the first rail and the second rail each comprise the holes on a first end and a second end of the first rail or the second rail ; wherein the holes on the first end of the first rail and the second rail are adjacent to the first end face of the shielding box when the shielding box is mounted inside the connector ; and/or the holes on the second end of the first rail and the second rail are adjacent to the second end face of the shielding box when the shielding box is mounted inside the connector .
A process for cooling and conditioning a mould of a moulding unit of plastics materials, comprising the steps of: - cooling the mould by means of a cooling liquid which flows in a first circuit , - introducing, by means of a second circuit , dehumidified air into a cabin in which the mould is confined, - providing a refrigerating circuit comprising a first evaporation unit , which is associated with the first circuit for cooling the cooling liquid, and a second evaporation unit which is associated with the second circuit for dehumidifying the air, - heating the dehumidified air discharged from the second evaporation unit , characterized in that the dehumidified air is heated by means of thermal contact in a second heat exchanger with an operating fluid coming from a condensation unit in which it has been used to condense a refrigerating fluid which flows in the refrigerating circuit. - cooling the mould by means of a cooling liquid which flows in a first circuit , - introducing, by means of a second circuit , dehumidified air into a cabin in which the mould is confined, - providing a refrigerating circuit comprising a first evaporation unit , which is associated with the first circuit for cooling the cooling liquid, and a second evaporation unit which is associated with the second circuit for dehumidifying the air, - heating the dehumidified air discharged from the second evaporation unit ,
A method for transmitting data from a subsea device to a surface device , comprising: acquiring data using a plurality of sensors of the subsea device , wherein the data represents a subsea environment; compressing the data using one or more processors of the subsea device , wherein compressing the data comprises partitioning the data into a low-resolution representation and one or more enhancement layers having a higher resolution; transmitting the low-resolution representation wirelessly from the subsea device to the surface device ; decompressing the low-resolution representation using the surface device ; and transmitting (208 one or more enhancement layers wirelessly from the subsea device to the surface device in sequence of increasing resolution, while a lower resolution representation is being viewed by a user; characterized in that compressing the data further comprises identifying regions of interest in images represented by the data using passive markers, active markers, or both and adjusting video compression parameters, to assist in the reconstruction of the selected data in the regions of interest. acquiring data using a plurality of sensors of the subsea device , wherein the data represents a subsea environment; compressing the data using one or more processors of the subsea device , wherein compressing the data comprises partitioning the data into a low-resolution representation and one or more enhancement layers having a higher resolution; transmitting the low-resolution representation wirelessly from the subsea device to the surface device ; decompressing the low-resolution representation using the surface device ; and transmitting (208 one or more enhancement layers wirelessly from the subsea device to the surface device in sequence of increasing resolution, while a lower resolution representation is being viewed by a user; characterized in that compressing the data further comprises identifying regions of interest in images represented by the data using passive markers, active markers, or both and adjusting video compression parameters, to assist in the reconstruction of the selected data in the regions of interest.
A surgical table comprising: a base for standing on a floor; a column extending from the base; a tabletop providing a patient support surface; and a mechanism coupling the tabletop to the column and for enabling rotational movement of the tabletop relative to the column about two orthogonal axes, the mechanism comprising a first frame connected to the tabletop, a second frame rotatably mounted on the first frame, first and second extensible stabilisers, and first and second actuators disposed outside of both the first and second extensible stabilisers , each actuator being connected to a respective one of the frames for moving the respective frame about a respective one of the two orthogonal axes; wherein the first frame is connected to the column via the first extensible stabiliser and the first actuator in parallel, and the second frame is connected to the column by the second extensible stabiliser and the second actuator in parallel a column extending from the base; a tabletop providing a patient support surface; and a mechanism coupling the tabletop to the column and for enabling rotational movement of the tabletop relative to the column about two orthogonal axes, the mechanism comprising a first frame connected to the tabletop, a second frame rotatably mounted on the first frame, first and second extensible stabilisers, and first and second actuators disposed outside of both the first and second extensible stabilisers , each actuator being connected to a respective one of the frames for moving the respective frame about a respective one of the two orthogonal axes; wherein the first frame is connected to the column via the first extensible stabiliser and the first actuator in parallel, and the second frame is connected to the column by the second extensible stabiliser and the second actuator in parallel