mhurhangee/ep-ind-claims huggingface dataset:
A device configured to bind authentication-related metadata with hardware intrinsic properties, the device having associated device enrollment parameters and associated authentication-related metadata, and comprising a) a hardware root of trust; and b) a processor connected to the hardware root of trust, the processor configured to: i) combine device enrollment parameters associated with the device with authentication-related metadata associated with the device to produce a binding value; ii) convey the binding value to the hardware root of trust; iii) receive an output value from the hardware root of trust, wherein the output value generated by the hardware root of trust is characteristic of the hardware intrinsic properties of the hardware root of trust and of the binding value; and iv) create a proof token as a function of non-sensitive metadata and the output value generated at the hardware root of trust output, wherein the proof token is for use by a verifier to validate the non-sensitive metadata. a) a hardware root of trust; and b) a processor connected to the hardware root of trust, the processor configured to: i) combine device enrollment parameters associated with the device with authentication-related metadata associated with the device to produce a binding value; ii) convey the binding value to the hardware root of trust; iii) receive an output value from the hardware root of trust, wherein the output value generated by the hardware root of trust is characteristic of the hardware intrinsic properties of the hardware root of trust and of the binding value; and iv) create a proof token as a function of non-sensitive metadata and the output value generated at the hardware root of trust output, wherein the proof token is for use by a verifier to validate the non-sensitive metadata. i) combine device enrollment parameters associated with the device with authentication-related metadata associated with the device to produce a binding value; ii) convey the binding value to the hardware root of trust; iii) receive an output value from the hardware root of trust, wherein the output value generated by the hardware root of trust is characteristic of the hardware intrinsic properties of the hardware root of trust and of the binding value; and iv) create a proof token as a function of non-sensitive metadata and the output value generated at the hardware root of trust output, wherein the proof token is for use by a verifier to validate the non-sensitive metadata.
An image processing apparatus comprising: printing means adapted to print an original sheet containing a handwritten area in which a handwritten image to be combined with a desired image is to be handwritten by a user, identification information, and the desired image, wherein the identification information is information for identifying each of the desired image which has been selected by a user and a decorative pattern which has been selected by the user; reading means adapted to read said original sheet; analyzing means adapted to analyze said identification information which is included in said original sheet and is read by said reading means; and acquiring means adapted to acquire the desired image, based on the result of analyzing the identification information by said analyzing means, wherein the printing means is adapted to print a combined image which includes the desired image acquired by said acquiring means, the decorative pattern identified by the identification information, and the handwritten image read by said reading means. printing means adapted to print an original sheet containing a handwritten area in which a handwritten image to be combined with a desired image is to be handwritten by a user, identification information, and the desired image, wherein the identification information is information for identifying each of the desired image which has been selected by a user and a decorative pattern which has been selected by the user; reading means adapted to read said original sheet; analyzing means adapted to analyze said identification information which is included in said original sheet and is read by said reading means; and acquiring means adapted to acquire the desired image, based on the result of analyzing the identification information by said analyzing means, wherein the printing means is adapted to print a combined image which includes the desired image acquired by said acquiring means, the decorative pattern identified by the identification information, and the handwritten image read by said reading means.
Use of a compound represented by the following formula or a salt thereof: (wherein R 1 represents a hydrogen atom or an acyl group, and R 2 represents a hydrogen atom, a linear or branched alkyl group, a cycloalkyl group, a 1-cyclohexenyl group, an aryl group, or an aralkyl group), for the improvement of a normal development rate of a fertilized egg.
A transport system for a wind turbine blade being configured for increasing a curvature of the blade in response to an obstacle (14, 15) during transport of the blade, wherein a pulling device is provided, the pulling device being configured to increase the curvature of the blade by pulling at one end of the blade.
Moulding system (400, 500, 600, 700) for manufacturing a rotor blade of a wind turbine, the system comprising: at least one outer mould having a outer mould body (427, 431) with a moulding surface (429, 433) complementary to an intended outer surface portion (101, 103) of the rotor blade; an outer heat redistribution system (435, 437, 661) within the outer mould body (427, 431) for redistributing heat from a spar cap area (113, 115) of the blade towards a leading edge and/or a trailing edge of the blade, wherein the outer heat redistribution system comprises: an outer channel system (439, 441, 443) arranged within the mould body adjacent to the moulding surface; a coolant fluid inlet for introducing coolant fluid into the outer channel system; and a coolant fluid outlet for letting out the coolant fluid having exchanged heat energy with a portion of the moulding body, wherein the outer channel system comprises: a first channel section running substantially in a longitudinal direction of the mould, wherein the coolant fluid inlet allows introduction of the coolant fluid into the outer channel system via the first channel section, wherein the first channel section is located adjacent to where the spar cap area (113, 115) of the blade is located during manufacturing the blade. at least one outer mould having a outer mould body (427, 431) with a moulding surface (429, 433) complementary to an intended outer surface portion (101, 103) of the rotor blade; an outer heat redistribution system (435, 437, 661) within the outer mould body (427, 431) for redistributing heat from a spar cap area (113, 115) of the blade towards a leading edge and/or a trailing edge of the blade, wherein the outer heat redistribution system comprises: an outer channel system (439, 441, 443) arranged within the mould body adjacent to the moulding surface; a coolant fluid inlet for introducing coolant fluid into the outer channel system; and a coolant fluid outlet for letting out the coolant fluid having exchanged heat energy with a portion of the moulding body, an outer channel system (439, 441, 443) arranged within the mould body adjacent to the moulding surface; a coolant fluid inlet for introducing coolant fluid into the outer channel system; and a coolant fluid outlet for letting out the coolant fluid having exchanged heat energy with a portion of the moulding body, a first channel section running substantially in a longitudinal direction of the mould, wherein the coolant fluid inlet allows introduction of the coolant fluid into the outer channel system via the first channel section,
Stereolithography method, comprising the steps of: - receiving a light-curing suspension with filler particles in a tray; - adjusting the light-curing suspension by means of a build platform to a layer thickness with respect to a bottom of the tray which is less than the diameter of the filler particles; and the filler particles penetrate into the flexible bottom of the tray during the adjustment of the first and/or a further layer thickness; and - selectively curing the adjusted layer thickness of the suspension by means of light. - receiving a light-curing suspension with filler particles in a tray; - adjusting the light-curing suspension by means of a build platform to a layer thickness with respect to a bottom of the tray which is less than the diameter of the filler particles; and the filler particles penetrate into the flexible bottom of the tray during the adjustment of the first and/or a further layer thickness; and - selectively curing the adjusted layer thickness of the suspension by means of light.
An apparatus comprising: a data bus system for an aircraft; actuator control modules connected to the data bus system, wherein an actuator control module of the actuator control modules is configured to control positioning of a flight control surface on the aircraft using commands on the data bus system that are directed to the actuator control module; and flight control modules connected to the data bus system, wherein the flight control modules are configured to generate and send the commands onto the data bus system to control the flight control surface, wherein the commands are directed towards one or more of the actuator control modules assigned to the flight control surface and wherein the actuator control modules and the flight control modules are configured to determine whether an error is present in the commands sent onto the data bus system, characterised in that the actuator control modules and the flight control modules are configured to manage point-to-point connections between the flight control modules and the actuator control modules based on the error identified in the commands, and in that the flight control modules are configured to determine whether to continue to use a point-to-point connection of the point-to-point connections between a particular flight control module of the flight control modules and the actuator control module of the actuator control modules based on the error identified. a data bus system for an aircraft; actuator control modules connected to the data bus system, wherein an actuator control module of the actuator control modules is configured to control positioning of a flight control surface on the aircraft using commands on the data bus system that are directed to the actuator control module; and flight control modules connected to the data bus system, wherein the flight control modules are configured to generate and send the commands onto the data bus system to control the flight control surface, wherein the commands are directed towards one or more of the actuator control modules assigned to the flight control surface and wherein the actuator control modules and the flight control modules are configured to determine whether an error is present in the commands sent onto the data bus system, characterised in that the actuator control modules and the flight control modules are configured to manage point-to-point connections between the flight control modules and the actuator control modules based on the error identified in the commands, and in that the flight control modules are configured to determine whether to continue to use a point-to-point connection of the point-to-point connections between a particular flight control module of the flight control modules and the actuator control module of the actuator control modules based on the error identified.
A method in a system with products on which machine-readable information items (14, 24) are applied, and with a data service for data (16, 26) allocated to the products, with the following steps of: - reading the machine-readable information (14, 24) applied to a product by a data requester; - requesting of data allocated to the product by sending the read machine-readable data to the data service; - receiving the data request (15, 25) by the data service; - determining the requested data (16, 26) by the data service and - sending the requested data (16, 26) by the data service to the data requester; characterized in that the system is a product information system, in which the data service stores the data allocated to the product in encrypted form; data allocated to a multiplicity of products are available in encrypted form to the data service, however which data cannot be decrypted by the data service without the contents of a data request; in the step of determining, the requested data (16, 26) are generated by decrypting the stored, encrypted data (11-13, 21-23) using the machine-readable information items (14, 24) received with the data request; and in the step of sending, the decrypted data are sent as the requested data (16, 26). - reading the machine-readable information (14, 24) applied to a product by a data requester; - requesting of data allocated to the product by sending the read machine-readable data to the data service; - receiving the data request (15, 25) by the data service; - determining the requested data (16, 26) by the data service and - sending the requested data (16, 26) by the data service to the data requester;
A polymeric dispersant comprising: (a) from 50 to 95 wt% polymerized residues of monomer: wherein R 1 is hydrogen, methyl, ethyl or COOX; R 2 is hydrogen, methyl or ethyl; R 3 is hydrogen, methyl or ethyl; and X is hydrogen, sodium, potassium, ammonium or a combination thereof; (b) from 1 to 20 wt% polymerized residues of monomer: wherein R 4, R 5, and R 6 independently are hydrogen, methyl or ethyl; R 7 is C 8 -C 30 alkyl or C 8 -C 30 aralkyl; and (c) from 3 to 30 wt% polymerized residues of monomer: wherein R 8, R 9, and R 10 independently are hydrogen, methyl or ethyl; R 11 and R 12 independently are hydrogen, C 1 -C 8 alkyl or hydroxymethyl; and n is an integer from 1 to 3; and wherein the polymeric dispersant has a number average molecular weight (M n) in the range from 1,200 to 4,000 as measured by gel permeation chromatography using polyacrylic acid standards. (a) from 50 to 95 wt% polymerized residues of monomer: wherein R 1 is hydrogen, methyl, ethyl or COOX; R 2 is hydrogen, methyl or ethyl; R 3 is hydrogen, methyl or ethyl; and X is hydrogen, sodium, potassium, ammonium or a combination thereof; wherein R 1 is hydrogen, methyl, ethyl or COOX; R 2 is hydrogen, methyl or ethyl; R 3 is hydrogen, methyl or ethyl; and X is hydrogen, sodium, potassium, ammonium or a combination thereof; (b) from 1 to 20 wt% polymerized residues of monomer: wherein R 4, R 5, and R 6 independently are hydrogen, methyl or ethyl; R 7 is C 8 -C 30 alkyl or C 8 -C 30 aralkyl; and (c) from 3 to 30 wt% polymerized residues of monomer: wherein R 8, R 9, and R 10 independently are hydrogen, methyl or ethyl; R 11 and R 12 independently are hydrogen, C 1 -C 8 alkyl or hydroxymethyl; and n is an integer from 1 to 3; and wherein the polymeric dispersant has a number average molecular weight (M n) in the range from 1,200 to 4,000 as measured by gel permeation chromatography using polyacrylic acid standards.
Use of a packaging for roof window installation products, said packaging comprising a folded sheet member having a bottom section defining a first plane four side sections (5a, 5b) and a top section, said sections together defining an inner room and first outer dimensions of the packaging, in the assembled state; wherein the use includes; moving at least one handle from a first position, where it extends substantially parallel with and adjacent to at least one of said sections, to a second position, where it extends beyond the first outer dimensions, using said handle for carrying the packaging when in the second position, and moving at least one flange from a first position, where it extends substantially in parallel with a least one of said sections and adjacent to said at least section, to a second position where it extends beyond the first outer dimensions of the packaging. a folded sheet member having a bottom section defining a first plane four side sections (5a, 5b) and a top section, said sections together defining an inner room and first outer dimensions of the packaging, in the assembled state; wherein the use includes; moving at least one handle from a first position, where it extends substantially parallel with and adjacent to at least one of said sections, to a second position, where it extends beyond the first outer dimensions, using said handle for carrying the packaging when in the second position, and moving at least one flange from a first position, where it extends substantially in parallel with a least one of said sections and adjacent to said at least section, to a second position where it extends beyond the first outer dimensions of the packaging.
A method for laser machining a brittle workpiece (40:60:78), the method comprising: providing a laser having laser parameters; performing a first cutting process with said laser using first laser parameters to make a first cut in said workpiece; and being characterised in that after performing said first cutting process, performing a second cutting process with said laser using second laser parameters to make a second cut in said workpiece, wherein said first laser parameters and said second laser parameters are selected such that a first laser fluence at the workpiece during the first cutting process is lower than a second laser fluence at the workpiece during the second cutting process, and wherein said second cutting process is performed at a location substantially adjacent to a space created by said first cut such that debris generated during said second cutting process is transmittable into said space. providing a laser having laser parameters; performing a first cutting process with said laser using first laser parameters to make a first cut in said workpiece; and being characterised in that after performing said first cutting process, performing a second cutting process with said laser using second laser parameters to make a second cut in said workpiece, wherein said first laser parameters and said second laser parameters are selected such that a first laser fluence at the workpiece during the first cutting process is lower than a second laser fluence at the workpiece during the second cutting process, and wherein said second cutting process is performed at a location substantially adjacent to a space created by said first cut such that debris generated during said second cutting process is transmittable into said space.
An evacuation slide, comprising: a first tubular member (202, 302) defining a first chamber (206, 306), wherein the first tubular member (202, 302) comprises a translucent material; a slide surface coupled to the first tubular member (202, 302); a first light source (208, 308) coupled to the first tubular member (202, 302), directed into the first chamber, and configured to illuminate the first tubular member (202, 302) from within the first chamber (206, 306), wherein the first light source is disposed external to the first chamber on an outer surface of the first tubular member; a second tubular member (202, 302) defining a second chamber (206, 306) and coupled to the slide surface; wherein the second tubular member (202, 302) comprises a translucent material; and a second light source (208, 308) coupled to the second tubular member (202, 302), directed into the second chamber, and configured to illuminate the second tubular member (202, 302) from within the second chamber, wherein the second light source is disposed external to the second chamber on an outer surface of the second tubular member. a first tubular member (202, 302) defining a first chamber (206, 306), wherein the first tubular member (202, 302) comprises a translucent material; a slide surface coupled to the first tubular member (202, 302); a first light source (208, 308) coupled to the first tubular member (202, 302), directed into the first chamber, and configured to illuminate the first tubular member (202, 302) from within the first chamber (206, 306), wherein the first light source is disposed external to the first chamber on an outer surface of the first tubular member; a second tubular member (202, 302) defining a second chamber (206, 306) and coupled to the slide surface; wherein the second tubular member (202, 302) comprises a translucent material; and a second light source (208, 308) coupled to the second tubular member (202, 302), directed into the second chamber, and configured to illuminate the second tubular member (202, 302) from within the second chamber, wherein the second light source is disposed external to the second chamber on an outer surface of the second tubular member.
Forklift truck (1, 1') comprising, power consuming units to be supplied from an energy source, a holding device provided with compartments for receiving at least two battery elements for providing said energy source, wherein said holding device is adapted such that a received battery element can power said forklift truck (1, 1') on its own, that the said holding device is arranged to receive a battery element in a horizontal arrangement such that the applied weight of a received battery element is essentially on the centre of a longitudinal symmetry axis of the forklift truck (1,1') characterized in that the holding device is further arranged such that a first and a second battery element that are received in the holding device are arranged essentially on top of each other such that the position of the forklift truck's (1, 1') centre of gravity remains unchanged with regard to the longitudinal symmetry axis of said truck (1, 1').
Fixed-bed gasifier for generating a product gas from carbon-containing feed materials, in particular from pourable biomass particles, comprising a gasifier container, a feed for the carbon-containing feed materials in the upper region of the gasifier container, a rotatable grate which is arranged in the lower region of the gasifier container and intended for supporting the carbon-containing feed materials, an air feed for feeding combustion air into the gasifier container, a product gas flue leading out of the gasifier container and intended for discharging the product gas from the gasifier container, wherein the rotatable grate has a main part with an upper side and a lower side, and a central drive shaft which has a first end and a second end and extends away from the lower side of the main part, wherein the first end is connected to the centre of the main part in a rotationally locked manner, characterized in that the main part is disc-shaped and has slot-shaped openings for the passage of gas and ash particles, the cross section of said openings increasing conically in the passage direction from the upper side to the lower side, in that the product gas flue leads out from the region below the grate, and in that a dome-shaped covering is arranged above the central drive shaft centrally on the upper side of the main part.