mhurhangee/ep-ind-claims huggingface dataset:
Electromechanical brake booster which transmits a muscle force of a vehicle driver and a booster force of the brake booster as an activation force to a piston of a master brake cylinder, having an electric motor and a gear mechanism (11, 13, 14, 15) which is driven by the electric motor and which has a rotational/translational conversion gear mechanism (14, 15) which converts a rotational drive movement of the electric motor into a translational output movement in order to activate a hydraulic master brake cylinder, characterized in that the gear mechanism (11, 13, 14, 15) has a multistage distributor gear mechanism (11, 13) which distributes a gear mechanism input between at least two gear mechanism paths, and a combination gear mechanism (14, 15) which combines the gear mechanism paths into one gear mechanism output.
Apparatus for determining a condition in the form of a wear condition of a displacement unit, having - a fluid line (12, 14) connected to a high-pressure side of the displacement unit, - at least one fluid device fluidically connected to the fluid line (12, 14), which enables a build-up of fluid pressure in the fluid line (12, 14) upstream of said fluid device, - a pressure sensor (20, 22) in each case which acquires a system variable in the form of the fluid pressure ( p, p') in the fluid line upstream of the respective fluid device, - an evaluation device, which is set up in such a manner that it determines the condition of the displacement unit as a function of at least the one system variable ( p, p'), - a further fluid device, which divides the fluid line into a fluid line portion, which is connected to the displacement unit, and a further fluid line portion and which fluid device is set up in such a manner that it permits a transfer of fluid pressure from the one fluid line portion to the further fluid line portion, in particular above a predefinable pressure threshold, and blocks it in the opposite direction, and - a temperature sensor, which detects a temperature of the fluid flowing through the displacement unit, which temperature is included as a further system variable in the determination of the condition. - a fluid line (12, 14) connected to a high-pressure side of the displacement unit, - at least one fluid device fluidically connected to the fluid line (12, 14), which enables a build-up of fluid pressure in the fluid line (12, 14) upstream of said fluid device, - a pressure sensor (20, 22) in each case which acquires a system variable in the form of the fluid pressure ( p, p') in the fluid line upstream of the respective fluid device, - an evaluation device, which is set up in such a manner that it determines the condition of the displacement unit as a function of at least the one system variable ( p, p'), - a further fluid device, which divides the fluid line into a fluid line portion, which is connected to the displacement unit, and a further fluid line portion and which fluid device is set up in such a manner that it permits a transfer of fluid pressure from the one fluid line portion to the further fluid line portion, in particular above a predefinable pressure threshold, and blocks it in the opposite direction, and - a temperature sensor, which detects a temperature of the fluid flowing through the displacement unit, which temperature is included as a further system variable in the determination of the condition.
A precipitation hardened martensitic stainless steel, comprising: between 0.08 % and 0.18 % by weight carbon; between 10.50 % and 14.00 % by weight chromium; between 0.65 % and 1.15 % by weight nickel; between 0.85 % and 1.30 % by weight copper; between 0.40 % and 0.60 % by weight molybdenum; between 0.30 % and 1.00 % by weight manganese; between 0.15 % and 0.65 % by weight silicon; between 0.01 % and 0.09 % by weight aluminum; optionally further comprising between 0 % and 0.040 % by weight phosphorus; optionally further comprising between 0 % and 0.100 % by weight sulfur; optionally further comprising between 0 % and 0.15 % by weight vanadium; optionally further comprising between 0 % and 0.15 % by weight niobium, and balance iron; wherein the precipitation hardened martensitic stainless steel has a yield strength ranging between 655 MPa and 896 MPa, and an ultimate tensile strength ranging between 758 MPa and 972 MPa. between 0.08 % and 0.18 % by weight carbon; between 10.50 % and 14.00 % by weight chromium; between 0.65 % and 1.15 % by weight nickel; between 0.85 % and 1.30 % by weight copper; between 0.40 % and 0.60 % by weight molybdenum; between 0.30 % and 1.00 % by weight manganese; between 0.15 % and 0.65 % by weight silicon; between 0.01 % and 0.09 % by weight aluminum; optionally further comprising between 0 % and 0.040 % by weight phosphorus; optionally further comprising between 0 % and 0.100 % by weight sulfur; optionally further comprising between 0 % and 0.15 % by weight vanadium; optionally further comprising between 0 % and 0.15 % by weight niobium, and balance iron;
A wireless communication apparatus, comprising a control unit that is adapted to control transmission of a receipt acknowledgement request including information, the information specifying a data unit that requires a receipt acknowledgement response in a plurality of transmitted data units, each data unit having a priority; wherein the control unit is adapted to generate the information according to the priority of each of the plurality of transmitted data units; wherein the control unit is adapted to generate the information on a basis of a reference priority, the reference priority being a reference regarding necessity of the receipt acknowledgement response, such that a data unit having a priority higher than the reference priority requires a receipt acknowledgment response; and the control unit is adapted to change the reference priority according to a situation of a wireless transmission path. a control unit that is adapted to control transmission of a receipt acknowledgement request including information, the information specifying a data unit that requires a receipt acknowledgement response in a plurality of transmitted data units, each data unit having a priority; wherein the control unit is adapted to generate the information according to the priority of each of the plurality of transmitted data units; wherein the control unit is adapted to generate the information on a basis of a reference priority, the reference priority being a reference regarding necessity of the receipt acknowledgement response, such that a data unit having a priority higher than the reference priority requires a receipt acknowledgment response; and the control unit is adapted to change the reference priority according to a situation of a wireless transmission path.
A color-treated substrate which has the intrinsic texture of metal, comprising: a matrix containing magnesium; and a film formed on the matrix and containing only a compound represented by the following Chemical Formula 1, wherein an average thickness of the film is in a range of 50 nm to 2 μm, wherein, at any three points included in an arbitrary region with a width of 1 cm and a length of 1 cm which is present on the film, an average color coordinate deviation (ΔL*, Δa* and Δb*) of each point satisfies one or more conditions of ΔL*<0.6, Δa*<0.6 and Δb*<0.5: [Chemical Formula 1] M m where M includes one or more selected from the group consisting of Na, K, Mg, Ca and Ba, and m is 1 or 2. a matrix containing magnesium; and a film formed on the matrix and containing only a compound represented by the following Chemical Formula 1, wherein an average thickness of the film is in a range of 50 nm to 2 μm, wherein, at any three points included in an arbitrary region with a width of 1 cm and a length of 1 cm which is present on the film, an average color coordinate deviation (ΔL*, Δa* and Δb*) of each point satisfies one or more conditions of ΔL*<0.6, Δa*<0.6 and Δb*<0.5: [Chemical Formula 1] M m where M includes one or more selected from the group consisting of Na, K, Mg, Ca and Ba, and m is 1 or 2.
A liquid crystal composition that has a nematic phase and contains at least one compound selected from the group of compounds represented by formula to formula as a first component and at least one compound selected from the group of compounds represented by formula as a second component: wherein, R 1 is alkyl having 1 to 12 carbons or alkenyl having 2 to 12 carbons, and R 2 and R 3 are independently alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons, alkenyl having 2 to 12 carbons, or alkenyl having 2 to 12 carbons in which at least one of hydrogen is replaced by fluorine; ring B, ring C and ring D are independently 1,4-cyclohexylene, 1,4-phenylene or 3-fluoro-1,4-phenylene; X 1 and X 2 are independently hydrogen or fluorine; Z 2 is independently a single bond or carbonyloxy; and n is 0, 1 or 2; and the second component is at least one compound selected from the group of compounds represented by formula, in which at least one of R 2 and R 3 is alkenyl having 2 to 12 carbons. wherein, R 1 is alkyl having 1 to 12 carbons or alkenyl having 2 to 12 carbons, and R 2 and R 3 are independently alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons, alkenyl having 2 to 12 carbons, or alkenyl having 2 to 12 carbons in which at least one of hydrogen is replaced by fluorine; ring B, ring C and ring D are independently 1,4-cyclohexylene, 1,4-phenylene or 3-fluoro-1,4-phenylene; X 1 and X 2 are independently hydrogen or fluorine; Z 2 is independently a single bond or carbonyloxy; and n is 0, 1 or 2; and the second component is at least one compound selected from the group of compounds represented by formula, in which at least one of R 2 and R 3 is alkenyl having 2 to 12 carbons.
An apparatus for a user equipment, UE, in a wireless communication system, the apparatus comprising: a receiver configured to receive data signals and reference signals for estimating a channel, wherein the reference signals includes at least one reference signal on at least one subcarrier at which a tone interference occurs and other reference signals that do not experience the tone interference; and a processor (710, 716) configured to: generate at least one channel value for the at least one reference signal based on other channel values estimated from the other reference signals, estimate channel values for the data signals based on the at least one channel value and the other channel values, and decode the data signals based on the channel values for the data signals, wherein the tone interference is a narrow-band interference that occurs at least one constant position in a physical resource, and wherein the tone interference occurs from an hardware feature of the receiving end of the UE. a receiver configured to receive data signals and reference signals for estimating a channel, wherein the reference signals includes at least one reference signal on at least one subcarrier at which a tone interference occurs and other reference signals that do not experience the tone interference; and a processor (710, 716) configured to: generate at least one channel value for the at least one reference signal based on other channel values estimated from the other reference signals, estimate channel values for the data signals based on the at least one channel value and the other channel values, and decode the data signals based on the channel values for the data signals, wherein the tone interference is a narrow-band interference that occurs at least one constant position in a physical resource, and wherein the tone interference occurs from an hardware feature of the receiving end of the UE. generate at least one channel value for the at least one reference signal based on other channel values estimated from the other reference signals, estimate channel values for the data signals based on the at least one channel value and the other channel values, and decode the data signals based on the channel values for the data signals, wherein the tone interference is a narrow-band interference that occurs at least one constant position in a physical resource, and wherein the tone interference occurs from an hardware feature of the receiving end of the UE.
An optical fiber distributed sensing system comprising: an optical fiber for distributed sensing comprising a core comprising glass, and at least one glass layer (35, 36, 37) surrounding the core, wherein the at least one glass layer (35, 36, 37) surrounding the core comprises: a first glass layer surrounding the core; and a second glass layer surrounding the first glass layer; an optical source coupled to the optical fiber and operable from an end thereof; characterized in that said core is comprising a plurality of diamond particles with nitrogen-vacancy, NV, centers distributed within the glass, that said first glass layer is devoid of diamond particles with NV centers, that said second glass layer is comprising a field-dependent index changing material; and in that the optical fiber distributed sensing system is comprising an optical detector coupled to the optical fiber to detect fluorescence therefrom. an optical fiber for distributed sensing comprising a core comprising glass, and at least one glass layer (35, 36, 37) surrounding the core, wherein the at least one glass layer (35, 36, 37) surrounding the core comprises: a first glass layer surrounding the core; and a second glass layer surrounding the first glass layer; an optical source coupled to the optical fiber and operable from an end thereof; characterized in that said core is comprising a plurality of diamond particles with nitrogen-vacancy, NV, centers distributed within the glass, that said first glass layer is devoid of diamond particles with NV centers, that said second glass layer is comprising a field-dependent index changing material; and in that the optical fiber distributed sensing system is comprising an optical detector coupled to the optical fiber to detect fluorescence therefrom.
An articulated work machine comprising; a first frame; a second frame comprising a body and a chassis, the body pivotally connected to the chassis; the first and second frames (11, 12) being connected by a coupling and being movable relative to each other in at least one direction; characterised in that the articulated work machine further comprises: a first multi-axis inertia sensor attached to the first frame providing an output relating to the position of the first frame; a second multi-axis inertia sensor attached to the body providing an output relating to the position of the body; and a controller which compares the outputs of the first and second multi-axis inertia sensors (20, 21) to calculate the position of the body and the first frame relative to each other. a first multi-axis inertia sensor attached to the first frame providing an output relating to the position of the first frame; a second multi-axis inertia sensor attached to the body providing an output relating to the position of the body; and a controller which compares the outputs of the first and second multi-axis inertia sensors (20, 21) to calculate the position of the body and the first frame relative to each other.
A method for controlling a vapour compression system, the vapour compression system comprising a compressor unit comprising one or more compressors (3, 4, 16), a heat rejecting heat exchanger, a receiver connected to the compressor unit via a gaseous outlet, at least one expansion device and at least one evaporator arranged in a refrigerant path, each expansion device being arranged to control a supply of refrigerant to an evaporator, the method comprising the steps of: - for each expansion device, obtaining an opening degree of the expansion device, characterized in that the method further comprises the steps of: - identifying a representative opening degree, OD rep, based on the obtained opening degree(s) of the expansion device(s), by identifying a maximum opening degree, OD max, as the largest opening degree among the obtained opening degree(s) of the expansion device(s), - comparing the representative opening degree, OD rep, to a predefined target opening degree, OD target, - calculating or adjusting a minimum setpoint value, SP rec, for a pressure prevailing inside the receiver, based on the comparison, and - controlling the vapour compression system to obtain a pressure inside the receiver which is equal to or higher than the calculated or adjusted minimum setpoint value, SP rec. - for each expansion device, obtaining an opening degree of the expansion device, - identifying a representative opening degree, OD rep, based on the obtained opening degree(s) of the expansion device(s), by identifying a maximum opening degree, OD max, as the largest opening degree among the obtained opening degree(s) of the expansion device(s), - comparing the representative opening degree, OD rep, to a predefined target opening degree, OD target, - calculating or adjusting a minimum setpoint value, SP rec, for a pressure prevailing inside the receiver, based on the comparison, and - controlling the vapour compression system to obtain a pressure inside the receiver which is equal to or higher than the calculated or adjusted minimum setpoint value, SP rec.
A data processing system comprising: an operating system providing a socket library; an application supported by the operating system and configured to receive messages at a socket established by means of the socket library; and a user level network protocol stack operable to perform receive processing of messages held at a receive queue corresponding to the said socket; characterised by a callback function operable to determine on behalf of the application whether to discard a message held at the receive queue; wherein the application is operable to make a plurality of different calls of a first type to the socket library that cause state of the receive queue of the said socket to be revealed and the callback function is registered with the user level network protocol stack such that, in response to calls of the first type, the user level network protocol stack is operable to invoke the callback function in respect of each message held at the receive queue so as to cause the callback function to indicate to the user level network protocol stack whether each respective message at the receive queue is to be discarded. an operating system providing a socket library; an application supported by the operating system and configured to receive messages at a socket established by means of the socket library; and a user level network protocol stack operable to perform receive processing of messages held at a receive queue corresponding to the said socket; characterised by a callback function operable to determine on behalf of the application whether to discard a message held at the receive queue;
An imaging system configured to be positioned relative to a subject to acquire image data of the subject, comprising: a detector (38, 40) configured to detect an energy to generate image data; a gantry (34, 334) having at least a first fixed dimension segment and a second telescoping segment, wherein the second telescoping segment is configured to move relative to the first fixed dimension segment to change a dimension of the gantry (34, 334); and a cart configured to carry the gantry (34, 334) and to which the first fixed dimension segment is fixed; wherein the second telescoping segment includes an outer wall with a configuration to taper from a wide dimension to a narrow dimension, wherein a portion of the outer wall with a wide dimension remains within the first fixed dimension segment; wherein the detector (38, 40) is configured to move within the gantry (34, 334) to a selected location. a detector (38, 40) configured to detect an energy to generate image data; a gantry (34, 334) having at least a first fixed dimension segment and a second telescoping segment, wherein the second telescoping segment is configured to move relative to the first fixed dimension segment to change a dimension of the gantry (34, 334); and a cart configured to carry the gantry (34, 334) and to which the first fixed dimension segment is fixed; wherein the second telescoping segment includes an outer wall with a configuration to taper from a wide dimension to a narrow dimension, wherein a portion of the outer wall with a wide dimension remains within the first fixed dimension segment; wherein the detector (38, 40) is configured to move within the gantry (34, 334) to a selected location.
A composite package (100, 700, 800) comprising a plurality of primary packages (104, 802) and a handle (108, 704, 806) attached at two extremities (110, 708) thereof to said composite package (100, 700, 800), wherein the plurality of primary packages (104, 802) are split up into a plurality of secondary packages (102a, 102b, 804a, 804b) each containing at least one of said primary packages (104, 802), wherein said handle (108, 704, 806) has at least one separation line (112, 706) extending along the length thereof and dividing said handle (108, 704, 806) into a plurality of sub-handles (114a, 114b) each attached at the extremities thereof to one of the secondary packages (102a, 102b, 804a, 804b), such that when one of said plurality of secondary packages (102a, 102b, 804a, 804b) is extracted from the composite package (100, 700, 800), said handle (108, 704, 806) is torn along said at least one separation line (112, 706), the sub-handle (114a, 114b) attached to said one of said plurality of secondary packages (102a, 102b, 804a, 804b) being retained therewith, characterized in that at each extremity of the handle (108, 704, 806) there is provided an attachment region comprising a plurality of strips (602a, 602b, 702a, 702b) extending from said extremity (110, 708) of said handle (108, 704, 806) at an attachment angle (θ 1, θ 2, φ 1, φ 2) relative to the extension of the centreline of said handle (108, 704, 806), each of said strips (602a, 602b, 702a, 702b) attaching one of the sub-handles (114a, 114b) to one of the secondary packages (102a, 102b, 804a, 804b).