mhurhangee/ep-ind-claims huggingface dataset:
A beer maker including: a container including an opening, the container providing a storage space; an accommodating apparatus removably mounted to the storage space through the opening, the accommodating apparatus providing a space for storing contents; a capsule mounting part communicating with the accommodating apparatus; at least one capsule removably provided in the capsule mounting part; and a temperature sensor provided in the container and configured to measure a temperature in the container to provide appropriate temperatures in a primary fermenting step and a secondary fermenting step; wherein the accommodating apparatus comprises: an accommodating body part; a stopper part having a flow hole through which contents are filled or discharged; and a storage part connected to the stopper part, the storage part having a volume changeable when contents are filled or discharged through the flow hole; wherein the beer maker further includes a discharge flow path through which gas in the accommodating apparatus is discharged; wherein a discharge valve configured to control a flow rate of gas discharged from the accommodating apparatus is provided in the discharge flow path; and wherein a pressure sensor is provided in the discharge flow path. a container including an opening, the container providing a storage space; an accommodating apparatus removably mounted to the storage space through the opening, the accommodating apparatus providing a space for storing contents; a capsule mounting part communicating with the accommodating apparatus; at least one capsule removably provided in the capsule mounting part; and a temperature sensor provided in the container and configured to measure a temperature in the container to provide appropriate temperatures in a primary fermenting step and a secondary fermenting step; wherein the accommodating apparatus comprises: an accommodating body part; a stopper part having a flow hole through which contents are filled or discharged; and a storage part connected to the stopper part, the storage part having a volume changeable when contents are filled or discharged through the flow hole; wherein the beer maker further includes a discharge flow path through which gas in the accommodating apparatus is discharged; wherein a discharge valve configured to control a flow rate of gas discharged from the accommodating apparatus is provided in the discharge flow path; and wherein a pressure sensor is provided in the discharge flow path. an accommodating body part; a stopper part having a flow hole through which contents are filled or discharged; and a storage part connected to the stopper part, the storage part having a volume changeable when contents are filled or discharged through the flow hole; wherein the beer maker further includes a discharge flow path through which gas in the accommodating apparatus is discharged; wherein a discharge valve configured to control a flow rate of gas discharged from the accommodating apparatus is provided in the discharge flow path; and wherein a pressure sensor is provided in the discharge flow path.
A method for creating a superposable revealing layer lenslet grating (101, 201, 301) and base layer lenslet gratings yielding (102, 202, 302), when superposed, a superposition shape image that shows a recognizable message, comprising the steps of: (i) selecting the message that is to appear as the superposition shape image; (ii) defining superposition parameters according to a selected superposition technique; (iii) generating from the shape image of the selected message both the revealing and base layers, where the revealing layer comprises an array of revealing layer surfaces specifying the layout of the revealing layer lenslet grating and where the base layer comprises arrays of base layer surfaces specifying the layout of the base layer lenslet gratings (102, 202, 302) and such that the superposition shape image is formed by the sampling action of the revealing layer lenslet grating (101, 201, 301) on the plane (203, 303) on which the base layer lenslet gratings (102, 202, 302) concentrate the incoming light (105, 314, 315, 316, 317), and that said recognizable message moves dynamically when changing the observation angle in respect to the superposed lenslet gratings (101, 201, 301, 102, 202, 302); (iv) fabricating the revealing layer lenslet grating (101, 201, 301) located at the positions of the array of revealing layer surfaces and the base layer lenslet gratings (102, 202, 302) at the positions of the arrays of base layer surfaces by applying techniques such as lithographic techniques, laser writing techniques, etching techniques, reflow techniques and/or embossing techniques. (i) selecting the message that is to appear as the superposition shape image; (ii) defining superposition parameters according to a selected superposition technique; (iii) generating from the shape image of the selected message both the revealing and base layers, where the revealing layer comprises an array of revealing layer surfaces specifying the layout of the revealing layer lenslet grating and where the base layer comprises arrays of base layer surfaces specifying the layout of the base layer lenslet gratings (102, 202, 302) and such that the superposition shape image is formed by the sampling action of the revealing layer lenslet grating (101, 201, 301) on the plane (203, 303) on which the base layer lenslet gratings (102, 202, 302) concentrate the incoming light (105, 314, 315, 316, 317), and that said recognizable message moves dynamically when changing the observation angle in respect to the superposed lenslet gratings (101, 201, 301, 102, 202, 302); (iv) fabricating the revealing layer lenslet grating (101, 201, 301) located at the positions of the array of revealing layer surfaces and the base layer lenslet gratings (102, 202, 302) at the positions of the arrays of base layer surfaces by applying techniques such as lithographic techniques, laser writing techniques, etching techniques, reflow techniques and/or embossing techniques.
A fabric, comprising slit films, tapes, or monofilaments, said slit films, tapes, or monofilaments comprising at least 70% by weight of a metallocene-catalyzed polyethylene composition, based on the total weight of the slit films, tapes or monofilaments; wherein said metallocene-catalyzed polyethylene composition comprises: c) at least 45% to at most 75% by weight based on the total weight of the metallocene-catalyzed polyethylene composition of a metallocene-catalyzed polyethylene A, wherein said metallocene-catalyzed polyethylene A has - a density of at most 0.918 g/cm 3, as measured according to ISO 1183-2:2004 at a temperature of 23 °C; and - a melt index MI2 of at most 4.0 g/10 min, as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg; and d) at least 25% to at most 55% by weight based on the total weight of the metallocene-catalyzed polyethylene composition of a metallocene-catalyzed polyethylene B; wherein said metallocene-catalyzed polyethylene B has - a density as measured according to ISO 1183-2:2004 at a temperature of 23 °C which is higher than the density of said metallocene-catalyzed polyethylene A; and - a melt index MI2 as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg which is higher than the melt index MI2 said metallocene-catalyzed polyethylene A. c) at least 45% to at most 75% by weight based on the total weight of the metallocene-catalyzed polyethylene composition of a metallocene-catalyzed polyethylene A, wherein said metallocene-catalyzed polyethylene A has - a density of at most 0.918 g/cm 3, as measured according to ISO 1183-2:2004 at a temperature of 23 °C; and - a melt index MI2 of at most 4.0 g/10 min, as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg; and - a density of at most 0.918 g/cm 3, as measured according to ISO 1183-2:2004 at a temperature of 23 °C; and - a melt index MI2 of at most 4.0 g/10 min, as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg; and d) at least 25% to at most 55% by weight based on the total weight of the metallocene-catalyzed polyethylene composition of a metallocene-catalyzed polyethylene B; wherein said metallocene-catalyzed polyethylene B has - a density as measured according to ISO 1183-2:2004 at a temperature of 23 °C which is higher than the density of said metallocene-catalyzed polyethylene A; and - a melt index MI2 as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg which is higher than the melt index MI2 said metallocene-catalyzed polyethylene A. - a density as measured according to ISO 1183-2:2004 at a temperature of 23 °C which is higher than the density of said metallocene-catalyzed polyethylene A; and - a melt index MI2 as measured according to ISO 1133:2011 Procedure B at a temperature of 190 °C and a load of 2.16 kg which is higher than the melt index MI2 said metallocene-catalyzed polyethylene A.
A battery module comprising: cylindrical battery cells arranged in horizontal and vertical directions, with their respective top caps facing upwards; a module case in which the cylindrical battery cells are accommodated; and cooling caps mounted on lower end portions of the cylindrical battery cells, wherein the cooling caps protrude below a lower end of the module case to contact cooling air in a lower portion the module case, characterised in that the cooling caps protrude to have different heights for pre-determined zones according to positions of the cylindrical battery cells located inside the module case. cylindrical battery cells arranged in horizontal and vertical directions, with their respective top caps facing upwards; a module case in which the cylindrical battery cells are accommodated; and cooling caps mounted on lower end portions of the cylindrical battery cells, wherein the cooling caps protrude below a lower end of the module case to contact cooling air in a lower portion the module case, characterised in that the cooling caps protrude to have different heights for pre-determined zones according to positions of the cylindrical battery cells located inside the module case.
Method for generating a shared secret in a communication system (10, 20, A, B, C) having a first node, a second node and a medium (10, 20) jointly used by the nodes (A, B), comprising the following features: - a prescribed event prompts the first node and the second node to enter a first overlap phase, - in the first overlap phase the first node sends a first bit sequence and the second node sends a second bit sequence in sync therewith, characterized by the following features: - the first node and the second node simultaneously detect an effective third bit sequence that the first bit sequence and the second bit sequence produce by having overlapping digits on the medium (10, 20), - in a second overlap phase the first node sends the first bit sequence with some digits inverted, the second node sends the second bit sequence with some digits inverted in sync therewith and the first node and the second node simultaneously detect an effective fourth bit sequence that the inverted first bit sequence and the inverted second bit sequence produce by overlapping, - the first node and the second node logically combine some digits of the third bit sequence and of the fourth bit sequence to produce a fifth bit sequence, and - the first node and the second node add to a first secret by virtue of the first node erasing bits of the first bit sequence and the second node erasing corresponding bits of the second bit sequence that have concordant digit values according to the fifth bit sequence. - a prescribed event prompts the first node and the second node to enter a first overlap phase, - in the first overlap phase the first node sends a first bit sequence and the second node sends a second bit sequence in sync therewith, characterized by the following features: - the first node and the second node simultaneously detect an effective third bit sequence that the first bit sequence and the second bit sequence produce by having overlapping digits on the medium (10, 20), - in a second overlap phase the first node sends the first bit sequence with some digits inverted, the second node sends the second bit sequence with some digits inverted in sync therewith and the first node and the second node simultaneously detect an effective fourth bit sequence that the inverted first bit sequence and the inverted second bit sequence produce by overlapping, - the first node and the second node logically combine some digits of the third bit sequence and of the fourth bit sequence to produce a fifth bit sequence, and - the first node and the second node add to a first secret by virtue of the first node erasing bits of the first bit sequence and the second node erasing corresponding bits of the second bit sequence that have concordant digit values according to the fifth bit sequence.
A balun for feeding an antenna in an array of antennas, the balun including: a PCB comprising a first substrate layer and a second substrate layer, an upper layer of dielectric material formed on the upper face of the first substrate layer, a lower layer of dielectric material formed on the lower surface of the second substrate layer, an input line, partly sandwiched between the first and second substrate (32a, 32b) layers of the PCB, an output line, a slotline formed on an upper surface of the first substrate layer, wherein the upper layer of dielectric material entirely covers the slotline, and wherein the slotline is coupled to the input line and the output line, the balun further including: an input port for receiving an input electrical signal wherein the input line defines a first junction with the slotline towards the end of the slotline closest to the input port, a first output port and a second output port; wherein the output line defines a second junction with the slotline towards the end of the slotline closest to the output ports (26, 28); in which: the input line couples the input electrical signal to the slotline at the first junction; the slotline couples the input electrical signal to the second junction, the second junction configured to act as a divider to produce a first and second output electrical signal; and the output line couples the first and second output electrical signals to, respectively, the first output port and the second output port. a PCB comprising a first substrate layer and a second substrate layer, an upper layer of dielectric material formed on the upper face of the first substrate layer, a lower layer of dielectric material formed on the lower surface of the second substrate layer, an input line, partly sandwiched between the first and second substrate (32a, 32b) layers of the PCB, an output line, a slotline formed on an upper surface of the first substrate layer, wherein the upper layer of dielectric material entirely covers the slotline, and wherein the slotline is coupled to the input line and the output line, an input port for receiving an input electrical signal wherein the input line defines a first junction with the slotline towards the end of the slotline closest to the input port, a first output port and a second output port; wherein the output line defines a second junction with the slotline towards the end of the slotline closest to the output ports (26, 28); in which: the input line couples the input electrical signal to the slotline at the first junction; the slotline couples the input electrical signal to the second junction, the second junction configured to act as a divider to produce a first and
A fodder mixing vehicle blade for a mixing and cutting tool of a fodder mixing vehicle, comprising: an opening for a fixing means for fixing the fodder mixing vehicle blade at the mixing and cutting tool of the fodder mixing vehicle, characterised by an anti-rotation element being designed as teeth, the anti-rotation element being arranged to be adjacent to the opening and protruding out from one of the surfaces (3, 4) of the fodder mixing vehicle blade. an opening for a fixing means for fixing the fodder mixing vehicle blade at the mixing and cutting tool of the fodder mixing vehicle, characterised by an anti-rotation element being designed as teeth, the anti-rotation element being arranged to be adjacent to the opening and protruding out from one of the surfaces (3, 4) of the fodder mixing vehicle blade.
An injector having a valve housing and a valve seat member that is disposed on the inner periphery of a lower extremity of the valve housing closest to a combustion chamber of a direct injection type internal combustion engine, and that has a fuel injection hole formed therein to inject fuel via the fuel injection hole into the combustion chamber, wherein an in-cylinder pressure detecting device having a ring-shaped pressure detection element is provided at the lower extremity of the valve housing such that the pressure detection element faces the combustion chamber, characterized in that the axial position of a lower extremity face of the ring-shaped pressure detection element is located between axial end positions of the fuel injection hole of the valve seat member, such that the ring-shaped pressure detection element surrounds the axial length of the fuel injection hole.
A battery cover comprising: side walls that cover four side faces of the battery, a first spacer provided at a top portion of the side walls for providing a space between the battery and the side walls, characterized by a second spacer provided on the side walls along up-down directions, the second spacer provided on the side walls configured to be brought into contact with the corners of the side faces of the battery when the battery cover is attached to the battery; the second spacer comprising at least four second spacers (9a, 10a, 11a, 12a); and the at least four second spacers (9a, 10a, 11a, 12a) provided on the side walls configured to be brought into contact with the four corners of the side faces of the battery. side walls that cover four side faces of the battery, a first spacer provided at a top portion of the side walls for providing a space between the battery and the side walls, characterized by a second spacer provided on the side walls along up-down directions, the second spacer provided on the side walls configured to be brought into contact with the corners of the side faces of the battery when the battery cover is attached to the battery; the second spacer comprising at least four second spacers (9a, 10a, 11a, 12a); and the at least four second spacers (9a, 10a, 11a, 12a) provided on the side walls configured to be brought into contact with the four corners of the side faces of the battery.
An optical device comprising: a support portion; a first movable portion having an optical surface; a second movable portion having a frame shape and surrounding the first movable portion; a first coupling portion (5, 6) coupling the first movable portion and the second movable portion to each other so as for the first movable portion to be swingable around a first axis; a second coupling portion (7, 8) coupling the second movable portion and the support portion to each other; a drive element (14, 15) provided to the second movable portion and electrically connected to an outside; and a softening member (16, 17) which has a softening characteristic and to which stress is applied when the first movable portion swings around the first axis, wherein when viewed in a direction perpendicular to the optical surface, the softening member (16, 17) is provided to a portion of the second movable portion, the portion extending between the drive element (14, 15) and the first coupling portion (5, 6), the softening member (16, 17) is disposed on a surface, or in a groove, of the second movable portion and is not electrically connected to the outside. a support portion; a first movable portion having an optical surface; a second movable portion having a frame shape and surrounding the first movable portion; a first coupling portion (5, 6) coupling the first movable portion and the second movable portion to each other so as for the first movable portion to be swingable around a first axis; a second coupling portion (7, 8) coupling the second movable portion and the support portion to each other; a drive element (14, 15) provided to the second movable portion and electrically connected to an outside; and a softening member (16, 17) which has a softening characteristic and to which stress is applied when the first movable portion swings around the first axis, wherein when viewed in a direction perpendicular to the optical surface, the softening member (16, 17) is provided to a portion of the second movable portion, the portion extending between the drive element (14, 15) and the first coupling portion (5, 6), the softening member (16, 17) is disposed on a surface, or in a groove, of the second movable portion and is not electrically connected to the outside.
Identification document comprising a personal image, wherein a test matrix (103, 803, 901) is superimposed on the personal image, wherein the test matrix comprises a first test matrix field and a second test matrix field, wherein the first test matrix field has a first printing ink which is designed to reflect light in a predetermined wavelength range, and wherein the second test matrix field is devoid of the first printing ink.
A synthetic-aperture interferometric radar comprising: an arm, which rotates with respect to an axis (z) of a plane (zx) orthogonal to an axis of rotation (y); a system of one or more transmitting and receiving antennas, which are slidably mounted along said arm so as to be able to describe complete revolutions of variable radius along a circular path (c) about said axis (y) and are oriented in a direction of sight (a) parallel to the axis (y); motor-drive means for driving rotation of the arm; motor-drive means for driving bi-directional sliding of the antennas along the arm; and a data-acquisition and processing unit, operatively connected to said system of antennas and configured for acquiring a succession of images detected by the antenna during its rotation about the axis (y) and making differential interferometric calculations on at least two successive images of possible targets located in the field of view of the system of antennas in order to measure a radial component of the displacement thereof wherein said unit processes the data detected on sections of the area scanned by the antenna and calculates the interferograms between the images acquired from one and the same section in order to obtain two further components of the displacements of one or more targets. an arm, which rotates with respect to an axis (z) of a plane (zx) orthogonal to an axis of rotation (y); a system of one or more transmitting and receiving antennas, which are slidably mounted along said arm so as to be able to describe complete revolutions of variable radius along a circular path (c) about said axis (y) and are oriented in a direction of sight (a) parallel to the axis (y); motor-drive means for driving rotation of the arm; motor-drive means for driving bi-directional sliding of the antennas along the arm; and a data-acquisition and processing unit, operatively connected to said system of antennas and configured for acquiring a succession of images detected by the antenna during its rotation about the axis (y) and making differential interferometric calculations on at least two successive images of possible targets located in the field of view of the system of antennas in order to measure a radial component of the displacement thereof