mhurhangee/patent-ind-claim-en huggingface dataset:
Power supply module , preferably a power sourcing equipment (PSE), adapted for use in a power over Ethernet (PoE) system , wherein the power supply module comprises: - voltage supply means for supplying, during a detection phase, at least a first voltage via a data cable to an operation module for operating lighting means, preferably a powered device (PD), and - detection means for detecting, during the detection phase, whether the operation module is arranged for being supplied with a supply voltage via the data cable during an operation phase, wherein - the voltage supply means are adapted to supply, during a classification phase, a second voltage via the data cable to the operation module , - the detection means are adapted to detect, during the classification phase, whether the operation module is arranged for operating the lighting means in an emergency operation mode, and - the voltage supply means are adapted to supply, in an operation phase, the operation module with the supply voltage via the data cable , and, wherein - the power supply module only performs the classification phase and the operation phase, if the detection means detect, during the detection phase, that the operation module is arranged for being supplied with the supply voltage via the data cable , - the power supply module performs the operation phase after the classification phase, and - the second voltage is higher than the first voltage, but lower than the supply voltage. - voltage supply means for supplying, during a detection phase, at least a first voltage via a data cable to an operation module for operating lighting means, preferably a powered device (PD), and - detection means for detecting, during the detection phase, whether the operation module is arranged for being supplied with a supply voltage via the data cable during an operation phase, wherein - the voltage supply means are adapted to supply, during a classification phase, a second voltage via the data cable to the operation module , - the detection means are adapted to detect, during the classification phase, whether the operation module is arranged for operating the lighting means in an emergency operation mode, and - the voltage supply means are adapted to supply, in an operation phase, the operation module with the supply voltage via the data cable , and, wherein - the power supply module only performs the classification phase and the operation phase, if the detection means detect, during the detection phase, that the operation module is arranged for being supplied with the supply voltage via the data cable , - the power supply module performs the operation phase after the classification phase, and - the second voltage is higher than the first voltage, but lower than the supply voltage.
Method for arranging a contact element on a battery cell of a battery plane of a battery stack for a battery device of a vehicle, characterized by the following steps: a) Providing a contact element comprising at least a contact plate portion , a transition portion and a positive pole portion , wherein the contact plate portion surrounds the transition portion and the transition portion surrounds the positive pole portion , and further wherein the contact plate portion and the positive pole portion are spaced apart and arranged parallel or at least substantially parallel to each other, b) Arranging the contact element provided in step a) on the battery cell of the battery plane , wherein, when arranging the contact element , the contact plate portion is arranged on a contact plate of the battery plane and the positive pole portion is arranged on a positive pole of the battery cell of the battery plane , and c) Insertion of at least one securing opening after steps a) and b) to increase the mechanical stability of the contact element in a perforation region of the transition portion to create at least one securing section in the transition portion , wherein the securing section is designed such that it can be melted for securing under high load. a) Providing a contact element comprising at least a contact plate portion , a transition portion and a positive pole portion , wherein the contact plate portion surrounds the transition portion and the transition portion surrounds the positive pole portion , and further wherein the contact plate portion and the positive pole portion are spaced apart and arranged parallel or at least substantially parallel to each other, b) Arranging the contact element provided in step a) on the battery cell of the battery plane , wherein, when arranging the contact element , the contact plate portion is arranged on a contact plate of the battery plane and the positive pole portion is arranged on a positive pole of the battery cell of the battery plane , and c) Insertion of at least one securing opening after steps a) and b) to increase the mechanical stability of the contact element in a perforation region of the transition portion to create at least one securing section in the transition portion , wherein the securing section is designed such that it can be melted for securing under high load.
A microelectromechanical systems die comprising: a thermally conductive substrate including an outer surface, wherein the outer surface extends around a perimeter of the thermally conductive substrate; a plurality of low mass sensing structures disposed within the thermally conductive substrate to form a plurality of inter-structure spaces between each of the plurality of low mass sensing structures that allow a target gas to flow therethrough, each of the plurality of low mass sensing structures include a sensing structure proximal top surface at one end of the sensing structure, a sensing structure distal top surface at the other end of the sensing structure, and a sensing structure width dimension ; a sensor material disposed on each of the plurality of low mass sensing structures, the sensor material configured to sense the target gas via chemo-resistive gas testing; a first electrode and a second electrode , each disposed on the sensor material ; further comprising a heating apparatus disposed on each of the plurality of low mass sensing structures; and characterised in that the microelectromechanical systems die comprises: a sacrificial coating disposed on at least one of the plurality of low mass sensing structures , wherein the sacrificial coating is disposed over the sensor material, and wherein the sacrificial coating is configured to be removed by the heating apparatus . a thermally conductive substrate including an outer surface, wherein the outer surface extends around a perimeter of the thermally conductive substrate; a plurality of low mass sensing structures disposed within the thermally conductive substrate to form a plurality of inter-structure spaces between each of the plurality of low mass sensing structures that allow a target gas to flow therethrough, each of the plurality of low mass sensing structures include a sensing structure proximal top surface at one end of the sensing structure, a sensing structure distal top surface at the other end of the sensing structure, and a sensing structure width dimension ; a sensor material disposed on each of the plurality of low mass sensing structures, the sensor material configured to sense the target gas via chemo-resistive gas testing; a first electrode and a second electrode , each disposed on the sensor material ; further comprising a heating apparatus disposed on each of the plurality of low mass sensing structures; and characterised in that the microelectromechanical systems die comprises: a sacrificial coating disposed on at least one of the plurality of low mass sensing structures , wherein the sacrificial coating is disposed over the sensor material, and wherein the sacrificial coating is configured to be removed by the heating apparatus .
A device (D) for characterising a substance (B) mixed inside a container in such a manner that the substance is in relative rotational movement with respect to the container, the device comprising: - a force sensor fixed to a wall (2.2) of the container , the sensor extending inside said container along an axis (Y) substantially normal to said wall, and placed in such a way that it is immersed at least periodically in the substance during rotation; - a protective cover covering the sensor ; - means for recording and processing a signal (Sb) delivered by the sensor arranged to determine, from the signal, a volume and/or a variation in composition and/or at least one rheological characteristic of the substance; and - means for transmitting the signal delivered by the sensor to the recording and processing means , characterised in that the protective cover is fixed exclusively and immovably to a free end of the sensor so that, during the relative movement of the substance with respect to the container, the cover is subjected to a resistance pressure imparted by the substance and so that the resistance pressure is concentrated on the free end of the sensor. - a force sensor fixed to a wall (2.2) of the container , the sensor extending inside said container along an axis (Y) substantially normal to said wall, and placed in such a way that it is immersed at least periodically in the substance during rotation; - a protective cover covering the sensor ; - means for recording and processing a signal (Sb) delivered by the sensor arranged to determine, from the signal, a volume and/or a variation in composition and/or at least one rheological characteristic of the substance; and - means for transmitting the signal delivered by the sensor to the recording and processing means , characterised in that the protective cover is fixed exclusively and immovably to a free end of the sensor so that, during the relative movement of the substance with respect to the container, the cover is subjected to a resistance pressure imparted by the substance and so that the resistance pressure is concentrated on the free end of the sensor.
A control for a powered surgical instrument, the control comprising: a housing having a central longitudinal axis; a sensor ; and an actuator assembly including a lever pivotally coupled to the housing , the lever including a magnet , the lever operable to move the magnet relative to the sensor in order to vary a signal that is produced by the sensor in response to a magnetic field of the magnet , characterized in that the sensor is mounted to a printed circuit board within the housing along the central longitudinal axis. a housing having a central longitudinal axis; a sensor ; and an actuator assembly including a lever pivotally coupled to the housing , the lever including a magnet , the lever operable to move the magnet relative to the sensor in order to vary a signal that is produced by the sensor in response to a magnetic field of the magnet , characterized in that the sensor is mounted to a printed circuit board within the housing along the central longitudinal axis.
A method for the production of a graphene layer structure, the method comprising: providing a substrate on a heated susceptor in a reaction chamber, the chamber having a plurality of cooled inlets arranged so that, in use, the inlets are distributed across the substrate and have a constant separation from the substrate, rotating the heated susceptor at a rotation rate of at least 300 rpm, supplying a flow comprising a precursor compound through the inlets and into the reaction chamber to thereby decompose the precursor compound and form graphene on the substrate, wherein the inlets are cooled to less than 100°C, preferably 50 to 60°C, and the susceptor is heated to a temperature of at least 50°C in excess of a decomposition temperature of the precursor, wherein the substrate provides a crystalline surface upon which the graphene is produced, wherein the constant separation is at least 12 cm and preferably from 12 to 20 cm, and wherein the precursor compound comprises an organic compound comprising at least one heteroatom. providing a substrate on a heated susceptor in a reaction chamber, the chamber having a plurality of cooled inlets arranged so that, in use, the inlets are distributed across the substrate and have a constant separation from the substrate, rotating the heated susceptor at a rotation rate of at least 300 rpm, supplying a flow comprising a precursor compound through the inlets and into the reaction chamber to thereby decompose the precursor compound and form graphene on the substrate, wherein the inlets are cooled to less than 100°C, preferably 50 to 60°C, and the susceptor is heated to a temperature of at least 50°C in excess of a decomposition temperature of the precursor, wherein the substrate provides a crystalline surface upon which the graphene is produced, wherein the constant separation is at least 12 cm and preferably from 12 to 20 cm, and wherein the precursor compound comprises an organic compound comprising at least one heteroatom.
A distribution system of an agricultural field sprayer for the application of spray liquids, with at least one storage container for providing the respective spray liquid, wherein the spray liquid is conveyed by means of a pump at a variably changeable pressure and/or by means of a pressure regulated to a constant value from the storage container along a liquid line guided to a spray boom attached to the field sprayer , as a result of which spray nozzles and distribution nozzles which are each provided on the spray boom at a distance from one another are supplied with spray liquid, characterized in that a distribution nozzle is provided adjacent to at least one spray nozzle , wherein the distribution nozzle is activated with a switching element, which is actuated by pulse width modulation, wherein the pulse width modulation of the distribution nozzle is varied depending on the flow rate of the spray nozzle .
A binding molecule which is at least bispecific comprising a first and a second binding domain, wherein (a) the first binding domain is capable of binding to epitope cluster 3 and to epitope cluster 4 of BCMA; and (b) the second binding domain is capable of binding to CD3; and wherein epitope cluster 3 of BCMA corresponds to amino acid residues 24 to 41 of the sequence as depicted in SEQ ID NO: 1002, and epitope cluster 4 of BCMA corresponds to amino acid residues 42 to 54 of the sequence as depicted in SEQ ID NO: 1002, and wherein said binding molecule is a polypeptide. (a) the first binding domain is capable of binding to epitope cluster 3 and to epitope cluster 4 of BCMA; and (b) the second binding domain is capable of binding to CD3; and
A terminal having an infrared remote control function, comprising: a processor , an infrared transmitter , and a rotation apparatus , wherein the rotation apparatus is configured to: under the control of the processor , drive the terminal to rotate in a horizontal direction and a vertical direction; the infrared transmitter is configured to: under the control of the processor , emit an infrared signal to a to-be-remotely-controlled device ; characterized in that the processor is configured to: in a process of controlling the rotation apparatus to drive the terminal to rotate, determine spatial angle coordinates of each to-be-remotely-controlled device in to-be-remotely-controlled devices surrounding the terminal relative to the terminal ; and control, for each determined set of spatial angle coordinates, the rotation apparatus to rotate the terminal according to the spatial angle coordinates, so that the infrared signal sent by the terminal points to a to-be-remotely-controlled device at the spatial angle coordinates; and then control the infrared transmitter to send the infrared signal to the to-be-remotely-controlled device , so that the terminal establishes a pairing with the to-be-remotely-controlled device. in a process of controlling the rotation apparatus to drive the terminal to rotate, determine spatial angle coordinates of each to-be-remotely-controlled device in to-be-remotely-controlled devices surrounding the terminal relative to the terminal ; and control, for each determined set of spatial angle coordinates, the rotation apparatus to rotate the terminal according to the spatial angle coordinates, so that the infrared signal sent by the terminal points to a to-be-remotely-controlled device at the spatial angle coordinates; and then control the infrared transmitter to send the infrared signal to the to-be-remotely-controlled device , so that the terminal establishes a pairing with the to-be-remotely-controlled device.
Liquid storage system for a vehicle, comprising a main compartment ; a secondary compartment , the upper part of which having an opening leading to the main compartment , said upper opening , the secondary compartment comprising: - an outlet for a feed pump connected to pump liquid (L) from the secondary compartment to an outlet of the feed pump ; - a pump, having an inlet for pumping liquid (L) from the main compartment and an outlet which delivers liquid (L) to the secondary compartment ; characterised in that the secondary compartment comprises: - a level sensor configured to measure a liquid level (L); - fluid connection means between the main compartment and the secondary compartment , allowing the free flow of liquid (L) between the two compartments ; the fluid connection means being connected to the secondary compartment on a wall thereof at a level below that of the top opening . a main compartment ; a secondary compartment , the upper part of which having an opening leading to the main compartment , said upper opening , the secondary compartment comprising: - an outlet for a feed pump connected to pump liquid (L) from the secondary compartment to an outlet of the feed pump ; - a pump, having an inlet for pumping liquid (L) from the main compartment and an outlet which delivers liquid (L) to the secondary compartment ; - an outlet for a feed pump connected to pump liquid (L) from the secondary compartment to an outlet of the feed pump ; - a pump, having an inlet for pumping liquid (L) from the main compartment and an outlet which delivers liquid (L) to the secondary compartment ; characterised in that the secondary compartment comprises: - a level sensor configured to measure a liquid level (L); - fluid connection means between the main compartment and the secondary compartment , allowing the free flow of liquid (L) between the two compartments ; - a level sensor configured to measure a liquid level (L); - fluid connection means between the main compartment and the secondary compartment , allowing the free flow of liquid (L) between the two compartments ; the fluid connection means being connected to the secondary compartment on a wall thereof at a level below that of the top opening .
An injection molding system comprising: an injection molding machine adapted to inject and form a product according to an injection molding parameter (P1); an automatic inspecting device adapted to inspect the product to generate inspection data (D); and a defect correction module adapted to generate a calibrating parameter (P2) according to the inspection data (D) and defect information pre-stored in the defect correction module , wherein the injection molding machine is adapted to inject and form another product according to the injection molding parameter (P1) and the calibrating parameter (P2), wherein the defect correction module has a database , the database comprises a plurality of pieces of defect sample information (I1) and a plurality of pieces of defect correction information (I2), one of the pieces of the defect sample information (I1) corresponds to the inspection data (D), one of the pieces of the defect correction information corresponds to the one of the pieces of the defect sample information (I1), and the defect correction module is adapted to generate the calibrating parameter (P2) according to the one of the pieces of the defect correction information (I2). an injection molding machine adapted to inject and form a product according to an injection molding parameter (P1); an automatic inspecting device adapted to inspect the product to generate inspection data (D); and a defect correction module adapted to generate a calibrating parameter (P2) according to the inspection data (D) and defect information pre-stored in the defect correction module , wherein the injection molding machine is adapted to inject and form another product according to the injection molding parameter (P1) and the calibrating parameter (P2), wherein the defect correction module has a database , the database comprises a plurality of pieces of defect sample information (I1) and a plurality of pieces of defect correction information (I2), one of the pieces of the defect sample information (I1) corresponds to the inspection data (D), one of the pieces of the defect correction information corresponds to the one of the pieces of the defect sample information (I1), and the defect correction module is adapted to generate the calibrating parameter (P2) according to the one of the pieces of the defect correction information (I2).
A method for near-field reconstruction in indirect far-field systems comprising the steps of: measuring a reference antenna for orthogonal field components in terms of magnitude and/or phase in a direct spherical near-field system at a well geometrically defined distance (R 0 ), measuring the reference antenna for orthogonal field components in terms of magnitude and/or phase in an indirect far-field system, and optimizing the orthogonal field components in the indirect far-field system with respect to the orthogonal field components in the direct spherical near-field system, whereby reconstructing the near-field of the reference antenna in the indirect far-field system; wherein the optimization step comprises the steps of: applying a Fourier transformation in order to transform the orthogonal field components in terms of magnitude and/or phase in the direct spherical near-field system at other distances, and identifying an equivalent distance (R eq ) such that the orthogonal field components measured in the indirect far-field system are closest to the transformed orthogonal field components in the direct spherical near-field system. measuring a reference antenna for orthogonal field components in terms of magnitude and/or phase in a direct spherical near-field system at a well geometrically defined distance (R 0 ), measuring the reference antenna for orthogonal field components in terms of magnitude and/or phase in an indirect far-field system, and optimizing the orthogonal field components in the indirect far-field system with respect to the orthogonal field components in the direct spherical near-field system, whereby reconstructing the near-field of the reference antenna in the indirect far-field system; applying a Fourier transformation in order to transform the orthogonal field components in terms of magnitude and/or phase in the direct spherical near-field system at other distances, and identifying an equivalent distance (R eq ) such that the orthogonal field components measured in the indirect far-field system are closest to the transformed orthogonal field components in the direct spherical near-field system.