mhurhangee/ep-ind-claims huggingface dataset:
Weapon barrel having a mount for fixing an object with a fixing apparatus in the weapon barrel, the mount having a first pawl and a second pawl, the first pawl and the second pawl being arranged in such a way that, during fixing of the object, the first pawl and the second pawl are arranged in each case on opposite sides of the fixing apparatus, the first pawl and the second pawl in each case being able to be moved independently of one another, and the first pawl and the second pawl being mounted movably, the first pawl and the second pawl being arranged in parallel next to one another at a right angle to the movement direction of the object in the weapon barrel.
A method for producing a surface-treated steel sheet, comprising: forming a phosphate compound layer on a tin-plated steel sheet by means of cathode electrolytic treatment, wherein the tin-plated steel sheet is obtained by tin-plating a steel sheet; and forming an aluminum-oxygen compound layer on the phosphate compound layer by means of electrolytic treatment using an electrolytic treatment liquid containing aluminum, characterized in that the phosphate compound layer is formed on the tin-plated steel sheet by means of the cathode electrolytic treatment after anode electrolytic treatment is conducted. forming a phosphate compound layer on a tin-plated steel sheet by means of cathode electrolytic treatment, wherein the tin-plated steel sheet is obtained by tin-plating a steel sheet; and forming an aluminum-oxygen compound layer on the phosphate compound layer by means of electrolytic treatment using an electrolytic treatment liquid containing aluminum, characterized in that the phosphate compound layer is formed on the tin-plated steel sheet by means of the cathode electrolytic treatment after anode electrolytic treatment is conducted.
Heat exchanger (1; 1') including a circulation device for a first heat-transfer fluid including a first-heat-transfer-fluid inlet and a first-heat-transfer-fluid outlet between which a first heat-transfer fluid is designed to flow, the heat exchanger including a housing containing the circulation device for the first heat-transfer fluid, the housing including: - at least one opening designed to be traversed by the first-heat-transfer-fluid inlet and outlet (3, 4) of the circulation device for a first heat-transfer fluid, - a second-heat-transfer-fluid inlet and a second-heat-transfer-fluid outlet between which a second heat-transfer fluid is designed to flow, the housing having a cover and a bottom that are each provided with complementary attachment means, and characterized in that the housing includes a first ring seal interposed between the cover and the bottom of the housing, one part of the housing, either the bottom or the cover, having a U-shaped peripheral end, a first arm of the U bearing the attachment means, the first ring seal being interposed between the second arm of the U and the peripheral end of the other part (5a, 5b) of the housing bearing the complementary attachment means, the housing having a second ring seal interposed between the opening in the housing and the first-heat-transfer-fluid inlet and outlet (3, 4) of the circulation device for a first heat-transfer fluid. - at least one opening designed to be traversed by the first-heat-transfer-fluid inlet and outlet (3, 4) of the circulation device for a first heat-transfer fluid, - a second-heat-transfer-fluid inlet and a second-heat-transfer-fluid outlet between which a second heat-transfer fluid is designed to flow,
Compounds of formula wherein n is 0, 1 or 2; Y is C 1 -C 4 alkyl, -COOM, -CO-CH 3, -SO 2 -NH 2, -CN; m is 0, 1 or 2; R, R 1, R 2, R 3, which can be the same or different, are H, methyl, ethyl; the M groups are independently H, Li, Na, K, Ca, Mg, ammonium, protonated ions deriving from alkylamines, alkanolamines or alkylalkanolamines; A is selected from the group consisting of H, C 1 -C 8 alkyl optionally substituted by one or two substituents independently selected from the group consisting of hydroxy, amino, C 1 -C 3 alkoxy, -COOM, or -SO 3 M; C 3 -C 8 cycloalkyl, phenyl optionally substituted by one or two groups independently selected from -COOM or -SO 3 M, C 1 -C 8 alkylphenyl optionally substituted by one or two groups independently selected from -COOM or -SO 3 M, or the SO 3 M group, M being as defined above; or A is a residue of formula: wherein M, R, R 1, R 2 and R 3 are as defined above; the hydrated forms thereof, either solid or in powder. n is 0, 1 or 2; Y is C 1 -C 4 alkyl, -COOM, -CO-CH 3, -SO 2 -NH 2, -CN; m is 0, 1 or 2; R, R 1, R 2, R 3, which can be the same or different, are H, methyl, ethyl; the M groups are independently H, Li, Na, K, Ca, Mg, ammonium, protonated ions deriving from alkylamines, alkanolamines or alkylalkanolamines; A is selected from the group consisting of H, C 1 -C 8 alkyl optionally substituted by one or two substituents independently selected from the group consisting of hydroxy, amino, C 1 -C 3 alkoxy, -COOM, or -SO 3 M; C 3 -C 8 cycloalkyl, phenyl optionally substituted by one or two groups independently selected from -COOM or -SO 3 M, C 1 -C 8 alkylphenyl optionally substituted by one or two groups independently selected from -COOM or -SO 3 M, or the SO 3 M group, M being as defined above; or A is a residue of formula: wherein M, R, R 1, R 2 and R 3 are as defined above; the hydrated forms thereof, either solid or in powder. wherein M, R, R 1, R 2 and R 3 are as defined above; the hydrated forms thereof, either solid or in powder.
Analysis device for an embedded system which comprises at least one CPU and at least one memory, the analysis device having a test interface, a test memory arranged outside the embedded system and at least one communication module for the input and/or output of analysis data via the test interface and the test interface being connected to the test memory and having control lines and at least one data line group, the data line group being designed for transmitting the analysis data and, at the run time of the CPU, the content and accesses to the writeable internal memory and input and/or output accesses of the embedded system being monitored and/or logged by means of external debugging applications (10, 11, 12, 13), characterized in that the analysis device is designed to write the analysis data via the test interface to the test memory, wherein, for the transmission of the analysis data, a data transmission protocol is used in which the analysis data are transmitted in a number of groups of address information items (A1...A16) and data words (D0...D31) and wherein the information whether data words (D0...D31) or address information (A1...A16) are transmitted is transmitted via at least one of the control lines (Add/nDATA) of the test interface by means of a level of a binary signal.
Door check comprising at least a door strap for being movably mounted to a vehicle chassis and a retainer for being be mounted to a vehicle door, wherein the retainer - movably supports the door strap and enables a movement of the door strap relative to the retainer along the longitudinal axis of the door strap, - comprises at least a cylinder with a cylinder axis, a cylinder bottom and an opposed cylinder opening, said cylinder accommodating a piston, said piston being movably along the cylinder axis and being spring loaded to transmit a force to the door strap thereby creating a frictional force opposite to a movement of the door strap, and wherein a controllable actuator is coupled by coupling means (26, 33, 36) to the piston enabling to increase the force exerted via the piston to the door strap. - movably supports the door strap and enables a movement of the door strap relative to the retainer along the longitudinal axis of the door strap, - comprises at least a cylinder with a cylinder axis, a cylinder bottom and an opposed cylinder opening, said cylinder accommodating a piston, said piston being movably along the cylinder axis and being spring loaded to transmit a force to the door strap thereby creating a frictional force opposite to a movement of the door strap, and wherein a controllable actuator is coupled by coupling means (26, 33, 36) to the piston enabling to increase the force exerted via the piston to the door strap.
A method for determining a random access resource, comprising: determining, by a terminal device, Quasi Co-Located, QCL, information of a target Synchronization Signal Block, SSB, characterized in that, the method further comprises determining, by the terminal device, a set of target random access resources corresponding to the QCL information of the target SSB based on a correspondence between QCL information of SSBs with different position indexes, and sets of random access resources, wherein a random access resource in the set of target random access resources is used for the terminal device to perform a random access process, and SSBs with a QCL relationship correspond to a same random access resource. determining, by a terminal device, Quasi Co-Located, QCL, information of a target Synchronization Signal Block, SSB, characterized in that, the method further comprises determining, by the terminal device, a set of target random access resources corresponding to the QCL information of the target SSB based on a correspondence between QCL information of SSBs with different position indexes, and sets of random access resources, wherein a random access resource in the set of target random access resources is used for the terminal device to perform a random access process, and SSBs with a QCL relationship correspond to a same random access resource.
Compounds of formula A or of formula B wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10 are independently selected from a group consisting of hydrogen, C1 to C5 alkyl or C1 to C5 alkenyl, with the proviso that - compounds of formula A don't include compound of formula A-exc, and - compounds of formula B don't include compounds of formulae B-exc1, B-exc2 and B-exc3 - compounds of formula A don't include compound of formula A-exc, and - compounds of formula B don't include compounds of formulae B-exc1, B-exc2 and B-exc3
A method for electromagnetically forming and/or cutting an electrically poorly conductive or an electrically non-conductive flat material using at least one driving plate which transfers a magnetic compressive force, generated by a coil, onto the flat material to be formed and/or cut in the forming and/or cutting region, wherein the driving plate is adhesively bonded at least locally in the forming and/or cutting region onto the flat material to be formed and/or cut, characterised in that the driving plate to be adhesively bonded is self-adhesive.
An antibody comprising a CH2 domain of SEQ ID NO:2, which has relative to the CH2 domain of SEQ ID NO:2 (a) a substitution or set of substitutions according to the EU index as in Kabat selected from: (i) V273E, (ii) V273F, (iii) V273M, (iv) V273S, (v) V273Y, (vi) V263L and V273E, (vii) V263L and V273F, (viii) V263L and V273M, (ix) V263L and V273S, and (x) V263L and V273Y; (b) the substitution V263L according to the EU index as in Kabat, wherein the antibody binds specifically to CD40; or (c) the substitution V263L according to the EU index as in Kabat, wherein the antibody binds specifically to a costimulatory molecule selected from CD28, PD-1, CTLA-4, CD80, CD86, TIM3, OX40, 4-1BB, GITR, CD27, B7-H4, and DC-SIGN; optionally wherein the CH2 domain is part of an Fc domain comprising T250Q and M428L according to the EU index as in Kabat. (a) a substitution or set of substitutions according to the EU index as in Kabat selected from: (i) V273E, (ii) V273F, (iii) V273M, (iv) V273S, (v) V273Y, (vi) V263L and V273E, (vii) V263L and V273F, (viii) V263L and V273M, (ix) V263L and V273S, and (x) V263L and V273Y; (i) V273E, (ii) V273F, (iii) V273M, (iv) V273S, (v) V273Y, (vi) V263L and V273E, (vii) V263L and V273F, (viii) V263L and V273M, (ix) V263L and V273S, and (x) V263L and V273Y; (b) the substitution V263L according to the EU index as in Kabat, wherein the antibody binds specifically to CD40; or (c) the substitution V263L according to the EU index as in Kabat, wherein the antibody binds specifically to a costimulatory molecule selected from CD28, PD-1, CTLA-4, CD80, CD86, TIM3, OX40, 4-1BB, GITR, CD27, B7-H4, and DC-SIGN;
A method of transferring a cryogenic liquefied gas (29, 30), that is contained in a container under pressure into a tank or a gas transport network, the container being thermally insulated and being connected to a recirculation circuit (19 to 22) that includes a heater, the method comprising: connecting the container to the tank or to the network that is to be fed, via a circuit (17, 18) for transferring the liquefied gas in the liquid phase and not having a pump; allowing the liquefied gas to be transferred to the tank or to the network via the transfer circuit (17, 18) under the effect of a higher pressure in the container, or ensuring that it is so transferred; the method being characterized in that: the recirculation circuit includes a recirculation pump that is connected in series with the heater, upstream from the heater, and that is arranged to discharge liquefied gas taken from the bottom portion of the container into the heater; the heater is an atmospheric heater; and the pump is operated to compensate, at least in part, for the reduction in pressure inside the container during transfer, the pump being an axial flow pump including a bladed wheel serving to move the liquefied gas substantially along an axis of rotation of the wheel, the wheel having a row of blades with permanent magnets arranged at the periphery of the wheel, the pump including a field winding arranged to drive the wheel in rotation by means of the magnets. connecting the container to the tank or to the network that is to be fed, via a circuit (17, 18) for transferring the liquefied gas in the liquid phase and not having a pump; allowing the liquefied gas to be transferred to the tank or to the network via the transfer circuit (17, 18) under the effect of a higher pressure in the container, or ensuring that it is so transferred; the recirculation circuit includes a recirculation pump that is connected in series with the heater, upstream from the heater, and that is arranged to discharge liquefied gas taken from the bottom portion of the container into the heater; the heater is an atmospheric heater; and the pump is operated to compensate, at least in part, for the reduction in pressure inside the container during transfer, the pump being an axial flow pump including a bladed wheel serving to move the liquefied gas substantially along an axis of rotation of the wheel, the wheel having a row of blades with permanent magnets arranged at the periphery of the wheel, the pump including a field winding arranged to drive the wheel in rotation by means of the magnets.
A system for valve failure prediction, comprising: a temperature engine configured to determine a temperature of a liquid exiting a cooling device and compare the temperature of the liquid to a temperature threshold; a flow rate engine configured to compare an actual flow rate of the liquid exiting the cooling device to an overall flow rate threshold when the temperature of the liquid is greater than the temperature threshold and configured to compare the actual flow rate to a first flow rate threshold and a second flow rate threshold when the actual flow rate is less than the overall flow rate threshold; a prediction engine configured to determine when a valve of the cooling device is malfunctioning based on the comparison of the actual flow rate and the overall flow rate threshold; and a notification engine configured to send a first alert to a user when the actual flow rate is less than the first flow rate threshold and send a second alert to the user when the actual flow rate is between the first flow rate threshold and the second flow rate threshold. a temperature engine configured to determine a temperature of a liquid exiting a cooling device and compare the temperature of the liquid to a temperature threshold; a flow rate engine configured to compare an actual flow rate of the liquid exiting the cooling device to an overall flow rate threshold when the temperature of the liquid is greater than the temperature threshold and configured to compare the actual flow rate to a first flow rate threshold and a second flow rate threshold when the actual flow rate is less than the overall flow rate threshold; a prediction engine configured to determine when a valve of the cooling device is malfunctioning based on the comparison of the actual flow rate and the overall flow rate threshold; and a notification engine configured to send a first alert to a user when the actual flow rate is less than the first flow rate threshold and send a second alert to the user when the actual flow rate is between the first flow rate threshold and the second flow rate threshold.
A display system comprising: a data provider arranged to provide holographic data comprising first data representative of a cylindrical lens having optical power in a first direction (770; 870) and second data representative of an object for holographic reconstruction; a spatial light modulator (701; 801) arranged to receive the holographic data, wherein the spatial light modulator is arranged to spatially-modulate in use light received from a coherent light source in accordance with the holographic data, wherein the first data provides a one-dimensional lensing effect to the received, spatially-modulated light; and a physical cylindrical lens (750; 850) arranged to receive spatially-modulated light and unmodulated light from the spatial light modulator and perform in use a one-dimensional Fourier transform of the received light in a second direction (760; 860) orthogonal to the first direction (770; 870), wherein the physical cylindrical lens is arranged to focus in use the unmodulated light as a line, and wherein the one-dimensional lensing effect provided by the first data and the physical cylindrical lens (750; 850) together perform in use a two-dimensional Fourier transform of the second data so as to form a two-dimensional holographic reconstruction of the object. a data provider arranged to provide holographic data comprising first data representative of a cylindrical lens having optical power in a first direction (770; 870) and second data representative of an object for holographic reconstruction; a spatial light modulator (701; 801) arranged to receive the holographic data, wherein the spatial light modulator is arranged to spatially-modulate in use light received from a coherent light source in accordance with the holographic data, wherein the first data provides a one-dimensional lensing effect to the received, spatially-modulated light; and a physical cylindrical lens (750; 850) arranged to receive spatially-modulated light and unmodulated light from the spatial light modulator and perform in use a one-dimensional Fourier transform of the received light in a second direction (760; 860) orthogonal to the first direction (770; 870), wherein the physical cylindrical lens is arranged to focus in use the unmodulated light as a line, and wherein the one-dimensional lensing effect provided by the first data and the physical cylindrical lens (750; 850) together perform in use a two-dimensional Fourier transform of the second data so as to form a two-dimensional holographic reconstruction of the object.
A circuit for use in an magnetic resonance system to reduce MR interference of a physiological signal S(f), the circuit comprising: a first summing/subtraction node configured to input a first signal S(f)+N(f) including all interference components generated by an MR imaging scanner N(f) and a physiological signal S(f), and a second signal S(f)+E(f) including the physiological signal S(f) and an error signal E(f), and which is configured to subtractively combine the second signal S(f)+E(f) with the first signal S(f)+N(f) to generate a difference signal N(f)-E(f); a high pass filter which is configured to filter the difference signal N(f)-E(f) from the first summing/subtraction node to a filtered signal H(f) * [N(f)-E(f)]; and a second summing/subtraction node which is configured to subtractively combine the first signal S(f)+N(f) and the filtered signal H(f) * [N(f)-E(f)] from the high pass filter, and generate the second signal S(f)+E(f). a first summing/subtraction node configured to input a first signal S(f)+N(f) including all interference components generated by an MR imaging scanner N(f) and a physiological signal S(f), and a second signal S(f)+E(f) including the physiological signal S(f) and an error signal E(f), and which is configured to subtractively combine the second signal S(f)+E(f) with the first signal S(f)+N(f) to generate a difference signal N(f)-E(f); a high pass filter which is configured to filter the difference signal N(f)-E(f) from the first summing/subtraction node to a filtered signal H(f) * [N(f)-E(f)]; and a second summing/subtraction node which is configured to subtractively combine the first signal S(f)+N(f) and the filtered signal H(f) * [N(f)-E(f)] from the high pass filter, and generate the second signal S(f)+E(f).
An antireflection film (21, 31, 40) comprising: a film base material; an antireflection structure configured by a plurality of fine optical projections formed on a surface of the film base material; and a plurality of protrusions formed, adjacent to fine optical projections of said plurality of fine optical projections, on the surface of the film base material, each protrusion having a truncated cone shape with a distal-end surface, and having a height defined by said distal-end surface larger than that of the optical projection, wherein in each of the plurality of protrusions, a sectional area of a section parallel with the surface of the film base material gradually decreases from a proximal-end portion to said distal-end surface, and when a diameter of the protrusion at a proximal end thereof, a height of the protrusion, and an angle between a side surface of the protrusion and a central axis of the protrusion on a section passing through the central axis of the protrusion are given by D, H, and θ, respectively, the antireflection film (21, 31, 40) has the following relationship: D > 2H x tan (2θ), wherein when a refractive index of the protrusion is given by n, at least one protrusion of the plurality of protrusions satisfies the following relationship: θ > 0.5 x arcsin (1/n). a film base material; an antireflection structure configured by a plurality of fine optical projections formed on a surface of the film base material; and a plurality of protrusions formed, adjacent to fine optical projections of said plurality of fine optical projections, on the surface of the film base material, each protrusion having a truncated cone shape with a distal-end surface, and having a height defined by said distal-end surface larger than that of the optical projection, wherein in each of the plurality of protrusions, a sectional area of a section parallel with the surface of the film base material gradually decreases from a proximal-end portion to said distal-end surface, and when a diameter of the protrusion at a proximal end thereof, a height of the protrusion, and an angle between a side surface of the protrusion and a central axis of the protrusion on a section passing through the central axis of the protrusion are given by D, H, and θ, respectively, the antireflection film (21, 31, 40) has the following relationship: D > 2H x tan (2θ), wherein when a refractive index of the protrusion is given by n, at least one protrusion of the plurality of protrusions satisfies the following relationship: θ > 0.5 x arcsin (1/n). D > 2H x tan (2θ), wherein when a refractive index of the protrusion is given by n, at least one protrusion of the plurality of protrusions satisfies the following relationship: θ > 0.5 x arcsin (1/n).