mhurhangee/ep-ind-claims huggingface dataset:
An electricity storage device, comprising: a container which houses an electricity generating element; and a sealing plug which seals a liquid injecting hole into which an electrolyte is injected, wherein the liquid injecting hole is provided in a bottom surface of a recessed portion (112, 212) provided to be recessed on one side surface of the container, the sealing plug includes an inserting portion to be inserted into the liquid injecting hole and a fitting portion (122, 222) to be fitted into the recessed portion, at least either a rim portion of the fitting portion (122, 222) or an opening rim portion of the recessed portion (112, 212) is provided with a plurality of plastic deformation portions, in each of n regions, wherein n is an integer of at least 3, into which an outer circumference of the fitting portion (122, 222) or an inner circumference of the recessed portion (112, 212) is equally divided, one or more of the plastic deformation portion (s) is/are arranged, and, in each of regions into which the outer circumference of the fitting portion (122, 222) or the inner circumference of the recessed portion (112, 212) is halved with an arbitrary plastic deformation portion out of the plastic deformation portions set as a starting point, one or more of the plastic deformation portion (s) is/are arranged, and an outer circumferential side surface of the fitting portion and an inner circumferential side surface of the recessed portion are welded over an entire circumference. a container which houses an electricity generating element; and a sealing plug which seals a liquid injecting hole into which an electrolyte is injected, wherein the liquid injecting hole is provided in a bottom surface of a recessed portion (112, 212) provided to be recessed on one side surface of the container, the sealing plug includes an inserting portion to be inserted into the liquid injecting hole and a fitting portion (122, 222) to be fitted into the recessed portion, at least either a rim portion of the fitting portion (122, 222) or an opening rim portion of the recessed portion (112, 212) is provided with a plurality of plastic deformation portions, in each of n regions, wherein n is an integer of at least 3, into which an outer circumference of the fitting portion (122, 222) or an inner circumference of the recessed portion (112, 212) is equally divided, one or more of the plastic deformation portion (s) is/are arranged, and, in each of regions into which the outer circumference of the fitting portion (122, 222) or the inner circumference of the recessed portion (112, 212) is halved with an arbitrary plastic deformation portion out of the plastic deformation portions set as a starting point, one or more of the plastic deformation portion (s) is/are arranged, and an outer circumferential side surface of the fitting portion and an inner circumferential side surface of the recessed portion are welded over an entire circumference.
Device for thermal insulation of a container, comprising an inner layer and an outer layer which is flexible at least in sections, at least one vacuum insulation element being arranged on the outer layer in such a way that the vacuum insulation element can be fastened to the outer layer against a container wall, the vacuum insulation element being fastened to the outer layer by adhesive bonding, characterized in that the inner layer is embodied self-adhesively on both sides in order to be connected to the vacuum insulation element and the container in the installed state in such a way that the inner layer protects the vacuum insulation element and prevents air convection between the vacuum insulation element and the container wall.
A solid pharmaceutical composition comprising elagolix or a pharmaceutically acceptable salt thereof, a surfactant and one or more pharmaceutically acceptable excipients, wherein the surfactant is polysorbate and wherein polysorbate is present in an amount of from 0,5% to 3% by weight, based on the total weight of the pharmaceutical composition.
A colloidal oil-in-water emulsion comprising: - a prostaglandin F 2alpha, - an oil having a iodine value ≤ 2, - a non-ionic surfactant, and - water, wherein the non-ionic surfactant releases negative charges during the manufacturing process of the emulsion, said emulsion has a negative zeta potential lower than -10 mV, the non-ionic surfactant is chosen among poloxamers, tyloxapol, polysorbates, sorbitan esters, polyoxyl stearates or mixtures thereof, the amount of the surfactant relative to the total weight of the emulsion is comprised between 0.0005 and 1% w/w; and said emulsion contains no polyvinyl alcohol. - a prostaglandin F 2alpha, - an oil having a iodine value ≤ 2, - a non-ionic surfactant, and - water,
An apparatus, comprising: a first processing line comprising a cleaving station adapted for separating a solar cell into two or more solar cell pieces; and a second processing line, comprising: a storing station adapted for storing a plurality of solar cell pieces; and a transportation system adapted for transporting a solar cell piece from the storing station to the first processing line. a first processing line comprising a cleaving station adapted for separating a solar cell into two or more solar cell pieces; and a second processing line, comprising: a storing station adapted for storing a plurality of solar cell pieces; and a transportation system adapted for transporting a solar cell piece from the storing station to the first processing line. a storing station adapted for storing a plurality of solar cell pieces; and a transportation system adapted for transporting a solar cell piece from the storing station to the first processing line.
An inkjet recording medium, comprising: a substrate; an intermediate layer disposed on the substrate, the intermediate layer including: a binder; an inorganic pigment; and a pigment ink fixing agent chosen from divalent salts, multivalent salts, and combinations thereof; and an ink receiving layer disposed on the intermediate layer, the ink receiving layer including: a non-film forming polymer, wherein the non-film forming polymer is i) a cationic polymer chosen from non-film forming cationic acrylic polymers and non-film forming cationic styrene-acrylic polymers, ii) an anionic polymer chosen from non-film forming anionic acrylic polymers and non-film forming anionic styrene-acrylic polymers, and iii) combinations thereof; a binder chosen from any of water dispersible binders or water soluble binders; and a pigment; and wherein said non-film forming polymer has a glass transition temperature (T g) ranging from 80°C to 150°C. a substrate; an intermediate layer disposed on the substrate, the intermediate layer including: a binder; an inorganic pigment; and a pigment ink fixing agent chosen from divalent salts, multivalent salts, and combinations thereof; and a binder; an inorganic pigment; and a pigment ink fixing agent chosen from divalent salts, multivalent salts, and combinations thereof; and an ink receiving layer disposed on the intermediate layer, the ink receiving layer including: a non-film forming polymer, wherein the non-film forming polymer is i) a cationic polymer chosen from non-film forming cationic acrylic polymers and non-film forming cationic styrene-acrylic polymers, ii) an anionic polymer chosen from non-film forming anionic acrylic polymers and non-film forming anionic styrene-acrylic polymers, and iii) combinations thereof; a binder chosen from any of water dispersible binders or water soluble binders; and a pigment; and a non-film forming polymer, wherein the non-film forming polymer is i) a cationic polymer chosen from non-film forming cationic acrylic polymers and non-film forming cationic styrene-acrylic polymers, ii) an anionic polymer chosen from non-film forming anionic acrylic polymers and non-film forming anionic styrene-acrylic polymers, and iii) combinations thereof; a binder chosen from any of water dispersible binders or water soluble binders; and a pigment; and wherein said non-film forming polymer has a glass transition temperature (T g) ranging from 80°C to 150°C.
Method for calculating the dimensions of a segment on an object at a distance from a device including a camera with angle 2α of the field-of-view and a laser source placed with a distance between the center of the camera and the center of the laser source equal to d cm, as well as a temperature sensor and a clock device, characterized in that the following steps are executed: A. sending from said laser source an only laser beam onto said object, the laser beam forming a spot (415,415') or a line on a surface of said object; B. acquiring by said camera an image of said object with said spot (415,415') or line; C. determining the position of said spot or line on said image; D. measuring on said image the pixel distance d p from the center of the image to the spot (415,415') or line; E. measuring on said image the pixel length m p of said segment; F. measuring the pixel diagonal δ p of the image; G. measuring by a position/inclination sensor provided in the device a pitch angle φ formed by the focal plane of the camera and said object, or assuming φ=0 for any image acquired according to step B; H. measuring by said temperature sensor the internal temperature T of the device with varying time and calculating the time derivative of the temperature on the basis of a reference signal provided by said clock device; I. calculating the centimeter length m cm of said segment by the formula: m cm = d cm 1 cos φ − 2 γ δ p tan α sin φ ⋅ m p d p − γ − K T T − T 0 − 1 ψ ∂ T ∂ t Wherein t is a time parameter, T 0 is a reference temperature, γ is a parameter characteristic of the system and equal to δ p tan(β)/2tan(α) wherein β is the inclination angle of the laser with respect to the optical axis of the camera, K T a thermal expansion coefficient and ψ a diffusivity coefficient according to the Fourier equation applied to the device, γ, K T and ψ being determined by numerical simulation of a model of said device or requested to the user of the device or determined by calibration by using one or more images acquired according to step B. A. sending from said laser source an only laser beam onto said object, the laser beam forming a spot (415,415') or a line on a surface of said object; B. acquiring by said camera an image of said object with said spot (415,415') or line; C. determining the position of said spot or line on said image; D. measuring on said image the pixel distance d p from the center of the image to the spot (415,415') or line; E. measuring on said image the pixel length m p of said segment; F. measuring the pixel diagonal δ p of the image; G. measuring by a position/inclination sensor provided in the device a pitch angle φ formed by the focal plane of the camera and said object, or assuming φ=0 for any image acquired according to step B; H. measuring by said temperature sensor the internal temperature T of the device with varying time and calculating the time derivative of the temperature on the basis of a reference signal provided by said clock device; I. calculating the centimeter length m cm of said segment by the formula: m cm = d cm 1 cos φ − 2 γ δ p tan α sin φ ⋅ m p d p − γ − K T T − T 0 − 1 ψ ∂ T ∂ t
A method performed by an interference controller for controlling inter-system interference between cellular telecommunication systems, the method comprising: receiving, from a first cellular telecommunication system at the interference controller of a second cellular telecommunication system, interference level information describing levels of interference between neighboring cells of the first cellular telecommunication system; detecting a target cell in the first cellular telecommunication system, the target cell being allocated with a frequency band which overlaps with frequency bands allocated to the second cellular system, for inter-system interference control based on the received interference level information; and adjusting, by the interference controller, a transmit power level or resource allocation of at least one communication link in the second cellular telecommunication system based on the received interference level information so as to control inter-system interference from the second cellular telecommunication system towards the target cell in the first cellular telecommunication system, wherein the interference level information is based on neighboring cell level measurement reports of mobile terminals of the first cellular telecommunication network. receiving, from a first cellular telecommunication system at the interference controller of a second cellular telecommunication system, interference level information describing levels of interference between neighboring cells of the first cellular telecommunication system; detecting a target cell in the first cellular telecommunication system, the target cell being allocated with a frequency band which overlaps with frequency bands allocated to the second cellular system, for inter-system interference control based on the received interference level information; and adjusting, by the interference controller, a transmit power level or resource allocation of at least one communication link in the second cellular telecommunication system based on the received interference level information so as to control inter-system interference from the second cellular telecommunication system towards the target cell in the first cellular telecommunication system, wherein the interference level information is based on neighboring cell level measurement reports of mobile terminals of the first cellular telecommunication network.
A multilayered material comprising a plurality of unidirectional monolayers consisting essentially of ultra-high molecular weight polyethylene and essentially devoid of bonding matrices, with the direction of each monolayer being rotated at an angle with respect to the direction in an adjacent unidirectional monolayer, wherein a unidirectional monolayer is composed of a plurality of unidirectional ultrahigh-molecular-weight polyethylene strips aligned in the same direction, wherein adjacent strips partially overlap.
Pipetting device (1; 10; 100) for pipetting at least one fluid laboratory sample into at least one pipetting vessel, said pipetting device having: - a main body (2; 12) extending along an axis direction; - at least one connecting section (17; 117), configured to be connected to at least one pipetting vessel by an at least partially axial connecting movement along the positive axis direction; wherein the at least one connecting section is connected to the main body (2; 12) so as to be movable at least parallel to the axis direction; - a spring mechanism (18; 118), by which the at least one connecting section is supported with spring loading on the main body (2; 12) at least in a first operating state of the pipetting device, such that the at least one connecting section (17; 117), during the connecting movement, can perform a spring-assisted deflection movement along the positive axis direction (a), wherein an auxiliary mechanism (16, 31; 131) is provided on the pipetting device and configured to act on the deflection movement of the at least one connecting section in at least a second operating state of the pipetting device; wherein the pipetting device is configured such that a user can alternately put the pipetting device into the first operating state or the second operating state. characterized in that wherein the auxiliary mechanism is configured to be a locking mechanism, by means of which the deflection movement is blocked completely in the second operating state. - a main body (2; 12) extending along an axis direction; - at least one connecting section (17; 117), configured to be connected to at least one pipetting vessel by an at least partially axial connecting movement along the positive axis direction; wherein the at least one connecting section is connected to the main body (2; 12) so as to be movable at least parallel to the axis direction; - a spring mechanism (18; 118), by which the at least one connecting section is supported with spring loading on the main body (2; 12) at least in a first operating state of the pipetting device, such that the at least one connecting section (17; 117), during the connecting movement, can perform a spring-assisted deflection movement along the positive axis direction (a),
Awning, sunblind or similar wherein a roll is provided comprising a rotatably suspended shaft and canvas, curtain blind or similar wound around it, wherein the extent to which the canvas is rolled up can vary between two extreme values, respectively a first value corresponding to the state in which the awning, sunblind or similar is fully closed and a second value corresponding to the state in which it is fully opened, and wherein the roll is supported by at least one support device, characterised in that the support device comprises at least one support element fitted with a sliding surface and a pressure means to press the support element with a supporting force against the roll for the majority of the values between said first and second values.
A method for diminishing data lost at a packet network device as the result of a failed communication link, comprising the steps of: a. detecting a failure of a communication link to which a first egress port in the packet network device is connected; b. invalidating layer-3 forwarding table entries associated with the first egress port; c. disabling the first egress port and enabling a second previously blocked egress port on the packet network device, both ports being members of the same VLAN; d. temporarily inhibiting, by an address resolution protocol, APR, cache flush over-ride function of an enhanced ARP function, a standard ARP function of the enhanced ARP function from removing the layer-3 forwarding table entries associated with the first egress port while the packet network device learns update layer-3 forwarding information; e. identifying one or more layer-3 table entries associated with the disabled first egress port and replacing a portion of each of the one or more layer-3 forwarding table entries with a multicast identity of the VLAN; and f. updating the layer-3 forwarding table entries associated with the second port with the learned layer-3 forwarding information. a. detecting a failure of a communication link to which a first egress port in the packet network device is connected; b. invalidating layer-3 forwarding table entries associated with the first egress port; c. disabling the first egress port and enabling a second previously blocked egress port on the packet network device, both ports being members of the same VLAN; d. temporarily inhibiting, by an address resolution protocol, APR, cache flush over-ride function of an enhanced ARP function, a standard ARP function of the enhanced ARP function from removing the layer-3 forwarding table entries associated with the first egress port while the packet network device learns update layer-3 forwarding information; e. identifying one or more layer-3 table entries associated with the disabled first egress port and replacing a portion of each of the one or more layer-3 forwarding table entries with a multicast identity of the VLAN; and f. updating the layer-3 forwarding table entries associated with the second port with the learned layer-3 forwarding information.
An apparatus (200, 300, 400, 500) comprising: a container (210, 310, 410, 510) configured to receive a food stuff; a base unit (220, 320, 420, 520) comprising a mounting member and a plurality of outer supporting members (324, 424, 524); a weight sensing unit (230, 330, 430, 530) configured to measure a weight of the food stuff contained at the container, the weight sensing unit comprising a plurality of strain gauge load sensors arranged at the mounting member of the base unit; and a connection assembly (240, 340, 440, 540) arranged between the container and the base unit, characterized in that the connection assembly is configured to provide a flexible and insulating connection between the container and the weight sensing unit so as to counteract thermal strain interference at the weight sensing unit and to reduce heat transfer between the container and the weight sensing unit, the connection assembly being configured to flexibly connect the container and the base unit such as to bring a line of gravity of a combined weight of the container and the food stuff received at the container into alignment with the center point of a shape formed by the plurality of strain gauge load sensors, the connection assembly being configured such that the flexible connection provides a bias to guide the line of gravity towards a default position that aligns the line of gravity with the center point. a container (210, 310, 410, 510) configured to receive a food stuff; a base unit (220, 320, 420, 520) comprising a mounting member and a plurality of outer supporting members (324, 424, 524); a weight sensing unit (230, 330, 430, 530) configured to measure a weight of the food stuff contained at the container, the weight sensing unit comprising a plurality of strain gauge load sensors arranged at the mounting member of the base unit; and a connection assembly (240, 340, 440, 540) arranged between the container and the base unit, characterized in that the connection assembly is configured to provide a flexible and insulating connection between the container and the weight sensing unit so as to counteract thermal strain interference at the weight sensing unit and to reduce heat transfer between the container and the weight sensing unit, the connection assembly being configured to flexibly connect the container and the base unit such as to bring a line of gravity of a combined weight of the container and the food stuff received at the container into alignment with the center point of a shape formed by the plurality of strain gauge load sensors, the connection assembly being configured such that the flexible connection provides a bias to guide the line of gravity towards a default position that aligns the line of gravity with the center point.
System comprising a server and a secure element comprising a processor, an input/output interface and at least one memory, wherein a program for detecting information (INFO) stored in the memory is designed to collect information about the configuration or the environment of the secure element, the server being designed to receive the information collected, characterised in that the server is designed to determine test directives depending on the information collected and to transmit the determined test directives to the secure element, and in that a test program (TEST) stored in the memory is designed to browse (E30; E104; E214; E324) at least one test directive received through the input/output interface and to carry out (E32; E106; E216; E326) at least one test according to the browsed test directive.
A procatalyst for polymerization of olefins, which procatalyst is based on a magnesium compound of the formula MgR'R", wherein R' is an alkoxide or aryloxide group and wherein R" is an alkoxide or aryloxide group or halogen, preferably a magnesium dialkoxide compound, that has been reacted with a tetravalent titanium halide, an activator being a monoester and an internal donor represented by a compound according to formula A: wherein each R 8 group is independently a linear, branched or cyclic hydrocarbyl group selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 30 carbon atoms; R 1, R 2, R 3, R 4, R 5, and R 6 are each independently selected from hydrogen or a linear, branched or cyclic hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 20 carbon atoms; R 7 is a linear, branched or cyclic hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, alkoxycarbonyl or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 20 carbon atoms; N is nitrogen atom; O is oxygen atom; and C is carbon atom.