mhurhangee/patent-ind-claim-en huggingface dataset:
Automatic pipetting device, suitable for transferring samples and/or reagents from sample vessels and/or reagent vessels into at least one receiving vessel , for example of an analyzer designed for analyzing liquid samples, wherein a pipettor (300a; 300b) of the pipetting device is designed to be movable along a first direction (x) and has at least one first pipetting needle (301a1, 301b1) which is designed to be movable along an arm of the pipettor (300a; 300b) along a y-direction, substantially normal to the x-direction, and is designed to be lowerable into the individual vessels along a z-direction, characterised in that the horizontal arm (304a; 304b) of the movable pipettor (300a; 300b) is attached to a vertical tower (303a; 303b) which is fastened by means of a movable mount to a rail (111a; 111b) extending in the x-direction, wherein the horizontal arm (304a; 304b) has at least one second pipetting needle (301a2; 301b2) which, regardless of the current position of the first pipetting needle (301a1, 301b1), is movable past the first pipetting needle and is lowerable into the individual vessels , and wherein the two independently movable pipetting needles (301a1, 301a2, 301b1, 301b2) are arranged on opposite longitudinal sides or side faces of the arm (304a; 304b) of the pipettor (300a; 300b).
A method for identifying a device from a digital content having been received by said device from a master device located at a user end , said master device being further configured to be connected to a server located at a back end , said method comprising the steps of: - receiving, by the master device from the device , at least device identification data ; - generating, at the master device , a first mark as a function of at least a part of said device identification data ; - watermarking said digital content using said first mark before transmitting said digital content to said device ; said method further comprising the steps of: - generating, at the master device , event data comprising at least a master device identifier and at least a part of said device identification data ; - sending said event data to the server via a return path linking the master device to said server and storing said event data in the master device ; wherein it further comprises the steps of: - receiving, at the master device , a code generated by the server in response to said event data received by the server ; - using said code for generating said first mark at the master device . - receiving, by the master device from the device , at least device identification data ; - generating, at the master device , a first mark as a function of at least a part of said device identification data ; - watermarking said digital content using said first mark before transmitting said digital content to said device ; - generating, at the master device , event data comprising at least a master device identifier and at least a part of said device identification data ; - sending said event data to the server via a return path linking the master device to said server and storing said event data in the master device ; - receiving, at the master device , a code generated by the server in response to said event data received by the server ; - using said code for generating said first mark at the master device .
A release agent for a hot-forging die which is water-soluble and sprayed onto the hot-forging die, wherein the release agent for a hot-forging die is a water-soluble graphite-based release agent having graphite particles dispersed in water and/or a water-soluble white release agent containing no graphite made by blending water-soluble polymers or inorganic salts and adding a solid lubricant, the release agent for a hot-forging die contains micronanobubbles, the diameters of the micronanobubbles are greater than or equal to 0.1 μm and less than or equal to 200 μm, the content of the micronanobubbles is greater than or equal to 0.1 vol% and less than or equal to 10 vol%, wherein the diameters of the micronanobubbles are diameters where the micronanobabbles are regarded as perfect spheres, the diameters of the micronanobubbles are obtained when water containing the micronanobubbles is solidified with gelatin to prepare a specimen of micronanobubble water, and sizes of the micronanobubbles contained in the specimen are measured with an inverted microscope, the content of the micronanobubbles is represented in a volume of the micronanobubbles contained in a unit volume of the release agent for a hot-forging die, and the content of the micronanobubbles is represented in the volume of the micronanobubbles per unit volume contained in the water containing the micronanobubbles.
Device for timber harvesting, having a controllable extension arm and a sawing and gripper unit which is attached to the extension arm and comprises a sawing unit as well as a gripper unit , wherein the gripper unit has at least one gripper pair of two gripper arms for a tree trunk which can be pivoted about gripper pivot axes (G 1 , G 2 ) relative to one another, and the sawing unit has a pivot drive, which is arranged in a saw box , for a cutting element, which is arranged such that it can be pivoted out of the saw box , for severing the tree trunk, which cutting element is designed as a chain saw, characterized in that the saw box is pivotably arranged on the gripper unit about a pivot axis (S) and is connected to the gripper unit via a spring element and a piston-cylinder unit , wherein the spring element defines a predetermined cutting position of the saw box via a restoring torque about the pivot axis (S) in its equilibrium position, with an associated cutting plane of the cutting element, and the saw box is pivotable by means of the piston-cylinder unit , by overcoming the restoring torque of the spring element , into an inclined position which is tilted relative to the cutting position and with which an inclined plane of the cutting element tilted relative to the cutting plane is associated, wherein the bearing of the piston-cylinder unit on the saw box or on the gripper unit has a free movement space in the cutting position of the saw box .
Bathroom or kitchen mixer group , comprising: - water temperature and flowrate regulating means ; - a cover for covering the water temperature and flowrate regulating means and the one connector for the hot or cold water from mains supply pipes; a removable expansion block being mounted on one side of the cover ), wherein the cover is mounted on a plate intended to be fixed to a wall, said plate comprising a hole for said one connector , and a receiving seat for housing the regulating means is defined between the plate and the cover , characterized in that the receiving seat is intended to house only said one connector among the hot or cold water connectors and the other connector of the hot and cold water connectors is intended to be concealingly housed inside a space of the expansion block . - water temperature and flowrate regulating means ; - a cover for covering the water temperature and flowrate regulating means and the one connector for the hot or cold water from mains supply pipes;
Linear electromagnetic actuator comprising a stator excited by at least one electric coil which is arranged around an axis of symmetry of the coil and two ferromagnetic stator poles positioned axially on either side of the coil , also comprising at least two independent movable members , there being no mechanical connection between the two movable members , each of said movable members being formed by a ferromagnetic material, characterized in that said actuator comprises at least three magnetized poles that are fixed relative to the movable members , each of the magnetized poles having permanent magnetization in the absence of current and being arranged inside the coil , respectively a first magnetized pole positioned in the region of the median plane separating the two movable members and containing the axis of symmetry of the coil , and a second magnetized pole and a third magnetized pole , said first, second and third magnetized poles being arranged laterally on either side of said movable members between said movable members and the coil .
An optical disc, wherein converted code words are recorded, wherein the converted code words are obtained by bit-inverting all bits of each of m symbols of an error correction code word including symbol C(i), and are recorded by a wobble form of a track, wherein m is an integer with 2 ≤ m < n, n is an integer, and i = 0, 1, 2, ... n; the error correction code word is obtained by coding address information of the optical disc with an error correction code which is a cyclic code; and at least one of the symbol C and the symbol C(n) is a non-bit-inverted symbol; characterized in that said m symbols are divided into k blocks which are not adjacent to each other, wherein k is an integer of 2 or greater, and at least one non-bit-inverted symbol is present between the blocks; and the number of symbols that can be corrected by the error correction code is less than 2 time k.
An apparatus comprising means for: providing (8.1) data indicative of dimensions of a real-world space within which a volumetric virtual world is to be consumed; identifying (8.2) one or more objects within said real-world space; determining (8.3) one or more available areas within the real-world space for rendering three-dimensional volumetric virtual content data representing a first volumetric virtual world, based at least partly on the dimensions of the real-world space; identifying (8.4) one or more of the objects as being movable; identifying (8.7), from a set of three-dimensional volumetric virtual content items, one or more candidate items unable to be rendered within the available area(s) and which can be rendered if one or more of the movable objects is moved; and whilst rendering the first volumetric virtual world to a virtual reality user device, providing (8.8) an indication to the virtual reality user device by means of a user interface overlaid onto the current virtual world being consumed by the user of the candidate virtual item(s) and of the movable object(s) required to be moved. providing (8.1) data indicative of dimensions of a real-world space within which a volumetric virtual world is to be consumed; identifying (8.2) one or more objects within said real-world space; determining (8.3) one or more available areas within the real-world space for rendering three-dimensional volumetric virtual content data representing a first volumetric virtual world, based at least partly on the dimensions of the real-world space; identifying (8.4) one or more of the objects as being movable; identifying (8.7), from a set of three-dimensional volumetric virtual content items, one or more candidate items unable to be rendered within the available area(s) and which can be rendered if one or more of the movable objects is moved; and whilst rendering the first volumetric virtual world to a virtual reality user device, providing (8.8) an indication to the virtual reality user device by means of a user interface overlaid onto the current virtual world being consumed by the user of the candidate virtual item(s) and of the movable object(s) required to be moved.
A gas sensor, comprising: a gas-sensitive layer; and a heating element to heat the gas-sensitive layer, the heating element comprising a heater track having first and second outer electric terminals and having at least one inner electric terminal located between the outer electric terminals; characterized in that : the heating element is configurable in terms of the pattern of temperatures produced along the heating track, being designed to produce different temperature profiles along the heating track upon application of respective different patterns of electric potentials to the inner and outer terminals; and there is provided a control unit which is configured to control the different patterns of electric potentials applied to the inner and outer electric terminals of the heater track during use, the different patterns of electric potentials being defined by respective different control profiles applied by the control unit. a gas-sensitive layer; and a heating element to heat the gas-sensitive layer, the heating element comprising a heater track having first and second outer electric terminals and having at least one inner electric terminal located between the outer electric terminals; characterized in that : the heating element is configurable in terms of the pattern of temperatures produced along the heating track, being designed to produce different temperature profiles along the heating track upon application of respective different patterns of electric potentials to the inner and outer terminals; and there is provided a control unit which is configured to control the different patterns of electric potentials applied to the inner and outer electric terminals of the heater track during use, the different patterns of electric potentials being defined by respective different control profiles applied by the control unit. the heating element is configurable in terms of the pattern of temperatures produced along the heating track, being designed to produce different temperature profiles along the heating track upon application of respective different patterns of electric potentials to the inner and outer terminals; and there is provided a control unit which is configured to control the different patterns of electric potentials applied to the inner and outer electric terminals of the heater track during use, the different patterns of electric potentials being defined by respective different control profiles applied by the control unit.
Method for diagnosing the electrical lines of a broadband lambda probe , wherein the electrical lines of the broadband lambda probe are each connected to a connection (RE, IPE,APE, MES) of an evaluation and control unit , wherein the evaluation and control unit is in the form of an ASIC, in particular, and is used to operate a broadband lambda probe having at least two electrical lines ; wherein the evaluation and control unit has at least two electrical connections (RE, IPE,APE, MES) for electrical connection to the electrical lines of the broadband lambda probe , wherein each of the electrical connections (RE, IPE,APE, MES) is respectively assigned an electrical switch (Swt RE , Swt IPE , Swt APE , Swt MES ) which can be used to individually connect the respective connection (RE, IPE,APE, MES) to at least one defined electrical potential (GND, V SET1 , V SET2 ) which can assume two different defined values, wherein the respective switch (Swt RE , Swt IPE , Swt APE , Swt MES ) can be exposed to a voltage of 16 V, which is applied to the respective connection (RE, IPE,APE, MES), for several seconds without damage, wherein the method provides that precisely one of the electrical switches (Swt RE , Swt IPE , Swt APE , Swt MES ) is closed in succession in each case, and that, for each line , a first current (I 1 ) is measured while the defined potential (GND, V SET1 , V SET2 ) has a first value, and a second current (I 2 ) is measured while the defined potential (GND, V SET1 , V SET2 ) has a second value, and that a short-circuit resistance (Rsc) is determined for each line from the value of the first potential and the value of the second potential and the value of the first current and the value of the second current, in particular on the basis of the assumption that the electrical lines of the lambda probe have a high impedance with respect to one another.
Drainage and press dewatering system for manufacture of paper, or board, comprising (a) amphoteric polyacrylamide, which is a copolymer obtained by polymerizing (meth)acrylamide and 3-25 mol-% of cationic monomers and 0.5 - 9 mol-% of anionic monomers, wherein cationic charge density of the amphoteric polyacrylamide is in the range of 0.35 - 3 meq/g, determined by Mütek PCD at pH 2.7, and the polyacrylamide having an intrinsic viscosity in the range of 6 - 38 dl/g determined in 1 M NaCl at 25°C, (b) inorganic microparticles of siliceous material, such as colloidal silica or bentonite, and (c) a high-charged aluminium based cationic coagulant having a charge density over 5 meq/g and preferably over 6 meq/g determined at pH 6. (a) amphoteric polyacrylamide, which is a copolymer obtained by polymerizing (meth)acrylamide and 3-25 mol-% of cationic monomers and 0.5 - 9 mol-% of anionic monomers, wherein cationic charge density of the amphoteric polyacrylamide is in the range of 0.35 - 3 meq/g, determined by Mütek PCD at pH 2.7, and the polyacrylamide having an intrinsic viscosity in the range of 6 - 38 dl/g determined in 1 M NaCl at 25°C, (b) inorganic microparticles of siliceous material, such as colloidal silica or bentonite, and (c) a high-charged aluminium based cationic coagulant having a charge density over 5 meq/g and preferably over 6 meq/g determined at pH 6.
A first communications device, wherein the first communications device is disposed in a first vehicle, and the first communications device comprises: a first information processing unit, wherein the first information processing unit obtains first status information of the first vehicle; determines, based on the first status information, whether a vehicle accident occurs and generates a first emergency call message when determining that the vehicle accident has occurred ; and a first vehicle-to-vehicle communications unit, wherein the first vehicle-to-vehicle communications unit is coupled to the first information processing unit, and the first vehicle-to-vehicle communications unit receives the first emergency call message from the first information processing unit, characterized in that the first emergency call message comprises a first accident level; the first vehicle-to-vehicle communications unit sends the first emergency call message in a first range around the first vehicle; after sending the first emergency call message, the first information processing unit obtains second status information of the first vehicle; and when the first vehicle-to-vehicle communications unit receives, within first duration, a rescue response message in response to the first emergency call message, the first information processing unit generates, based on the second status information and the rescue response message, a second emergency call message comprising a second accident level, and sends the second emergency call message in a second range around the first vehicle. a first information processing unit, wherein the first information processing unit obtains first status information of the first vehicle; determines, based on the first status information, whether a vehicle accident occurs and generates a first emergency call message when determining that the vehicle accident has occurred ; and a first vehicle-to-vehicle communications unit, wherein the first vehicle-to-vehicle communications unit is coupled to the first information processing unit, and the first vehicle-to-vehicle communications unit receives the first emergency call message from the first information processing unit, characterized in that the first emergency call message comprises a first accident level; the first vehicle-to-vehicle communications unit sends the first emergency call message in a first range around the first vehicle; after sending the first emergency call message, the first information processing unit obtains second status information of the first vehicle; and when the first vehicle-to-vehicle communications unit receives, within first duration, a rescue response message in response to the first emergency call message, the first information processing unit generates, based on the second status information and the rescue response message, a second emergency call message comprising a second accident level, and sends the second emergency call message in a second range around the first vehicle.
An input device manufacturing method, comprising: a lamination step of preparing a first substrate which is a first resin panel formed from a flat plate of a translucent synthetic resin, a second substrate which is a second resin panel formed from a flat plate of a translucent synthetic resin, and a sensor film formed from a translucent resin film on which a translucent electrode is disposed, bonding the first substrate and the sensor film together by means of a first adhesive layer there between, bonding the second substrate and the sensor film together by means of a second adhesive layer there between, thereby holding the sensor film between the first substrate and the second substrate to form a flat multilayer body ; and a bending step of bending the flat multilayer body into a curved multilayer body retaining a curved shape, wherein the curved multilayer body includes a non-lamination area in which the second substrate is absent when viewed in a lamination direction, and wherein the lamination step includes extending of a lead portion including a lead electrically connected to the electrode of the sensor film through the non-lamination area to a surface of the second substrate opposite to a surface facing the sensor film . a lamination step of preparing a first substrate which is a first resin panel formed from a flat plate of a translucent synthetic resin, a second substrate which is a second resin panel formed from a flat plate of a translucent synthetic resin, and a sensor film formed from a translucent resin film on which a translucent electrode is disposed, bonding the first substrate and the sensor film together by means of a first adhesive layer there between, bonding the second substrate and the sensor film together by means of a second adhesive layer there between, thereby holding the sensor film between the first substrate and the second substrate to form a flat multilayer body ; and a bending step of bending the flat multilayer body into a curved multilayer body retaining a curved shape, wherein the curved multilayer body includes a non-lamination area in which the second substrate is absent when viewed in a lamination direction, and wherein the lamination step includes extending of a lead portion including a lead electrically connected to the electrode of the sensor film through the non-lamination area to a surface of the second substrate opposite to a surface facing the sensor film .