mhurhangee/ep-ind-claims huggingface dataset:
Bar-shaped scaffolding element in the form of a scaffolding diagonal for attachment to a first projection recess (20, 20a-20f) of a scaffolding part (14a, 14b), wherein the scaffolding element comprises the following: a) a scaffolding element body that extends in an elongate manner; b) a first connection element that is arranged or formed in the region of a first end of the scaffolding element and comprises a projection; wherein the longitudinal axis of the projection extends transversely to the longitudinal axis of the scaffolding element body such that the projection by pivoting of the scaffolding element body about the longitudinal axis thereof or about an axis in parallel with the longitudinal axis thereof, in order to insert the projection into the first projection recess (20, 20a, 20f), and subsequently achieve hooking of the projection on an edge of the first projection recess (20, 20a-20f), can engage behind the edge of the first projection recess (20, 20a-20f), in order to assemble the scaffolding element on the scaffolding part, characterized in that the scaffolding element comprises a second connection element in the region of the first connection element on the scaffolding element body, in order to be able to interconnect portions of the scaffolding part, at different spacings from one another, to the scaffolding element, wherein the second connection element and the first connection element are designed identically. a) a scaffolding element body that extends in an elongate manner; b) a first connection element that is arranged or formed in the region of a first end of the scaffolding element and comprises a projection;
A spherical barcode carrier particle (10', 10"), comprising a composite of at least five thin layers (L1, L2, L3, etc.) of differing predetermined thicknesses disposed concentrically with respect to each other around a core, wherein two adjacent thin layers (L1/L2; L2/L3; L3/L4; etc.) differ from each other in a machine-readable property, so that a cross section through the composite of the thin layers disposed concentrically with respect to each other around the core produces a sequence of bars with different predetermined widths along a normal to the surface of the core, which represents a barcode, and the thin layers (L1, L2, L3, etc.) in cross section contain barcode information which is based on the material and layer thickness.
A device for treating a material, in particular for drying a preferably strip-shaped material, with a gaseous treatment medium which flows through the material, comprising - at least one drum including a gas-permeable drum casing, wherein said drum casing is at least partially covered with said material, and wherein in an inside of said drum a negative pressure is adapted to be applied, - a treatment chamber (14, 76, 78) at least partially surrounding said drum, wherein upon application of the negative pressure in said inside of said drum the gaseous treatment medium flows from said treatment chamber (14, 76, 78) through said material arranged on said drum casing and said drum casing into the inside of said drum, wherein at least one drum guide element is arranged in said inside of said drum, wherein said at least one drum guide element is connected to said drum near at least a front wall of said drum, wherein at said front wall an outlet opening is arranged, characterized in that said at least one drum guide element is arranged such that the negative pressure applied to said drum casing is made uniform, wherein said drum guide element has a conical shape such that the gaseous treatment medium flowing through said drum casing near said front wall must first flow into said inside of said drum in order to then travel to said outlet opening through an opening of said drum guide element. - at least one drum including a gas-permeable drum casing, wherein said drum casing is at least partially covered with said material, and wherein in an inside of said drum a negative pressure is adapted to be applied, - a treatment chamber (14, 76, 78) at least partially surrounding said drum, wherein upon application of the negative pressure in said inside of said drum the gaseous treatment medium flows from said treatment chamber (14, 76, 78) through said material arranged on said drum casing and said drum casing into the inside of said drum,
A method for determining the abundance and location of multiple analytes in a biological sample, the method comprising: (a) providing a first substrate and a biological sample mounted thereon, wherein the first substrate comprises a plurality of first capture probes, wherein a first capture probe of the plurality of first capture probes comprises (i) a first spatial barcode and (ii) a first capture domain; (b) aligning a second substrate on the opposite side of the first substrate relative to the biological sample, thereby sandwiching the first substrate, the biological sample, and the second substrate, wherein the second substrate comprises a plurality of second capture probes, wherein a second capture probe of the plurality of second capture probes comprises (i) a second spatial barcode and (ii) a second capture domain; (c) adding a permeabilization buffer to the biological sample, thereby promoting migration of the first analyte and the second analyte from the biological sample; and (d) hybridizing a first analyte of the multiple analytes to the first capture domain and hybridizing a second analyte of the multiple analytes to the second capture domain. (a) providing a first substrate and a biological sample mounted thereon, wherein the first substrate comprises a plurality of first capture probes, wherein a first capture probe of the plurality of first capture probes comprises (i) a first spatial barcode and (ii) a first capture domain; (b) aligning a second substrate on the opposite side of the first substrate relative to the biological sample, thereby sandwiching the first substrate, the biological sample, and the second substrate, wherein the second substrate comprises a plurality of second capture probes, wherein a second capture probe of the plurality of second capture probes comprises (i) a second spatial barcode and (ii) a second capture domain; (c) adding a permeabilization buffer to the biological sample, thereby promoting migration of the first analyte and the second analyte from the biological sample; and (d) hybridizing a first analyte of the multiple analytes to the first capture domain and hybridizing a second analyte of the multiple analytes to the second capture domain.
A lamp unit for forming a light distribution pattern having a given cutoff line in an upper end portion thereof, comprising: a light source; and a transparent member configured to receive light from the light source from rearward of the transparent member and to project the light distribution pattern forward of the transparent member, wherein the transparent member includes a front surface, a rear surface, and a rearward incident surface which faces the light source, wherein the light from the light source enters the transparent member from the rearward incident surface, wherein the transparent member is configured to reflect, by the front surface, the light that enters the transparent member from rearward of the transparent member, then to reflect again the light forward of the transparent member by the rear surface, and then to radiate the light from the front surface; and characterized in that the lamp unit is configured to further include a light shade (32, 34, 36) provided between the light source and the transparent member to shade the light going from the light source directly, without being reflected on the front surface, toward the rear surface of the transparent member. a light source; and a transparent member configured to receive light from the light source from rearward of the transparent member and to project the light distribution pattern forward of the transparent member, wherein the transparent member includes a front surface, a rear surface, and a rearward incident surface which faces the light source, wherein the light from the light source enters the transparent member from the rearward incident surface, wherein the transparent member is configured to reflect, by the front surface, the light that enters the transparent member from rearward of the transparent member, then to reflect again the light forward of the transparent member by the rear surface, and then to radiate the light from the front surface; and characterized in that the lamp unit is configured to further include a light shade (32, 34, 36) provided between the light source and the transparent member to shade the light going from the light source directly, without being reflected on the front surface, toward the rear surface of the transparent member.
Method for synchronizing a reproduction of a digital signal sent by a transmitter to a plurality of mobile audio terminals, wherein the mobile audio terminals each comprise a signal receiver, a First-In-First-Out memory connected to the signal receiver and an audio reproduction unit connected to the First-In-First-Out memory, wherein the transmitter sends the digital signal as a multiplicity of data packets at a data rate that is constant as an average over time, wherein for each mobile audio terminal, in the same manner in each case, - the signal receiver receives at least a subset of the multiplicity of data packets, - the signal receiver generates from the received data packets a time reference signal, - a FIFO signal, which contains information on the occupancy level of the First-In-First-Out memory at specific time points, is generated from the First-In-First-Out memory, - an instantaneous reproduction speed is set on the basis of the time reference signal and the FIFO signal, - the audio reproduction unit reproduces at the instantaneous reproduction speed samples corresponding to the digital signal, and - the occupancy level of the First-In-First-Out memory is thereby kept constant as an average over time. - the signal receiver receives at least a subset of the multiplicity of data packets, - the signal receiver generates from the received data packets a time reference signal, - a FIFO signal, which contains information on the occupancy level of the First-In-First-Out memory at specific time points, is generated from the First-In-First-Out memory, - an instantaneous reproduction speed is set on the basis of the time reference signal and the FIFO signal, - the audio reproduction unit reproduces at the instantaneous reproduction speed samples corresponding to the digital signal, and - the occupancy level of the First-In-First-Out memory is thereby kept constant as an average over time.
Indexable milling insert having triangular shape, the cutting insert comprising a mounting hole placed centrally in the cutting insert, a first support surface and a second support surface, which support surfaces (3, 5) are parallel with each other and act as alternating support surfaces, three equally long sides (S1, S2, S3), which extend between the parallel support surfaces (3, 5), wherein the cutting insert is provided with main cutting edges (H1-H6), which are orientated perpendicularly to the centre axis of the mounting hole as well as provided in such a way that a rotation of the cutting insert around the centre of the mounting hole to an alternative insert seat alternatively a turning of the cutting insert to an alternative insert seat provides an identical location of the main cutting edges (H1-H6) in relation to a piece to be machined, wherein the cutting insert comprises planar support surfaces situated on the sides (S1-S3), and the support surfaces in the respective sides (S1-S3) form mutual angles of 60°, wherein the milling insert comprises six cutting edge areas (SE01-SE06), and each cutting edge area (SE01-SE06) comprises the main cutting edge (H1-H6), and a minor cutting edge (B1-B6), and wherein the minor cutting edge (B1-B6) has an extension transverse to the main cutting edge (H1-H6), characterized in that each one of the minor cutting edges (B1-B6) has a chamfer, the plane of the chamfer of the minor cutting edge extending transversely to the corresponding plane of the chamfer of an adjacent minor cutting edge.
Phosphoric acid ester derivatives, which conform to general formula Y(-O-CO-NH-R 1 -NH-CO-X-Z 1) q where Y is identical or different and is represented by a branched or unbranched, saturated or unsaturated organic radical containing 1 to 1000 carbon atoms, q is identical or different and is represented by an integer from 1 to 10, R 1 is identical or different and is represented by a saturated or unsaturated, branched or unbranched organic radical containing 6 to 20 carbon atoms, X is identical or different and is represented by NH and/or NZ 2 where Z 2 is identical or different and is represented by a branched or unbranched, saturated or unsaturated organic radical, Z 1 is identical or different and is represented by a branched or unbranched, saturated or unsaturated organic radical containing at least 2 carbon atoms and having at least one phosphoric acid ester group. Y is identical or different and is represented by a branched or unbranched, saturated or unsaturated organic radical containing 1 to 1000 carbon atoms, q is identical or different and is represented by an integer from 1 to 10, R 1 is identical or different and is represented by a saturated or unsaturated, branched or unbranched organic radical containing 6 to 20 carbon atoms, X is identical or different and is represented by NH and/or NZ 2 where Z 2 is identical or different and is represented by a branched or unbranched, saturated or unsaturated organic radical, Z 1 is identical or different and is represented by a branched or unbranched, saturated or unsaturated organic radical containing at least 2 carbon atoms and having at least one phosphoric acid ester group.
A sports stadium comprising an arena, wherein the whole arena is divided into a set of notional subdivisions, the sports stadium having an imaging system comprising: three cameras mounted near to one side of the arena, and mounted on a mounting; and a processing unit; wherein the three cameras are each arranged to provide one or more images to the processing unit, each camera having a timer unit for providing a time marker associated with each image provided to the processing unit, the timer unit of each camera being synchronised with the corresponding timer unit of each other camera; wherein the field of view of the three cameras is coincident, and wherein each field of view includes every notional subdivision of the arena; wherein the processing unit is adapted to receive two or more images and a time marker from the said cameras and to provide an estimate of a location of an object within the arena by using the two or more images having a corresponding time marker, each of the two or more images being captured by a different one of said two or more cameras. three cameras mounted near to one side of the arena, and mounted on a mounting; and a processing unit; wherein the three cameras are each arranged to provide one or more images to the processing unit, each camera having a timer unit for providing a time marker associated with each image provided to the processing unit, the timer unit of each camera being synchronised with the corresponding timer unit of each other camera; wherein the field of view of the three cameras is coincident, and wherein each field of view includes every notional subdivision of the arena; wherein the processing unit is adapted to receive two or more images and a time marker from the said cameras and to provide an estimate of a location of an object within the arena by using the two or more images having a corresponding time marker, each of the two or more images being captured by a different one of said two or more cameras.
A method of installing a wind turbine rotor blade comprising the steps: releasably fixing a holding unit at the exterior to the wind turbine rotor blade, in particular without intervention in a surface of the wind turbine rotor blade, fixing a holding cable to the holding unit, installing the rotor blade to a hub of the wind turbine, and releasing the holding unit by turning the wind turbine rotor blade about a rotor blade longitudinal axis, wherein the holding unit has at least one strap which is wound at least once around the wind turbine rotor blade to fix the holding unit at the exterior to the wind turbine rotor blade, and a clamping unit adapted to fix an end of the strap to a trailing edge of the wind turbine rotor blade. releasably fixing a holding unit at the exterior to the wind turbine rotor blade, in particular without intervention in a surface of the wind turbine rotor blade, fixing a holding cable to the holding unit, installing the rotor blade to a hub of the wind turbine, and releasing the holding unit by turning the wind turbine rotor blade about a rotor blade longitudinal axis, wherein the holding unit has at least one strap which is wound at least once around the wind turbine rotor blade to fix the holding unit at the exterior to the wind turbine rotor blade, and a clamping unit adapted to fix an end of the strap to a trailing edge of the wind turbine rotor blade.
A convertible vehicle comprising a roof which can be stowed underneath a rear cover at the rear of the vehicle, which rear cover can be moved in a first opening direction to uncover a passage opening for the roof and in a second opening direction to uncover a receiving opening for luggage and is divided into several parts (4;5) along at least one joint extending substantially in the transverse direction of the vehicle, wherein, while the rear cover is opened to uncover the passage opening for the roof, the frontmost part in the direction of travel is moved at least partly over a part located further at the rear, characterised in that the frontmost part is nearly or completely horizontal in its resting position and is moved, nearly parallel, upwards and towards the rear while opening the rear cover to uncover the passage opening for the roof.
A process for glycating and denaturing a globulin or globular protein in a liquid material, said liquid material further comprising a reducing sugar, said process comprising: heating said liquid material at a temperature of 55-95 °C at a pH of between 5 and 9 for a time sufficient both to denature and glycate said protein; and controlling the glycation of said protein and controlling the degree of denaturation of said protein; wherein said controlling includes at line measurement of at least one parameter selected from degree of aggregation represented by turbidity, degree of denaturation represented by free SH groups, and degree of glycation represented by free amino groups; and adjusting the heating or pH, if required, in response to the measured parameter. heating said liquid material at a temperature of 55-95 °C at a pH of between 5 and 9 for a time sufficient both to denature and glycate said protein; and controlling the glycation of said protein and controlling the degree of denaturation of said protein; wherein said controlling includes at line measurement of at least one parameter selected from degree of aggregation represented by turbidity, degree of denaturation represented by free SH groups, and degree of glycation represented by free amino groups; and adjusting the heating or pH, if required, in response to the measured parameter.
A method of classification, comprising: extracting, in a decision logic pipeline, respective classification keys from a collection of data items, each classification key comprising of a string of bits; receiving a corpus of rules for matching to the classification keys, each rule comprising a respective set of unmasked bits having corresponding bit values, and at least some of the rules comprising masked bits in addition to the unmasked bits; extracting rule patterns from the corpus, each rule pattern defining a different respective sequence of masked and unmasked bits to which one or more of the rules conforms; defining in a random access memory, RAM, multiple hash tables, wherein each hash table corresponds to a respective rule pattern and used for searching among the rules conforming to that rule pattern for a rule that matches a given classification key, and wherein a match result of a given rule in a given hash table also specifies one or more hash tables to be used for subsequent searching of rules that match the given classification key, and, as a part of defining the multiple hash tables, excluding from the one or more hash tables to be subsequently searched according to the given rule, a hash table whose rules are all assigned respective rule priorities lower than a rule priority assigned to the given rule; and classifying the data items by matching the respective classification keys to the rules using the specified one or more of the hash tables. extracting, in a decision logic pipeline, respective classification keys from a collection of data items, each classification key comprising of a string of bits; receiving a corpus of rules for matching to the classification keys, each rule comprising a respective set of unmasked bits having corresponding bit values, and at least some of the rules comprising masked bits in addition to the unmasked bits; extracting rule patterns from the corpus, each rule pattern defining a different respective sequence of masked and unmasked bits to which one or more of the rules conforms; defining in a random access memory, RAM, multiple hash tables, wherein each hash table corresponds to a respective rule pattern and used for searching among the rules conforming to that rule pattern for a rule that matches a given classification key, and wherein a match result of a given rule in a given hash table also specifies one or more hash tables to be used for subsequent searching of rules that match the given classification key, and, as a part of defining the multiple hash tables, excluding from the one or more hash tables to be subsequently searched according to the given rule, a hash table whose rules are all assigned respective rule priorities lower than a rule priority assigned to the given rule; and classifying the data items by matching the respective classification keys to the rules using the specified one or more of the hash tables.
Drive unit for driving a vehicle which can be driven by means of electrical energy, comprising at least one electric motor that drives the vehicle, at least one generator that produces the electrical energy, at least one combustion engine that drives the generator, and at least one power electronic unit for actuating and/or regulating the electric motor, at least the combustion engine and the power electronics unit each being connected to a cooling circuit (10, 20) having its own cooling device (6, 7), the first cooling circuit of the combustion engine and the second cooling circuit of the power electronics unit being operatively interconnected by means of a connecting element to form a common third cooling circuit, and at least the electric motor being connected to one of the cooling circuits (10, 20, 30) such that the waste heat that results from the operation of the electric motor and is transported via at least one of the cooling circuits (10, 20, 30) can be used to preheat the combustion engine, characterised in that the generator is connected, together with the electric motor, to the first cooling circuit of the combustion engine or to the second cooling circuit of the power electronics unit, and/or the generator is connected, separately from the electric motor, to the first cooling circuit of the combustion engine or to the second cooling circuit of the power electronics unit.