mhurhangee/ep-ind-claims huggingface dataset:
An optical semiconductor element mounting package having a recessed part that serves as an optical semiconductor element mounting region, wherein the package is formed by integrating: a resin molding composed of a thermosetting light-reflecting resin composition, which forms at least the side faces of the recessed part; and at least a pair of positive and negative lead electrodes (104, 105) disposed opposite each other so as to form part of the bottom face of the recessed part, wherein the thermosetting light-reflecting resin composition includes a white pigment including inorganic hollow particles and wherein there is no gap at a joint face between the resin molding and the lead electrodes (104, 105). a resin molding composed of a thermosetting light-reflecting resin composition, which forms at least the side faces of the recessed part; and at least a pair of positive and negative lead electrodes (104, 105) disposed opposite each other so as to form part of the bottom face of the recessed part, wherein the thermosetting light-reflecting resin composition includes a white pigment including inorganic hollow particles and wherein there is no gap at a joint face between the resin molding and the lead electrodes (104, 105).
Method for determining from a remote server a user quality of service (QoS) class of a home network, comprising the following steps performed at the remote server which is connected through the internet with the home network: - obtaining home network measurement data of at least one home network parameter associated with a capacity of the home network, using an application layer protocol for remote management, said capacity being a measure for an amount of traffic that the home network can handle at one time; - processing said home network measurement data to estimate the capacity of the home network or a parameter related thereto; - based on the estimated capacity or parameter related thereto classifying said home network in a user QoS class; characterized in that said obtaining home network measurement data comprises obtaining at least a first and second CFR vector measured for the home network; said processing said home network measurement data comprises calculating at least one capacity vector as a function of at least said first and second CFR vector, and calculating an average capacity value based on said at least one capacity vector; and said classifying comprises classifying said home network in a user QoS class based on at least said average capacity value. - obtaining home network measurement data of at least one home network parameter associated with a capacity of the home network, using an application layer protocol for remote management, said capacity being a measure for an amount of traffic that the home network can handle at one time; - processing said home network measurement data to estimate the capacity of the home network or a parameter related thereto; - based on the estimated capacity or parameter related thereto classifying said home network in a user QoS class; characterized in that
A method of characterizing a light source, the light source comprising a light emitter for emitting light, the method comprises the stages of - obtaining a first image of the light source in operation by means of a first camera (208, 756), the first image is obtained from a first position in a first direction, - obtaining first camera settings, wherein the first camera settings represent parameters of an image processing system and of an optical system of the first camera (208, 756) used at the moment in time when the first image was obtained, - obtaining a second image (350, 400) of an illuminated environment being illuminated by the light source by means of a second camera (215, 706), the second image is obtained from a second position in a second direction (214, 212) different from the first direction, - obtaining second camera settings, wherein the second camera settings represent parameters of an image processing system and of an optical system of the second camera (215, 706) used at the moment in time when the second image (350, 400) was obtained, - analyzing the first image and analyzing the first camera settings to estimate first parameters of the light source, wherein the first parameters of the light source relate to characteristics of light emitted by the light emitter, wherein, in the stage of analyzing the first image and analyzing the first camera settings, the second image (350, 400) and the second camera settings are also analyzed to estimate second parameters of the light source and to more accurately estimate the first parameters of the light source, wherein the second parameters of the light source relate to characteristics of a light beam emitted by the light source, the second parameters comprise information relating to a shape of the light beam. - obtaining a first image of the light source in operation by means of a first camera (208, 756), the first image is obtained from a first position in a first direction, - obtaining first camera settings, wherein the first camera settings represent parameters of an image processing system and of an optical system of the first camera (208, 756) used at the moment in time when the first image was obtained, - obtaining a second image (350, 400) of an illuminated environment being illuminated by the light source by means of a second camera (215, 706), the second image is obtained from a second position in a second direction (214, 212) different from the first direction, - obtaining second camera settings, wherein the second camera settings represent parameters of an image processing system and of an optical system of the second camera (215, 706) used at the moment in time when the second image (350, 400) was obtained, - analyzing the first image and analyzing the first camera settings to estimate first parameters of the light source, wherein the first parameters of the light source relate to characteristics of light emitted by the light emitter,
Crystalline form 2 of the compound of formula characterized by a X-ray powder diffraction pattern comprising the significant peaks at a reflection angle 2-theta obtained with Cu-Kα1 of 6.6, 9.8, 10.5, 11.1, 12.4, 14.3, 15.3, 15.9, 16.9, 17.8, 18.4, 19.0, 19.9, 20.2, 21.0, 21.3, 21.8, 22.3, 22.5, 23.2, 23.6, 24.9, 25.1, 25.5, 25.9, 26.4, 27.6, 28.1, 28.7, 29.0, 29.3, 29.5, 30.0, 30.4, 30.8, 31.5, 31.9, 32.2, 32.4, 33.0, 33.6, 34.7, 34.9, 38.1 and 38.4° ± 0.5°.
A method for source IP address transparency in a communication network comprising a proxy server (244, 460), comprising; the proxy server (244, 460) receiving a traffic flow from an end-user device (132, 442) and determining a source IP address of the end-user device (132, 442) used by the detected traffic flow; the proxy server (244, 460) determining that the source IP address does not exist in a virtual interface table, wherein the virtual interface table is configured to be populated with virtual interfaces, wherein each of the virtual interfaces is assigned a source IP address corresponding to a respective end-user device (132, 442); in response to determining that the source IP address does not exist in the virtual interface table, the proxy server (244, 460) creating a virtual interface corresponding to the end-user device (132, 442) from which the traffic flow was received and using the virtual interface for that end-user device (132, 442) to exchange data between the end-user device (132, 442) and a designated web server (138, 465), wherein the virtual interface comprises a logical representation of a network interface; the proxy server (244, 460) assigning a source IP address to the created virtual interface that is the same as or in the same subnet as the source IP address for the end-user device (132, 442), wherein the proxy server (244, 460) and the end-user device (132, 442) are configured to establish a connection via a dedicated communication protocol such that a timestamp is maintained as part of the protocol, external to the virtual interface table, to perform idle time tracking of the connection to determine when to terminate the virtual interface; and the virtual interface sending the traffic flow to the designated web server (138, 465) using the assigned source IP address.
A method for providing a unified interface that is configured to support communication between a user equipment, UE, and application function, AF, via a network exposure function, NEF, the method comprising: receiving, by a NEF and from a session management function, SMF, a protocol data unit, PDU, session event change notification message associated with a UE; establishing, by the NEF, a data delivery path between the UE and an application function, AF, via one of a plurality of data delivery planes that traverse the NEF in response to the PDU session event change notification message, wherein the plurality of data delivery planes includes a non-IP data delivery, NIDD, based data communication path established in a control plane between the UE and the AF via the NEF, a NIDD based data communication path established between the UE and the AF via the NEF and a UPF that are communicatively connected using a N6 point to point tunnel, and an Internet protocol data delivery based data communication path between the UE and AF that are communicatively connected via the NEF and the UPF using a N6 interface; and processing, by the NEF, messages communicated between the UE and the AF via the NEF over any of the plurality of data delivery planes using a single unified interface supported by the NEF, wherein the single unified interface provides mobile originated, MO, messages to the AF and mobile terminated, MT, messages from the AF and towards the UE regardless of the data delivery path and the data delivery plane. receiving, by a NEF and from a session management function, SMF, a protocol data unit, PDU, session event change notification message associated with a UE; establishing, by the NEF, a data delivery path between the UE and an application function, AF, via one of a plurality of data delivery planes that traverse the NEF in response to the PDU session event change notification message, wherein the plurality of data delivery planes includes a non-IP data delivery, NIDD, based data communication path established in a control plane between the UE and the AF via the NEF, a NIDD based data communication path established between the UE and the AF via the NEF and a UPF that are communicatively connected using a N6 point to point tunnel, and an Internet protocol data delivery based data communication path between the UE and AF that are communicatively connected via the NEF and the UPF using a N6 interface; and processing, by the NEF, messages communicated between the UE and the AF via the NEF over any of the plurality of data delivery planes using a single unified interface supported by the NEF, wherein the single unified interface provides mobile originated, MO, messages to the AF and mobile terminated, MT, messages from the AF and towards the UE regardless of the data delivery path and the data delivery plane.
A conveyor belt section including: a base; side walls (14, 16) extending angularly from opposing sides of the base to form a channel, each side wall: (i) having an inner surface and an outer surface; and (ii) extending from the base at an operative lower end of the side wall to a free operative upper end of the side wall, characterised in that: (i) the conveyor belt section is corrugated with at least two alternating peaks and troughs extending continuously from the free operative upper end of a first side wall, via the operative lower end of the first side wall, across the base, and via the operative lower end of a second side wall to the free operative upper end of the second side wall; (ii) the inner and outer surfaces of each side wall defines such alternating peaks and troughs that extend continuously from the operative lower end to the free operative upper end of each side wall; and (iii) the corrugations are sinusoidal with: (a) the alternating peaks and troughs spaced axially and equidistant along the conveyor belt section; and (b) the width of the peaks at the midline of the corrugations being equal to the width of the troughs at the midline of the corrugations such that the conveyor belt section can bend horizontally and vertically by: (a) compressing an packing together the sinusoidal corrugations; and/or (b) expanding and separating the sinusoidal corrugations, from a free operative upper end of one of the side walls, along the base, to the free operative upper end of the other side wall. a base; side walls (14, 16) extending angularly from opposing sides of the base to form a channel, each side wall: (i) having an inner surface and an outer surface; and (ii) extending from the base at an operative lower end of the side wall to a free operative upper end of the side wall, (i) the conveyor belt section is corrugated with at least two alternating peaks and troughs extending continuously from the free operative upper end of a first side wall, via the operative lower end of the first side wall, across the base, and via the operative lower end of a second side wall to the free operative upper end of the second side wall; (ii) the inner and outer surfaces of each side wall defines such alternating peaks and troughs that extend continuously from the operative lower end to the free operative upper end of each side wall; and (iii) the corrugations are sinusoidal with: (a) the alternating peaks and troughs spaced axially and equidistant along the conveyor belt section; and (b) the width of the peaks at the midline of the corrugations being equal to the width of the troughs at the midline of the corrugations (a) compressing an packing together the sinusoidal corrugations; and/or (b) expanding and separating the sinusoidal corrugations,
Keyboard for a striking mechanism of a musical watch or music box, characterised in that the keyboard includes at least two parts, joined to each other so as to obtain a one-piece keyboard, manufactured in at least two materials, a first part forming a first set of strips (11, 12, 13, 14) made of a first material so as to produce sounds in a first frequency range, and at least a second part forming a second set of strips (21, 22, 23, 24) made of a second material so as to produce sounds in a second frequency range.
A method for manufacturing a curved electrode assembly, comprising: preparing a stack structure comprising at least one negative electrode, at least one positive electrode, and at least one separator, wherein the negative electrode and the positive electrode are stacked with the separator interposed between to electrically isolate the negative electrode from the positive electrode; performing a compression process by which the stack structure is compressed through a pair of compression rollers, to prepare a unit cell; and stacking and compressing at least two unit cells obtained through the, wherein the unit cell obtained through the step has a curved shape with a curvature radius R. wherein a maximum difference of curvature radius representing a curvature radius difference between a unit cell having a longest curvature radius and a unit cell having a shortest curvature radius among the unit cells is within 10%. preparing a stack structure comprising at least one negative electrode, at least one positive electrode, and at least one separator, wherein the negative electrode and the positive electrode are stacked with the separator interposed between to electrically isolate the negative electrode from the positive electrode; performing a compression process by which the stack structure is compressed through a pair of compression rollers, to prepare a unit cell; and stacking and compressing at least two unit cells obtained through the, wherein the unit cell obtained through the step has a curved shape with a curvature radius R. wherein a maximum difference of curvature radius representing a curvature radius difference between a unit cell having a longest curvature radius and a unit cell having a shortest curvature radius among the unit cells is within 10%.
Use of a diploid watermelon plant comprising a gene e as pollenizer for triploid watermelon plants in a process of producing triploid seedless watermelon fruit, wherein the fruits of the diploid watermelon plant are in a size range of between 0.9 to 3.2 kg and the fruit rind is brittle breaking under a pressure in the range of 90 to 150 g/mm 2.
A liquid foodstuff comprising a. a spirulina-extract comprising phycocyanin b. at least one multi-sulphated carrageenan and/or pectin c. a chelating agent d. a solvent, i. wherein the amount of multi-sulphated carrageenan and/or pectin is between 0.003 and 0.6 wt%, ii. wherein the weight ratio between multi-sulphated carrageenan and/or pectin and phycocyanin ranges between 1:1 and 100:1, iii. wherein the chelating agent is present between 1 - 2000 ppm, iv. wherein the solvent consists of water and optionally ethanol, v. wherein the amount of solvent ranges between 60-99 wt%, vi. wherein the wt% are relative to the total weight of the liquid foodstuff. a. a spirulina-extract comprising phycocyanin b. at least one multi-sulphated carrageenan and/or pectin c. a chelating agent d. a solvent, i. wherein the amount of multi-sulphated carrageenan and/or pectin is between 0.003 and 0.6 wt%, ii. wherein the weight ratio between multi-sulphated carrageenan and/or pectin and phycocyanin ranges between 1:1 and 100:1, iii. wherein the chelating agent is present between 1 - 2000 ppm, iv. wherein the solvent consists of water and optionally ethanol, v. wherein the amount of solvent ranges between 60-99 wt%, vi. wherein the wt% are relative to the total weight of the liquid foodstuff. i. wherein the amount of multi-sulphated carrageenan and/or pectin is between 0.003 and 0.6 wt%, ii. wherein the weight ratio between multi-sulphated carrageenan and/or pectin and phycocyanin ranges between 1:1 and 100:1, iii. wherein the chelating agent is present between 1 - 2000 ppm, iv. wherein the solvent consists of water and optionally ethanol, v. wherein the amount of solvent ranges between 60-99 wt%, vi. wherein the wt% are relative to the total weight of the liquid foodstuff.
An electronic device, comprising analog circuitry configured to be set to at least one self-test configuration, the electronic device comprising self-test controller circuitry comprising: an analog configuration and sensing circuit (16, 162) configured to set said analog circuitry to at least one self-test configuration and to sense test signals occurring in said analog circuitry set to said at least one self-test configuration, a data acquisition circuit (18, 182) configured to acquire and convert to digital said test signals sensed, a fault event detection circuit (22, 222) configured to check said test signals converted to digital against reference parameters, characterized in that said self-test controller circuitry comprises test coordination circuitry having an input port (142, 1421) configured to receive device control signals indicative of a set of self-test events and wherein said analog configuration and sensing circuit (16, 162) is configured to set (T1, T2, T3) said analog circuitry to a plurality of self-test configurations (TE1, TE2, TE3) as a function of device control signals received at said test coordination circuitry. an analog configuration and sensing circuit (16, 162) configured to set said analog circuitry to at least one self-test configuration and to sense test signals occurring in said analog circuitry set to said at least one self-test configuration, a data acquisition circuit (18, 182) configured to acquire and convert to digital said test signals sensed, a fault event detection circuit (22, 222) configured to check said test signals converted to digital against reference parameters, characterized in that said self-test controller circuitry comprises test coordination circuitry having an input port (142, 1421) configured to receive device control signals indicative of a set of self-test events and wherein said analog configuration and sensing circuit (16, 162) is configured to set (T1, T2, T3) said analog circuitry to a plurality of self-test configurations (TE1, TE2, TE3) as a function of device control signals received at said test coordination circuitry.
A medical drilling device comprising: a housing comprising a proximal end of the housing and a distal end; an axial drive shaft extending through a region of the housing between the proximal and distal ends and engaged with an axial drive motor; a rotational drive shaft extending through a region of the housing between the proximal and distal ends and engaged with a rotational drive motor configured to rotate the rotational drive shaft around a longitudinal axis of the rotational drive shaft; a coupler configured to rotate with the rotational drive shaft around the longitudinal axis of the rotational drive shaft and removably couple with a working tool; a drill guide assembly coupled to the axial drive shaft and comprising a drill guide configured to receive the working tool therethrough, a forward surface guide, and a rear surface guide, wherein the forward surface guide couples to the drill guide; a transducer interfaced to the axial drive shaft; and an electronics package in electronic communication with the transducer, wherein the electronics package is configured to control actuation of the axial drive motor to cause the axial drive shaft to drive the drill guide assembly in an axial direction towards the proximal end of the housing thereby revealing a portion of the working tool beyond a distal end of the drill guide available to engage a target tissue, characterized in that, the axial drive shaft is axially aligned with the longitudinal axis of the rotational drive shaft. a housing comprising a proximal end of the housing and a distal end; an axial drive shaft extending through a region of the housing between the proximal and distal ends and engaged with an axial drive motor; a rotational drive shaft extending through a region of the housing between the proximal and distal ends and engaged with a rotational drive motor configured to rotate the rotational drive shaft around a longitudinal axis of the rotational drive shaft; a coupler configured to rotate with the rotational drive shaft around the longitudinal axis of the rotational drive shaft and removably couple with a working tool; a drill guide assembly coupled to the axial drive shaft and comprising a drill guide configured to receive the working tool therethrough, a forward surface guide, and a rear surface guide, wherein the forward surface guide couples to the drill guide; a transducer interfaced to the axial drive shaft; and an electronics package in electronic communication with the transducer, wherein the electronics package is configured to control actuation of the axial drive motor to cause the axial drive shaft to drive the drill guide assembly in an axial direction towards the proximal end of the housing thereby revealing a portion of the working tool beyond a distal end of the drill guide available to engage a target tissue, characterized in that, the axial drive shaft is axially aligned with the longitudinal axis of the rotational drive shaft.