mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing water-absorbing polymer particles by polymerizing a monomer solution or suspension comprising a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, by drying, grinding and classifying the resulting polymer gel, and thermally surface postcrosslinking the classified polymer particles with f) at least one covalent surface postcrosslinker and g) at least one salt of a polyvalent metal cation and a complexing acid anion which comprises subsequently aftertreating the surface postcrosslinked polymer particles, the aftertreatment comprising the steps of i) coating with at least one salt of a polyvalent metal cation and a non-complexing acid anion, ii) increasing the moisture content by 1 to 150% by weight and iii) drying after the increase in the moisture content. a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, f) at least one covalent surface postcrosslinker and g) at least one salt of a polyvalent metal cation and a complexing acid anion i) coating with at least one salt of a polyvalent metal cation and a non-complexing acid anion, ii) increasing the moisture content by 1 to 150% by weight and iii) drying after the increase in the moisture content.
A method for treating phytoplankton by non-traditional biomanipulation, characterized by specifically comprising: introducing filter-feeding fishes into an area where the to-be-treated phytoplankton is located; carrying out premagnetisation on a water body entering the area; and arranging an electromagnetic type magnetisation reactor in a direction perpendicular to water flow in the area to carry out intermittent magnetisation on the water body, wherein the magnetic field intensity is 50mT to 2,000mT, an intermittent period is 3h to 240h, and the one-time magnetisation time is 5min to 300min. introducing filter-feeding fishes into an area where the to-be-treated phytoplankton is located; carrying out premagnetisation on a water body entering the area; and arranging an electromagnetic type magnetisation reactor in a direction perpendicular to water flow in the area to carry out intermittent magnetisation on the water body, wherein the magnetic field intensity is 50mT to 2,000mT, an intermittent period is 3h to 240h, and the one-time magnetisation time is 5min to 300min.
Two-component mixing capsule for intake and for mixing two compositions with a capsule housing having a discharge opening (3.1) at its front end (2.1), the mixing capsule comprising a lower handhold element (4.1) rotatably mounted in the capsule housing and an upper handhold element (4.2) rotatably mounted in the capsule housing, the rotational axis (Y) of the handhold elements (4.1, 4.2) being approximately perpendicularly arranged to the longitudinal axis (Z) of the mixing capsule , and a rotatably mounted first mixing chamber being assigned to at least one of the two handhold elements, and a second mixing chamber being arranged in the capsule housing , characterised in that a sealing piston is arranged at the back end (2.3) in the capsule housing , the sealing piston being passable through the first mixing chamber and the second mixing chamber along the longitudinal axis (Z) of the mixing capsule when the first mixing chamber is coaxially oriented to the longitudinal axis (Z) of the mixing capsule .
A solid electrolyte composition comprising: an active material; a first sulfide-based inorganic solid electrolyte; and a second sulfide-based inorganic solid electrolyte having a composition different from that of the first sulfide-based inorganic solid electrolyte, wherein the first sulfide-based inorganic solid electrolyte contains a halogen element and has a crystal phase at least in part, and the active material and the first sulfide-based inorganic solid electrolyte are in contact with each other; characterized in that the solid electrolyte composition further comprises a binder. an active material; a first sulfide-based inorganic solid electrolyte; and a second sulfide-based inorganic solid electrolyte having a composition different from that of the first sulfide-based inorganic solid electrolyte, wherein the first sulfide-based inorganic solid electrolyte contains a halogen element and has a crystal phase at least in part, and the active material and the first sulfide-based inorganic solid electrolyte are in contact with each other; characterized in that the solid electrolyte composition further comprises a binder.
A method of producing a hollow window or door profile , - wherein the shaping of a structural profile of the hollow chamber profile having at least one hollow chamber takes place by means of a plastics extrusion process, - wherein the structural profile is produced from recycled material, - wherein painting material with a layer thickness (s) of 100 to 700 μm is then applied by a painting process to at least one visible side of the structural profile that exhibits irregularities, and - wherein the irregularities on the surface of the visible side are evened out by the painting material in such a way that, after the painting process, said visible side has a Class A surface with a visually perceived gloss of at least 5, e.g. at least 6, preferably at least 8, and - wherein before the painting process the visible side of the structural profile has a Class B surface with a visually perceived gloss that is at least 1 unit, preferably at least 2 units, lower than the visually perceived gloss after the painting process. - wherein the shaping of a structural profile of the hollow chamber profile having at least one hollow chamber takes place by means of a plastics extrusion process, - wherein the structural profile is produced from recycled material, - wherein painting material with a layer thickness (s) of 100 to 700 μm is then applied by a painting process to at least one visible side of the structural profile that exhibits irregularities, and - wherein the irregularities on the surface of the visible side are evened out by the painting material in such a way that, after the painting process, said visible side has a Class A surface with a visually perceived gloss of at least 5, e.g. at least 6, preferably at least 8, and - wherein before the painting process the visible side of the structural profile has a Class B surface with a visually perceived gloss that is at least 1 unit, preferably at least 2 units, lower than the visually perceived gloss after the painting process.
A sensor system comprising: a tag unit ; and a readout unit inductively-coupled to the tag unit, wherein the tag unit includes a first sensor, the first sensor including a stretchable antenna and a stretchable resistor , wherein the tag unit is configured to create a sensing signal corresponding to a degree of stretching of the stretchable resistor, transmit the sensing signal to the readout unit through the stretchable antenna, and operate in a first region (R2) corresponding to a first frequency, the first frequency being in a range from 30 MHz to 50 MHz, and wherein the readout unit includes an antenna and a circuit unit and is configured to supply driving power to the tag unit in a contactless manner through a wireless power signal and receive and read out the sensing signal created by the tag unit, and the readout unit is configured to operate in a second region (R1) corresponding to a second frequency, the second frequency being different from the first frequency, the first region is a region corresponding to the first frequency and a first coupling coefficient, the second region is a region corresponding to the second frequency and a second coupling coefficient, and the first coupling coefficient is greater than the second coupling coefficient. a tag unit ; and a readout unit inductively-coupled to the tag unit, wherein the tag unit includes a first sensor, the first sensor including a stretchable antenna and a stretchable resistor , wherein the tag unit is configured to create a sensing signal corresponding to a degree of stretching of the stretchable resistor, transmit the sensing signal to the readout unit through the stretchable antenna, and operate in a first region (R2) corresponding to a first frequency, the first frequency being in a range from 30 MHz to 50 MHz, and wherein the readout unit includes an antenna and a circuit unit and is configured to supply driving power to the tag unit in a contactless manner through a wireless power signal and receive and read out the sensing signal created by the tag unit, and the readout unit is configured to operate in a second region (R1) corresponding to a second frequency, the second frequency being different from the first frequency, the first region is a region corresponding to the first frequency and a first coupling coefficient, the second region is a region corresponding to the second frequency and a second coupling coefficient, and the first coupling coefficient is greater than the second coupling coefficient.
Anti-friction bearing having at least one inner ring and at least one outer ring , a number of rolling bodies with a diameter (D W ) being arranged between the bearing rings , the rolling bodies being held by way of a cage, the cage consisting of a number of cage segments , each cage segment consisting of a frame-shaped structure, in the case of which a plurality of lateral boundary walls form a receiving pocket for a rolling body , the receiving pocket being dimensioned in such a way that, in the load-free state of the anti-friction bearing , there is a play (c) in the circumferential direction (U) of the anti-friction bearing on the pitch circle of the anti-friction bearing between those side faces of the receiving pocket which face the rolling body and the rolling body which is received by the receiving pocket , a cage segment receiving a rolling body by way of its receiving pocket , and a rolling body which adjoins the said rolling body in the circumferential direction (U) being kept free from a cage segment , with the result that rolling bodies which are situated in a receiving pocket and rolling bodies which are not situated in a receiving pocket are arranged so as to alternate in the circumferential direction (U), the cage segment having two run-on faces for in each case one rolling body which is adjacent in the circumferential direction (U), characterized in that the play (c) in each axial section of the anti-friction bearing complies with the relationship: c max ≥ c ≥ c min where: c min = 0.01 * D W − 0.5 mm , and c max = 0.02 * D W − 0.4 mm , the diameter (D w ) of the rolling body being at least 50mm, there being an overall play (x) in the circumferential direction (U) of the anti-friction bearing between the run-on face of the cage segment and the rolling body which adjoins the cage segment in the circumferential direction (U) in the case of a homogeneous distribution of the play in the anti-friction bearing on the pitch circle of the anti-friction bearing , and the following relationship existing between the play (c) between the side faces of the receiving pocket and the rolling body which is received in the receiving pocket and the overall play (x) between the run-on face of the cage segment and the rolling body which adjoins the cage segment in the circumferential direction (U): c < 0,2 x .
Modular system for bridging built-up areas (S), in particular roads, comprising: - at least two pillars that are oriented substantially in the vertical direction; - at least one crossbeam (14a-14d) that extends between the pillars; and - at least one connection unit which is associated with one of the pillars or the at least one crossbeam (14a-14d) and is designed to form an interface for adding functional components (16-30), the at least one crossbeam (14a-14d) having a modular design such that the dimensions of the at least one crossbeam (14a-14d) can be adjusted by selecting the number and measurements of the crossbeam modules used, the system also comprising at least one functional component (16-30) which can be attached to one of the pillars and/or one of the crossbeams (14a-14d) by means of the at least one connection unit, characterised in that the at least one functional component (16-30) comprises an overhead line , and in that the system comprises a plurality of pairs of pillars and crossbeams (14a-14d), the at least one overhead line being stretched between these pairs. - at least two pillars that are oriented substantially in the vertical direction; - at least one crossbeam (14a-14d) that extends between the pillars; and - at least one connection unit which is associated with one of the pillars or the at least one crossbeam (14a-14d) and is designed to form an interface for adding functional components (16-30),
An apparatus comprising: a first filter circuit configured to filter an input signal and output a first output signal that is a portion of the input signal in a first frequency range, the apparatus being configured to be able to receive the input signal from an external device; and a second filter circuit coupled to the input of the first filter circuit and comprising a highpass filter and a lowpass filter for filtering the input signal, the second filter circuit being configured to output a second output signal that is a portion of the input signal in a second frequency range, wherein the first frequency range is above the second frequency range, and wherein the highpass filter includes an interface circuit configured to supply at least one of electrical power, communication signals, and control signals the apparatus being configured to be able to provide at least one of the electrical power, communication signals, and control signals to said external device. a first filter circuit configured to filter an input signal and output a first output signal that is a portion of the input signal in a first frequency range, the apparatus being configured to be able to receive the input signal from an external device; and a second filter circuit coupled to the input of the first filter circuit and comprising a highpass filter and a lowpass filter for filtering the input signal, the second filter circuit being configured to output a second output signal that is a portion of the input signal in a second frequency range, wherein the first frequency range is above the second frequency range, and wherein the highpass filter includes an interface circuit configured to supply at least one of electrical power, communication signals, and control signals the apparatus being configured to be able to provide at least one of the electrical power, communication signals, and control signals to said external device.
Profile for mounting extruded honeycomb plates , comprising: - a front longitudinal portion with a substantially U-shaped transversal cross-section defining a first longitudinal housing configured to receive a peripheral edge of a first plate , - a rear longitudinal portion with a substantially U-shaped transversal cross-section defining a second longitudinal housing configured to receive a peripheral edge of a second plate , wherein said front and rear portions are at a transversal distance (D) from one another and connected to one another by an intermediate longitudinal portion with a predetermined transversal dimension defining said transversal distance between said front and rear portions; wherein said front and rear portions each comprise two independent parts, respectively a front part and a rear part , connected to one another by crosspieces provided to break the thermal bridging; wherein the front part of the rear portion and the rear part of the front portion are made of one single part with said intermediate portion ; characterised in that the front part of the front portion has a substantially U-shaped transversal cross-section and comprises a front branch (116aa1) and a rear branch (116aa2) each having a lower longitudinal edge, the lower longitudinal edge of the front branch being connected to the lower longitudinal edge of the rear branch by a median longitudinal wall (116aa3); and wherein the rear branch (116aa2), the median longitudinal wall (116aa3) and a lower part of the front branch (116aa1) define a longitudinal tubular cavity that is open in the top part thereof. - a front longitudinal portion with a substantially U-shaped transversal cross-section defining a first longitudinal housing configured to receive a peripheral edge of a first plate , - a rear longitudinal portion with a substantially U-shaped transversal cross-section defining a second longitudinal housing configured to receive a peripheral edge of a second plate ,
Production plant for producing a chemical and/or pharmaceutical product, having at least two process modules (P1,..., Pn), which can be connected to one another for production purposes, and a communication network , wherein each process module (P1,..., Pn) has an electronic device , in particular a control and/or regulating device, which can be used to connect the respective process module (P1,..., Pn) to the communication network for communication purposes and is set up to control and/or regulate the respective process module (P1,..., Pn) to independently carry out a particular process section of production, wherein the electronic devices are set up in such a manner that process modules (P1,..., Pn) connected to the communication network for communication purposes can automatically communicate with one another at least in such a manner that at least one process module (P1,..., Pn) automatically requests information from at least one further process module (P1,..., Pn), wherein the requestable information comprises at least information in the form of given and/or expected process parameters with regard to the process section carried out or to be carried out by the process module (P1,..., Pn) providing this information, wherein each electronic device of a process module (P1,..., Pn) is set up to use the information obtained from a further process module (P1,..., Pn) to control and/or regulate the process module (P1,..., Pn) assigned to it, wherein at least one process module (P1,..., Pn) is modular and comprises a housing allowing simple transport of the process module (P1,..., Pn) and at least two process submodules (p1,..., pm) which are suitable for carrying out the desired process section, can be connected to one another for process engineering purposes and can be connected to the communication network for communication purposes, and are arranged in the housing .
A processor-implemented neural network method, wherein the neural network comprises a last fully-connected layer outputting an operation result, a softmax layer connected to and following the last fully-connected layer, and a loss layer connected to the softmax layer, the method comprising: obtaining (S710) information about a number of classes into which input data is classified; determining (S720) a precision for the last fully-connected layer as being greater than β × log 2 (|class|) + α wherein |class| denotes the number of classes, α denotes a predetermined bias, and β denotes a proportional constant; and processing (S730) parameters of the last fully-connected layer according to the determined precision, wherein the parameters comprise a gradient of a cross-entropy loss derived from a loss generated by the loss layer with respect to the operation result, and using the gradient to train the last fully-connected layer. obtaining (S710) information about a number of classes into which input data is classified; determining (S720) a precision for the last fully-connected layer as being greater than β × log 2 (|class|) + α wherein |class| denotes the number of classes, α denotes a predetermined bias, and β denotes a proportional constant; and processing (S730) parameters of the last fully-connected layer according to the determined precision, wherein the parameters comprise a gradient of a cross-entropy loss derived from a loss generated by the loss layer with respect to the operation result, and using the gradient to train the last fully-connected layer.
A thermosetting silicon-containing material comprising one or more of a repeating unit shown by the following general formula (Sx-1), a repeating unit shown by the following general formula (Sx-2), and a partial structure shown by the following general formula (Sx-3): wherein R 1 represents an iodine-containing organic group; and R 2 and R 3 are each independently identical to R 1 , a hydrogen atom, or a monovalent organic group having 1 to 30 carbon atoms.
A method comprising: a) dispensing a dispense volume of a cell suspension into each of a plurality of wells in a multi-well device, wherein said cell suspension comprises cells present in said cell suspension at a concentration such that, on average, between 0.1 and 100 cells are present in said dispense volume, and wherein said dispensing is performed with a liquid dispensing system; b) labeling at least a portion of said cells with a first detectable label before and/or after said dispensing; [[and]] c) determining the number of cell(s) present in each of at least some of said plurality of wells, wherein at least some of said plurality of wells are determined to have zero cells or more than one cell; and d) dispensing a reagent into each of at least some of said plurality of wells, wherein the reagent is not dispensed into any of the wells that were determined to have zero cells or more than one cell. a) dispensing a dispense volume of a cell suspension into each of a plurality of wells in a multi-well device, wherein said cell suspension comprises cells present in said cell suspension at a concentration such that, on average, between 0.1 and 100 cells are present in said dispense volume, and wherein said dispensing is performed with a liquid dispensing system; b) labeling at least a portion of said cells with a first detectable label before and/or after said dispensing; [[and]] c) determining the number of cell(s) present in each of at least some of said plurality of wells, wherein at least some of said plurality of wells are determined to have zero cells or more than one cell; and d) dispensing a reagent into each of at least some of said plurality of wells, wherein the reagent is not dispensed into any of the wells that were determined to have zero cells or more than one cell.