mhurhangee/ep-ind-claims huggingface dataset:
One-piece gunstock for firearm comprising a frame having two half-shells (1a,1b) extended longitudinally and defining a recess inside the frame, a plurality of seats (31, 32) and a space for housing respective mechanical components formed between said half-shells (1a,1b) and delimited by a transversal connection element of said half-shells, characterized in that said half-shells (1a,1b) and said transversal structural connection element are made in a single piece of an advanced composite material comprising fibres by a vacuum-bag moulding technology.
A manually openable recyclable package for containing a product comprising: a tray having a product receiving area and a sealing flange, wherein the tray comprises an amorphous polyethylene terephthalate; a lidding film laminate having a seal area which is peelable sealed to the tray, wherein the laminate comprises: a first outer layer comprising a polyester copolymer heat sealing lacquer positioned within the seal area; a second outer layer comprising an amorphous polyethylene terephthalate; and a third layer positioned between the first and second outer layers which comprises an oriented polyethylene terephthalate; and a hermetic seal comprising a perimeter heat seal circumventing the product receiving area formed by heat sealing a portion of the seal area of the laminate to the sealing flange of the tray, wherein the tray is thermoformed and the lidding film laminate is thermoformed. a tray having a product receiving area and a sealing flange, wherein the tray comprises an amorphous polyethylene terephthalate; a lidding film laminate having a seal area which is peelable sealed to the tray, wherein the laminate comprises: a first outer layer comprising a polyester copolymer heat sealing lacquer positioned within the seal area; a second outer layer comprising an amorphous polyethylene terephthalate; and a third layer positioned between the first and second outer layers which comprises an oriented polyethylene terephthalate; and a first outer layer comprising a polyester copolymer heat sealing lacquer positioned within the seal area; a second outer layer comprising an amorphous polyethylene terephthalate; and a third layer positioned between the first and second outer layers which comprises an oriented polyethylene terephthalate; and a hermetic seal comprising a perimeter heat seal circumventing the product receiving area formed by heat sealing a portion of the seal area of the laminate to the sealing flange of the tray, wherein the tray is thermoformed and the lidding film laminate is thermoformed.
A method for dynamically distributing resources to a plurality of cell regions in a cellular communications network, said method characterized in that it comprises the steps of: directing, by a first network node, a second network node associated with a first cell region, or a wireless terminal in communication through said first cell region, to measure and report radio resource-related data, wherein said radio resource-related data is selected from the group consisting of: the number of transmitted power samples that exceed a threshold over a measurement period; and, channel quality samples, per channel in a neighboring cell region, that exceed a quality threshold over a measurement period; receiving, at said first network node, at least one measurement report of said radio resource-related data; and, dynamically re-allocating, by said first network node, the distribution of resources between said first cell region and at least a second cell region as a function of said radio resource-related data in said first cell region. directing, by a first network node, a second network node associated with a first cell region, or a wireless terminal in communication through said first cell region, to measure and report radio resource-related data, wherein said radio resource-related data is selected from the group consisting of: the number of transmitted power samples that exceed a threshold over a measurement period; and, channel quality samples, per channel in a neighboring cell region, that exceed a quality threshold over a measurement period; the number of transmitted power samples that exceed a threshold over a measurement period; and, channel quality samples, per channel in a neighboring cell region, that exceed a quality threshold over a measurement period; receiving, at said first network node, at least one measurement report of said radio resource-related data; and, dynamically re-allocating, by said first network node, the distribution of resources between said first cell region and at least a second cell region as a function of said radio resource-related data in said first cell region.
A device for cutting curd, said device comprising a first longitudinal frame girder and a second longitudinal frame girder, each having a first end and a second end, a transversal frame girder attached to said first longitudinal frame girder and said second longitudinal frame girder, respectively, thereby forming a frame, a number of transversal knives placed between said first longitudinal frame girder and said second longitudinal frame girder, a number of longitudinal knives held in place by said transversal frame girder and said transversal knives, wherein said first longitudinal frame girder and said second longitudinal frame girder are provided with recesses for receiving said transversal knives, and said transversal knives are provided with recesses for receiving said longitudinal knives.
Method implemented by a geodetic instrument for determining a direction to a geodetic target configured to identify itself by emitting an optical pulse, the method comprising: capturing, using at least one imaging device arranged at the geodetic instrument, a first image and a second image of the geodetic target; synchronizing the geodetic instrument with the geodetic target for capturing the first image concurrently with emission of the optical pulse by the geodetic target, and for capturing the second image nonconcurrently with emission of the optical pulse by the geodetic target; obtaining a difference image between the first image and the second image; and determining, based on a position of the optical pulse emitted by the geodetic target in the difference image, the direction to the geodetic target from the geodetic instrument, characterised in that synchronizing the geodetic instrument with the geodetic target includes: establishing a time reference common to the geodetic instrument and the geodetic target; and obtaining information about allocation of a set of non-overlapping time slots comprising at least a first time slot and a second time slot, wherein the first image and the second image are captured by the geodetic instrument within the first time slot and the second time slot, respectively. capturing, using at least one imaging device arranged at the geodetic instrument, a first image and a second image of the geodetic target; synchronizing the geodetic instrument with the geodetic target for capturing the first image concurrently with emission of the optical pulse by the geodetic target, and for capturing the second image nonconcurrently with emission of the optical pulse by the geodetic target; obtaining a difference image between the first image and the second image; and determining, based on a position of the optical pulse emitted by the geodetic target in the difference image, the direction to the geodetic target from the geodetic instrument, characterised in that synchronizing the geodetic instrument with the geodetic target includes: establishing a time reference common to the geodetic instrument and the geodetic target; and obtaining information about allocation of a set of non-overlapping time slots comprising at least a first time slot and a second time slot, establishing a time reference common to the geodetic instrument and the geodetic target; and obtaining information about allocation of a set of non-overlapping time slots comprising at least a first time slot and a second time slot, wherein the first image and the second image are captured by the geodetic instrument within the first time slot and the second time slot, respectively.
Coupling device for a door fitting, with a coupling assembly and an actuating assembly, the coupling assembly comprising a first nut half, a second nut half and a coupling element, the actuating assembly comprising a driver element, a spring device and an actuator, wherein the first nut half and the second nut half are rotatably mounted about an axis of rotation, each between a first rotational position and a second rotational position in a circumferential direction, wherein the coupling element is displaceable in an axial direction between a coupling position and an uncoupling position, wherein the first nut half and the second nut half are non-rotatably coupled in the coupling position by the coupling element in the circumferential direction, wherein the first nut half and the second nut half are uncoupled in the circumferential direction in the uncoupling position by the coupling element, wherein the actuator is coupled with the driver element via the spring device, wherein the driver element is movable in the axial direction, characterized in that the driver element is coupled with the coupling element in the axial direction when a nut half (18, 20) coupled with the coupling element is arranged in the first rotational position, and in that the driver element is uncoupled with the coupling element in the axial direction when a nut half (18, 20) coupled with the coupling element is arranged in the second rotational position.
An isolated binding polypeptide comprising a stable VH/VL pair that specifically binds to human platelet-derived growth factor receptor beta (PDGFRβ), wherein the VH domain comprises CDR3, CDR2, and CDR1 amino acid sequences, wherein (i) VH CDR3 comprises the amino acid sequence set forth in SEQ ID NO: 1, VH CDR2 comprises the amino acid sequence set forth in SEQ ID NO: 3, and VH CDR1 comprises the amino acid sequence set forth in SEQ ID NO: 35; or (ii) the VH domain comprises the amino acid sequence set forth in SEQ ID NO: 321; and wherein the VL domain comprises the amino acid sequence set forth in SEQ ID NO: 425. (i) VH CDR3 comprises the amino acid sequence set forth in SEQ ID NO: 1, VH CDR2 comprises the amino acid sequence set forth in SEQ ID NO: 3, and VH CDR1 comprises the amino acid sequence set forth in SEQ ID NO: 35; or (ii) the VH domain comprises the amino acid sequence set forth in SEQ ID NO: 321;
A dispensing container comprising: a body, an upper part of the body having a conical shape, the body comprising threads (21 a) on the upper part of the body; a neck with an opening; a pump mechanism attached to a closure, the closure having a conical shape to at least partially overlap the upper part of the body, the closure further comprising mating threads (21 b); and a fitment in the opening to accept a pump mechanism. a body, an upper part of the body having a conical shape, the body comprising threads (21 a) on the upper part of the body; a neck with an opening; a pump mechanism attached to a closure, the closure having a conical shape to at least partially overlap the upper part of the body, the closure further comprising mating threads (21 b); and a fitment in the opening to accept a pump mechanism.
A method of producing a coffee beverage precursor, the method comprising: a) preparing a liquid oil-in-water emulsion comprising coffee extract; and b) dissolving or suspending a protein ingredient in the emulsion prepared in step a); wherein the water content of the emulsion after addition of a protein ingredient in step b) is below 50% by weight. a) preparing a liquid oil-in-water emulsion comprising coffee extract; and b) dissolving or suspending a protein ingredient in the emulsion prepared in step a); wherein the water content of the emulsion after addition of a protein ingredient in step b) is below 50% by weight.
An electronics device having a first housing part connected with a second housing part, said second housing part including a Printed Circuit Board with electronics components, an electromagnetic shielding cover being mounted for electromagnetic shielding of said electronics components, said cover including a bottom wall spaced apart from said PCB and projecting walls contacting said PCB, said projecting walls being arranged to surround one or more of said electronics components, said device including compressible member(s) arranged between said cover and said first housing part, an engagement structure (62', 64') opposite said cover engaging and compressing said compressible member(s) and said bottom wall and said engagement structure (62', 64') including at least one projection mating with a recess with said mating projection or said recess positioning one of said compressible members.
Arrangement with a technical system and a control device which controls the system which can change the technical state of the system by means of control commands, wherein - an interface device is connected to the control device which forms an external interface for connection to an external remote query device, - the interface device has a checking device which is designed such that it checks a received remote query signal (FAS) for the presence of a query command stored in the interface device as permissible and in the event of permissibility only forwards the query command contained in the remote query signal to the control device and blocks the forwarding of the remote query signal (FAS) as such or all other control commands which are not query commands stored as permissible, - if a query command is present, the control device transmits the requested data to the external remote query device via the interface device. - an interface device is connected to the control device which forms an external interface for connection to an external remote query device, - the interface device has a checking device which is designed such that it checks a received remote query signal (FAS) for the presence of a query command stored in the interface device as permissible and in the event of permissibility only forwards the query command contained in the remote query signal to the control device and blocks the forwarding of the remote query signal (FAS) as such or all other control commands which are not query commands stored as permissible, - if a query command is present, the control device transmits the requested data to the external remote query device via the interface device.
An autogenous pressurizer device for a main propellant tank (10, 30), the device comprising a pressurizer pipe (13, 33) connected to the main tank (10, 30) to inject propellant into said main tank, a pressurizer valve (13a, 33a) arranged on the pressurizer pipe (13, 33), and a heater (17, 37) for heating the propellant upstream from the pressurizer valve (13a, 33a), the pressurizer device being characterized in that it includes a buffer tank (15, 35) connected to the pressurizer pipe (13, 33) upstream from the pressurizer valve (13a, 33a), in that the heater (17, 37) is electric, in that the device further includes a fuel cell electrically connected to the heater (17, 37) for supplying electricity to the heater, and in that an auxiliary pipe (14, 34) extends between the buffer tank (15, 35) and the fuel cell in order to feed the fuel cell with propellant.
A method for controlling a robot cleaner, the method comprising: acquiring, by a camera, an image; irradiating, by a light source, light toward a location the same as a location where the acquired image is captured; receiving, by a sensor, the light irradiated from the light source and reflected on an object; and processing an image received from the sensor to contain a distance value of an individual location; characterized in that, the method further comprising: supplementing the image received from the sensor with the image captured by the camera when a singularity is found, wherein distance values calculated in adjacent portions are discontinuous at the singularity. acquiring, by a camera, an image; irradiating, by a light source, light toward a location the same as a location where the acquired image is captured; receiving, by a sensor, the light irradiated from the light source and reflected on an object; and processing an image received from the sensor to contain a distance value of an individual location;
A method for controlling power of a wind farm, characterized in that, comprising: acquiring (S201, S301), in real time, operation state data of the wind farm and operation state data of a grid-connection point; determining (S202, S302), according to the operation state data, whether a state of the grid-connection point satisfies a condition for secondary frequency modulation; determining limiting power for instruction, based on pre-acquired theoretical power of the wind farm, set power for automatic generation control, and backup active power reserved for primary frequency modulation, in a case that it is determined that the state of the grid-connection point satisfies the condition for the secondary frequency modulation; and generating and transmitting an instruction for controlling active power of a wind turbine of the wind farm based on the limiting power for instruction. acquiring (S201, S301), in real time, operation state data of the wind farm and operation state data of a grid-connection point; determining (S202, S302), according to the operation state data, whether a state of the grid-connection point satisfies a condition for secondary frequency modulation; determining limiting power for instruction, based on pre-acquired theoretical power of the wind farm, set power for automatic generation control, and backup active power reserved for primary frequency modulation, in a case that it is determined that the state of the grid-connection point satisfies the condition for the secondary frequency modulation; and generating and transmitting an instruction for controlling active power of a wind turbine of the wind farm based on the limiting power for instruction.
Usage of a composition containing water comprising at least one silicate dissolved in water, in particular at least one water glass and/or silica sol dissolved in water, and at least one organic binding agent dispersed in water, wherein the pH value of this composition is alkaline, for treating gypsum plastered, gypsum plaster ruled-off or gypsum plaster covered areas.
A method for producing a zinc alloy with excellent crack resistance, containing Al at an amount of 3.9-4.1 wt%, Mg at an amount of 0.005-0.018 wt%, optionally Cu at an amount of 0.2-1.0 wt%, the remainder of the alloy being Zn and unavoidable impurities, comprising the following steps: weighing zinc ingots, aluminum ingots, magnesium ingots and/or selectively added electrolytic copper according to the composition of the zinc alloy; adding the aluminum ingots, and/or selectively added electrolytic copper, and 1/3 of the zinc ingots at a bottom of a furnace, stirring evenly after all materials are melted, adding the remaining zinc ingots, and using a bell to press the magnesium ingot to the bottom of the furnace at about 540°C after the materials are all melted, after the magnesium ingot is melted, adding selectively a refiner, adding a purifying agent for purifying after the refiner is fully reacted, then removing residue and gas, allowing a product to stand after a composition test is qualified, and casting boat-shaped ingots after slagging and taking out of the furnace, wherein the refiner is a salt refiner containing a titanium salt or a boron salt or a composite of both, and is not an intermediate alloy containing RE or Zr or B. Al at an amount of 3.9-4.1 wt%, Mg at an amount of 0.005-0.018 wt%, optionally Cu at an amount of 0.2-1.0 wt%, the remainder of the alloy being Zn and unavoidable impurities, comprising the following steps: weighing zinc ingots, aluminum ingots, magnesium ingots and/or selectively added electrolytic copper according to the composition of the zinc alloy; adding the aluminum ingots, and/or selectively added electrolytic copper, and 1/3 of the zinc ingots at a bottom of a furnace, stirring evenly after all materials are melted, adding the remaining zinc ingots, and using a bell to press the magnesium ingot to the bottom of the furnace at about 540°C after the materials are all melted, after the magnesium ingot is melted, adding selectively a refiner, adding a purifying agent for purifying after the refiner is fully reacted, then removing residue and gas, allowing a product to stand after a composition test is qualified, and casting boat-shaped ingots after slagging and taking out of the furnace, wherein the refiner is a salt refiner containing a titanium salt or a boron salt or a composite of both, and is not an intermediate alloy containing RE or Zr or B.
Rotating electric machine having a stator and a rotor arranged rotatably supported in an opening of the stator, wherein the stator has a laminated core in the form of a body which is produced from a ferromagnetic material, magnetisable and assembled in layers, two pressure rings and two torque supports, wherein each pressure ring is connected with a positive fit in each case to one of the opposing front ends of the laminated core, wherein in each case one of the torque supports is fastened to each pressure ring so that the laminated core with the pressure rings is supported directly using the torque supports and forces and moments acting on the stator can be entirely deflected by way of the torque supports so that the laminated core can be defined using the torque supports, characterised by a housing arranged at a distance from the laminated core of the stator, wherein a sound-absorbing material is arranged between the laminated core and the housing.