mhurhangee/patent-ind-claim-en huggingface dataset:
Protection module for a fieldbus system having an interface unit , a control unit , a supply input , which is designed for feeding a supply energy into the protection module , a first supply output , which is designed for forwarding the supply energy to a load as a protected supply energy, a first switching element , which is designed to electrically connect or to electrically disconnect the supply input and the first supply output , and a supply module , which is designed to provide an operating energy via an operating energy supply line for operation of the control unit , wherein a fieldbus energy input is designed for feeding a fieldbus energy into the protection module for operation of the interface unit , wherein the interface unit is connected to the control unit by a data line and is designed to connect the protection module to a fieldbus subscriber by means of a fieldbus , as a result of which it is possible for fieldbus data to be interchanged between the control unit and the fieldbus subscriber , and wherein the control unit is connected to the first switching element and is designed to protect the forwarding of the supply energy as protected supply energy via the first supply output by controlling the first switching element , characterized in that the supply module is electrically connected to the supply input by means of a supply line and a supply connecting line and to the fieldbus energy input by means of a fieldbus energy line and a fieldbus energy connecting line , wherein the supply module is designed to generate the operating energy either from the supply energy or from the fieldbus energy.
An immunoassay method for measuring an amount of free AIM in a biological sample containing complex AIM and free AIM, the method comprising: bringing the biological sample into contact with an anti-AIM antibody in the presence of an anti-IgM antibody, wherein "free AIM" means AIM existing in a free state without being bound to other substances such as lipopolysaccharide or IgM and "complex AIM" means AIM bound to other substances such as lipopolysaccharide or IgM and existing in a state of a complex; wherein the anti-AIM antibody reacts with both complex AIM and free AIM in the absence of an anti-IgM antibody; and wherein presence of the anti-IgM antibody reduces the reactivity of the anti-AIM antibody with the complex AIM. wherein "free AIM" means AIM existing in a free state without being bound to other substances such as lipopolysaccharide or IgM and "complex AIM" means AIM bound to other substances such as lipopolysaccharide or IgM and existing in a state of a complex; wherein the anti-AIM antibody reacts with both complex AIM and free AIM in the absence of an anti-IgM antibody; and wherein presence of the anti-IgM antibody reduces the reactivity of the anti-AIM antibody with the complex AIM.
Solder resist for applying by means of inkjet technology, wherein the composition of the solder resist has thermal resistance for an inkjet system, and wherein the composition comprises at least the following components: - at least one monomer with at least one cationically hardenable group, and/or at least one oligomer with cationically hardenable group, - at least one monomer with at least one radically hardenable group and/or at least one oligomer with at least one radically hardenable group, - at least one monomer with at least one thermally hardenable group and/or at least one oligomer with at least one thermally hardenable group, - at least one radically initiating photopolymerisation initiator, and - at least one cationically initiating photopolymerisation initiator, wherein the composition is free of volatile solvents, which in the hardened state of the composition are no longer present in the composition, and wherein, furthermore, on the one hand at least one cationically hardenable group is selected from a group comprising the cycloaliphatic epoxides and vinyl ether, and, on the other, at least one radically hardenable group is selected from a group comprising acrylate esters, methacrylate esters, and vinyl ethers, wherein, in addition, on the one hand the composition comprises molecules in which in each case at least one cationically hardenable component and at least one radically hardenable component are present in common, and, on the other hand, the individual components of the composition are selected and formed in such a way that, on hardening, the solder resist forms a interpenetrating network, consisting of at least two networks. - at least one monomer with at least one cationically hardenable group, and/or at least one oligomer with cationically hardenable group, - at least one monomer with at least one radically hardenable group and/or at least one oligomer with at least one radically hardenable group, - at least one monomer with at least one thermally hardenable group and/or at least one oligomer with at least one thermally hardenable group, - at least one radically initiating photopolymerisation initiator, and - at least one cationically initiating photopolymerisation initiator,
Eye tracking system for determining the gaze direction of a user; comprising: a camera for recording the eyes of the user; a light source for illuminating at least the eyes of the user, which is configured to emit light of a first wavelength having a first power and to emit light of a second wavelength having a second power; wherein the first power is less than the second power; wherein the first wavelength is in the range of 800 nm to 900 nm; and wherein the second wavelength is greater than 1.2 μm; electronic computing means ; wherein the eye tracking system is configured for the following: recognizing that the illumination of the user with light of the first wavelength having the first power is insufficient for a predefined quality of the determination of the gaze direction; in response to the recognizing: illuminating the user with light of the second wavelength having the second power with the aid of the light source; determining the gaze direction of the user. a camera for recording the eyes of the user; a light source for illuminating at least the eyes of the user, which is configured to emit light of a first wavelength having a first power and to emit light of a second wavelength having a second power; wherein the first power is less than the second power; wherein the first wavelength is in the range of 800 nm to 900 nm; and wherein the second wavelength is greater than 1.2 μm; electronic computing means ; wherein the eye tracking system is configured for the following: recognizing that the illumination of the user with light of the first wavelength having the first power is insufficient for a predefined quality of the determination of the gaze direction; in response to the recognizing: illuminating the user with light of the second wavelength having the second power with the aid of the light source; determining the gaze direction of the user. recognizing that the illumination of the user with light of the first wavelength having the first power is insufficient for a predefined quality of the determination of the gaze direction; in response to the recognizing: illuminating the user with light of the second wavelength having the second power with the aid of the light source; determining the gaze direction of the user.
Method for manufacturing and assembling a pump , characterized in that the method comprises the steps of providing a housing ; providing a rotor or a rotor mock-up and a rotor axis , the rotor or the rotor mock-up being inserted into the housing and being arranged to rotate around the rotor axis ; determining an optimal distance (g_opt) between the housing and the rotor ; moving the housing or the rotor or rotor mock-up relative to each other in a tangency direction (d), so that the distance between the rotor or the rotor mock-up and the housing is substantially equal to the optimal distance (g_opt), wherein the tangency direction (d) is the direction which joins the points of the rotor or rotor mock-up and the housing which are closer to each other when the rotor or rotor mock-up is located in its operation position; and affixing the relative position between the housing and the rotor or the rotor mock-up. providing a housing ; providing a rotor or a rotor mock-up and a rotor axis , the rotor or the rotor mock-up being inserted into the housing and being arranged to rotate around the rotor axis ; determining an optimal distance (g_opt) between the housing and the rotor ; moving the housing or the rotor or rotor mock-up relative to each other in a tangency direction (d), so that the distance between the rotor or the rotor mock-up and the housing is substantially equal to the optimal distance (g_opt), wherein the tangency direction (d) is the direction which joins the points of the rotor or rotor mock-up and the housing which are closer to each other when the rotor or rotor mock-up is located in its operation position; and affixing the relative position between the housing and the rotor or the rotor mock-up.
Apparatus for monitoring an operation of mixing a liquid sample, the device comprising a) a gripper for a liquid container , b) a shaking device , wherein the shaking device can set in motion a liquid container filled with liquid and inserted into the gripper for mixing the liquid, characterized in that the apparatus comprises c) an optical sensor for ascertaining filling levels of the liquid on an inner wall of the liquid container moved by the shaking device , wherein the filling level is variable over time in dependence on the motion of the liquid container , d) a memory for storing the filling levels ascertained by the optical sensor , and e) an evaluation device for evaluating the filling levels stored in the memory , wherein the evaluation device determines on the basis of the stored filling levels whether the liquid has been sufficiently mixed through, wherein the optical sensor comprises a line sensor and/or area sensor for detecting brightness values. a) a gripper for a liquid container , b) a shaking device , wherein the shaking device can set in motion a liquid container filled with liquid and inserted into the gripper for mixing the liquid, c) an optical sensor for ascertaining filling levels of the liquid on an inner wall of the liquid container moved by the shaking device , wherein the filling level is variable over time in dependence on the motion of the liquid container , d) a memory for storing the filling levels ascertained by the optical sensor , and e) an evaluation device for evaluating the filling levels stored in the memory ,
Method for navigating a vehicle in a road network in which an edge node network comprising a plurality of stationary edge nodes and a plurality of mobile edge nodes is provided, wherein a mobile edge node is an edge node which is moving while it provides the computing power, wherein a vehicle, a drone or a mobile base station is used as a mobile edge node , wherein a stationary edge node is an edge node set up locally in a stationary manner or a base station belonging to a network operator and/or a mobile radio provider, wherein the vehicle is designed to transfer computing power to at least one of the stationary edge nodes and/or the mobile edge nodes of the edge node network , having the following steps of: 1) suggesting at least one route (R) in the road network to a user of the vehicle , 2) assigning, to the at least one route (R), at least one item of current or predicted information (I) relating to the stationary edge nodes and the mobile edge nodes of the edge node network along the at least one route (R), wherein, in step 1), the at least one route (R) is indicated on a map (K) depicting the road network, the stationary edge nodes and the mobile edge nodes of the edge node network , and wherein, in step 2), the at least one item of current or predicted information (I) relating to the stationary edge nodes and the mobile edge nodes of the edge node network in a catchment area of the vehicle and/or along the at least one route (R) is depicted on the map (K). wherein a mobile edge node is an edge node which is moving while it provides the computing power, wherein a vehicle, a drone or a mobile base station is used as a mobile edge node , wherein a stationary edge node is an edge node set up locally in a stationary manner or a base station belonging to a network operator and/or a mobile radio provider, wherein the vehicle is designed to transfer computing power to at least one of the stationary edge nodes and/or the mobile edge nodes of the edge node network , having the following steps of: 1) suggesting at least one route (R) in the road network to a user of the vehicle , 2) assigning, to the at least one route (R), at least one item of current or predicted information (I) relating to the stationary edge nodes and the mobile edge nodes of the edge node network along the at least one route (R), 1) suggesting at least one route (R) in the road network to a user of the vehicle , 2) assigning, to the at least one route (R), at least one item of current or predicted information (I) relating to the stationary edge nodes and the mobile edge nodes of the edge node network along the at least one route (R), wherein, in step 1), the at least one route (R) is indicated on a map (K) depicting the road network, the stationary edge nodes and the mobile edge nodes of the edge node network , and wherein, in step 2), the at least one item of current or predicted information (I) relating to the stationary edge nodes and the mobile edge nodes of the edge node network in a catchment area of the vehicle and/or along the at least one route (R) is depicted on the map (K).
A sensor sleeve for use with a tool, the sensor sleeve comprising: a body defining a central longitudinal axis, the body being configured to receive the distal part of-a tool; a plurality of sensors attached to the body; a cabling extending proximally from an end of the body; and an interface connector coupled to the cabling and configured to interface with a navigation system , characterized in that the body comprises a first shell ("I") and a second shell ("II") hingedly connected together along a first axis ("A") that extends in a direction parallel to the central longitudinal axis, whereby the sensor sleeve is capable of being hingedly opened about the first axis and of being closed to form a tubular body having a lumen defined therethrough. a body defining a central longitudinal axis, the body being configured to receive the distal part of-a tool; a plurality of sensors attached to the body; a cabling extending proximally from an end of the body; and an interface connector coupled to the cabling and configured to interface with a navigation system , characterized in that the body comprises a first shell ("I") and a second shell ("II") hingedly connected together along a first axis ("A") that extends in a direction parallel to the central longitudinal axis, whereby the sensor sleeve is capable of being hingedly opened about the first axis and of being closed to form a tubular body having a lumen defined therethrough.
Tool or workpiece receptacle with a receiving body and a clamping device for clamping a tool or a workpiece in a receiving opening of the receiving body , wherein the clamping device comprises a first clamping element displaceable in a receptacle of the receiving body transversely to a central axis of the receiving opening and a second clamping element displaceable by means of an operating element relative to the first clamping element transversely to the central axis of the receiving opening and having conical lower clamping surfaces on the two clamping elements for drawing the tool or workpiece into the receiving opening and wherein an ejection device is arranged on the first clamping element for ejecting the tool or workpiece from the receiving opening when the clamping elements are moved into a release position, and the ejection device comprises ejection elements arranged on the underside of the first clamping element and having a conical upper ejection surface , characterized in that the conical lower clamping surface of the first clamping element is arranged on one side of an opening in the first clamping element and the ejection elements are arranged on the first clamping element on the opposite other side of the opening .
A fingerprint sensing module comprising: a fingerprint sensor device having a sensing array arranged on a first side of the device, the sensing array comprising an array of fingerprint sensing elements, wherein said fingerprint sensor device comprises connection pads for connecting said fingerprint sensor device to external circuitry, wherein said connection pads are arranged on a second side of said fingerprint sensor device, opposite of said first side of said fingerprint sensor device, said fingerprint sensor device further comprising a substrate comprising via connections reaching from said first side of said fingerprint sensor device to said connection pads of said second side of said fingerprint sensor device; a fingerprint sensor device cover structure arranged to cover said fingerprint sensor device, said cover structure having a first side configured to be touched by a finger, thereby forming a sensing surface of said sensing module, and a second side facing said sensing array, wherein said cover structure comprises conductive traces arranged on the second side of the cover structure, for electrically connecting said fingerprint sensing module to external circuitry, and wherein a surface area of said cover structure is larger than a surface area of said sensor device; wherein said fingerprint sensor device further comprises wire-bonds electrically connecting said connection pads of said fingerprint sensor device to said conductive traces of said cover structure. a fingerprint sensor device having a sensing array arranged on a first side of the device, the sensing array comprising an array of fingerprint sensing elements, wherein said fingerprint sensor device comprises connection pads for connecting said fingerprint sensor device to external circuitry, wherein said connection pads are arranged on a second side of said fingerprint sensor device, opposite of said first side of said fingerprint sensor device, said fingerprint sensor device further comprising a substrate comprising via connections reaching from said first side of said fingerprint sensor device to said connection pads of said second side of said fingerprint sensor device; a fingerprint sensor device cover structure arranged to cover said fingerprint sensor device, said cover structure having a first side configured to be touched by a finger, thereby forming a sensing surface of said sensing module, and a second side facing said sensing array, wherein said cover structure comprises conductive traces arranged on the second side of the cover structure, for electrically connecting said fingerprint sensing module to external circuitry, and wherein a surface area of said cover structure is larger than a surface area of said sensor device; wherein said fingerprint sensor device further comprises wire-bonds electrically connecting said connection pads of said fingerprint sensor device to said conductive traces of said cover structure.
A multi-SIM call management method, wherein the method comprises: parsing , by a managed device, an incoming call to obtain call information, wherein the call information comprises a called identifier; determining , by the managed device, a communications subunit corresponding to the called identifier, wherein the communications subunit is configured to implement, on the managed device, a communication function corresponding to the profile, and the communication function comprises at least answering an incoming call that points to the profile; and skipping responding , by the managed device, to an incoming call event if the managed device has performed an incoming call shielding setting on the communications subunit in response to a remote management instruction sent by an entitlement server ES, wherein the remote management instruction comprises an identifier of a managed profile in the managed device, wherein a management device is configured to send the remote management instruction to the managed device by using the ES. parsing , by a managed device, an incoming call to obtain call information, wherein the call information comprises a called identifier; determining , by the managed device, a communications subunit corresponding to the called identifier, wherein the communications subunit is configured to implement, on the managed device, a communication function corresponding to the profile, and the communication function comprises at least answering an incoming call that points to the profile; and skipping responding , by the managed device, to an incoming call event if the managed device has performed an incoming call shielding setting on the communications subunit in response to a remote management instruction sent by an entitlement server ES, wherein the remote management instruction comprises an identifier of a managed profile in the managed device, wherein a management device is configured to send the remote management instruction to the managed device by using the ES.
A stator cooling assembly for a linear motor, comprising a stator and a modular cooling arrangement mounted on the stator , the modular cooling arrangement comprising: a U-shaped fluid cooling pipe having a first linear segment extending along a first longitudinal side of the stator and a second linear segment extending along a second longitudinal side of the stator , opposite the first longitudinal side, an inlet and an outlet port connected to a free end of the first and second linear segments respectively of the fluid cooling pipe for circulating a cooling fluid along both longitudinal sides of the stator , a central cooling arrangement comprising primary cooling units mounted into respective recesses of the stator extending across said stator from the first to the second longitudinal side, and connecting members connecting the central cooling arrangement to the U-shaped fluid cooling pipe , wherein each primary cooling unit comprises at least one heat pipe having a first portion extending along the corresponding recess of the stator , and a second portion extending along a portion of the U-shaped fluid cooling pipe , and wherein the connecting members connect the second portion of said at least one heat pipe of each primary cooling unit to the corresponding portions of the U-shaped fluid cooling pipe . a U-shaped fluid cooling pipe having a first linear segment extending along a first longitudinal side of the stator and a second linear segment extending along a second longitudinal side of the stator , opposite the first longitudinal side, an inlet and an outlet port connected to a free end of the first and second linear segments respectively of the fluid cooling pipe for circulating a cooling fluid along both longitudinal sides of the stator , a central cooling arrangement comprising primary cooling units mounted into respective recesses of the stator extending across said stator from the first to the second longitudinal side, and connecting members connecting the central cooling arrangement to the U-shaped fluid cooling pipe , wherein each primary cooling unit comprises at least one heat pipe having a first portion extending along the corresponding recess of the stator , and a second portion extending along a portion of the U-shaped fluid cooling pipe , and wherein the connecting members connect the second portion of said at least one heat pipe of each primary cooling unit to the corresponding portions of the U-shaped fluid cooling pipe .