mhurhangee/ep-ind-claims huggingface dataset:
Vehicle comprising a passenger compartment, a luggage compartment, a luggage compartment floor and a canopy which is folded up and attached to a support at least in an upper position in which the canopy is in the position of use, the vehicle comprising a stow tray for the canopy which extends at the lower level of the luggage compartment, transversely to the longitudinal axis of the vehicle from a region vertically in line with the support when it is in the upper position, and able to house the canopy which is folded up in the lower stowed position and also a gripping part of the canopy, the canopy support being connected to the luggage compartment and able to move between an upper position in which the canopy is in the upper position of use and a lower position in which the canopy is in the lower stowed position, wherein the support is a pivoting articulated support consisting of at least one arm which is articulated on a horizontal spindle at half the height of the luggage compartment and is able to pivot between an upper position and a lower position.
Steel for the manufacture of rails, particularly of grooved rails, having a hardness of at least 330 HV30, a tensile strength of at least 1000 MPa and a yield strength of at least 600 MPa consisting of in weight %, • 0.70% to 0.85 carbon, • 0.65% to 1.00% silicon, • 1.1% to 1.4% manganese, • 0.07% to 0.15% vanadium, • up to 0.008% nitrogen, • up to 0.025% phosphorus, • 0.008 to 0.030% sulphur, • at most 2.5 ppm hydrogen, • at most 0.10% chromium, • at most 0.010% aluminium, • at most 20 ppm oxygen, • the remainder consisting of iron and unavoidable impurities. • 0.70% to 0.85 carbon, • 0.65% to 1.00% silicon, • 1.1% to 1.4% manganese, • 0.07% to 0.15% vanadium, • up to 0.008% nitrogen, • up to 0.025% phosphorus, • 0.008 to 0.030% sulphur, • at most 2.5 ppm hydrogen, • at most 0.10% chromium, • at most 0.010% aluminium, • at most 20 ppm oxygen, • the remainder consisting of iron and unavoidable impurities.
A method of refining a metal selected from the group consisting of titanium and other metals capable of forming oxycarbides, comprising the following steps: (a) providing an oxide of the metal; (b) reacting the oxide of the metal to form an oxycarbide by: providing an electrode comprising the oxide of the metal and carbon; and electrolytically reducing the electrode in a molten calcium chloride electrolyte; (c) electrolysing the oxycarbide in the molten calcium chloride electrolyte by reversing electrolytic cell polarity such that the oxycarbide is configured as an anode; and (d) recovering a refined form of the metal from a cathode in the electrolyte, characterized: in that the oxide of the metal has a level of impurities of at least 1.0 wt%; and by leaching impurities from the oxycarbide before step (c) using acid. (a) providing an oxide of the metal; (b) reacting the oxide of the metal to form an oxycarbide by: providing an electrode comprising the oxide of the metal and carbon; and electrolytically reducing the electrode in a molten calcium chloride electrolyte; providing an electrode comprising the oxide of the metal and carbon; and electrolytically reducing the electrode in a molten calcium chloride electrolyte; (c) electrolysing the oxycarbide in the molten calcium chloride electrolyte by reversing electrolytic cell polarity such that the oxycarbide is configured as an anode; and (d) recovering a refined form of the metal from a cathode in the electrolyte, characterized: in that the oxide of the metal has a level of impurities of at least 1.0 wt%; and by leaching impurities from the oxycarbide before step (c) using acid. in that the oxide of the metal has a level of impurities of at least 1.0 wt%; and by leaching impurities from the oxycarbide before step (c) using acid.
An evaluation method for silage fermentation quality, characterized in that: a gas generated from silage is provided to a surface stress sensor, and evaluation of fermentation quality is performed based on a composition of the gas generated from the silage using signals output from the surface stress sensor in response to the gas generated from the silage, wherein in the surface stress sensor, a response characteristic to at least one of organic acids belonging to C2 and C3 and a response characteristic to at least one of organic acids belonging to C4 are different, wherein said C2 and C3 refer to organic acids having 2 or 3 carbon atoms, respectively, and said C4 refers to organic acids having 4 or more carbon atoms, and the evaluation of fermentation quality based on the composition of the gas generated from the silage is performed from the result of at least either one of: criterion 1: the value of the ratio of the amount of said C4 to the amount of said C2 and C3; and criterion 2: the amount of said C2 and C3. a gas generated from silage is provided to a surface stress sensor, and evaluation of fermentation quality is performed based on a composition of the gas generated from the silage using signals output from the surface stress sensor in response to the gas generated from the silage, wherein in the surface stress sensor, a response characteristic to at least one of organic acids belonging to C2 and C3 and a response characteristic to at least one of organic acids belonging to C4 are different, wherein said C2 and C3 refer to organic acids having 2 or 3 carbon atoms, respectively, and said C4 refers to organic acids having 4 or more carbon atoms, and the evaluation of fermentation quality based on the composition of the gas generated from the silage is performed from the result of at least either one of: criterion 1: the value of the ratio of the amount of said C4 to the amount of said C2 and C3; and criterion 2: the amount of said C2 and C3. criterion 1: the value of the ratio of the amount of said C4 to the amount of said C2 and C3; and criterion 2: the amount of said C2 and C3.
Device for decrypting protected content and for providing the decrypted content for playback, the device comprising one or more system software modules (105a-d) providing functions for facilitating the decryption of the protected content characterized in that the device further comprises client software modules each being assigned to a provider of protected content and being adapted to access functions of the system software modules (105a-d) in order to control the system software to decrypt the protected content of the provider, wherein the device is adapted to validate the system software modules (105a-d) and/or a client software module assigned to a second provider loaded in a processor of the device and to prevent the decryption and/or provision of the protected content of a first provider, if the system software modules (105a-d) and/or the client software module assigned to the second provider are not validated successfully, the validation of the system software modules (105a-d) and/or the client software module assigned to the second provider comprising a comparison of identification data of the system software modules (105a-d) and/or the client software module assigned to the second provider and identification data included in a revocation list assigned to the first provider, and wherein content of the second provider can still be decrypted and provided for playback, if the validation of the system software modules (105a-d) and/or the client software module assigned to the second provider using the revocation list assigned to the first provider is not successful.
A method of producing a benefit agent delivery particle comprising a core material which comprises a perfume composition having a Clog P of less than 4.5 and a shell, said shell surrounding said core material; wherein said benefit agent delivery particle has wall material which comprises a resin comprised of a reaction product of formaldehyde with an amine, wherein said amine comprises melamine, urea, benzoguanamine, glycoluril, or mixtures thereof, said method comprising the steps of: a.) preparing a first solution comprising, based on total solution weight, from 20% to 90% water, a first emulsifier and a first resin, the ratio of said first emulsifier and said first resin being from 0.1:1 to 10:1; b.) preparing a second solution comprising based on total solution weight from 20% to 95% water, a second emulsifier and a second resin, the ratio of said second emulsifier and said second resin being from 0:1 to 3:1; c.) combining a core material and said first solution to form a first composition; d.) emulsifying said first composition; e.) combining said first composition and said second solution to form a second composition, and optionally combining any processing aids to said second composition; f.) mixing said second composition at a temperature of from about 25°C to about 100°C for a time sufficient to form said benefit agent delivery particle, and optionally combining any processing aids to said second composition; g.) optionally combining any scavenger material, structurant, and/or anti-agglomeration agent with said second composition during step f.) or thereafter h.) optionally spray drying said second composition containing said benefit agent delivery particles. a.) preparing a first solution comprising, based on total solution weight, from 20% to 90% water, a first emulsifier and a first resin, the ratio of said first emulsifier and said first resin being from 0.1:1 to 10:1; b.) preparing a second solution comprising based on total solution weight from 20% to 95% water, a second emulsifier and a second resin, the ratio of said second emulsifier and said second resin being from 0:1 to 3:1; c.) combining a core material and said first solution to form a first composition; d.) emulsifying said first composition; e.) combining said first composition and said second solution to form a second composition, and optionally combining any processing aids to said second composition; f.) mixing said second composition at a temperature of from about 25°C to about 100°C for a time sufficient to form said benefit agent delivery particle, and optionally combining any processing aids to said second composition; g.) optionally combining any scavenger material, structurant, and/or anti-agglomeration agent with said second composition during step f.) or thereafter h.) optionally spray drying said second composition containing said benefit agent delivery particles.
Filter device for filtering fluid, in particular in the form of an aqueous urea solution, having a filter element arranged in a filter housing as well as a compensating element, provided for compensating pressure or volume fluctuations in the fluid, in the form of an elastically yielding hollow body which has a greater spatial extent in one direction than transverse thereto, which is held in the filter housing by means of a holding device (32, 34) and which separates the fluid from a compressible medium with its partition wall, wherein a supporting body is inserted inside the hollow body, said supporting body being at least partially spaced from the hollow body in a non-compensating position and serving as a supporting abutment for the hollow body in at least one compensating position, characterised in that the supporting body is rigid and provided at least partially with a cavity on the inside, which is connected via a media-conducting connecting device (29, 31) to at least one space between the hollow body and the supporting body in which space the compressible medium is held.
Micro-gripper with one-piece structure including at least two gripping fingers (4, 104, 204, 304) with variable spacing, a support (1, 301) to which the fingers are joined by flexible couplings and an actuator connected to the fingers and deformable to adjust the spacing of the fingers, wherein the actuator is a flexible diaphragm (5, 305), the support comprises a continuous sleeve that can be coupled in a leak tight manner to an equipment for supplying pressurised fluid and in which the diaphragm (5, 305) is mounted by a continuous contour (10, 312), characterised in that the diaphragm is on the whole conical in a free state and extends between the fingers from the contour mounted on the support.
A target-binding moiety toxin conjugate comprising: (i) a target-binding moiety; (ii) at least one amatoxin; and (iii) a linker L2; wherein the at least one amatoxin is connected to the linker L2 via the 6' C-atom of amatoxin amino acid 4, wherein the target-binding moiety is selected from the group consisting of: (i) antibody or antigen-binding fragment thereof; (ii) antibody-like protein, wherein said antibody-like protein is selected from the group consisting of affibodies, anticalins, designed ankyrin repeat proteins and proteins with ubiquitine based scaffolds; and (iii) nucleic acid aptamer. (i) a target-binding moiety; (ii) at least one amatoxin; and (iii) a linker L2; (i) antibody or antigen-binding fragment thereof; (ii) antibody-like protein, wherein said antibody-like protein is selected from the group consisting of affibodies, anticalins, designed ankyrin repeat proteins and proteins with ubiquitine based scaffolds; and (iii) nucleic acid aptamer.
A method for identifying the noise figure of a device under test using a modulated signal, with the following steps: - Providing a signal generator that outputs the modulated signal, a device under test and an analyzer; - Connecting the signal generator with the analyzer directly, and performing at least two error vector magnitude measurements with different average counts; - Connecting the signal generator with the device under test and connecting the device under test with the analyzer directly, and performing at least two error vector magnitude measurements with different average counts; - Determining the noise contribution of the device under test from the error vector magnitude measurements performed; - Performing a gain measurement on the device under test; and - Calculating the noise figure of the device under test based on the noise contribution of the device under test obtained and the gain of the device under test obtained, wherein the average count determines the number of averaging procedures used, and wherein systematic signal errors are separated from the noise contribution by comparing the respective error vector magnitude measurements which are done at least twice with different average counts for the respective measurement setup. - Providing a signal generator that outputs the modulated signal, a device under test and an analyzer; - Connecting the signal generator with the analyzer directly, and performing at least two error vector magnitude measurements with different average counts; - Connecting the signal generator with the device under test and connecting the device under test with the analyzer directly, and performing at least two error vector magnitude measurements with different average counts; - Determining the noise contribution of the device under test from the error vector magnitude measurements performed; - Performing a gain measurement on the device under test; and - Calculating the noise figure of the device under test based on the noise contribution of the device under test obtained and the gain of the device under test obtained,
A method of wireless communication, comprising: receiving, by a user equipment, UE, a configuration message including at least one list of cell specific reference signal, CRS, patterns for a component carrier, wherein a list of the at least one list is associated with a control resource set, CORESET, group; receiving, by the UE, a first message scheduling a first transmission associated with a first demodulation reference signal, DMRS, and for the component carrier; receiving, by the UE, a second message scheduling a second transmission associated with a second DMRS and for the component carrier; and modifying, by the UE, at least one DMRS symbol of the first DMRS or at least one DMRS symbol of the second DMRS based on the list being configured for the component carrier; wherein the first DMRS includes multiple DMRS symbols and wherein modifying the at least one DMRS symbol of the first DMRS or the second DMRS includes: incrementing a location value of each DMRS symbol of the multiple DMRS symbols of the first DMRS of the first transmission by one. receiving, by a user equipment, UE, a configuration message including at least one list of cell specific reference signal, CRS, patterns for a component carrier, wherein a list of the at least one list is associated with a control resource set, CORESET, group; receiving, by the UE, a first message scheduling a first transmission associated with a first demodulation reference signal, DMRS, and for the component carrier; receiving, by the UE, a second message scheduling a second transmission associated with a second DMRS and for the component carrier; and modifying, by the UE, at least one DMRS symbol of the first DMRS or at least one DMRS symbol of the second DMRS based on the list being configured for the component carrier; wherein the first DMRS includes multiple DMRS symbols and wherein modifying the at least one DMRS symbol of the first DMRS or the second DMRS includes: incrementing a location value of each DMRS symbol of the multiple DMRS symbols of the first DMRS of the first transmission by one.
A method of operating a position-determining system for locating a mobile object, said system comprising at least one transmitter connected to the object, at least two stationary receivers and means for determining the phase difference with which the signal of the transmitter reaches the two receivers, with at least a first pair of two stationary receivers being brought into play for determining at least one space coordinate of the object position and the measuring range for the object position being located at this space coordinate between the two receivers, characterized in that, using the object position as a variable, a merit function is minimized, which includes the difference between the sine or cosine of the phase difference for one pair calculated from the object position and the measured sine or cosine of the phase difference for said pair, and in that the space coordinates of the object position are determined independently of one another by optimizing only one coordinate at a time and keeping the others fixed and in that the optimization of each space coordinate of the object position is only carried out based on the measurements of the pair of receivers whose connecting line lies parallel to the respective coordinate axis.
A lamp unit, the lamp unit having a light emitting device modularizing member for modularizing a light emitting device (22,42), the modularizing member comprising: a heatsink (51,52) having a planar base; a light emitting device mounting plate (25,45) extending perpendicularly to the base and a light emitting device holder (80, 81) provided on each of a first face (25a, 45a) of the light emitting device mounting plate (25, 45), which is a face facing the middle portion of the base, and a second face (25b, 45b) thereof, which is a face opposite to the first face; characterised in that the light emitting device mounting plate (25,45) extends from a portion closer to an end than to a middle portion of the base; the lamp has first and second modularizing members; the modularizing member and the second modularizing member are disposed such that a first face of a light emitting device mounting plate of the first light emitting device modularizing member and a second face of a light emitting device mounting plate of the second light emitting device modularizing member face each other, and light emitting devices (22,42) are mounted on the light emitting device mounting plate of the first light emitting device modularizing member and the light emitting device mounting plate of the second light emitting device modularizing member, respectively, such that light emitting directions thereof are opposite to each other. a heatsink (51,52) having a planar base; a light emitting device mounting plate (25,45) extending perpendicularly to the base and a light emitting device holder (80, 81) provided on each of a first face (25a, 45a) of the light emitting device mounting plate (25, 45), which is a face facing the middle portion of the base, and a second face (25b, 45b) thereof, which is a face opposite to the first face; characterised in that the light emitting device mounting plate (25,45) extends from a portion closer to an end than to a middle portion of the base; the lamp has first and second modularizing members; the modularizing member and the second modularizing member are disposed such that a first face of a light emitting device mounting plate of the first light emitting device modularizing member and a second face of a light emitting device mounting plate of the second light emitting device modularizing member face each other, and light emitting devices (22,42) are mounted on the light emitting device mounting plate of the first light emitting device modularizing member and the light emitting device mounting plate of the second light emitting device modularizing member, respectively, such that light emitting directions thereof are opposite to each other.
A system comprising: a pair of hearing protection devices configured to protect hearing of a shooter having a first ear and a second ear from injurious sounds, the pair of hearing protection devices including: a first ear device configured to be worn in or over the first ear, to detect a gunshot, and to produce first detection information characterizing the gunshot as detected by the first ear device; and a second ear device configured to be worn in or over the second ear, to detect the gunshot, and to produce second detection information characterizing the gunshot as detected by the second ear device; and a portable device (110, 410) configured to be communicatively coupled to the pair of hearing protection devices via a wireless link (112A, 112B), the portable device including a processing circuit configured to identify an acoustic signature using the first detection information, the second detection information, and a template signature, the acoustic signature allowing for identification of the gunshot as being fired by the shooter. a first ear device configured to be worn in or over the first ear, to detect a gunshot, and to produce first detection information characterizing the gunshot as detected by the first ear device; and a second ear device configured to be worn in or over the second ear, to detect the gunshot, and to produce second detection information characterizing the gunshot as detected by the second ear device; and a portable device (110, 410) configured to be communicatively coupled to the pair of hearing protection devices via a wireless link (112A, 112B), the portable device including a processing circuit configured to identify an acoustic signature using the first detection information, the second detection information, and a template signature, the acoustic signature allowing for identification of the gunshot as being fired by the shooter.