mhurhangee/ep-ind-claims huggingface dataset:
A device, suitable for a V2X, Vehicle-to-everything, system, comprising: a wireless transceiver, configured to receive a first collective perception message from a transmitting device of the V2X system, wherein the first collective perception message comprises a first object age of a perceived object of the first collective perception message calculated by the transmitting device; and a processor, coupled to the wireless transceiver, and characterized by being configured to calculate a second object age of the perceived object for a second collective perception message, wherein the second collective perception message is generated by the device according to the first collective perception message, and wherein the second object age comprises a processing delay of the device and the first object age. a wireless transceiver, configured to receive a first collective perception message from a transmitting device of the V2X system, wherein the first collective perception message comprises a first object age of a perceived object of the first collective perception message calculated by the transmitting device; and a processor, coupled to the wireless transceiver, and characterized by being configured to calculate a second object age of the perceived object for a second collective perception message, wherein the second collective perception message is generated by the device according to the first collective perception message, and wherein the second object age comprises a processing delay of the device and the first object age.
A high pressure medical connector tubing assembly, comprising: a tube element comprising opposed tube ends (104, 106) and a passageway therethrough; an end element overmolded to at least one of the opposed tube ends (104/106), the end element comprising an annular end portion having a preselected axial length and an entranceway defined by the annular end portion; and a connector element comprising a connector hub defining a receiving cavity, the tube end (104/106) with the overmolded end element fixedly secured in the receiving cavity, the connector element comprising a connector port defining a fluid passageway; characterized in that the preselected length of the annular end portion is preselected by changing the axial length of the annular end portion in the receiving cavity to pre-control an axial location of radial stress concentration along the connector hub; and wherein the entranceway is tapered to provide a smooth transition for fluid at a first transition point or seam between the fluid passageway and the entranceway defined by the annular end portion. a tube element comprising opposed tube ends (104, 106) and a passageway therethrough; an end element overmolded to at least one of the opposed tube ends (104/106), the end element comprising an annular end portion having a preselected axial length and an entranceway defined by the annular end portion; and a connector element comprising a connector hub defining a receiving cavity, the tube end (104/106) with the overmolded end element fixedly secured in the receiving cavity, the connector element comprising a connector port defining a fluid passageway; characterized in that the preselected length of the annular end portion is preselected by changing the axial length of the annular end portion in the receiving cavity to pre-control an axial location of radial stress concentration along the connector hub; and wherein the entranceway is tapered to provide a smooth transition for fluid at a first transition point or seam between the fluid passageway and the entranceway defined by the annular end portion.
A method for characterizing mode group properties of multimodal light traveling through an optical component, wherein said method comprises the steps of: - providing a Mode Group Separating optical fiber in an optical path between a light source and said optical component; - launching reference pulses of light with a wavelength λt from said light source through said Mode Group Separating optical fiber into said optical component at discrete intervals between a core center and a core radius of said Mode Group Separating optical fiber, and wherein said Mode Group Separating optical fiber is a multimode fiber with an α- profile graded index core with an α -value chosen such that said Mode Group Separating optical fiber satisfies the following criterion at the wavelength λt: Δτ. L ΔT REF > 4 where: - Δ τ is a time delay difference between consecutive mode groups expressed in ps/m; - L is a length of said Mode Group Separating optical fiber expressed in m; - Δ T REF is a Full Width at Quarter Maximum of said reference pulses expressed in ps, where the Full Width at Quarter Maximum of a reference pulse is the difference between the two time values at which the power of the reference pulse is equal to quarter of its maximum value. - providing a Mode Group Separating optical fiber in an optical path between a light source and said optical component; - launching reference pulses of light with a wavelength λt from said light source through said Mode Group Separating optical fiber into said optical component at discrete intervals between a core center and a core radius of said Mode Group Separating optical fiber, - Δ τ is a time delay difference between consecutive mode groups expressed in ps/m; - L is a length of said Mode Group Separating optical fiber expressed in m; - Δ T REF is a Full Width at Quarter Maximum of said reference pulses expressed in ps, where the Full Width at Quarter Maximum of a reference pulse is the difference between the two time values at which the power of the reference pulse is equal to quarter of its maximum value.
A terminal display assembly, comprising: a display screen, defining a through hole penetrating the display screen in a thickness direction of the display screen; a light-transmission cover plate, disposed on the display screen and covering the through hole; a seal ring, disposed on the light-transmission cover plate and located in the through hole; wherein the seal ring comprises an inner wall away from a side wall of the display screen in the through hole, an outer wall disposed opposite to the inner wall; and an optical means, wherein at least part of the optical means is disposed in the through hole, the optical means contacts with the seal ring; the terminal display assembly characterized in that the seal ring comprises an extension extending from the outer wall of the seal ring in a direction away from the outer wall, the extension is sandwiched between the display screen and the light-transmission cover plate. a display screen, defining a through hole penetrating the display screen in a thickness direction of the display screen; a light-transmission cover plate, disposed on the display screen and covering the through hole; a seal ring, disposed on the light-transmission cover plate and located in the through hole; wherein the seal ring comprises an inner wall away from a side wall of the display screen in the through hole, an outer wall disposed opposite to the inner wall; and an optical means, wherein at least part of the optical means is disposed in the through hole, the optical means contacts with the seal ring; the terminal display assembly characterized in that the seal ring comprises an extension extending from the outer wall of the seal ring in a direction away from the outer wall, the extension is sandwiched between the display screen and the light-transmission cover plate.
A luminescent compound represented by Formula 1: Formula 1 [A 1 n A 2 (3-n)][B 1 m B 2 (2-m)]X 5 wherein, in Formula 1, A 1 and A 2 are each independently at least one alkali metal, A 1 and A 2 being different from each other; B 1 and B 2 are each independently at least one element of Group 11, B 1 and B 2 being different from each other; n is a real number satisfying 0 ≤ n ≤ 3; m is a real number satisfying 0 ≤ m ≤ 2; n and m are not zero at the same time; 3-n and 2-m are not zero at the same time; and X is at least one halogen. A 1 and A 2 are each independently at least one alkali metal, A 1 and A 2 being different from each other; B 1 and B 2 are each independently at least one element of Group 11, B 1 and B 2 being different from each other; n is a real number satisfying 0 ≤ n ≤ 3; m is a real number satisfying 0 ≤ m ≤ 2; n and m are not zero at the same time; 3-n and 2-m are not zero at the same time; and X is at least one halogen.
Control system for a technical installation, in particular a manufacturing or process installation, which is embodied and provided to initiate an issuing and a revocation of certificates for components of the technical installation within the scope of a certificate management, characterised in that the control system comprises a computer-implemented revocation service, which is embodied and provided to initiate the revocation of certificates in an event-controlled and automated manner, wherein a change in communication links between components of the technical installation, without a component being replaced or removed in the process, represents an event which triggers the initiation of the revocation of certificates.
Glazing panel comprising at least: - a substrate with an electrically conductive structure; - a shield element soldered by soldering material to the electrically conductive structure; - an electrical crimp connector fixed on said shield element; - an electrical cable crimped with the electrical crimp connector; whereby the said shield element protrudes from the said electrical crimp connector at least at the region of the output of the said cable from the said electrical crimp connector to avoid the wicking effect between the soldering material and the cable and the shield element has an oval shape. - a substrate with an electrically conductive structure; - a shield element soldered by soldering material to the electrically conductive structure; - an electrical crimp connector fixed on said shield element; - an electrical cable crimped with the electrical crimp connector;
A method of producing a protrusion/recess structure (10, 85, 90, 95, 100, 105, 120) having protrusions or recesses formed on a surface (10a, 121a), comprising: - casting a solution of a dissolved amphipathic high molecular compound having a catechol group, the solution contains a hydrophobic organic solvent and plural hydrophobic fine particles (14, 86) dispersed therein, on a support to form a cast film, - forming water droplets by condensation on the cast film; and - evaporating the organic solvent from the cast film until the fluidity of the fine particles becomes lost which occurs when a liquid content of the organic solvent in the cast film becomes equal to or less than 50 wt.% when the liquid content of the organic solvent in the cast film is defined by (M1/M2).100 where M1 is a mass of a dispersant contained in the cast film and M2 is a mass of the fine particles contained in the cast film; and - evaporating the water droplets from the cast film in which the fluidity of the fine particles (14, 86) has been lost, to form the protrusion/recess structure of a film form. - casting a solution of a dissolved amphipathic high molecular compound having a catechol group, the solution contains a hydrophobic organic solvent and plural hydrophobic fine particles (14, 86) dispersed therein, on a support to form a cast film, - forming water droplets by condensation on the cast film; and - evaporating the organic solvent from the cast film until the fluidity of the fine particles becomes lost which occurs when a liquid content of the organic solvent in the cast film becomes equal to or less than 50 wt.% when the liquid content of the organic solvent in the cast film is defined by (M1/M2).100 where M1 is a mass of a dispersant contained in the cast film and M2 is a mass of the fine particles contained in the cast film; and - evaporating the water droplets from the cast film in which the fluidity of the fine particles (14, 86) has been lost, to form the protrusion/recess structure of a film form.
An image decoding method comprising: determining, on a per line basis, whether or not a filter is to be applied to a boundary between a block and a neighboring block adjacent to the block, the block and the neighboring block being included in a reconstructed image corresponding to the encoded image, the neighboring block having a prediction signal different from a prediction signal of the block and a transform coefficient different from a transform coefficient of the block; and filtering, on a per line basis, the boundary when the filter is determined to be applied, wherein the filtering includes applying a deblocking filter including offsetting by a value calculated using pixel values, the determining whether or not the filter is to be applied to a current line is performed based on said value calculated using pixel values, the pixel values being in the current line and included in the block or the neighboring block, and in calculating the value using the pixel values, a weighted sum of adjacent pixel values at the boundary is calculated, the adjacent pixel values forming a line of pixel values, and a constant is added to the weighted sum, characterized in that in calculating the value using the pixel values, a different value of the constant is selected depending on whether or not the weighted sum is equal to or greater than zero to achieve a zero mean distribution of the value calculated using the pixel values, and the weighted sum with the constant added is shifted right by a predetermined number of bits. determining, on a per line basis, whether or not a filter is to be applied to a boundary between a block and a neighboring block adjacent to the block, the block and the neighboring block being included in a reconstructed image corresponding to the encoded image, the neighboring block having a prediction signal different from a prediction signal of the block and a transform coefficient different from a transform coefficient of the block; and filtering, on a per line basis, the boundary when the filter is determined to be applied, wherein the filtering includes applying a deblocking filter including offsetting by a value calculated using pixel values, the determining whether or not the filter is to be applied to a current line is performed based on said value calculated using pixel values, the pixel values being in the current line and included in the block or the neighboring block, and in calculating the value using the pixel values, a weighted sum of adjacent pixel values at the boundary is calculated, the adjacent pixel values forming a line of pixel values, and a constant is added to the weighted sum, characterized in that in calculating the value using the pixel values, a different value of the constant is selected depending on whether or not the weighted sum is equal to or greater than zero to achieve a zero mean distribution of the value calculated using the pixel values, and the weighted sum with the constant added is shifted right by a predetermined number of bits.
A rig or vessel (1, 101) comprising: a deck; at least one well slot in the deck; and characterised in that the rig or vessel (1, 101) further comprises: a crane comprising an upright orientable boom and a track; and a travel unit which is conveyable along the boom on the track in the upright boom orientation to run attached wellbore drilling or casing equipment into or out of the well slot. a deck; at least one well slot in the deck; and a crane comprising an upright orientable boom and a track; and a travel unit which is conveyable along the boom on the track in the upright boom orientation to run attached wellbore drilling or casing equipment into or out of the well slot.
Electric bicycle, comprising an electric motor connected to a wheel (3, 4) of the bicycle, a battery electrically connected to the electric motor to supply electric energy to the electric motor, a plurality of sensors adapted to detect operating parameters of the bicycle, a user control system adapted to allow a biker to provide information necessary to control the electric motor, and a control unit operatively connected to the electric motor, to the plurality of sensors and to the user control system to control the electric power of the electric motor in response to signals received from at least one sensor of said plurality of sensors and from the user control system, wherein the control unit comprises a memory unit wherein a plurality of control logics (L1, L2, L3, L4) for controlling the electric motor are stored, and wherein the control unit is configured to - assign a weight to each control logic of said plurality of control logics (L1, L2, L3, L4) according to data received from the plurality of sensors and/or from the user control system, - update the control logic weights based on updated data received from the sensors and/or the user control system, and - dynamically select the control logic with the highest weight, - control the electric motor according to the selected control logic; characterized in that the control unit assigns the weights to said plurality of control logics according to a fuzzy logic. an electric motor connected to a wheel (3, 4) of the bicycle, a battery electrically connected to the electric motor to supply electric energy to the electric motor, a plurality of sensors adapted to detect operating parameters of the bicycle, a user control system adapted to allow a biker to provide information necessary to control the electric motor, and a control unit operatively connected to the electric motor, to the plurality of sensors and to the user control system to control the electric power of the electric motor in response to signals received from at least one sensor of said plurality of sensors and from the user control system, wherein the control unit comprises a memory unit wherein a plurality of control logics (L1, L2, L3, L4) for controlling the electric motor are stored, and wherein the control unit is configured to - assign a weight to each control logic of said plurality of control logics (L1, L2, L3, L4) according to data received from the plurality of sensors and/or from the user control system, - update the control logic weights based on updated data received from the sensors and/or the user control system, and - dynamically select the control logic with the highest weight, - control the electric motor according to the selected control logic; - assign a weight to each control logic of said plurality of control logics (L1, L2, L3, L4) according to data received from the plurality of sensors and/or from the user control system, - update the control logic weights based on updated data received from the sensors and/or the user control system, and - dynamically select the control logic with the highest weight, - control the electric motor according to the selected control logic;
A method of forming a component, the method comprising: defining an obfuscation pattern comprising a plurality of random or pseudo-random surface facet orientations; defining an identification pattern within the obfuscation pattern; defining one or more scanning parameters and / or one or more heating parameters; depositing a sinterable material on a substrate; scanning a heat source of the deposited sinterable material to thereby selectively sinter the material to the substrate to produce a sintered layer having the obfuscation pattern in which the identification pattern is encoded; wherein the sintered layer comprises at least first and second surface areas (X and Y respectively) having respective first and second orientations defining the obfuscation pattern, one or more surface areas (X, Y) defining first and second regions (A, B), the method comprising sintering the first region using one or more scanning parameters and / or one or more heating parameters having a first value, and sintering the second region using one or more scanning parameters and / or one or more heating parameters having a second value to thereby produce the identification pattern comprising a contrast between the first and second regions, wherein the obfuscation pattern prevents the identification pattern from being revealed due to parts of the identification pattern having a different surface orientation than other parts of the identification pattern such that under normal light conditions, the identification pattern as encoded by the obfuscation pattern is not visible, but merely appears as surface roughness. defining an obfuscation pattern comprising a plurality of random or pseudo-random surface facet orientations; defining an identification pattern within the obfuscation pattern; defining one or more scanning parameters and / or one or more heating parameters; depositing a sinterable material on a substrate; scanning a heat source of the deposited sinterable material to thereby selectively sinter the material to the substrate to produce a sintered layer having the obfuscation pattern in which the identification pattern is encoded; wherein the sintered layer comprises at least first and second surface areas (X and Y respectively) having respective first and second orientations defining the obfuscation pattern, one or more surface areas (X, Y) defining first and second regions (A, B), the method comprising sintering the first region using one or more scanning parameters and / or one or more heating parameters having a first value, and sintering the second region using one or more scanning parameters and / or one or more heating parameters having a second value to thereby produce the identification pattern comprising a contrast between the first and second regions, wherein the obfuscation pattern prevents the identification pattern from being revealed due to parts of the identification pattern having a different surface orientation than other parts of the identification pattern such that under normal light conditions, the identification pattern as encoded by the obfuscation pattern is not visible, but merely appears as surface roughness.