mhurhangee/ep-ind-claims huggingface dataset:
An electricity generation device comprising: a tubular fuel cell including an electrolyte layer sandwiched between inside and outside electrodes configured to be supplied with a fuel gas which comprises mixed hydrogen and oxygen, the fuel cell having an interior formed as an inside channel for the fuel gas; a cover pipe arranged around the fuel cell with a gap provided between the outside electrode and the cover pipe; characterized by a connecting member connecting the fuel cell and the cover pipe to each other and permitting an outside channel for the fuel gas to be formed around the fuel cell by making use of the gap; and by a fuel gas pipe connected to each of opposite ends of the cover pipe and forming a flow path for the fuel gas in cooperation with the cover pipe, wherein the fuel gas pipe is not in contact with the fuel cell. a tubular fuel cell including an electrolyte layer sandwiched between inside and outside electrodes configured to be supplied with a fuel gas which comprises mixed hydrogen and oxygen, the fuel cell having an interior formed as an inside channel for the fuel gas; a cover pipe arranged around the fuel cell with a gap provided between the outside electrode and the cover pipe; characterized by a connecting member connecting the fuel cell and the cover pipe to each other and permitting an outside channel for the fuel gas to be formed around the fuel cell by making use of the gap; and by a fuel gas pipe connected to each of opposite ends of the cover pipe and forming a flow path for the fuel gas in cooperation with the cover pipe, wherein the fuel gas pipe is not in contact with the fuel cell.
A mobile communication device, comprising: a frame; a three-dimensional cover glass that comprises a perimeter portion and an interior portion, the perimeter portion comprising a bended portion, the cover glass being positioned within the frame; a housing positioned adjacent the frame and the cover glass; and a patch member positioned in a gap between the bended portion of the cover glass and the housing, wherein the patch member and the cover glass are comprised of glass. a frame; a three-dimensional cover glass that comprises a perimeter portion and an interior portion, the perimeter portion comprising a bended portion, the cover glass being positioned within the frame; a housing positioned adjacent the frame and the cover glass; and a patch member positioned in a gap between the bended portion of the cover glass and the housing, wherein the patch member and the cover glass are comprised of glass.
A crankshaft for a rotary compressor, comprising: a body formed with an oil supply passage; and an eccentric portion, fitted over the body, having a central axis eccentrically disposed relative to a central axis of the body, and provided with an oil outlet hole communicated with the oil supply passage and penetrating an outer peripheral wall of the eccentric portion; the crankshaft further including a plurality of recessed portions, formed in a peripheral direction and an axial direction of the eccentric portion, in the outer peripheral wall of the eccentric portion, the crankshaft being characterised in that, for a recessed portion of the plurality of recessed portions, two ends of the recessed portion in an axial direction of the eccentric portion penetrate end faces of two axial ends of the eccentric portion respectively. a body formed with an oil supply passage; and an eccentric portion, fitted over the body, having a central axis eccentrically disposed relative to a central axis of the body, and provided with an oil outlet hole communicated with the oil supply passage and penetrating an outer peripheral wall of the eccentric portion; the crankshaft further including a plurality of recessed portions, formed in a peripheral direction and an axial direction of the eccentric portion, in the outer peripheral wall of the eccentric portion, the crankshaft being characterised in that, for a recessed portion of the plurality of recessed portions, two ends of the recessed portion in an axial direction of the eccentric portion penetrate end faces of two axial ends of the eccentric portion respectively.
A pile tube for forming a foundation pile in the ground, comprising a tubular main body, - wherein in an interior region of the tubular main body there is arranged a partition plate, which divides the interior region into a lower section and an upper section and seals them off from one another, - wherein at least one through-opening having a closure device with which the through-opening can be closed and opened is arranged in the partition plate, and - wherein at least one feed opening for feeding in a curable medium is arranged in the partition plate, characterized in that at least one line extends from the at least one feed opening along the lower section of the tubular main body, and in that the at least one line extends through the tube wall of the tubular main body and ends into an outlet opening. - wherein in an interior region of the tubular main body there is arranged a partition plate, which divides the interior region into a lower section and an upper section and seals them off from one another, - wherein at least one through-opening having a closure device with which the through-opening can be closed and opened is arranged in the partition plate, and - wherein at least one feed opening for feeding in a curable medium is arranged in the partition plate, at least one line extends from the at least one feed opening along the lower section of the tubular main body, and in that the at least one line extends through the tube wall of the tubular main body and ends into an outlet opening.
A magnetic resonance imaging system comprising: a cable bundle including an electrically conductive cable and a multi-core optical fiber bundled together with the electrically conductive cable to form the cable bundle; an electrical component connected with the electrically conductive cable of the cable bundle; a fiber shape readout device optically coupled with the multi-core optical fiber of the cable bundle and configured to measure reflectance of light injected into the multi-core optical fiber and to compute the shape of the cable bundle based on the reflectance measurements; characterized in that the MRI system further comprises: a processor configured to detect a loop in the electrically conductive cable that is potentially resonant at a magnetic resonance frequency based on the shape computed for the multi-core optical fiber bundled with the electrically conductive cable. a cable bundle including an electrically conductive cable and a multi-core optical fiber bundled together with the electrically conductive cable to form the cable bundle; an electrical component connected with the electrically conductive cable of the cable bundle; a fiber shape readout device optically coupled with the multi-core optical fiber of the cable bundle and configured to measure reflectance of light injected into the multi-core optical fiber and to compute the shape of the cable bundle based on the reflectance measurements; characterized in that the MRI system further comprises: a processor configured to detect a loop in the electrically conductive cable that is potentially resonant at a magnetic resonance frequency based on the shape computed for the multi-core optical fiber bundled with the electrically conductive cable.
A composition comprising: a) a (meth)acrylic copolymer or a mixture of two (meth)acrylic copolymers (A1a) and (A1b), b) a filler or a mixture of two fillers and c) a halogen containing thermoplastic polymer and d) an impact modifier which is a polymer particle having a multilayer structure, comprising at least one layer (IM1L1) comprising a polymer having a glass transition temperature below 0°C and at least another layer (IM1L2) comprising a polymer having a glass transition temperature over 45°C, said glass transition temperature is measured as described in the specification; characterized that the glass transition temperature Tg of the (meth)acrylic copolymer or the mixture of two (meth)acrylic copolymers (A1a) and (A1b) is between 60°C and 105°C, said glass transition temperature Tg is measured as described in the specification, and that the quantity of the filler F or the mixture of two fillers and is between 5phr and 120phr relative to the halogen containing thermoplastic polymer and characterized that the composition comprises between 0.15phr and 12phr the impact modifier and that a part of the filler or a part of the mixture of two fillers and is added to the composition with the (meth)acrylic copolymer or the mixture of two (meth)acrylic copolymers (A1a) and (A1b) and the other part of the filler or the other part of the mixture of two fillers and is added to the composition either apart or already with halogen containing thermoplastic polymer. a) a (meth)acrylic copolymer or a mixture of two (meth)acrylic copolymers (A1a) and (A1b), b) a filler or a mixture of two fillers and c) a halogen containing thermoplastic polymer and d) an impact modifier which is a polymer particle having a multilayer structure, comprising at least one layer (IM1L1) comprising a polymer having a glass transition temperature below 0°C and at least another layer (IM1L2) comprising a polymer having a glass transition temperature over 45°C, said glass transition temperature is measured as described in the specification; characterized that the glass transition temperature Tg of the (meth)acrylic copolymer or the mixture of two (meth)acrylic copolymers (A1a) and (A1b) is between 60°C and 105°C, said glass transition temperature Tg is measured as described in the specification, and that the quantity of the filler F or the mixture of two fillers and is between 5phr and 120phr relative to the halogen containing thermoplastic polymer and characterized that the composition comprises between 0.15phr and 12phr the impact modifier and that a part of the filler or a part of the mixture of two fillers and is added to the composition with the (meth)acrylic copolymer or the mixture of two (meth)acrylic copolymers (A1a) and (A1b) and the other part of the filler or the other part of the mixture of two fillers and is added to the composition either apart or already with halogen containing thermoplastic polymer.
A volumetric pump comprising a clamping device and a pump casing to which a flap or door for closing an accommodating chamber for a flexible tube is articulated, in which accommodating chamber a tube clamp is arranged that is configured to release the tube inserted therein while the flap or door is closed and to pinch off the tube in a sealing manner when the flap or door is opened, characterized in that the tube clamp includes a clamping blade being movably supported on the pump casing and being spring-pretensioned in the pinching direction, wherein the clamping blade at one portion forms a clamping surface (5.2) interacting with a clamping jaw (3.1) fixed to the pump casing and at another portion forms an engaging surface (5.3) of which a projection (4.1) provided on the flap or door slips off during a closing operation by a pivoting movement of the flap or door so that accordingly a force of movement is applied to the clamping blade against the spring pretension. a pump casing to which a flap or door for closing an accommodating chamber for a flexible tube is articulated, in which accommodating chamber a tube clamp is arranged that is configured to release the tube inserted therein while the flap or door is closed and to pinch off the tube in a sealing manner when the flap or door is opened, characterized in that the tube clamp includes a clamping blade being movably supported on the pump casing and being spring-pretensioned in the pinching direction, wherein the clamping blade at one portion forms a clamping surface (5.2) interacting with a clamping jaw (3.1) fixed to the pump casing and at another portion forms an engaging surface (5.3) of which a projection (4.1) provided on the flap or door slips off during a closing operation by a pivoting movement of the flap or door so that accordingly a force of movement is applied to the clamping blade against the spring pretension.
A physical activity monitoring system comprising: a communications network; a wearable sensor device configured to generate physiologic data associated with a sensed physiologic condition of a wearer, and to generate audio context data associated with a sensed audio context of the wearer, and to form a communication link with the communications network; a memory for storing the physiologic data and the audio context data; a computer and a computer program executed by the computer, and a user interface operably connected to the computer for rendering the activity data; characterized in that the computer program comprises computer instructions for rendering activity data associated with the physiologic data and the audio context data by analyzing the physiologic data with a multilayer perceptron to generate general activity data and analyzing the general activity data and the audio context data with a hidden Markov Model to distinguish between different activities. a communications network; a wearable sensor device configured to generate physiologic data associated with a sensed physiologic condition of a wearer, and to generate audio context data associated with a sensed audio context of the wearer, and to form a communication link with the communications network; a memory for storing the physiologic data and the audio context data; a computer and a computer program executed by the computer, and a user interface operably connected to the computer for rendering the activity data; characterized in that the computer program comprises computer instructions for rendering activity data associated with the physiologic data and the audio context data by analyzing the physiologic data with a multilayer perceptron to generate general activity data and analyzing the general activity data and the audio context data with a hidden Markov Model to distinguish between different activities.
A method for isolating and analyzing an analyte that may be present in a fluid sample in an automated nucleic acid analyzer, the method comprising the automated steps of: a) transferring a sample from a sample vessel to a multiwell plate, b) combining together a solid support material and said fluid sample in a well of said multiwell plate for a period of time and under conditions sufficient to permit said analyte to be immobilized on the solid support material; c) isolating the solid support material from other material present in the fluid sample in a separation station; and d) purifying the analyte in the separation station by separating the fluid sample from the solid support material and washing the materials one or more times with a wash buffer; e) analyzing said analyte in an amplification / detection cell for amplifying and detecting a nucleic acid analyte, wherein an air lock is located between a process cell and amplification / detection cell, wherein steps b) to d) are performed in the process cell of said automated nucleic acid analyzer comprising a first air flow, and step e) is performed in said amplification / detection cell comprising a second air flow, wherein the first air flow and the second air flow are separated;, wherein said process cell comprises a first air pressure, and said amplification / detection cell comprises a second air pressure, wherein said first air pressure is higher than said second air pressure, characterized in that step a) is performed in a sample cell, wherein said sample cell has an air-flow which is separate from said first air flow of said process cell and said second air flow of said amplification / detection cell; that outside air which enters said first module is filtered; and that said sample cell comprises a third air pressure, wherein the third air pressure and the first air pressure are essentially identical. a) transferring a sample from a sample vessel to a multiwell plate, b) combining together a solid support material and said fluid sample in a well of said multiwell plate for a period of time and under conditions sufficient to permit said analyte to be immobilized on the solid support material; c) isolating the solid support material from other material present in the fluid sample in a separation station; and d) purifying the analyte in the separation station by separating the fluid sample from the solid support material and washing the materials one or more times with a wash buffer; e) analyzing said analyte in an amplification / detection cell for amplifying and detecting a nucleic acid analyte, wherein an air lock is located between a process cell and amplification / detection cell,
A focusing magnet for a charged particle irradiation apparatus comprising an accelerator adapted to generate a charged particle beam; the focusing magnet comprising a coil pair arranged on both sides of a path of a charged particle beam, wherein: when a current is input, the coil pair is configured to generate an effective magnetic field region in which a magnetic field is oriented in a direction (z-axis) perpendicular to a traveling direction (x-axis) of a charged particle beam, where an axis perpendicular to the x-axis and z-axis is assumed to be a y-axis; a charged particle beam which has been deflected, in the xy plane, at a deflection angle φ with respect to the x-axis at a deflection point Q and incident on the effective magnetic field region is deflected by the effective magnetic field region, and irradiates an isocenter at an irradiation angle θ with respect to the x-axis, an arbitrary point P2 on a boundary on an exit side of the charged particle beam of the effective magnetic field region is at an equal distance r 1 from the isocenter, a point P1 on a boundary on an incident side of the charged particle beam of the effective magnetic field region and the point P2 are on a radius r 2 and an arc of a central angle (θ + φ), and when a distance between the deflection point Q and the isocenter is L, a distance R between the deflection point Q and the point P1 satisfies the following relational equation: R = L 2 + r 1 2 − 2 ⁢ L r 1 cos θ + r 2 sin θ when a current is input, the coil pair is configured to generate an effective magnetic field region in which a magnetic field is oriented in a direction (z-axis) perpendicular to a traveling direction (x-axis) of a charged particle beam, where an axis perpendicular to the x-axis and z-axis is assumed to be a y-axis; a charged particle beam which has been deflected, in the xy plane, at a deflection angle φ with respect to the x-axis at a deflection point Q and incident on the effective magnetic field region is deflected by the effective magnetic field region, and irradiates an isocenter at an irradiation angle θ with respect to the x-axis, an arbitrary point P2 on a boundary on an exit side of the charged particle beam of the effective magnetic field region is at an equal distance r 1 from the isocenter, a point P1 on a boundary on an incident side of the charged particle beam of the effective magnetic field region and the point P2 are on a radius r 2 and an arc of a central angle (θ + φ), and when a distance between the deflection point Q and the isocenter is L, a distance R between the deflection point Q and the point P1 satisfies the following relational equation: R = L 2 + r 1 2 − 2 ⁢ L r 1 cos θ + r 2 sin θ
Transmission apparatus having at least one variator for varying a transmission ratio in a continuously variable manner and having a power split means, a planetary gear mechanism device being coupled to a transmission input shaft and the variator and to a change-speed transmission, in the range of which a plurality of transmission ratio ranges can be produced in conjunction with the variator, it being possible for the transmission ratio to be changed within the transmission ratio ranges via the variator in each case in a continuously variable manner, and the variator being connected via a gear mechanism device to the transmission input shaft, the planetary gear mechanism device and the change-speed transmission being arranged on a countershaft which is operatively connected to the transmission input shaft via a gear mechanism unit, characterized in that a transmission ratio of the gear mechanism unit is less than one, and the rotational speed of the countershaft during operation of the transmission apparatus is greater than the rotational speed of the transmission input shaft, the gear mechanism unit comprising a gearwheel which is connected to the transmission input shaft, an intermediate gear which meshes with the said gearwheel, and a further gearwheel which is connected to the countershaft and is likewise in engagement with the intermediate gear.
An avalanche measuring instrument, particularly for avalanche-related hazard analysis of geomorphological landscape features, characterized in that said instrument comprises an avalanche-related compass on a bottom plate that can simultaneously be the base of the compass, said compass having geomorphological symbols (4-18; 22, 23) that can be geometric symbols, letters, numerals, or combinations of the same, disposed one above the other in a particular geometry parallel to the direction running from west to east of the avalanche-related compass rose, and at least one tilt measuring device that can be a plumb line, perforations as part of the mounting fixture for mounting on a ski pole, and a perforation as an attachment fixture for a wind direction indicator.
An electrical connector (22; 26) configured to mount to a substrate (24; 28), the electrical connector comprising: a connector housing (30; 100) defining an end (38; 104) that is configured to be mounted to the substrate; a plurality of differential pairs (50; 120) of electrical signal contacts (46; 116) supported by the connector housing (30; 100), the plurality of differential pairs (50; 120) being arranged along respective parallel rows; and a plurality of ground shields (52; 122) supported by the connector housing (30; 100), each of the plurality of ground shields (52; 122) at least partially surrounding a respective one of the differential pairs (50; 120), characterized in that each of the differential pairs (50; 120) defines a pair of mounting ends (49; 119) that are aligned in a first direction, and each of the plurality of ground shields (52; 122) defines two pairs of ground tails (58a, 58b; 128a, 128b), each pair of ground tails aligned in a second direction that is perpendicular to the first direction. a connector housing (30; 100) defining an end (38; 104) that is configured to be mounted to the substrate; a plurality of differential pairs (50; 120) of electrical signal contacts (46; 116) supported by the connector housing (30; 100), the plurality of differential pairs (50; 120) being arranged along respective parallel rows; and a plurality of ground shields (52; 122) supported by the connector housing (30; 100), each of the plurality of ground shields (52; 122) at least partially surrounding a respective one of the differential pairs (50; 120),
An orally administered biocidal composition selective for at least one animal pest, comprising solid lipid nanoparticles containing at least one species-specific antibody or synthetic polypeptide analogs thereof of the at least one animal pest, said at least one species-specific antibody or synthetic polypeptide analogs thereof being directed against a biological molecule of the animal pest which is essential for performing a vital function of the at least one animal pest.