mhurhangee/ep-ind-claims huggingface dataset:
A display device including a light emitting element module, wherein the light emitting element module includes: a red light emitting semiconductor element; a green light emitting semiconductor element disposed on the top of the red semiconductor light emitting element; a blue light emitting semiconductor element disposed on the top of the green semiconductor light emitting element; an individual electrode portion including a red electrode portion electrically connected to the red light emitting semiconductor element, a green electrode portion electrically connected to the green light emitting semiconductor element, and a blue electrode portion electrically connected to the blue light emitting semiconductor element, which are configured to supply an individual signal to the red light emitting semiconductor element, the green light emitting semiconductor element, and the blue light emitting semiconductor element, respectively; and a common electrode portion configured to supply a common signal to the red light emitting semiconductor element, the green light emitting semiconductor element, and the blue light emitting semiconductor element, wherein the light emitting element module comprises different four side surfaces thereof in different directions, and characterised in that each of the red electrode portion, the green electrode portion, the blue electrode portion, and the common electrode portion is disposed on each side surface of the four side surfaces of the light emitting element module. a red light emitting semiconductor element; a green light emitting semiconductor element disposed on the top of the red semiconductor light emitting element; a blue light emitting semiconductor element disposed on the top of the green semiconductor light emitting element; an individual electrode portion including a red electrode portion electrically connected to the red light emitting semiconductor element, a green electrode portion electrically connected to the green light emitting semiconductor element, and a blue electrode portion electrically connected to the blue light emitting semiconductor element, which are configured to supply an individual signal to the red light emitting semiconductor element, the green light emitting semiconductor element, and the blue light emitting semiconductor element, respectively; and a common electrode portion configured to supply a common signal to the red light emitting semiconductor element, the green light emitting semiconductor element, and the blue light emitting semiconductor element, wherein the light emitting element module comprises different four side surfaces thereof in different directions, and characterised in that each of the red electrode portion, the green electrode portion, the blue electrode portion, and the common electrode portion is disposed on each side surface of the four side surfaces of the light emitting element module.
An apparatus for sensing particulate matter in a fluid, the apparatus comprising: a fluid flow conduit fluidically connected to an interaction chamber; a light source positioned to illuminate the interaction chamber; and a light detector assembly (150, 800) positioned to receive light scattered by particulate matter present in the interaction chamber, the light detector assembly (150, 800) comprising: a light detector (114, 164, 814); characterized in that the light detector assembly (150, 800) further comprises: an optical element (166, 816), the optical element (166, 816) configured to allow only scattered light within a threshold solid angle (β') to reach the light detector (114, 164, 814). a fluid flow conduit fluidically connected to an interaction chamber; a light source positioned to illuminate the interaction chamber; and a light detector assembly (150, 800) positioned to receive light scattered by particulate matter present in the interaction chamber, the light detector assembly (150, 800) comprising: a light detector (114, 164, 814); characterized in that the light detector assembly (150, 800) further comprises: an optical element (166, 816), the optical element (166, 816) configured to allow only scattered light within a threshold solid angle (β') to reach the light detector (114, 164, 814). a light detector (114, 164, 814); characterized in that the light detector assembly (150, 800) further comprises: an optical element (166, 816), the optical element (166, 816) configured to allow only scattered light within a threshold solid angle (β') to reach the light detector (114, 164, 814).
A process for oxygen-tailoring a polyethylene, the process comprising: (a) conveying a first polyethylene having a melt index I 2.16 of 0.1 to 2.0 g/10 min., a high-load melt index I 21.6 of from 1.0 to 50.0 g/10 min. and an MWD ≤ 5.0 through mixing or extrusion apparatus having a feed zone, a melt-mixing zone downstream of the feed zone, and a melt zone downstream of the melt-mixing zone, wherein the temperature of the first polyethylene in the melt zone ranges from 180°C to 300°C; and (b) contacting the first polyethylene with an amount of an oxygen-containing gas having at least 20.0 parts by weight oxygen per million per parts by weight of the first polyethylene (ppm (wt) O 2); wherein the process provides a tailored polyethylene having a melt index within 5.0% of the melt index of the first polyethylene and a high load melt index at least 10.0% higher than the high-load melt index of the first polyethylene. (a) conveying a first polyethylene having a melt index I 2.16 of 0.1 to 2.0 g/10 min., a high-load melt index I 21.6 of from 1.0 to 50.0 g/10 min. and an MWD ≤ 5.0 through mixing or extrusion apparatus having a feed zone, a melt-mixing zone downstream of the feed zone, and a melt zone downstream of the melt-mixing zone, wherein the temperature of the first polyethylene in the melt zone ranges from 180°C to 300°C; and (b) contacting the first polyethylene with an amount of an oxygen-containing gas having at least 20.0 parts by weight oxygen per million per parts by weight of the first polyethylene (ppm (wt) O 2);
A process for manufacturing a MEMS device according to claim 11 comprising: forming a first structural layer of semiconductor material on a substrate, the first structural layer having a first thickness; forming a plurality of first trenches extending through the first structural layer and defining first functional elements (37A, 37B); forming masking regions on the first structural layer, the masking regions being separated from each other by first openings; forming a second structural layer of semiconductor material on the first structural layer and on the masking regions, the second structural layer having a second thickness, being in direct contact with the first structural layer at the first openings and forming here, together with the first structural layer, thick structural regions of the semiconductor material having a third thickness equal to the sum of the first and the second thicknesses; forming a plurality of second trenches extending through the second structural layer, over the masking regions, and delimiting second functional elements (36A, 36B) having the second thickness; and forming a plurality of third trenches extending through the first and the second structural layers (41, 42) by removing selective portions of the thick structural regions, the third trenches delimiting third functional elements (45, 70) having the third thickness. forming a first structural layer of semiconductor material on a substrate, the first structural layer having a first thickness; forming a plurality of first trenches extending through the first structural layer and defining first functional elements (37A, 37B); forming masking regions on the first structural layer, the masking regions being separated from each other by first openings; forming a second structural layer of semiconductor material on the first structural layer and on the masking regions, the second structural layer having a second thickness, being in direct contact with the first structural layer at the first openings and forming here, together with the first structural layer, thick structural regions of the semiconductor material having a third thickness equal to the sum of the first and the second thicknesses; forming a plurality of second trenches extending through the second structural layer, over the masking regions, and delimiting second functional elements (36A, 36B) having the second thickness; and forming a plurality of third trenches extending through the first and the second structural layers (41, 42) by removing selective portions of the thick structural regions, the third trenches delimiting third functional elements (45, 70) having the third thickness.
A wireless communications device (90, 102) comprising a processor (81, 91, 118) and a memory (82, 83, 130, 132), the wireless communications device further including computer-executable instructions stored in the memory of the wireless communications device which, when executed by the processor of the wireless communications device, cause the wireless communications device to: receive, from a base station "gNB" (114, 140, 160, 180), first information indicating a plurality of resources (210, 230, 310, 330) for a configured grant "CG" on a physical uplink shared channel "PUSCH"; determine, based on second information, a portion (313, 333, 413, 433, 910, 911, 930, 931) of the plurality of resources to use for transmitting a configured grant-uplink control information "CG-UCI", wherein the second information comprises a radio resource control parameter "RRC" enabling the wireless communications device to calculate a number of symbols or resource elements in the CG to use for transmitting the CG-UCI; generate the CG-UCI, wherein the CG-UCI comprises information associated with the wireless communications device; and transmit, to the gNB on the PUSCH, the CG-UCI using the determined portion of the plurality of resources. receive, from a base station "gNB" (114, 140, 160, 180), first information indicating a plurality of resources (210, 230, 310, 330) for a configured grant "CG" on a physical uplink shared channel "PUSCH"; determine, based on second information, a portion (313, 333, 413, 433, 910, 911, 930, 931) of the plurality of resources to use for transmitting a configured grant-uplink control information "CG-UCI", wherein the second information comprises a radio resource control parameter "RRC" enabling the wireless communications device to calculate a number of symbols or resource elements in the CG to use for transmitting the CG-UCI; generate the CG-UCI, wherein the CG-UCI comprises information associated with the wireless communications device; and transmit, to the gNB on the PUSCH, the CG-UCI using the determined portion of the plurality of resources.
Method for producing a connector plate of a dust container for a vacuum cleaner, where the dust container comprises a dust bag, made of an air permeable material, and the connector plate, surrounds an opening in the dust bag and the connector plate, whereby the connector plate can correctly position the opening within a vacuum cleaner by the connector plate being inserted in a holder of the vacuum cleaner, the connector plate being produced by injection molding a plastic material in a tool such that the connector plate extends in a main plane, characterized by that the connector plate further comprises a flexible shutter formed in one piece with the connector plate, and wherein in the tool, the shutter is formed to extend out of the main plane of the connector plate.
A computer-implemented method for data integrity verification, comprising: under control of one or more computer systems configured with executable instructions, receiving, from a remote computing device, one or more parts of a data payload; for each part of at least a subset of the one or more parts, generating a sub-part; calculating a digest for each generated sub-part based at least in part on the generated sub-part; generating a hierarchical data structure and storing the calculated digests as nodes of the data structure; generating at least a root node of the data structure based at least in part on the calculated digests by concatenating each calculated digest and running a hash function on the concatenated digest; determining a top-level digest of the data structure associated with the root node of the data structure by traversing the data structure to the root node; storing the data payload in archival data storage; validating, based at least in part on the determined top-level digest and a received top-level digest, that the stored data payload matches a received data payload corresponding to the received one or more parts; providing a data object identifier including the top-level digest to a user of the archival data storage; receiving a request for the stored data payload from the user including the data object identifier; verifying that the stored data payload has not changed; and providing the stored data payload to the user. receiving, from a remote computing device, one or more parts of a data payload; for each part of at least a subset of the one or more parts, generating a sub-part; calculating a digest for each generated sub-part based at least in part on the generated sub-part; generating a hierarchical data structure and storing the calculated digests as nodes of the data structure; generating at least a root node of the data structure based at least in part on the calculated digests by concatenating each calculated digest and running a hash function on the concatenated digest; determining a top-level digest of the data structure associated with the root node of the data structure by traversing the data structure to the root node; storing the data payload in archival data storage; validating, based at least in part on the determined top-level digest and a received top-level digest, that the stored data payload matches a received data payload corresponding to the received one or more parts; providing a data object identifier including the top-level digest to a user of the archival data storage; receiving a request for the stored data payload from the user including the data object identifier; verifying that the stored data payload has not changed; and providing the stored data payload to the user.
An apparatus comprising: a coupler configured to electrically couple a host portable power supply of a host portable electronic device to a recipient portable power supply of a recipient portable electronic device; an input element; a display device; and, a controller configured to: render, at the display device, a plurality of selectable prompts, each of the plurality of selectable prompts corresponding to respective given selectable minimum charge levels; receive a selected minimum charge level from the input element when one of the plurality of selectable prompts is selected using the input element; control application of the charging energy sourced at the host portable power supply to the recipient portable power supply by way of said coupler; control application of the charging energy sourced at the host portable power supply to the recipient portable power supply by way of said coupler, and, during application of the charging energy, determine whether remaining charge energy at the host portable power supply is sufficient to permit continued charging; when the remaining charge energy at the host portable supply is insufficient to permit continued charging, terminate charging and otherwise terminate the charging when the host portable power supply is depleted to the selected minimum charge level. a coupler configured to electrically couple a host portable power supply of a host portable electronic device to a recipient portable power supply of a recipient portable electronic device; an input element; a display device; and, a controller configured to: render, at the display device, a plurality of selectable prompts, each of the plurality of selectable prompts corresponding to respective given selectable minimum charge levels; receive a selected minimum charge level from the input element when one of the plurality of selectable prompts is selected using the input element; control application of the charging energy sourced at the host portable power supply to the recipient portable power supply by way of said coupler; control application of the charging energy sourced at the host portable power supply to the recipient portable power supply by way of said coupler, and, during application of the charging energy, determine whether remaining charge energy at the host portable power supply is sufficient to permit continued charging; when the remaining charge energy at the host portable supply is insufficient to permit continued charging, terminate charging and otherwise terminate the charging when the host portable power supply is depleted to the selected minimum charge level.
An apparatus for wireless communications at a first user equipment, UE, comprising: means for determining shared resources for communicating over one or more sidelink communication links, the shared resources comprising control resources and data resources, the control resources in a first portion of a slot being allocated for sending a sidelink request by the first UE; means for transmitting, to a second UE on a transmission beam over the control resources in the first portion of a slot, the sidelink request to reserve a subset of the data resources; and means for monitoring, by the first UE on a receive beam over control resources in a second portion of the slot, for one or more sidelink responses from one or more UEs, the one or more sidelink responses indicating a positive sidelink response to the sidelink request to reserve the subset of the data resources, a negative sidelink response to the sidelink request to reserve the subset of the data resources, or both, the control resources in the second portion of the slot being allocated for the one or more sidelink responses; the apparatus characterized in that it further comprises: means for determining, based at least in part on the monitoring, whether to transmit a sidelink confirmation indicating a reservation of the subset of the data resources to the second UE over control resources in a third portion of the slot, the control resources in the third portion of the slot being allocated for the sidelink confirmation. means for determining shared resources for communicating over one or more sidelink communication links, the shared resources comprising control resources and data resources, the control resources in a first portion of a slot being allocated for sending a sidelink request by the first UE; means for transmitting, to a second UE on a transmission beam over the control resources in the first portion of a slot, the sidelink request to reserve a subset of the data resources; and means for monitoring, by the first UE on a receive beam over control resources in a second portion of the slot, for one or more sidelink responses from one or more UEs, the one or more sidelink responses indicating a positive sidelink response to the sidelink request to reserve the subset of the data resources, a negative sidelink response to the sidelink request to reserve the subset of the data resources, or both, the control resources in the second portion of the slot being allocated for the one or more sidelink responses; the apparatus characterized in that it further comprises: means for determining, based at least in part on the monitoring, whether to transmit a sidelink confirmation indicating a reservation of the subset of the data resources to the second UE over control resources in a third portion of the slot, the control resources in the third portion of the slot being allocated for the sidelink confirmation.
Processing machine for preferably plate-like workpieces, which are made in particular at least partly of wood, wood materials, plastic, composite material or the like, having: a flowed-through pipe section for conducting a gaseous fluid flow, which is in connection with a processing area of the processing machine; a sensor (40a, 40b, 40c) arranged outside the flowed-through pipe section for detecting amplitudes of a harmonic natural frequency in the area of the pipe section, a control unit which is configured to perform a vibration analysis of a signal of the sensor (40a, 40b, 40c) and based on the result of the vibration analysis to make a connection between the signal of the sensor (40a, 40b, 40c) and a volume flow of the gaseous fluid flow inside the pipe section. a flowed-through pipe section for conducting a gaseous fluid flow, which is in connection with a processing area of the processing machine; a sensor (40a, 40b, 40c) arranged outside the flowed-through pipe section for detecting amplitudes of a harmonic natural frequency in the area of the pipe section, a control unit which is configured to perform a vibration analysis of a signal of the sensor (40a, 40b, 40c) and based on the result of the vibration analysis to make a connection between the signal of the sensor (40a, 40b, 40c) and a volume flow of the gaseous fluid flow inside the pipe section.
Manual control device (1, 301) comprising a support body (2, 302) extending longitudinally from a first part provided for fixing to bicycle handlebars to a second part generically opposite the first part, there being generically identified on the support body (2, 302) a rear surface on the first part for fixing to the handlebars, a front surface on the second part, an upper surface, a bottom surface, a proximal side surface and a distal side surface, a first manual actuation member in the form of a first lever, provided for actuating a hydraulic assembly, is pivoted about a first axis to the support body on the second part, beneath a protuberance and hangs downward in front of the handgrip, the support body (2, 302) having the protuberance on the second part, at the top, wherein the protuberance has such a geometry that it can be gripped by a rider's hand in a travel condition so as to allow the bicycle to be guided and simultaneously the lever to be actuated, the support body (2, 302) having a seat for the hydraulic assembly comprising a hydraulic cylinder defining a cylinder axis, the seat for the hydraulic assembly being formed in said protuberance, characterized in that an angle (ALFA), defined, in a section through a substantially middle longitudinal plane of the manual control device (1, 301), between (i) a tangent to the upper surface of the support body (2, 302) in a region not involved in the protuberance and (ii) the axis of the hydraulic cylinder of the hydraulic assembly is selected in the range comprised between 70° and 118°, preferably between 80° and 108°, even more preferably it is selected equal to 94°.
A gas-diffusion electrode substrate comprising an electrode substrate and a microporous layer (hereinafter referred to as an MPL) disposed on one surface of the electrode substrate, wherein the gas-diffusion electrode substrate has a thickness of 110 μm or more and 240 μm or less, and where a cross section of the gas-diffusion electrode substrate is divided into a part having the MPL and a part having no MPL, and the part having no MPL is further equally divided into a part in contact with the MPL (hereinafter referred to as a CP1 cross section) and a part not in contact with the MPL (hereinafter referred to as a CP2 cross section), the CP1 cross section has an F/C ratio of 0.03 or more and 0.10 or less and the CP2 cross section has an F/C ratio less than 0.03, wherein "F" is a mass of a fluorine atom, and "C" is a mass of a carbon atom. The F/C ratio being measured as described in the "EXAMPLES" part of the description.