mhurhangee/ep-ind-claims huggingface dataset:
A halogen-free epoxy resin composition, comprising a halogen-free epoxy resin; a crosslinking agent; and a phosphorous-containing novolac resin having the following structure A and A 1 are both dependently p, q, m and n represent the numbers of repeating units and are independently integers which are greater than or equal to 1; X is 9,10-dihydro-9-oxa-10-phosphapheanthrene-10-oxide or derivatives thereof; R is selected from the group consisting of hydrogen, aliphatic functional groups or aromatic functional groups; the halogen-free epoxy resin composition further comprises cyanates or prepolymers thereof. a halogen-free epoxy resin; a crosslinking agent; and a phosphorous-containing novolac resin having the following structure A and A 1 are both dependently p, q, m and n represent the numbers of repeating units and are independently integers which are greater than or equal to 1; X is 9,10-dihydro-9-oxa-10-phosphapheanthrene-10-oxide or derivatives thereof; R is selected from the group consisting of hydrogen, aliphatic functional groups or aromatic functional groups; the halogen-free epoxy resin composition further comprises cyanates or prepolymers thereof. A and A 1 are both dependently p, q, m and n represent the numbers of repeating units and are independently integers which are greater than or equal to 1; X is 9,10-dihydro-9-oxa-10-phosphapheanthrene-10-oxide or derivatives thereof; R is selected from the group consisting of hydrogen, aliphatic functional groups or aromatic functional groups; the halogen-free epoxy resin composition further comprises cyanates or prepolymers thereof.
A hybrid conductive ink comprising: a plurality of silver nanoparticles and a plurality of eutectic low melting point alloy particles having a melting point of 140°C or less, wherein a weight ratio of the eutectic low melting point alloy particles and the silver nanoparticles ranges from 1:20 to 1:5.
Device for checking the dimensions of an item of luggage, in particular an item of hand luggage, for air travel, comprising display means which are adapted to make clear, during operation of the device, the extent to which the dimensions of the item of luggage satisfy specified requirements, characterised in that the display means have, in each of three mutually perpendicular directions, a plurality of light sources (11, 12, 13) arranged next to one another, by means of which it can be indicated to a user of the device whether the item of luggage complies with the requirements.
A device for inserting a standing pipe assembly into the soil with a drill head formed as a displacement drill mountable at the lower end of the pipe assembly, the drill head comprising a lower pointed cone ending in a front point, and an opposite tapered upper truncated cone, and being provided with at least one circumferential spiral extending over its height, characterised in that the spiral rises uniformly over the entire height of the drill head, and the upper end and the lower end of the spiral is formed as radially extending cutting edges (9, 10) opposite to each other in circumferential direction.
A hot stamped film, said film having first and second surfaces (6,8) separated from each other in a vertical direction, said film comprising an optical element, said optical element comprising: a plurality of Fresnel lens elements spaced in a horizontal direction with respect to each other, individual ones of said plurality of Fresnel lens elements comprising an angled facet portion and a substantially horizontal portion, said plurality of Fresnel lens elements closer in said vertical direction to said first surface than said second surface, wherein said angled facet portion has a depth that is on average less than about 5 microns, and wherein a minimum spacing of the plurality of Fresnel lens elements is greater than or equal to 4 microns, characterized in that the substantially horizontal portion is coated with reflective material. a plurality of Fresnel lens elements spaced in a horizontal direction with respect to each other, individual ones of said plurality of Fresnel lens elements comprising an angled facet portion and a substantially horizontal portion, said plurality of Fresnel lens elements closer in said vertical direction to said first surface than said second surface, wherein said angled facet portion has a depth that is on average less than about 5 microns, and wherein a minimum spacing of the plurality of Fresnel lens elements is greater than or equal to 4 microns, characterized in that the substantially horizontal portion is coated with reflective material.
A method to support position determination comprising: obtaining a plurality of channel measurements for at least one Wireless Access Point, WAP, wherein the plurality of channel measurements comprise measurements of Line of Sight, LOS, and Non-LOS, NLOS, signals; determining, based on WAP almanac information and the plurality of channel measurements for the at least one WAP, at least one corresponding set of channel parameters, wherein the channel parameters are indicative of positions of a plurality of signal sources, the plurality of signal sources comprising at least one virtual signal source, relative to a first position information of a User Equipment, UE, wherein the WAP almanac information comprises position information pertaining to one or more environmental features affecting radio frequency, RF, signal propagation; associating the plurality of signal sources with corresponding channel parameters in the at least one set of channel parameters; and determining, based on the first position information of the UE and the association of the plurality of signal sources with corresponding channel parameters, a second position information of the UE. obtaining a plurality of channel measurements for at least one Wireless Access Point, WAP, wherein the plurality of channel measurements comprise measurements of Line of Sight, LOS, and Non-LOS, NLOS, signals; determining, based on WAP almanac information and the plurality of channel measurements for the at least one WAP, at least one corresponding set of channel parameters, wherein the channel parameters are indicative of positions of a plurality of signal sources, the plurality of signal sources comprising at least one virtual signal source, relative to a first position information of a User Equipment, UE, wherein the WAP almanac information comprises position information pertaining to one or more environmental features affecting radio frequency, RF, signal propagation; associating the plurality of signal sources with corresponding channel parameters in the at least one set of channel parameters; and determining, based on the first position information of the UE and the association of the plurality of signal sources with corresponding channel parameters, a second position information of the UE.
A method for a media aggregating node of handling external network-media in a local network-User Equipment, UE,, the external network-media being controlled by an external network-connected UE outside the local network and connected to the media aggregating node, said media aggregating node being also outside of said local network and of said external network, the local network comprising a virtual control node connected to the media aggregating node, the method characterized by the media aggregating node performing the steps of: - Receiving presence information regarding local network-UEs from the virtual control node; - Receiving a user login from the external network-connected UE, from a user logged in to the virtual control node; - Sending information, requested from said external network-connected UE, regarding external network-media, to the external network-connected UE; - Sending information, requested from said external network-connected UE, regarding local network-UEs to the external network-connected UE; - Receiving a user-selected control command, associated with user-selected external network-media and with a user-selected local network-UE, from the external network-connected UE, and forwarding it to the virtual control node. - Receiving presence information regarding local network-UEs from the virtual control node; - Receiving a user login from the external network-connected UE, from a user logged in to the virtual control node; - Sending information, requested from said external network-connected UE, regarding external network-media, to the external network-connected UE; - Sending information, requested from said external network-connected UE, regarding local network-UEs to the external network-connected UE; - Receiving a user-selected control command, associated with user-selected external network-media and with a user-selected local network-UE, from the external network-connected UE, and forwarding it to the virtual control node.
A computing device, comprising: a chassis; and a processor programmed to: obtain a computing device identifier from a removable component disposed in the chassis; make a first determination that the removable component is bound to a second computing device based on the obtained computing device identifier; in response to the first determination, disable the removable component; obtain a second computing device identifier from a second removable component disposed in the chassis; make a second determination that the second removable component is not bound to any computing device based on the obtained second computing device identifier; and in response to the second determination: i) bind the second removable component to the computing device, and ii) fully power the second removable component. a chassis; and a processor programmed to: obtain a computing device identifier from a removable component disposed in the chassis; make a first determination that the removable component is bound to a second computing device based on the obtained computing device identifier; in response to the first determination, disable the removable component; obtain a second computing device identifier from a second removable component disposed in the chassis; make a second determination that the second removable component is not bound to any computing device based on the obtained second computing device identifier; and in response to the second determination: i) bind the second removable component to the computing device, and ii) fully power the second removable component. obtain a computing device identifier from a removable component disposed in the chassis; make a first determination that the removable component is bound to a second computing device based on the obtained computing device identifier; in response to the first determination, disable the removable component; obtain a second computing device identifier from a second removable component disposed in the chassis; make a second determination that the second removable component is not bound to any computing device based on the obtained second computing device identifier; and in response to the second determination: i) bind the second removable component to the computing device, and ii) fully power the second removable component. i) bind the second removable component to the computing device, and ii) fully power the second removable component.
An exhaust valve spindle for an internal combustion engine, particularly a two-stroke crosshead engine, which exhaust valve spindle comprises a valve head with a base portion of an alloyed steel, and an outer facing forming the surface of the valve spindle towards a combustion chamber, which outer facing has been formed from particulate starting material of a hot-corrosion-resistant alloy being nickel-based, chromium-based or cobalt-based, where said particulate starting material has been united to a coherent layer, characterized in that at least at the transition zone to the base portion the particles in the particulate material of the outer facing have been deformed into oval or elongate shapes by shear strain caused by forging the outer facing and the base portion, and that the forged outer facing has a density of at least 98.0 %.
Internal clamping and welding device for joining tubes via their distal ends, the device having - a support having a first clamping means for cooperating with the inner surface of a first tube, and a second clamping means for cooperating with the inner surface of a second tube, - a welding head mounted so as to be able to move in rotation about the support, so as to allow welding on at least a portion of the internal circumference of a junction zone formed between the first tube and the second tube; characterized in that the device also has - a pivot (28, 29) such that the welding head is inclinable relative to the longitudinal axis of the device, - the pivot being such that the welding head is driven in rotation in a plane that is inclinable relative to a clamping plane of the first clamping means. - a support having a first clamping means for cooperating with the inner surface of a first tube, and a second clamping means for cooperating with the inner surface of a second tube, - a welding head mounted so as to be able to move in rotation about the support, so as to allow welding on at least a portion of the internal circumference of a junction zone formed between the first tube and the second tube; characterized in that the device also has - a pivot (28, 29) such that the welding head is inclinable relative to the longitudinal axis of the device, - the pivot being such that the welding head is driven in rotation in a plane that is inclinable relative to a clamping plane of the first clamping means.
Circular connector having a shielded connecting cable having at least four pairs of wires (100a, 100b), wherein the circular connector is formed with an electrically conductive housing in which a shielded contact support arrangement from at least one contact support fastener, one electrically conductive shield cross and four contact supports is received, wherein the shield cross has four shield webs spatial separating four contact support receiving regions (42a, 42b, 42c, 42d) shielded to each other, wherein in every contact support receiving region (42a, 42b, 42c, 42d) a contact support is disposed each having two contacts (60, 61), characterized in that each contact support has a wing having an actuator protruding outwards, which is actuated during insertion of the contact support arrangement into the housing at an inner wall of the housing from its pre-mounting position to its end-mounting position, wherein the respective wing presses a shield surrounding the respective pair of wires (100a, 100b) to the shield cross in its deflected end-mounting position.
A computer readable medium storing a computer program having instruction which, when executed by a computing device or system, cause said computing device or system to perform a method comprising: receiving image data with luminance values representing absolute luminance values L to be encoded; accessing an OETF encode function for mapping absolute luminance values into digital code values; based on the receiving and the accessing, encoding the received image data into reference encoded image data; and outputting the reference encoded image data, wherein the luminance values of the received image data are represented by the digital code values in the reference encoded image data; wherein the OETF encode function is based at least in part on a functional model of: V = c 1 + c 2 Y n 1 + c 3 Y n m, wherein: Y is a normalized value of a corresponding one of the absolute luminance values L, wherein 0 ≤ Y ≤ 1, and Y = L 10,000, with 0 ≤ L ≤ 10,000 cd/m 2, V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, wherein: n = 2610 4096 × 1 4 ≃ 0.1593017578125; m = 2523 4096 × 128 ≃ 78.84375; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375; c 2 = 2413 4096 × 32 ≃ 18.8515625; and c 3 = 2392 4096 × 32 ≃ 18.6875. receiving image data with luminance values representing absolute luminance values L to be encoded; accessing an OETF encode function for mapping absolute luminance values into digital code values; based on the receiving and the accessing, encoding the received image data into reference encoded image data; and outputting the reference encoded image data, wherein the luminance values of the received image data are represented by the digital code values in the reference encoded image data; wherein the OETF encode function is based at least in part on a functional model of: V = c 1 + c 2 Y n 1 + c 3 Y n m, wherein: Y is a normalized value of a corresponding one of the absolute luminance values L, wherein 0 ≤ Y ≤ 1, and Y = L 10,000, with 0 ≤ L ≤ 10,000 cd/m 2, V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, Y is a normalized value of a corresponding one of the absolute luminance values L, wherein 0 ≤ Y ≤ 1, and Y = L 10,000, with 0 ≤ L ≤ 10,000 cd/m 2, V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values,
Frequency converter for operating an electrical machine on an electrical supply system, wherein the frequency converter contains an infeed unit and a converter, which are interconnected via a DC link, in which a first and a second circuit branch (62, 64) of the DC link are connected by a DC link capacitor, characterised in that the first circuit branch contains a choke in which a capacitor-side terminal is connected to a terminal of the DC link capacitor and a switch-side terminal is connected on the one hand via a semiconductor switch to a DC link terminal of the infeed unit and on the other hand via a freewheeling diode to the second circuit branch, wherein the semiconductor switch is configured to control a current intensity of an electrical current flowing from the infeed unit into the DC link capacitor during a pre-charging phase of the DC link capacitor in accordance with a control signal, and wherein the semiconductor switch is configured and connected in the DC link in order to also optionally interrupt the current flow to the converter in the DC link.
A linear motor (10; 10A) comprising an armature (100; 100A) mounted for driven linear oscillation essentially along a longitudinal direction (L; L1), wherein the armature (100; 100A) is mounted by two first armature mounting spring assemblies (310, 311) at a housing; a secondary mass (520; 520A) mounted for linear oscillation essentially along the longitudinal direction, wherein the secondary mass (520; 520A) is mounted by two secondary mass mounting spring assemblies (312, 313) at the housing; and a coupling unit (400; 400A) for coupling the armature (100; 100A) and the secondary mass (520; 520A); characterized in that the coupling unit (400; 400A) comprises at least two coupling spring assemblies (410, 411) and at least a coupling element, the coupling spring assemblies (410, 411) being spaced apart from each other, and the coupling element being fixedly connected with the coupling spring assemblies (410, 411); wherein each of the spring assemblies (310, 311, 312, 313, 410, 411) is realized as a leaf spring or stack of leaf springs that each extend in a rest state in a plane being perpendicular to the longitudinal direction (L; L1) and each having a spiral-like structure with a first fastening section arranged at an outwards lying end of the spiral-like structure and a second fastening section arranged at an inwards lying end of the spiral-like structure, wherein at least one of the coupling spring assemblies is fixedly connected with the armature (100; 100A) and at least one other of the coupling spring assemblies is fixedly connected with the secondary mass (520; 520A). an armature (100; 100A) mounted for driven linear oscillation essentially along a longitudinal direction (L; L1), wherein the armature (100; 100A) is mounted by two first armature mounting spring assemblies (310, 311) at a housing; a secondary mass (520; 520A) mounted for linear oscillation essentially along the longitudinal direction, wherein the secondary mass (520; 520A) is mounted by two secondary mass mounting spring assemblies (312, 313) at the housing; and a coupling unit (400; 400A) for coupling the armature (100; 100A) and the secondary mass (520; 520A); characterized in that the coupling unit (400; 400A) comprises at least two coupling spring assemblies (410, 411) and at least a coupling element, the coupling spring assemblies (410, 411) being spaced apart from each other, and the coupling element being fixedly connected with the coupling spring assemblies (410, 411); wherein each of the spring assemblies (310, 311, 312, 313, 410, 411) is realized as a leaf spring or stack of leaf springs that each extend in a rest state in a plane being perpendicular to the longitudinal direction (L; L1) and each having a spiral-like structure with a first fastening section arranged at an outwards lying end of the spiral-like structure and a second fastening section arranged at an inwards lying end of the spiral-like structure, wherein at least one of the coupling spring assemblies is fixedly connected with the armature (100; 100A) and at least one other of the coupling spring assemblies is fixedly connected with the secondary mass (520; 520A).
A computer-implemented method for transmitting data related to a game application between mobile devices (100, 200), the method comprising: initiating a gaming session between a first mobile device and a second mobile device; determining, by the first mobile device, whether a first transport protocol corresponds to an optimal transport protocol for transmitting data, wherein the optimal transport protocol is a protocol determined according to selected parameters; switching, by the first mobile device, the first transport protocol to a second transport protocol when a determination is made that the second transport protocol is the optimal transport protocol; transmitting data, by the first mobile device, according to the first transport protocol when the first transport protocol corresponds to the optimal transport protocol; transmitting data, by the first mobile device, according to the second transport protocol when the second transport protocol corresponds to the optimal transport protocol; and receiving, by the first mobile device, additional data from the second mobile device according to another optimal protocol that is determined by the second mobile device. initiating a gaming session between a first mobile device and a second mobile device; determining, by the first mobile device, whether a first transport protocol corresponds to an optimal transport protocol for transmitting data, wherein the optimal transport protocol is a protocol determined according to selected parameters; switching, by the first mobile device, the first transport protocol to a second transport protocol when a determination is made that the second transport protocol is the optimal transport protocol; transmitting data, by the first mobile device, according to the first transport protocol when the first transport protocol corresponds to the optimal transport protocol; transmitting data, by the first mobile device, according to the second transport protocol when the second transport protocol corresponds to the optimal transport protocol; and receiving, by the first mobile device, additional data from the second mobile device according to another optimal protocol that is determined by the second mobile device.