mhurhangee/ep-ind-claims huggingface dataset:
A kit, which comprises: - at least one metering apparatus; - at least one housing for receiving the metering apparatus in a detachable manner; - at least one light-emitting device for curing a light-curing material, in particular a LED-lamp and/or a flashlight apparatus, wherein the housing is configured to receive the light-emitting device thereon or therein in a detachable manner; wherein the housing comprises an apparatus for receiving the light-emitting device in a detachable manner; wherein the at least one metering apparatus comprises light-curing material for the manually-controlled metering of the light-curing material contained in the metering apparatus; at least one reservoir, which can be deformed at least in some sections thereof and in which the light-curing material is present; and at least one metering device for applying the light-curing material. - at least one metering apparatus; - at least one housing for receiving the metering apparatus in a detachable manner; - at least one light-emitting device for curing a light-curing material,
A method for automated detection of malicious structures integrated in an electronic circuit which was generated starting from a system model modelled in a hardware description language, comprising: creating an abstract syntax tree from the system model; pattern matching of at least a substructure of the abstract syntax tree with at least one reference malicious structure (R i) stored in a database of malicious structures with respect to isomorphism and, in case of matching, marking the substructure as a potential malicious structure (Pi); determining characteristic features (C ij) of the potential malicious structure (P i) from a database of features and extracting properties (F ij) of the potential malicious structure (P i) therefrom which properties correspond to the determined features (C ij); determining a range of admissibility (A ij) for each extracted property (F ij) from a database of properties and translating the extracted property (F ij) and the determined range of admissibility (A ij) into a test language for a state machine; and testing a state machine, which was obtained by transforming the system model or the abstract syntax tree, for different states and/or state transitions, wherein a malicious structure is detected when in at least one state and/or state transition at least one of the extracted properties (F ij) leaves the determined range of admissibility (A ij). creating an abstract syntax tree from the system model; pattern matching of at least a substructure of the abstract syntax tree with at least one reference malicious structure (R i) stored in a database of malicious structures with respect to isomorphism and, in case of matching, marking the substructure as a potential malicious structure (Pi); determining characteristic features (C ij) of the potential malicious structure (P i) from a database of features and extracting properties (F ij) of the potential malicious structure (P i) therefrom which properties correspond to the determined features (C ij); determining a range of admissibility (A ij) for each extracted property (F ij) from a database of properties and translating the extracted property (F ij) and the determined range of admissibility (A ij) into a test language for a state machine; and testing a state machine, which was obtained by transforming the system model or the abstract syntax tree, for different states and/or state transitions, wherein a malicious structure is detected when in at least one state and/or state transition at least one of the extracted properties (F ij) leaves the determined range of admissibility (A ij).
A reflector lamp (10, 20, 1000) comprising: a light source (11, 21) for generating a light beam, a reflector (12, 22, 42, 1002) having a reflective inner surface to define a cavity, and an opening formed by an edge of the reflective inner surface, wherein the light source (11, 21) is disposed in the cavity, and a lens (14, 44, 1001) arranged coaxially with and being spaced apart from the light source (11, 21), wherein the reflector lamp (10, 20, 1000) further comprises a push-push adjustment assembly (100, 200, 300, 400) for varying a beam angle of the light beam in a push manner, the push-push adjustment assembly (100, 200, 300, 400) comprising; a frame (101, 201, 301, 401) coupled fixedly to the lamp; an actuator (102, 202, 302, 402) in operative connection with the lens (14, 44, 1001) or the reflector (12, 22, 42, 1002), wherein the actuator (102, 202, 302, 402) movably rests in the frame (101, 201, 301, 401) so that the movement of the actuator (102, 202, 302, 402) enables the lens (14, 44, 1001) or the reflector (12, 22, 42, 1002) to slide relative to the light source (11, 21) thereby to provide variable axial spacing between the lens (14, 44, 1001) or the reflector (12, 22, 42, 1002) and the light source (11, 21); and a push-push latch mechanism coupled to the actuator (102, 202, 302, 402) and/or the frame (101, 201, 301, 401) to move and to latch the actuator (102, 202, 302, 402) in the frame (101, 201, 301, 401). a light source (11, 21) for generating a light beam, a reflector (12, 22, 42, 1002) having a reflective inner surface to define a cavity, and an opening formed by an edge of the reflective inner surface, wherein the light source (11, 21) is disposed in the cavity, and a lens (14, 44, 1001) arranged coaxially with and being spaced apart from the light source (11, 21), wherein the reflector lamp (10, 20, 1000) further comprises a push-push adjustment assembly (100, 200, 300, 400) for varying a beam angle of the light beam in a push manner, the push-push adjustment assembly (100, 200, 300, 400) comprising; a frame (101, 201, 301, 401) coupled fixedly to the lamp; an actuator (102, 202, 302, 402) in operative connection with the lens (14, 44, 1001) or the reflector (12, 22, 42, 1002), wherein the actuator (102, 202, 302, 402) movably rests in the frame (101, 201, 301, 401) so that the movement of the actuator (102, 202, 302, 402) enables the lens (14, 44, 1001) or the reflector (12, 22, 42, 1002) to slide relative to the light source (11, 21) thereby to provide variable axial spacing between the lens (14, 44, 1001) or the reflector (12, 22, 42, 1002) and the light source (11, 21); and a push-push latch mechanism coupled to the actuator (102, 202, 302, 402) and/or the frame (101, 201, 301, 401) to move and to latch the actuator (102, 202, 302, 402) in the frame (101, 201, 301, 401).
Method for the selection of an antibody from a plurality of antibodies, said method comprises the following steps: - optimizing the signal response in a surface plasmon resonance determination based on the molecular weight of the antigen, whereby the R max value is kept constant in the temperature range of the determination, - performing a kinetic screening step, which comprises the calculation of an antigen-complex-stability according to formula antigen-complex-stability = 1 − BL RU − SL RU / BL RU based on the surface plasmon resonance determination with BL denoting a Binding Late reference point set shortly before the antigen's injection ends, SL denoting a Stability Late reference point set shortly before the end of the complex dissociation phase, - selecting antibodies with complex stabilities greater than 95%, - determining temperature-dependent kinetic data by surface plasmon resonance, at 17°C, at 21°C, at 25°C, at 29°C, at 33°C, and at 37°C, - calculating Transition State thermodynamic properties based on equations to (XIII), - selecting an antibody based on a temperature-dependent acceleration of the antigen complex association rate constant k a [1/Ms] and a remaining or decreasing antigen complex dissociation rate constant k d [1/s], wherein equations to (XIII) are ΔG ° = ΔH ° − T * ΔS ° ΔG ° = − R*T * lnK D lnK D = − 1 / T * ΔH ° / R / slope − ΔS ° / R / intercept R * T * lnK D = ΔH ° T 0 − T * ΔS ° T 0 + ΔC ° p T − T 0 − T * Δ C p ° ln T / T 0 k a = k b * T / h * e − ΔG ° ‡ / R * T lnk a / T = − 1 / T * ΔH ° ‡ / R / slope + ΔS ° ‡ * R + lnk b / h / intercept k a = A * e − Ea / R * T lnk a = lnA / intercept − 1 / T * Ea / R / slope k d = k b * T / h * e − ΔG ° ‡ / R * T lnk d / T = − 1 / T * ΔH ° ‡ / R / slope + ΔS ° ‡ / R + lnk B / h / intercept k d = A * e − Ea / R * T lnk d = lnA / intercept − 1 / T * Ea / R / slope. - optimizing the signal response in a surface plasmon resonance determination based on the molecular weight of the antigen, whereby the R max value is kept constant in the temperature range of the determination, - performing a kinetic screening step, which comprises the calculation of an antigen-complex-stability according to formula antigen-complex-stability = 1 − BL RU − SL RU / BL RU based on the surface plasmon resonance determination with BL denoting a Binding Late reference point set shortly before the antigen's injection ends, SL denoting a Stability Late reference point set shortly before the end of the complex dissociation phase, - selecting antibodies with complex stabilities greater than 95%, - determining temperature-dependent kinetic data by surface plasmon resonance, at 17°C, at 21°C, at 25°C, at 29°C, at 33°C, and at 37°C, - calculating Transition State thermodynamic properties based on equations to (XIII), - selecting an antibody based on a temperature-dependent acceleration of the antigen complex association rate constant k a [1/Ms] and a remaining or decreasing antigen complex dissociation rate constant k d [1/s],
An antibody which is binding to human HER3, characterized in that the heavy chain variable domain VH is SEQ ID NO:8; and the light chain variable domain VL is SEQ ID NO:9, or the light chain variable domain VL is SEQ ID NO: 10, or the light chain variable domain VL is SEQ ID NO: 11.
A computing module, comprising; a first branch prediction module operable to generate a first prediction value corresponding to a branch prediction according to a first branch prediction schema based on a program-counter value in a program counter register; a second branch prediction module operable to generate a second prediction value corresponding to a branch prediction according to a second branch prediction schema based on a logical combination of the program-counter value and a branch history value in a branch history register; a third branch prediction module operable to generate a fourth prediction value corresponding to a branch prediction according to a third branch prediction schema based on a sub-routine counter value; and a computation module operable to generate a third prediction value; the computing module characterized by: the first prediction value, the second prediction value and the fourth prediction value each having a respective value corresponding to one of: a prediction to load a branch; and a prediction not to load a branch, wherein the third prediction value corresponds to a mathematical computation based upon a first non-zero weighted first branch prediction value and a second non-zero weighted second branch prediction value and the fourth branch prediction value; and the computation module being further operable to determine whether a particular branch was actually taken and update a prediction hash table and branch-history table according to whether said particular branch was actually taken. the first prediction value, the second prediction value and the fourth prediction value each having a respective value corresponding to one of: a prediction to load a branch; and a prediction not to load a branch, wherein the third prediction value corresponds to a mathematical computation based upon a first non-zero weighted first branch prediction value and a second non-zero weighted second branch prediction value and the fourth branch prediction value; and the computation module being further operable to determine whether a particular branch was actually taken and update a prediction hash table and branch-history table according to whether said particular branch was actually taken.
A (meth)acrylic copolymer having a weight average molecular weight in the range of from 2,000 to 200,000 and comprising a backbone and polysiloxane containing side chains attached to said backbone, wherein the polysiloxane portions of the polysiloxane containing side chains attached to the backbone represent from >25.0 to 75.0 wt.-%, based on the total weight of the copolymer and wherein the polysiloxane containing side chains attached to the backbone of the copolymer independently of another are represented by the part structure wherein the symbol denotes a covalent bond of part structure to the backbone of the inventive copolymer, parameter p is in the range of from 1 to 200, parameter b is in the range of from 2 to 30, parameter c is 0 or 1, R a, R b, R c, R d and R e independently of one another represent a linear, saturated, halogenated or non-halogenated alkyl group with 1 to 30 carbon atoms, a branched, saturated, halogenated or non-halogenated alkyl group with 3 to 30 carbon atoms, an aryl group with 6 to 30 carbon atoms, an alkylaryl group or arylalkyl group, in each case with 7 to 30 carbon atoms, or an alkoxyalkyleneoxide residue or an alkoxypolyalkyleneoxide residue. the symbol denotes a covalent bond of part structure to the backbone of the inventive copolymer, parameter p is in the range of from 1 to 200, parameter b is in the range of from 2 to 30, parameter c is 0 or 1, R a, R b, R c, R d and R e independently of one another represent a linear, saturated, halogenated or non-halogenated alkyl group with 1 to 30 carbon atoms, a branched, saturated, halogenated or non-halogenated alkyl group with 3 to 30 carbon atoms, an aryl group with 6 to 30 carbon atoms, an alkylaryl group or arylalkyl group, in each case with 7 to 30 carbon atoms, or an alkoxyalkyleneoxide residue or an alkoxypolyalkyleneoxide residue.
A method for producing a Brassica natural product preparation with reduced glucosinolate contamination, comprising: cultivating Brassica plant callus in an induction medium; growing a plurality of calli from the cultivated Brassica plant callus; selecting from the plurality of calli a Brassica plant callus with reduced glucosinolate production of at least a 10% decrease as compared to the cultivated Brassica plant callus; cultivating the selected callus in a suspension medium to obtain a suspension cell culture; and recovering Brassica natural product from the suspension cell culture. cultivating Brassica plant callus in an induction medium; growing a plurality of calli from the cultivated Brassica plant callus; selecting from the plurality of calli a Brassica plant callus with reduced glucosinolate production of at least a 10% decrease as compared to the cultivated Brassica plant callus; cultivating the selected callus in a suspension medium to obtain a suspension cell culture; and recovering Brassica natural product from the suspension cell culture.
A vent assembly comprising: a housing defining a cavity, a first end, a second end, and a coupling structure towards the second end, wherein the housing further defines a central axis extending from the first end to the second end; a mounting surface positioned about the central axis between the first end and the second end within the cavity, the mounting surface defining a valve opening and a vent opening, wherein the vent opening is about the central axis and the valve opening comprises a plurality of openings defining a segmented annulus about the central axis; a vent coupled to the mounting surface across the vent opening; and an umbrella valve sealably disposed on the mounting surface across the valve opening, the vent and the umbrella valve being configured in parallel with respect to airflow through the housing. a housing defining a cavity, a first end, a second end, and a coupling structure towards the second end, wherein the housing further defines a central axis extending from the first end to the second end; a mounting surface positioned about the central axis between the first end and the second end within the cavity, the mounting surface defining a valve opening and a vent opening, wherein the vent opening is about the central axis and the valve opening comprises a plurality of openings defining a segmented annulus about the central axis; a vent coupled to the mounting surface across the vent opening; and an umbrella valve sealably disposed on the mounting surface across the valve opening, the vent and the umbrella valve being configured in parallel with respect to airflow through the housing.
A downhole artificial lifting system for introducing fluid into a production casing from an annulus arranged outside the production casing, the production casing having an axial extension and a casing wall with a wall thickness (t), the system comprising: - the production casing which at a first part is surrounded by an intermediate casing, creating the annulus which is downwardly closed, and - a fluid delivering means pumping fluid into the annulus, at least one inflow control valve having an axial direction and being arranged in the first part of the casing wall so that the axial direction of the valve is substantially perpendicular to the axial extension of the casing, characterised in that the inflow control valve is adapted to be fitted into an existing production casing downhole, and in that the inflow control valve has an axial extension which is substantially the same or smaller than the wall thickness of the casing. - the production casing which at a first part is surrounded by an intermediate casing, creating the annulus which is downwardly closed, and - a fluid delivering means pumping fluid into the annulus,
A polyolefin composition comprising: a) from 40.0wt% to 58.5wt%, of a propylene homopolymer having the fraction insoluble in xylene at 25°C higher than 96 wt% and an melt flow rate (MFR a ISO method 1133 (230° C and 2.16 kg)) ranging from 95.0 to 200.0 g/10 min; b) from 21.0 wt% to 30.0 wt%%, of a copolymer of ethylene and propylene, the copolymer having an amount of recurring units deriving from ethylene ranging from 35.0 wt% to 60.0 wt%, and the polymer fraction soluble in xylene at 25°C of component a) + component b) having an intrinsic viscosity value ranging from 3.1 to 4.2 dl/g; and, c) from 20.5 wt% to 30.0wt%%, of ethylene homopolymer; said composition having a value of melt flow rate (MFR T ISO method 1133 (230° C and 2.16 kg)) ranging from 9.0 to 30.0 g/10 min, and the ratio between the MFR of component a) MFR a and the MFR of the total composition MFR T MFR a /MFR T is comprised between 5.0 and 15.0. a) from 40.0wt% to 58.5wt%, of a propylene homopolymer having the fraction insoluble in xylene at 25°C higher than 96 wt% and an melt flow rate (MFR a ISO method 1133 (230° C and 2.16 kg)) ranging from 95.0 to 200.0 g/10 min; b) from 21.0 wt% to 30.0 wt%%, of a copolymer of ethylene and propylene, the copolymer having an amount of recurring units deriving from ethylene ranging from 35.0 wt% to 60.0 wt%, and the polymer fraction soluble in xylene at 25°C of component a) + component b) having an intrinsic viscosity value ranging from 3.1 to 4.2 dl/g; and, c) from 20.5 wt% to 30.0wt%%, of ethylene homopolymer;
A gearbox handling assembly for use in a wind turbine, the wind turbine including a rotor rotatably coupled to a gearbox with a rotor shaft and a support frame configured to support the gearbox and the rotor shaft, said gearbox handling assembly comprising: a support assembly coupled between the gearbox and the support frame for supporting the gearbox from the support frame; and a positioning assembly coupled to the support frame, said positioning assembly adapted to contact the gearbox to move the gearbox between a first position wherein the gearbox is operatively coupled to the rotor shaft and a second position wherein the gearbox is operatively decoupled and spaced from the rotor shaft to facilitate removing the gearbox from the wind turbine without removing the rotor from the wind turbine; characterised in that: said gearbox includes a first torque arm and an opposite second torque arm, said support assembly comprises: a first control sled coupled to the first torque arm and to the support frame; and a second control sled coupled to the second torque arm and to the support frame. a support assembly coupled between the gearbox and the support frame for supporting the gearbox from the support frame; and a positioning assembly coupled to the support frame, said positioning assembly adapted to contact the gearbox to move the gearbox between a first position wherein the gearbox is operatively coupled to the rotor shaft and a second position wherein the gearbox is operatively decoupled and spaced from the rotor shaft to facilitate removing the gearbox from the wind turbine without removing the rotor from the wind turbine; characterised in that: said gearbox includes a first torque arm and an opposite second torque arm, said support assembly comprises: a first control sled coupled to the first torque arm and to the support frame; and a second control sled coupled to the second torque arm and to the support frame. said gearbox includes a first torque arm and an opposite second torque arm, said support assembly comprises: a first control sled coupled to the first torque arm and to the support frame; and a second control sled coupled to the second torque arm and to the support frame. a first control sled coupled to the first torque arm and to the support frame; and a second control sled coupled to the second torque arm and to the support frame.
An electric supercharging apparatus which is configured to rotate an electric motor that comprises a rotor shaft rotatably supported in a motor housing to which a motor coil and a stator are fixed, so as to drive and supercharge a compressor connected to one end of the rotor shaft, the electric supercharging apparatus comprising: a gas supply port and a gas discharge port which are provided in the motor housing; a first cooling passage which communicates the gas supply port and the gas discharge port in the motor housing and which is formed in the stator along the motor coil; the electric supercharging apparatus further comprises a first intake passage which connects the gas discharge port to an inlet port of the compressor, by connecting the gas discharge port with a negative-pressure outlet port which is formed by opening a hole on the side of the compressor cover; an inverter unit comprising an element circuit board housed in an inverter housing, the inverter unit being mounted on a side of the motor housing where the gas supply port is formed, wherein outside air is introduced to the first cooling passage from the gas supply port by a negative pressure of the inlet port of the compressor applied to the first cooling passage via the first intake passage, wherein an air hole to let the outside air through to the gas supply port is provided on the element circuit board. a gas supply port and a gas discharge port which are provided in the motor housing; a first cooling passage which communicates the gas supply port and the gas discharge port in the motor housing and which is formed in the stator along the motor coil; the electric supercharging apparatus further comprises a first intake passage which connects the gas discharge port to an inlet port of the compressor, by connecting the gas discharge port with a negative-pressure outlet port which is formed by opening a hole on the side of the compressor cover; an inverter unit comprising an element circuit board housed in an inverter housing, the inverter unit being mounted on a side of the motor housing where the gas supply port is formed, wherein outside air is introduced to the first cooling passage from the gas supply port by a negative pressure of the inlet port of the compressor applied to the first cooling passage via the first intake passage, wherein an air hole to let the outside air through to the gas supply port is provided on the element circuit board.