mhurhangee/ep-ind-claims huggingface dataset:
A method of determining phase offsets of multiple beams of a coherent beam combination device impinging on a target, the beams having associated adjustable phase modulators (14a, 14b, 14c), the method comprising: (a) for each of said beams, actuating the corresponding phase modulator (14a, 14b, 14c) to modulate a current phase of the transmitted beam between at least three phase states; (b) while each phase modulator (14a, 14b, 14c) is actuated, monitoring an intensity parameter that varies as a function of an intensity of the radiation impinging on the target; (c) identifying variations in the intensity parameter resulting from the modulation of the current phase of each transmitted beam relative to the sum of all the other beams; and (d) calculating based on said variations a phase offset of the current phase of each beam relative to a representative phase of the sum of all the other beams, characterized in that the current phase of each transmitted beam is modulated at a modulation frequency ω, and wherein said identifying comprises identifying variations in the reflected intensity occurring at a first harmonic frequency ω that equals the modulation frequency and a second harmonic frequency 2ω that is twice said modulation frequency. (a) for each of said beams, actuating the corresponding phase modulator (14a, 14b, 14c) to modulate a current phase of the transmitted beam between at least three phase states; (b) while each phase modulator (14a, 14b, 14c) is actuated, monitoring an intensity parameter that varies as a function of an intensity of the radiation impinging on the target; (c) identifying variations in the intensity parameter resulting from the modulation of the current phase of each transmitted beam relative to the sum of all the other beams; and (d) calculating based on said variations a phase offset of the current phase of each beam relative to a representative phase of the sum of all the other beams,
An isolated monoclonal antibody that binds to ICOS, wherein the antibody comprises (a) HCDR1 comprising the amino acid sequence of SEQ ID NO: 62; (b) HCDR2 comprising the amino acid sequence of SEQ ID NO: 63; (c) HCDR3 comprising the amino acid sequence of SEQ ID NO: 64; (d) LCDR1 comprising the amino acid sequence of SEQ ID NO: 65; (e) LCDR2 comprising the amino acid sequence of SEQ ID NO: 66; and (f) LCDR3 comprising the amino acid sequence of SEQ ID NO: 67, and wherein the antibody comprises a human IgG1 heavy chain constant region or a human IgG3 heavy chain constant region.
Sealing stopper for closing an opening in a component, in particular in a body component of a motor vehicle, with a basic body which is designed in such a manner that it can cover the opening and can grip behind an edge of the opening, characterized in that a sealing body is arranged on the basic body, the sealing body having a ring portion and a plurality of lamellae which protrude from the ring portion, are flexible in the circumferential direction and have free radial ends, wherein the sealing body is composed of a material which expands upon the action of heat.
A chimeric gene comprising a heterologous promoter operably linked to a nucleic acid molecule comprising a nucleotide sequence that encodes a protein toxic to at least European Corn Borer (Ostrinia nubilalis), wherein the nucleotide sequence (a) is SEQ ID NO: 2; or (b) encodes a protein comprising an amino acid sequence that is SEQ ID NOS: 17 or 22; or (c) is a synthetic sequence of (a) or (b) that has codons optimized for expression in a transgenic organism.
Air filter (1, 16, 27) for air supplied to an internal combustion engine in a motor vehicle, the air filter (1, 16, 27) comprising a housing (2, 21, 28) with a tubular filter element disposed therein and the filter element being flowed through from the outside to the inside, the housing (2, 21, 28) featuring an inflow side with an elongated extension between two front faces (4, 5; 22, 23) and a raw air opening (7, 31, 32) being provided on the inflow side, characterized in that the raw air opening (7, 31, 32) extends across the whole length of the housing (2, 21, 28).
A method comprising: deciding, by a Mobility Management Entity, MME, whether to perform Selected IP Traffic Offload at Local Network, SIPTO@LN, for one or more Packet Data Network, PDN, connections using an Access Point Name, APN, by performing the steps of: receiving, by the MME from a Home eNodeB, HeNB, information about a local gateway, GW, the information comprising a local GW address of the local GW; initiating, by the MME based on subscription data obtained from a Home Subscriber Server, HSS, and on the received information about the local GW, disconnection of one or more PDN connections with a cause indicating that a reconnection is required, wherein the subscription data includes a SIPTO permission flag associated with the APN, wherein the SIPTO permission flag indicates whether traffic associated with the APN is authorized for SIPTO and further indicates, for traffic that is authorized for SIPTO, whether it is also authorized by a user's consent for SIPTO@LN; and selecting, by the MME in response to the reconnection of the UE the local GW to allow SIPTO@LN to be performed via the local GW. deciding, by a Mobility Management Entity, MME, whether to perform Selected IP Traffic Offload at Local Network, SIPTO@LN, for one or more Packet Data Network, PDN, connections using an Access Point Name, APN, by performing the steps of: receiving, by the MME from a Home eNodeB, HeNB, information about a local gateway, GW, the information comprising a local GW address of the local GW; initiating, by the MME based on subscription data obtained from a Home Subscriber Server, HSS, and on the received information about the local GW, disconnection of one or more PDN connections with a cause indicating that a reconnection is required, wherein the subscription data includes a SIPTO permission flag associated with the APN, wherein the SIPTO permission flag indicates whether traffic associated with the APN is authorized for SIPTO and further indicates, for traffic that is authorized for SIPTO, whether it is also authorized by a user's consent for SIPTO@LN; and selecting, by the MME in response to the reconnection of the UE the local GW to allow SIPTO@LN to be performed via the local GW. receiving, by the MME from a Home eNodeB, HeNB, information about a local gateway, GW, the information comprising a local GW address of the local GW; initiating, by the MME based on subscription data obtained from a Home Subscriber Server, HSS, and on the received information about the local GW, disconnection of one or more PDN connections with a cause indicating that a reconnection is required, wherein the subscription data includes a SIPTO permission flag associated with the APN, wherein the SIPTO permission flag indicates whether traffic associated with the APN is authorized for SIPTO and further indicates, for traffic that is authorized for SIPTO, whether it is also authorized by a user's consent for SIPTO@LN; and selecting, by the MME in response to the reconnection of the UE the local GW to allow SIPTO@LN to be performed via the local GW.
Distance measuring device for measuring a distance between the distance measuring device and an object with a light source adapted to illuminate the object with light pulses (23, 24) having different durations, at least one photo element adapted to capture the light pulses (23, 24) after being back reflected from the object, a trigger generator for controlling the emission of the light pulses (23, 24) and for activating the photo element during a temporal integration gate having an integration start point in time Δ s and an integration end point in time Δ e, wherein the photo element is adapted to output a signal value U at the end of the integration gate with the signal value U depending on the energy of light arriving on the photo element during its activation and wherein the trigger generator stores a trigger scheme to control the emission of the light pulses (23, 24) and to activate the photo element such that at least one short light pulse with a duration T p,s and a plurality of long light pulses with a duration T p,l being longer than T p,s are emitted, that an invariable delay between the emission start point in time of the short light pulse and the integration gate is such that Δ tof and Δ tof +T p,s are between Δ s and Δ e to output a reference signal value U ref, with Δ tof being the first point in time when the light pulse arrives on the photo element, and that for each long light pulse a respective variable delay τ between the emission start point in time of the long light pulses and the integration gate is such that the variable delays τ are different from each other in order to form a convolution function f c:= U(τ) out of the intensity of the light arriving on the photo element and the integration gate, and a processing unit adapted to identify the delay τ c in the convolution function which corresponds to U ref and to calculate the distance by using τ c.
A steel sheet comprising, in weight%, 0.04≤ C≤ 0.30, 0.5≤ Mn≤ 4, 0≤ Cr≤ 4, 2.7≤ Mn+Cr≤ 5, 0.003≤ Nb≤ 0.1, 0.015≤ Al≤ 0.1, 0.05≤ Si≤ 1.0, optionally Ti ≤ 0.2, V ≤ 0.2, Mo ≤ 0.3 B ≤ 0.015 the rest being Fe and unavoidable impurities, wherein the steel sheet has a tensile strength in the range of 800-1400 MPa and an elongation comprised between 4 and 9%, and wherein the steel sheet has a microstructure comprising 95 to 100 area% martensite. 0.04≤ C≤ 0.30, 0.5≤ Mn≤ 4, 0≤ Cr≤ 4, 2.7≤ Mn+Cr≤ 5, 0.003≤ Nb≤ 0.1, 0.015≤ Al≤ 0.1, 0.05≤ Si≤ 1.0, optionally Ti ≤ 0.2, V ≤ 0.2, Mo ≤ 0.3 B ≤ 0.015 the rest being Fe and unavoidable impurities,
Cryptographic method, using a cryptographic scheme based on cyclic groups G 1, G 2 and G T of order p, two respective generating elements g 1 and g 2 of the groups G 1 and G 2 and a bilinear map e (.,.) of G 1 xG 2 on G T, where p denotes a prime number, time being subdivided into successive periods of index j = 0, 1, 2, etc., wherein a public key (gpk j) has components representative of elements u and v of the group G 1 and, for each period of index j, components representative of an integer S j in the range from 0 to p-1, of an element g 1,j of the group G 1 and of elements g 2,j, w j and h j of the group G 2, wherein a first secret key includes an integer γ in the range from 0 and p-1 such that w j =g 2,j γ, g 1,0 = g 1 1/(γ+ s 0), g 2,0 = g 2 1/(γ+ s 0) and, for j > 0, g 1,j = g 1, j -1 1/(γ+ s j), and g 2,j = g 2, j -1 1(γ+ s j), wherein a second secret key includes an integer ok in the range from 0 to p-1 such that v = u ok, wherein a third secret key includes an integer tk in the range from 0 to p-1 such that h j = g 2,j tk, wherein a private key (gsk[i,j]) of a member of a group of signatories has a component representative of an integer x i in the range from 0 to p-1 and, for each period of index j, a component representative of an element A i,j of the group G 1 such that A i,n = [ A i, n -1 / g 1, n -1] 1/( x i - s n) for any index n in the range from 1 to j, the cryptographic method comprising a signature procedure in which said member of the group of signatories obtains a signature (σ) for a message during a period of index j ≥ 0, by executing the following steps: • choosing two integers α and β in the range from 0 to p-1; • calculating the elements T 1 = u α and T 2 = A i,j ·v α of the group G 1; • calculating the element S 1 = g 2,j β of the group G 2; • calculating the element S 2 = e(A i,j, h j) β of the group G T; • calculating, on the basis of the message, proof data (Φ) confirming that the elements T 1, T 2, S 1 and S 2 are correctly formed with knowledge of the private key (gsk[i,j]) of the member of the group of signatories for the period of index j; and • including the elements T 1, T 2, S 1, S 2 and the proof data (Φ) in the signature (σ) of the message. • choosing two integers α and β in the range from 0 to p-1; • calculating the elements T 1 = u α and T 2 = A i,j ·v α of the group G 1; • calculating the element S 1 = g 2,j β of the group G 2; • calculating the element S 2 = e(A i,j, h j) β of the group G T; • calculating, on the basis of the message, proof data (Φ) confirming that the elements T 1, T 2, S 1 and S 2 are correctly formed with knowledge of the private key (gsk[i,j]) of the member of the group of signatories for the period of index j; and • including the elements T 1, T 2, S 1, S 2 and the proof data (Φ) in the signature (σ) of the message.
A method, comprising: accessing a first plurality of user-generated database queries executed by a plurality of different users on one or more databases; extracting, from each user-generated database query in the first plurality of user-generated database queries, a corresponding set of features representing different characteristics of the user-generated database query, wherein the different characteristics comprise at least one of a length of the user-generated database query, a format of the user-generated database query, or a styling of the user-generated database query; creating a set of artificial intelligence, Al, training data based on the corresponding sets of features; training a machine learning ML, classifier using the set of Al training data and corresponding labels for each of the first plurality of database queries, wherein each of the labels indicates an identity of one of the plurality of different users that is associated with a corresponding query, wherein the trained ML classifier is configured to produce vector outputs in a vector space in response to receiving database queries; extracting, by a computer system, from a first user-generated database query associated with a first user, a first set of features representing different characteristics of the first user-generated database query; obtaining a first output vector in the vector space based on providing the first set of features to the trained ML classifier; and based on the first output vector, determining, by the computer system, if the first user-generated database query represents a data access anomaly. accessing a first plurality of user-generated database queries executed by a plurality of different users on one or more databases; extracting, from each user-generated database query in the first plurality of user-generated database queries, a corresponding set of features representing different characteristics of the user-generated database query, wherein the different characteristics comprise at least one of a length of the user-generated database query, a format of the user-generated database query, or a styling of the user-generated database query; creating a set of artificial intelligence, Al, training data based on the corresponding sets of features; training a machine learning ML, classifier using the set of Al training data and corresponding labels for each of the first plurality of database queries, wherein each of the labels indicates an identity of one of the plurality of different users that is associated with a corresponding query, wherein the trained ML classifier is configured to produce vector outputs in a vector space in response to receiving database queries; extracting, by a computer system, from a first user-generated database query associated with a first user, a first set of features representing different characteristics of the first user-generated database query; obtaining a first output vector in the vector space based on providing the first set of features to the trained ML classifier; and based on the first output vector, determining, by the computer system, if the first user-generated database query represents a data access anomaly.
An adapter board for use with a blade assembly, the adapter board comprising: a lower tool bit attachment portion, terminating in a lower adapter board free end, the lower adapter board free end defining a bottom surface defining a plurality of shank receiving bores and a plurality of pry slots, wherein: the lower tool bit attachment portion of the adapter board defines a rear surface disposed adjacent the bottom surface and the rear surface defines a plurality of openings of the plurality of pry slots; each one of the plurality of pry slots is disposed adjacent at least one of the plurality of shank receiving bores; and none of the plurality of pry slots are in communication with the plurality of shank receiving bores. the lower tool bit attachment portion of the adapter board defines a rear surface disposed adjacent the bottom surface and the rear surface defines a plurality of openings of the plurality of pry slots; each one of the plurality of pry slots is disposed adjacent at least one of the plurality of shank receiving bores; and none of the plurality of pry slots are in communication with the plurality of shank receiving bores.
A filtration system comprising: a cabinet; a filtration device having a filtrate or retentate vessel arranged outside the cabinet; a weighing device that is configured to weigh the filtrate or retentate vessel; and a load transfer connection configured to connect the weighing device and the filtrate or retentate vessel so as to transfer a weight from the filtrate or retentate vessel to the weighing device, wherein the weighing device is arranged inside an enclosure, and wherein the enclosure is arranged inside the cabinet, characterized in that the enclosure comprises a humidity buffer comprising a buffer material being capable of maintaining humidity internal the enclosure over a duration of a filtration process so that the enclosure is configured to provide a stabilized environment in its interior with respect to humidity. a cabinet; a filtration device having a filtrate or retentate vessel arranged outside the cabinet; a weighing device that is configured to weigh the filtrate or retentate vessel; and a load transfer connection configured to connect the weighing device and the filtrate or retentate vessel so as to transfer a weight from the filtrate or retentate vessel to the weighing device, wherein the weighing device is arranged inside an enclosure, and wherein the enclosure is arranged inside the cabinet, characterized in that the enclosure comprises a humidity buffer comprising a buffer material being capable of maintaining humidity internal the enclosure over a duration of a filtration process so that the enclosure is configured to provide a stabilized environment in its interior with respect to humidity.
Hand-held power tool comprising a tool holder for supporting a tool on a working axis, a motor, a pneumatic striking mechanism for striking the tool, an absorber consisting of a mass body, a countershaft driven about an axis of rotation parallel to the working axis by the motor and a wobble drive arranged on the countershaft for driving the pneumatic striking mechanism, characterised in that the absorber further consists of a bending spring arranged transversely to the working axis and that the hand-held power tool is further provided with a cam disc arranged on the countershaft, the cam disc having a cam projecting in a pushing direction parallel to the working axis, and with a counterpart to the cam provided on the bending spring, the cam bearing against the counterpart and pretensioning the bending spring in the pushing direction.
A process for preparing an aqueous polymer dispersion by free-radical emulsion polymerization of (a) at least one α, β-ethylenically unsaturated monomer, (b) and also, if desired, at least one further monomer, to give a polymer, (c) if desired, subsequent chemical deodorization and (d) addition of at least one water-soluble alkyd resin having a weight-average molecular weight of between 5000 and 40 000 Da, or of at least one aqueous alkyd emulsion or polyurethane-alkyd emulsion, which comprises adding the alkyd resin or the alkyd emulsion or polyurethane-alkyd emulsion either subsequent to the polymerization of M and M1, with an afterstir time of 0-2 h, or subsequent to the chemical deodorization, with an afterstir time of 0-2 h, the temperature at addition being 60 to 99°C. (a) at least one α, β-ethylenically unsaturated monomer, (b) and also, if desired, at least one further monomer, to give a polymer, (c) if desired, subsequent chemical deodorization and (d) addition of at least one water-soluble alkyd resin having a weight-average molecular weight of between 5000 and 40 000 Da, or of at least one aqueous alkyd emulsion or polyurethane-alkyd emulsion, which comprises adding the alkyd resin or the alkyd emulsion or polyurethane-alkyd emulsion either subsequent to the polymerization of M and M1, with an afterstir time of 0-2 h, or subsequent to the chemical deodorization, with an afterstir time of 0-2 h, the temperature at addition being 60 to 99°C.
A pivot-and-slide door module (100... 108) for a rail vehicle (84, 88) comprising: - at least one door leaf, - a door drive system that is coupled to the door leaf and effects an outward opening movement and a sliding movement of the door leaf, the door drive system comprising at least one first top-dead-centre locking mechanism (3, 26, 51, 52) that acts in the outward opening direction of the door leaf and is moved over a top-dead-centre path or top-dead-centre angle (αTP, αTP1) about a dead-centre position in the closed position, characterised in that - the dynamic behaviour of the pivot-and-slide door module (100... 108) is calibrated such that a deflection (α, α1) of the first top-dead-centre locking mechanism (3, 26, 51, 52) at the dynamic loads occurring in the rail vehicle (81, 84) during operation is always less than the aforementioned top-dead-centre path or top-dead-centre angle (αTP, αTP1), - at a sinusoidal pressure load alternating on the door leaf in a frequency range (f) of 1 to 100 Hz and at an amplitude (p) at the static load limit of the pivot-and-slide door module (100... 108) a vibration amplitude (α, α1, α2) of the first top-dead-centre locking mechanism (3, 26, 51, 52, 61, 62, 73, 74) is less than the aforementioned top-dead-centre path or top-dead-centre angle (αTP, αTP1, αTP2). - at least one door leaf, - a door drive system that is coupled to the door leaf and effects an outward opening movement and a sliding movement of the door leaf, the door drive system comprising at least one first top-dead-centre locking mechanism (3, 26, 51, 52) that acts in the outward opening direction of the door leaf and is moved over a top-dead-centre path or top-dead-centre angle (αTP, αTP1) about a dead-centre position in the closed position, - the dynamic behaviour of the pivot-and-slide door module (100... 108) is calibrated such that a deflection (α, α1) of the first top-dead-centre locking mechanism (3, 26, 51, 52) at the dynamic loads occurring in the rail vehicle (81, 84) during operation is always less than the aforementioned top-dead-centre path or top-dead-centre angle (αTP, αTP1), - at a sinusoidal pressure load alternating on the door leaf in a frequency range (f) of 1 to 100 Hz and at an amplitude (p) at the static load limit of the pivot-and-slide door module (100... 108) a vibration amplitude (α, α1, α2) of the first top-dead-centre locking mechanism (3, 26, 51, 52, 61, 62, 73, 74) is less than the aforementioned top-dead-centre path or top-dead-centre angle (αTP, αTP1, αTP2).
An alloy composition consisting of, in weight per cent, between 7% and 14% hafnium, between 5% and 10% niobium, between 0.9% and 1.1% titanium, between 0.5% and 2% zirconium, between 0.1% and 0.7% tungsten and 0.05% and 0.3% carbon, and, optionally, an amount less than 2% tantalum, wherein the balance consists of molybdenum and incidental impurities, wherein the titanium may be bonded with oxygen to form titanium oxide and wherein the tantalum may be bonded with oxygen to form tantalum oxide.