mhurhangee/ep-ind-claims huggingface dataset:
Device for forming a hole in a workpiece, comprising a drilling tool, the device comprising: a support means that is or can be assigned to the drilling tool and is configured for supporting the drilling tool on at least one supporting region, wherein the support means comprises an elongate base body that comprises at least two base body elements (8a, 8b), wherein at least one base body element is mounted so as to be movable relative to at least one further base body element in order to change the length dimension of the base body, wherein the support means is detachably fastened to a machining head that is or can be assigned to the drilling tool, wherein the support means comprises a fastening body that is arranged or formed on the base body, which can be fastened to a fastening element of the machining head by means of a fastening element, wherein the fastening of the fastening body to the machining head is realised by the form-fitting cooperation of at least one fastening body-side fastening element and at least one corresponding machining head-side fastening element, characterised in that the form-fittingly cooperating fastening elements are formed by or comprise a dovetail-like or dovetail-shaped fastening section on the fastening body side, and a corresponding receptacle for the dovetail-shaped or dovetail-like fastening section. a support means that is or can be assigned to the drilling tool and is configured for supporting the drilling tool on at least one supporting region, wherein the support means comprises an elongate base body that comprises at least two base body elements (8a, 8b), wherein at least one base body element is mounted so as to be movable relative to at least one further base body element in order to change the length dimension of the base body, wherein the support means is detachably fastened to a machining head that is or can be assigned to the drilling tool, wherein the support means comprises a fastening body that is arranged or formed on the base body, which can be fastened to a fastening element of the machining head by means of a fastening element, wherein the fastening of the fastening body to the machining head is realised by the form-fitting cooperation of at least one fastening body-side fastening element and at least one corresponding machining head-side fastening element, characterised in that the form-fittingly cooperating fastening elements are formed by or comprise a dovetail-like or dovetail-shaped fastening section on the fastening body side, and a corresponding receptacle for the dovetail-shaped or dovetail-like fastening section.
Method for pairing a first terminal, called an initiator terminal seeking to transmit and receive data, with a second terminal, called an acceptor terminal, said method being characterized in that it comprises: - placing of an external surface connector of the initiator terminal on a complementary external surface connector of the acceptor terminal delivering a piece of data to said initiator terminal about the presence of said acceptor terminal; - determining, by said initiator terminal, of a parameter of connection; - pairing of said initiator terminal with said acceptor terminal according to a mode of pairing depending on the determined parameter of connection, the mode of pairing belonging to the group comprising: - a mode of permanent physical connection in which the connection is exclusively provided by the external surface connector of the initiator terminal connected to the complementary external surface connector of the acceptor terminal; - a mode of temporary physical connection in which only the pairing of the initiator terminal with the acceptor terminal requires a connection between the external surface connector of the initiator terminal and the complementary external surface connector of the acceptor terminal. - placing of an external surface connector of the initiator terminal on a complementary external surface connector of the acceptor terminal delivering a piece of data to said initiator terminal about the presence of said acceptor terminal; - determining, by said initiator terminal, of a parameter of connection; - pairing of said initiator terminal with said acceptor terminal according to a mode of pairing depending on the determined parameter of connection, the mode of pairing belonging to the group comprising: - a mode of permanent physical connection in which the connection is exclusively provided by the external surface connector of the initiator terminal connected to the complementary external surface connector of the acceptor terminal; - a mode of temporary physical connection in which only the pairing of the initiator terminal with the acceptor terminal requires a connection between the external surface connector of the initiator terminal and the complementary external surface connector of the acceptor terminal. - a mode of permanent physical connection in which the connection is exclusively provided by the external surface connector of the initiator terminal connected to the complementary external surface connector of the acceptor terminal; - a mode of temporary physical connection in which only the pairing of the initiator terminal with the acceptor terminal requires a connection between the external surface connector of the initiator terminal and the complementary external surface connector of the acceptor terminal.
A control method for a hybrid vehicle comprising an electric motor that drives the vehicle to travel, a generator that supplies power to the electric motor, and an engine that drives the generator, the control method comprising: when bringing the electric motor into a regenerative state, operating the generator to drive the engine in a state in which fuel supply to the engine is cut, thereby executing, in accordance with required deceleration, motoring control for consuming output power of the electric motor; the control method being characterized by further comprising: when increasing a rotational speed of the engine due to an increase in the required deceleration upon execution of the motoring control, setting the rotational speed of the engine such that a change rate of the rotational speed of the engine increases as the required deceleration increases, wherein in a case in which the change rate of the rotational speed of the engine after releasing an accelerator pedal is compared between when the required deceleration is high and when the required deceleration is low under same consumed power by the motoring control, the change rate of the rotational speed of the engine after releasing the accelerator pedal when the required deceleration is high is larger than that when the required deceleration is low. when increasing a rotational speed of the engine due to an increase in the required deceleration upon execution of the motoring control, setting the rotational speed of the engine such that a change rate of the rotational speed of the engine increases as the required deceleration increases, wherein in a case in which the change rate of the rotational speed of the engine after releasing an accelerator pedal is compared between when the required deceleration is high and when the required deceleration is low under same consumed power by the motoring control, the change rate of the rotational speed of the engine after releasing the accelerator pedal when the required deceleration is high is larger than that when the required deceleration is low.
A Charging cable with extended functionality, wherein the charging cable has at its respective ends two plugs, preferably standardized in accordance with ISO/IEC 61851, comprising at least a proximity and a pilot conductor, which can be connected to a charging infrastructure and a vehicle, characterized in that the charging cable has a logic, which may be arranged in the plugs or in the cable itself, wherein the logic can be connected to the proximity and/or to the pilot conductor, wherein after the charging cable has been connected to the charging station and the vehicle, the charging cable can be addressed by the charging station in such a way that the charging station detects on the basis of the proximity that the charging cable is a charging cable having expanded functionality and the logic can be supplied with current by the proximity and/or the pilot conductor.
A polypeptide from 17 to 50 amino acid residues in length, wherein said polypeptide comprises, in an order from amino terminus to carboxy terminus: (a) the sequence set forth in SEQ ID NO:1 or the sequence set forth in SEQ ID NO:1 with no more than two additions, subtractions, or substitutions, (b) the sequence set forth in SEQ ID NO:5 or the sequence set forth in SEQ ID NO:5 with no more than five additions, subtractions, or substitutions, and (c) the sequence set forth in SEQ ID NO:13 or the sequence set forth in SEQ ID NO:13 with no more than two additions, subtractions, or substitutions, wherein said polypeptide comprises a cGMP-activating property. (a) the sequence set forth in SEQ ID NO:1 or the sequence set forth in SEQ ID NO:1 with no more than two additions, subtractions, or substitutions, (b) the sequence set forth in SEQ ID NO:5 or the sequence set forth in SEQ ID NO:5 with no more than five additions, subtractions, or substitutions, and (c) the sequence set forth in SEQ ID NO:13 or the sequence set forth in SEQ ID NO:13 with no more than two additions, subtractions, or substitutions,
An optical line terminal characterized by comprising: a scheme-dependent process absorption unit that acquires first information of a type and a format dependent on a communication scheme, and that converts the acquired first information into second information of a type and a format common to mutually different communication schemes to absorb the differences between said mutually different communication schemes; and a bandwidth allocation unit that determines bandwidth allocation of an upstream signal allocated to an optical network unit on the basis of the second information, wherein the first information is information in accordance with a message by which the optical network unit demands permission to transmit the upstream signal, the first information includes information representing a demanded bandwidth amount for each of units of bandwidth allocation, and the second information includes a unit of bandwidth allocation and a demanded bandwidth amount for each optical network unit. a scheme-dependent process absorption unit that acquires first information of a type and a format dependent on a communication scheme, and that converts the acquired first information into second information of a type and a format common to mutually different communication schemes to absorb the differences between said mutually different communication schemes; and a bandwidth allocation unit that determines bandwidth allocation of an upstream signal allocated to an optical network unit on the basis of the second information, wherein the first information is information in accordance with a message by which the optical network unit demands permission to transmit the upstream signal, the first information includes information representing a demanded bandwidth amount for each of units of bandwidth allocation, and the second information includes a unit of bandwidth allocation and a demanded bandwidth amount for each optical network unit.
A transceiver comprising: a processor adapted to: in a transmit mode of the transceiver ( 1 0), generate a modulated signal in response to a first digital signal; and in a receive mode of the transceiver, generate a demodulated signal in response to a second digital signal; and an analog-to-digital converter (24, 26) to provide the first digital signal in the transmit mode and provide the second digital signal in the receive mode, characterized in that the analog-to-digital converter (24, 26) comprises at least one filter network having associated adjustable filter coefficients, the at least one filter network being adapted to change a frequency response of said analog-to-digital converter based on whether the transceiver is in the transmit mode or the receive mode. a processor adapted to: in a transmit mode of the transceiver ( 1 0), generate a modulated signal in response to a first digital signal; and in a receive mode of the transceiver, generate a demodulated signal in response to a second digital signal; and an analog-to-digital converter (24, 26) to provide the first digital signal in the transmit mode and provide the second digital signal in the receive mode, in a transmit mode of the transceiver ( 1 0), generate a modulated signal in response to a first digital signal; and in a receive mode of the transceiver, generate a demodulated signal in response to a second digital signal; and an analog-to-digital converter (24, 26) to provide the first digital signal in the transmit mode and provide the second digital signal in the receive mode, characterized in that the analog-to-digital converter (24, 26) comprises at least one filter network having associated adjustable filter coefficients, the at least one filter network being adapted to change a frequency response of said analog-to-digital converter based on whether the transceiver is in the transmit mode or the receive mode.
An oligonucleotide comprising a 2'- O -methyl RNA monomer and a phosphorothioate backbone and comprising a 5-methylcytosine base or a composition comprising said oligonucleotide, wherein said oligonucleotide has improved distribution and/or exon skipping activity when compared to a corresponding oligonucleotide comprising a 2'- O -methyl RNA monomer and a phosphorothioate backbone without a 5-methylcytosine.
A filter comprising: (a) a filter media having at least two adjacent edge portions joined by a seam; and (b) a seam tape comprising a layer of an expanded fluoropolymer and a material for adhering to and sealing the seam, said seam tape being disposed over the seam, the tape having a lengthwise direction substantially parallel to the seam and a crosswise direction substantially perpendicular to the seam; wherein the expanded fluoropolymer of the seam tape has a crosswise direction matrix modulus of greater than 13,445 kPa (1,950 psi) at room temperature and an enthalpy ratio of less than 0.6; wherein enthalpy ratio is measured by the method of differential scanning calorimetry set out in the description and calculated using the following equation; Enthalpy _ Ratio = H 345 ° C H 327 ° C + H 345 ° C + H 380 ° C where H is enthalpy; and wherein crosswise matrix modulus is measured by the method of tensile testing set out in the description and calculated using the following equation;. E CW Matrix = E CW ρ Full _ Density _ Fluoropolymer ρ sample where: E CW Matri = Crosswise direction matrix modulus PSI E CW = Crosswise direction modulus ρ Full_Density_Fluoropolimer = density of the full density fluoropolymer used; and ρ sample = density of the sample tested. (a) a filter media having at least two adjacent edge portions joined by a seam; and (b) a seam tape comprising a layer of an expanded fluoropolymer and a material for adhering to and sealing the seam, said seam tape being disposed over the seam, the tape having a lengthwise direction substantially parallel to the seam and a crosswise direction substantially perpendicular to the seam; wherein the expanded fluoropolymer of the seam tape has a crosswise direction matrix modulus of greater than 13,445 kPa (1,950 psi) at room temperature and an enthalpy ratio of less than 0.6; where: E CW Matri = Crosswise direction matrix modulus PSI E CW = Crosswise direction modulus ρ Full_Density_Fluoropolimer = density of the full density fluoropolymer used; and ρ sample = density of the sample tested.
Electrical network fault signalling device comprising a tube of non-ferromagnetic material having a quantity of ferrofluid inside, at one end it is provided with a permanent magnet, and at the other end with an indicator element actuated by a piston rod and a spring; and an electrical insulating fixing support configured to fix the tube to an electrical conductor.
An electric lamp for a vehicle headlight with low-beam function comprising: a light source emitting visible light, a transparent envelope having an exterior surface and an interior surface (3") enclosing said light source, one multilayer structure provided on the exterior surface of the envelope, wherein a first light substantially with a bluish-white color transmits the multilayer structure directly and a second light substantially with a yellowish color transmits the multilayer structure after being reflected at the multilayer structure, wherein the multilayer structure being of none light absorbing materials is provided in such a way, that the color of light of a standard light source A being reflected at the multilayer structure lies within a triangle in the CIE 1931 Yxy color space defined by the x,y coordinates (0.58; 0.42), (0.58; 0.30) and (0.70; 0.30), wherein the lightness Y is in the range of 2.5 ≤ Y ≤ 17.5, wherein none of the emitted visible light is absorbed by the multilayer structure. a light source emitting visible light, a transparent envelope having an exterior surface and an interior surface (3") enclosing said light source, one multilayer structure provided on the exterior surface of the envelope, wherein a first light substantially with a bluish-white color transmits the multilayer structure directly and a second light substantially with a yellowish color transmits the multilayer structure after being reflected at the multilayer structure, wherein the multilayer structure being of none light absorbing materials is provided in such a way, that the color of light of a standard light source A being reflected at the multilayer structure lies within a triangle in the CIE 1931 Yxy color space defined by the x,y coordinates (0.58; 0.42), (0.58; 0.30) and (0.70; 0.30), wherein the lightness Y is in the range of 2.5 ≤ Y ≤ 17.5, wherein none of the emitted visible light is absorbed by the multilayer structure.
A glass-glass solar module laminate with internal solar cells having a frame, wherein, below the glass-glass solar module laminate, a plurality of supporting elements formed as supporting struts are arranged which are connected to the frame, wherein the supporting elements are designed to be connected to the frame by means of electrically contacted screw connections, characterized in that the supporting struts are made of alloyed aluminum with or without anodized outer surface and are formed in cross-section as a tube profile or rectangular hollow chamber profile, wherein a female part is rigidly inserted into the respective end of the respective supporting strut up to a stop, and in the female part, a formed screw channel for a self-tapping screw being provided, which ensures a mechanically fixed connection.
A method of reducing or preventing the formation of deposits in a diesel engine and/or removing deposits from a diesel engine, the method comprising combusting in said engine a diesel fuel composition comprising, as an additive, a quaternary ammonium salt formed by the reaction of a compound of formula: and a compound formed by the reaction of a hydrocarbyl-substituted acylating agent and an amine of formula or: wherein R is an optionally substituted alkyl, alkenyl, aryl or alkylaryl group; R 1 is a C 1 to C 22 alkyl, aryl or alkylaryl group; R 2 and R 3 are the same or different alkyl groups having from 1 to 22 carbon atoms; X is an alkylene group having from 1 to 20 carbon atoms; n is from 0 to 20; m is from 1 to 5; and R 4 is hydrogen or a C 1 to C 22 alkyl group; wherein the compound of formula is an ester of a carboxylic acid selected from one or more of oxalic acid, phthalic acid, salicylic acid, maleic acid, malonic acid, citric acid, nitrobenzoic acid, aminobenzoic acid and 2, 4, 6-trihydroxybenzoic acid.
A method of generating, in a computing device integrating on chip components including a processor, a read-only memory, and a random access memory, a structure comprising at least one virtual machine (OVMO), wherein the read-only memory stores said at least one virtual machine (OVMO) and a first OVM interpreter, the method comprising: - obfuscating a first virtual machine source code, thereby yielding a first Obfuscated Virtual Machine, OVM, source code; - associating a processor identifier with the first OVM source code, thereby yielding a processor-specific first OVM source code; - compiling the processor-specific first OVM source code, thereby yielding a processor-specific first OVM (OVMO), and - providing the processor-specific first OVM (OVMO) in the read-only memory, wherein the first OVM interpreter is configured to be operable to execute only OVM's that have been compiled with the processor identifier. - obfuscating a first virtual machine source code, thereby yielding a first Obfuscated Virtual Machine, OVM, source code; - associating a processor identifier with the first OVM source code, thereby yielding a processor-specific first OVM source code; - compiling the processor-specific first OVM source code, thereby yielding a processor-specific first OVM (OVMO), and - providing the processor-specific first OVM (OVMO) in the read-only memory,
A method for examining a sample containing two or more sample substances comprising one or more organic polymers, wherein at least one organic polymer comprises two or more chelating groups selected from carboxylates, amines, sulfonates, carboxamides, phosphates and phosphonates, the method comprising two or more sub-methods for detecting signals, wherein the sub-methods are selected from fluorescence measurement, luminescence measurement, time-resolved luminescence measurement, and absorbance measurement, wherein at least one of the sub-methods comprises a time resolved luminescence measurement comprising (i) admixing the sample and lanthanide ion in the form of lanthanide salt, wherein the total concentration of the sample substances in the sample is below 10% by weight and the concentration of the lanthanide ion is ≤ 10 mM, (ii) detecting signal of the lanthanide ion with time-gated luminescence measurement, and (iii) calculating the quantity of one or more sample substances using the signal obtainable by the sub-method, and calculating the quantity of the two or more sample substances based on the signals obtainable by the two or more sub-methods. (i) admixing the sample and lanthanide ion in the form of lanthanide salt, wherein the total concentration of the sample substances in the sample is below 10% by weight and the concentration of the lanthanide ion is ≤ 10 mM, (ii) detecting signal of the lanthanide ion with time-gated luminescence measurement, and (iii) calculating the quantity of one or more sample substances using the signal obtainable by the sub-method, and calculating the quantity of the two or more sample substances based on the signals obtainable by the two or more sub-methods.