mhurhangee/ep-ind-claims huggingface dataset:
Procedure for production of a protein drink, wherein the procedure comprises the sequential procedural steps, which may overlap in their sequence: - chopping of cooled or partly thawed meat with a mincer or another pureeing device, - production of a meat stock of the chopped meat, if applicable following the addition of liquid, in any case without removal of fine substances, - boiling of the meat stock, - fine pureeing of the stock fully containing the added chopped meat with an industrial blender, - filling the protein drink fully containing the added chopped meat into bottles or cans, and - sterilising the protein drink, wherein - the protein drink, each referring to the total weight of the drink, contains 3 to 20 wt% of proteins, 0.5 to 5 wt% of fat, 70 to 95 wt% of water and 0.5 to 15 wt% of carbohydrates, of which 0.5 to 10 wt% are sugar, and the protein drink comprises 80 - 100 wt% of meat stock and added chopped meat remains fully preserved in the protein drink. - chopping of cooled or partly thawed meat with a mincer or another pureeing device, - production of a meat stock of the chopped meat, if applicable following the addition of liquid, in any case without removal of fine substances, - boiling of the meat stock, - fine pureeing of the stock fully containing the added chopped meat with an industrial blender, - filling the protein drink fully containing the added chopped meat into bottles or cans, and - sterilising the protein drink, wherein - the protein drink, each referring to the total weight of the drink, contains 3 to 20 wt% of proteins, 0.5 to 5 wt% of fat, 70 to 95 wt% of water and 0.5 to 15 wt% of carbohydrates, of which 0.5 to 10 wt% are sugar, and the protein drink comprises 80 - 100 wt% of meat stock and added chopped meat remains fully preserved in the protein drink.
A temperable lacquered substrate made of glass or lacquered glass-ceramic coated, over the entirety or some of at least one of its faces, with an opaque coating layer, characterized in that said layer, applied directly to the substrate, is a mineral paint based on an aqueous alkaline silicate solution comprising between 15 and 45% by weight sodium silicate, potassium silicate and/or lithium silicate, mineral fillers and at least one pigment and an additive chosen from a nitrate, a carbonate or an alkaline sulfate, the lightness of the layer being such that, measured in reflection, the L* component is higher than or equal to 20, and such that the color difference between the substrate coated with said layer before tempering and the substrate coated with said layer after tempering is such that the parameter ΔE*, defined by Δ E * = Δ L * 2 + Δ a * 2 + Δ b * 2, is lower than or equal to 5.0, ΔL*, Δa* and Δb* representing the variations in the L*, a* and b* color coordinates measured on the coated substrate before and after tempering.
A system, comprising: an electrostatic spray tool, comprising: a turbine generator configured to generate electrical power to electrostatically charge a spray; and a controller configured to monitor the electrical power from the turbine generator and to instruct a gas supply to vary a gas flow to the turbine generator based on feedback received from one or more sensors, characterised in that the electrostatic spray tool comprises an inductive charging system configured to wirelessly transmit the electrical power from the turbine generator to at least one electrical component of the electrostatic spray tool. a turbine generator configured to generate electrical power to electrostatically charge a spray; and a controller configured to monitor the electrical power from the turbine generator and to instruct a gas supply to vary a gas flow to the turbine generator based on feedback received from one or more sensors, characterised in that the electrostatic spray tool comprises an inductive charging system configured to wirelessly transmit the electrical power from the turbine generator to at least one electrical component of the electrostatic spray tool.
A processor (102; 402; 700; 800; 970; 980; 1012; 1014; 1038) comprising: one or more cores (104; 404; 710; 810; 974; 984; 1036) including a first core (104; 404; 710; 810; 974; 984; 1036) to operate at a frequency of operation between a first frequency, f1, and a maximum frequency, fmax; and a power control unit (130; 430; 755; 856; 940; 950; 1013; 1015) including first logic (132; 758; 857; 942; 952) to enable the first core (104; 404; 710; 810; 974; 984; 1036) to access auxiliary memory (108; 204) responsive to the frequency of operation of the first core (104; 404; 710; 810; 974; 984; 1036) being at least f 1 and less than a second frequency, f 2, wherein f 2 is less than f max, and to disable the access by the first core (104; 404; 710; 810; 974; 984; 1036) to the auxiliary memory (108; 204) responsive to the frequency of operation of the first core (104; 404; 710; 810; 974; 984; 1036) being greater than or equal to f2, wherein when the frequency of operation, f, of the first core (104; 404; 710; 810; 974; 984; 1036) is f1≤f<f2 an operating voltage of the first core (104; 404; 710; 810; 974; 984; 1036) is substantially equal to a minimum operating voltage, V min, and wherein f2 is the highest frequency permitted at V min. one or more cores (104; 404; 710; 810; 974; 984; 1036) including a first core (104; 404; 710; 810; 974; 984; 1036) to operate at a frequency of operation between a first frequency, f1, and a maximum frequency, fmax; and a power control unit (130; 430; 755; 856; 940; 950; 1013; 1015) including first logic (132; 758; 857; 942; 952) to enable the first core (104; 404; 710; 810; 974; 984; 1036) to access auxiliary memory (108; 204) responsive to the frequency of operation of the first core (104; 404; 710; 810; 974; 984; 1036) being at least f 1 and less than a second frequency, f 2, wherein f 2 is less than f max, and to disable the access by the first core (104; 404; 710; 810; 974; 984; 1036) to the auxiliary memory (108; 204) responsive to the frequency of operation of the first core (104; 404; 710; 810; 974; 984; 1036) being greater than or equal to f2, wherein when the frequency of operation, f, of the first core (104; 404; 710; 810; 974; 984; 1036) is f1≤f<f2 an operating voltage of the first core (104; 404; 710; 810; 974; 984; 1036) is substantially equal to a minimum operating voltage, V min, and wherein f2 is the highest frequency permitted at V min.
A system comprising: a first implantable leadless pacing device that includes a rechargeable power source housed therein; and a second implantable leadless pacing device that includes a non-rechargeable power source housed therein; wherein the first implantable leadless pacing device and the second implantable leadless pacing device are configured to operate together as a multi-chamber pacing system according to a programmed operational mode, and wherein the first implantable leadless pacing device and the second implantable leadless pacing device are configured to communicate according to a communication protocol that is specific to the programmed operational mode. a first implantable leadless pacing device that includes a rechargeable power source housed therein; and a second implantable leadless pacing device that includes a non-rechargeable power source housed therein; wherein the first implantable leadless pacing device and the second implantable leadless pacing device are configured to operate together as a multi-chamber pacing system according to a programmed operational mode, and wherein the first implantable leadless pacing device and the second implantable leadless pacing device are configured to communicate according to a communication protocol that is specific to the programmed operational mode.
A cutting insert for a tool for machining a workpiece, comprising a first cutting edge and a first cutting insert bore, wherein the cutting insert has a substantially elongate shape and extends substantially along a cutting insert longitudinal direction, wherein the first cutting insert bore extends along a first bore axis, which runs orthogonally, with a deviation of ± 3°, to the cutting insert longitudinal direction, wherein the cutting insert comprises a laterally protruding elevation, which is arranged on a side of the cutting insert that is oriented transversely to the first bore axis, and wherein on the elevation are arranged a first lateral holder contact surface, an axial holder contact surface and a first horizontal holder contact surface for a bearing contact of the cutting insert against a tool holder, wherein the first lateral holder contact surface runs orthogonally, with a deviation of ± 3°, to the first bore axis, and wherein the axial holder contact surface and the first horizontal holder contact surface run orthogonally, with a deviation of ± 3°, to the first lateral holder contact surface and transversely to each other, wherein the cutting insert further comprises a second cutting insert bore, which extends along a second bore axis oriented parallel to the first bore axis, and wherein both the first and the second cutting insert bore (32, 34) pass through the elevation orthogonally to the first lateral holder contact surface, characterized in that on the elevation is further arranged a second lateral holder contact surface, which lies in a same plane with the first lateral holder contact surface and is distanced therefrom in the cutting insert longitudinal direction, wherein the first lateral holder contact surface at least partially surrounds the first cutting insert bore, and wherein the second lateral holder contact surface at least partially surrounds the second cutting insert bore.
A production method of a composite material, the method comprising: placing a fiber base material on a mold, the fiber base material comprising a first fiber base material portion and a second fiber base material portion; disposing a mold release sheet in part of a region where the first fiber base material portion and the second fiber base material portion are in contact with each other; and curing a resin with which the first fiber base material portion and the second fiber base material portion are impregnated, so as to mold the composite material, characterized in that the first fiber base material portion is rib material portions corresponding to ribs of a wing of an aircraft, the second fiber base material portion is a skin material portion corresponding to a skin of the wing, a front-wing-spar material portion corresponding to a front wing spar of the wing, and a rear-wing-spar material portion corresponding to a rear wing spar of the wing, in the fiber base material, the mold release sheet is disposed in at least one of (i) a position between the rib material portions and the front-wing-spar material portion or (ii) a position between the rib material portions and the rear-wing-spar material portion. placing a fiber base material on a mold, the fiber base material comprising a first fiber base material portion and a second fiber base material portion; disposing a mold release sheet in part of a region where the first fiber base material portion and the second fiber base material portion are in contact with each other; and curing a resin with which the first fiber base material portion and the second fiber base material portion are impregnated, so as to mold the composite material, characterized in that the first fiber base material portion is rib material portions corresponding to ribs of a wing of an aircraft, the second fiber base material portion is a skin material portion corresponding to a skin of the wing, a front-wing-spar material portion corresponding to a front wing spar of the wing, and a rear-wing-spar material portion corresponding to a rear wing spar of the wing, in the fiber base material, the mold release sheet is disposed in at least one of (i) a position between the rib material portions and the front-wing-spar material portion or (ii) a position between the rib material portions and the rear-wing-spar material portion.
A plastic container with a bottom and side walls standing on the bottom, the bottom and the side walls defining a holding area of the container, the bottom having a flange on its side facing away from the holding area, characterized in that the flange has, on its outer area when viewed in the plane of the flange, a recess that is open in the direction toward the outside of the container, the recess having a bottom side and a top side facing toward the holding area, the bottom side being resilient with respect to the top side in its outer area when viewed in the plane of the flange.
A control assembly for an advanced driving assistant system of a car, wherein the control assembly is a lever that is independently set in a vertical direction as a whole, wherein the lever includes a plurality of control modules for the advanced driving assistant system, wherein the plurality of control modules include: a speed limit adjustment module, which is configured to adjust a maximum speed limit at a state of adaptive cruise of the car; a lane change indication module, which is configured to send a lane change indication for changing a lane; a vehicle distance adjustment module, which is configured to adjust a minimum distance to a car in front at the state of adaptive cruise of the car; and a fatigue detection activation module, which is configured to activate fatigue detection for a driver of the car; characterized in that the vehicle distance adjustment module includes a rotation sensing mechanism that generates control signals for increasing or decreasing the minimum distance to a car in front in accordance with a clockwise or anticlockwise rotation of the lever. a speed limit adjustment module, which is configured to adjust a maximum speed limit at a state of adaptive cruise of the car; a lane change indication module, which is configured to send a lane change indication for changing a lane; a vehicle distance adjustment module, which is configured to adjust a minimum distance to a car in front at the state of adaptive cruise of the car; and a fatigue detection activation module, which is configured to activate fatigue detection for a driver of the car; characterized in that the vehicle distance adjustment module includes a rotation sensing mechanism that generates control signals for increasing or decreasing the minimum distance to a car in front in accordance with a clockwise or anticlockwise rotation of the lever.
Tyre comprising a rubber composition based on at least one diene elastomer, a reinforcing filler predominantly composed of silica and a crosslinking system, the said composition being devoid of or comprising less than 0.3 phr of guanidine derivative and additionally comprising a primary amine of formula: R-NH 2 in which R represents a linear or branched hydrocarbon group comprising from 8 to 24 carbon atoms.
A wrapping machine with a rotary platform to wrap products with at least one band of wrapping material; the wrapping machine comprising a base; a rotary platform, which defines a support surface for at least one product and is fitted on the base to rotate around a rotation axis which is substantially perpendicular to the support surface; a plurality of roller support devices, which are interposed between the base and the rotary platform and are distributed around said rotation axis; a guide upright, which is substantially parallel to said rotation axis; and a support slide, which is configured to receive and hold a spool of the band of wrapping material and is movable along the guide upright; each roller support device comprising a coupling shaft fitted on the base and a pair of rollers fitted on the coupling shaft to rotate around a longitudinal axis of the coupling shaft; each coupling shaft comprising a central pin, which is made of a metal material and is delimited by an outer smooth cylindrical surface, characterized in that a spacer, which is made of a plastic material is arranged on the pin between the rollers; the coupling shaft being coupled to the base through the spacer.
A capacitor module comprising a case member having accommodating portions to accommodate plurality of capacitors, the capacitor module comprising a space between an inner wall portion of the accommodating portions and the capacitor, wherein a fixing member is disposed in the space, and wherein the fixing member comprises an annular portion that surrounds a circumferential portion of the capacitor, and a wedge portion that is formed on the annular portion in a direction of intersection with the annular portion, characterized in that the annular portion of the fixing member has a cut-out portion at a part of the annular portion.
A method for unlocking a device remotely from a server, wherein the device is connected locally to a client, and the server is remote to the client and the device, comprising: monitoring, at the server, a sequence of USB string descriptor requests from a secure application executed at the server; intercepting at least one of the USB string descriptor requests in the sequence associated with switching an interface of the device from a first interface type to a second interface type; allowing at least another one of the USB string descriptor requests in the sequence to be handled by a virtual bus driver at the server; sending the intercepted USB string descriptor request from the server to the client over a network; retrieving a portion of device information stored at the server in response to the at least another one of the USB string descriptor requests to be handled by the virtual bus driver; and sending the retrieved portion of the device information to the secure application. monitoring, at the server, a sequence of USB string descriptor requests from a secure application executed at the server; intercepting at least one of the USB string descriptor requests in the sequence associated with switching an interface of the device from a first interface type to a second interface type; allowing at least another one of the USB string descriptor requests in the sequence to be handled by a virtual bus driver at the server; sending the intercepted USB string descriptor request from the server to the client over a network; retrieving a portion of device information stored at the server in response to the at least another one of the USB string descriptor requests to be handled by the virtual bus driver; and sending the retrieved portion of the device information to the secure application.
An error detection or correction method for use with a radio frequency identification, RFID, tag (101A-N) comprised of an antenna (115A-N) and an integrated circuit, IC,, the method comprising: receiving, via the antenna, a signal for at least one of activating the tag or interrogating the tag, wherein the IC comprises memory storing data associated with the tag, wherein the stored data includes manufacturing data of the tag, and wherein the IC is configured to perform at least one of error detection or error correction on at least some of the stored data; detecting, by the IC, that one or more bits of the stored data has an error or correcting the detected error, wherein the detection is performed after the tag is activated; characterized by transmitting the manufacturing data in response to the detection of the error. receiving, via the antenna, a signal for at least one of activating the tag or interrogating the tag, wherein the IC comprises memory storing data associated with the tag, wherein the stored data includes manufacturing data of the tag, and wherein the IC is configured to perform at least one of error detection or error correction on at least some of the stored data; detecting, by the IC, that one or more bits of the stored data has an error or correcting the detected error, wherein the detection is performed after the tag is activated; characterized by transmitting the manufacturing data in response to the detection of the error.
An optical fiber cable comprising: an optical fiber through which laser light output from a light source propagates; a cable jacket including an inner tube and an outer tube covering the inner tube; a pair of open detection lines including a first open detection line and a second open detection line; and an optical connector disposed at a first end of the optical fiber cable, wherein a first end of the first open detection line and a first end of the second open detection line are disposed inside the optical connector, and are not electrically connected to each other inside the optical connector, the optical fiber is disposed in one of a first region inside the inner tube and a second region between an outside of the inner tube and an inside of the outer tube, and at least one of the pair of open detection lines is disposed in one of the first region and the second region in which the optical fiber is not disposed, the optical fiber cable characterized in that further comprising: a pair of breaking detection lines including a first breaking detection line and a second breaking detection line, wherein a first end of the first breaking detection line and a first end of the second breaking detection line are disposed inside the optical connector, and are electrically connected to each other inside the optical connector. an optical fiber through which laser light output from a light source propagates; a cable jacket including an inner tube and an outer tube covering the inner tube; a pair of open detection lines including a first open detection line and a second open detection line; and an optical connector disposed at a first end of the optical fiber cable, wherein a first end of the first open detection line and a first end of the second open detection line are disposed inside the optical connector, and are not electrically connected to each other inside the optical connector, the optical fiber is disposed in one of a first region inside the inner tube and a second region between an outside of the inner tube and an inside of the outer tube, and at least one of the pair of open detection lines is disposed in one of the first region and the second region in which the optical fiber is not disposed, the optical fiber cable characterized in that further comprising: a pair of breaking detection lines including a first breaking detection line and a second breaking detection line, wherein a first end of the first breaking detection line and a first end of the second breaking detection line are disposed inside the optical connector, and are electrically connected to each other inside the optical connector. a pair of breaking detection lines including a first breaking detection line and a second breaking detection line, wherein a first end of the first breaking detection line and a first end of the second breaking detection line are disposed inside the optical connector, and are electrically connected to each other inside the optical connector.