mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire for running on rough terrain comprising a tread portion provided with blocks (Br) including crown blocks disposed in a tread crown region (cr), shoulder blocks disposed in a pair of tread shoulder regions (Sh), and middle blocks disposed in tread middle regions (Md) between the tread crown region (Cr) and the tread shoulder regions (Sh), the crown blocks each having an aspect ratio less than an aspect ratio of each of the middle blocks and less than an aspect ratio of each of the shoulder blocks, wherein the aspect ratio is a ratio of the circumferential distance between the extreme circumferential ends of the block (Br) to the axial distance (w) between the extreme axial ends of the block (Br), the middle blocks and the shoulder blocks including cut blocks, wherein the cut block is provided with a U-shaped cut opened at the top face and a side face of the cut block, characterized in that the crown blocks include shifted blocks, wherein the shifted block is provided in its central portion in the tire axial direction with a slot extending in the tire circumferential direction to form two subdivided block pieces one on each side of the slot, and the two block pieces are circumferentially shifted from each other, and the shifted blocks include a first shifted block and a second shifted block in which the circumferentially shifting direction of its two block pieces is opposite from that in the first shifted block.
Work station of a textile machine, in particular a spinning position of a spinning machine, with a multiple number of fiber-guiding work elements (5, 6, 7, 8, 10, 11, 12, 14, 17, 23, 24), wherein the multiple number of fiber-guiding work elements (5, 6, 7, 8, 10, 11, 12, 14, 17, 23, 24) is divided into at least two groups and wherein the work station features at least one first work station part, on which a first group of the fiber-guiding work elements (5, 6, 7, 8, 10, 11, 12, 14, 17, 23, 24) is arranged and at least a second work station part, on which a second group of the fiber-guiding work elements (5, 6, 7, 8, 10, 11, 12, 14, 17, 23, 24) is arranged, characterized in that the second work station part is arranged in a movable manner in particular, pivotable relative to the first work station part at the work station and/or that the second work station part is arranged in a removable manner at the work station and that the work station features a pneumatic thread storage element, for the temporary receiving of a thread, which features an at least two-part structure with a first thread storage section and a second thread storage section, which are connected to one another at a separation point, wherein the first thread storage section is arranged at the first work station part and the second thread storage section is arranged at the second work station part.
A method for operating a smart home device mounted at a structure, the method comprising: monitoring by the device an aspect of the structure; enabling user interaction with the device, including providing one or more users with information related to the aspect; measuring an operating temperature of the device; determining that the operating temperature has crossed a temperature threshold; and altering operation of the device in response to determining that the operating temperature has crossed the temperature threshold, including altering one or more functions of the device having secondary effects of generating or decreasing heat that change the operating temperature of the device, comprising: (i) generate heat when a low temperature threshold has been crossed, including: activating one or more on-board heaters, activating one or more visible-spectrum lights, activating an on-board display, activating one or more infrared LEDs, activating one-or more on-board speaker, and/or increasing a power level of an on-board wireless transceiver, or (ii) decrease an amount of heat when a high temperature threshold has been crossed, including: activating a fan, decreasing power of a wireless transceiver, and/or adapting a charging cycle of a battery. monitoring by the device an aspect of the structure; enabling user interaction with the device, including providing one or more users with information related to the aspect; measuring an operating temperature of the device; determining that the operating temperature has crossed a temperature threshold; and altering operation of the device in response to determining that the operating temperature has crossed the temperature threshold, including altering one or more functions of the device having secondary effects of generating or decreasing heat that change the operating temperature of the device, comprising: (i) generate heat when a low temperature threshold has been crossed, including: activating one or more on-board heaters, activating one or more visible-spectrum lights, activating an on-board display, activating one or more infrared LEDs, activating one-or more on-board speaker, and/or increasing a power level of an on-board wireless transceiver, or (ii) decrease an amount of heat when a high temperature threshold has been crossed, including: activating a fan, decreasing power of a wireless transceiver, and/or adapting a charging cycle of a battery. (i) generate heat when a low temperature threshold has been crossed, including: activating one or more on-board heaters, activating one or more visible-spectrum lights, activating an on-board display, activating one or more infrared LEDs, activating one-or more on-board speaker, and/or increasing a power level of an on-board wireless transceiver, or (ii) decrease an amount of heat when a high temperature threshold has been crossed, including: activating a fan, decreasing power of a wireless transceiver, and/or adapting a charging cycle of a battery.
A method of assembling a fuel swirler for a gas turbine engine, the fuel swirler including a swirler housing and a swirler core, the method comprising: inserting an end of the swirler core into an interior chamber of the swirler housing, an annular air gap forming between the swirler core and the swirler housing; abutting the inserted end of the swirler core against a transition portion of the interior chamber adjacent a fuel outlet in the swirler housing, the fuel outlet in fluid communication with an axial fuel path extending through an internal bore of the swirler core and through one or more exit holes fluidly connecting the internal bore to one or more fuel channels disposed in the inserted end of the swirler core; modulating the depth of the inserted end of the swirler core based on a desired engagement level between the transition portion and the one or more fuel channels; and fixing the swirler core to the swirler housing, characterised in that: modulating the depth of the inserted end of the swirler core further includes directing fuel through the axial fuel path, monitoring the rate of fuel flow exiting through the fuel outlet, and selecting the desired level of engagement based on a desired rate of exiting fuel flow. inserting an end of the swirler core into an interior chamber of the swirler housing, an annular air gap forming between the swirler core and the swirler housing; abutting the inserted end of the swirler core against a transition portion of the interior chamber adjacent a fuel outlet in the swirler housing, the fuel outlet in fluid communication with an axial fuel path extending through an internal bore of the swirler core and through one or more exit holes fluidly connecting the internal bore to one or more fuel channels disposed in the inserted end of the swirler core; modulating the depth of the inserted end of the swirler core based on a desired engagement level between the transition portion and the one or more fuel channels; and fixing the swirler core to the swirler housing, characterised in that: modulating the depth of the inserted end of the swirler core further includes directing fuel through the axial fuel path, monitoring the rate of fuel flow exiting through the fuel outlet, and selecting the desired level of engagement based on a desired rate of exiting fuel flow.
A welding electrode for a capacitor discharge welding device, comprising an electrode shank with a connecting portion, the connecting portion having a free end, a welding cap, which is attached to the connecting portion of the electrode shank, the welding cap having an electrode cap base, and an ultrasonic testing head for transmitting and/or receiving ultrasonic waves, which is arranged within the electrode shank, characterized in that the welding electrode comprises a closable fluid reservoir or a capsule extending within the electrode shank into an intermediate space which is formed between the free end of the connecting portion and the electrode cap base of the welding cap, the ultrasonic testing head is accommodated within the closable fluid reservoir or a capsule and is arranged within the connecting portion in such a way that an end of the ultrasonic testing head that is facing the electrode cap base does not produte outwardly beyond an opeing formed by the free end of the connecting portion, and the closable fluid reservoir or a capsule is at least partially filled with a sound-conducting coupling agent.
A hose connection apparatus providing connection of hoses or other connection members to each other, comprising a nut, a nipple housing (4.1) located on a nipple, the nipple housing (4.1) connected by rotating into nut threads (1.3) located on the nut, in which the hose is positionable, and further comprising an extension-1 (2.1) and an extension-2 (2.2) both located on a tightening bushing, wherein the extension-1 and the extension-2 are connected respectively to a nut screw housing (1.1) and a nut housing (1.2), both located inside the nut, said connection being provided by means of circular rotation of the extension-1 inside the nut screw housing (1.1) and by means of fitting the extension-2 (2.2) into the nut housing (1.2), and an intermediate bushing located to be connected onto the nipple housing (4.1) between the nut and the nipple and provided to by means of this connection, such that the hose is tightenable into by help of the tightening bushing, the nipple housing (4.1) and the nut so as to complete mounting of the hose in the apparatus.
A device designed to be used for neutron imaging immersed in a medium containing specimens to be analyzed, characterized in that it comprises: - a first converter (C 1) comprising a first material capable of converting thermal neutron radiation into remnant beta radiation by its neutron activation, said first material comprising dysprosium; - a second converter (C 2) comprising a second material capable of absorbing thermal neutron radiation by capture and capable of converting a remnant beta radiation into light radiation, the said second converter being in contact with the said first converter, said second converter comprising a scintillator material which is a gadolinium-based compound which can be of Gd 2 O 2 S type (doped with Tb), the first and second converters being in close contact with each other; and - a support (S 3) comprising hydrogenated species on which the said second converter is positioned, the said support being transparent to said light radiation. - a first converter (C 1) comprising a first material capable of converting thermal neutron radiation into remnant beta radiation by its neutron activation, said first material comprising dysprosium; - a second converter (C 2) comprising a second material capable of absorbing thermal neutron radiation by capture and capable of converting a remnant beta radiation into light radiation, the said second converter being in contact with the said first converter, said second converter comprising a scintillator material which is a gadolinium-based compound which can be of Gd 2 O 2 S type (doped with Tb), the first and second converters being in close contact with each other; and - a support (S 3) comprising hydrogenated species on which the said second converter is positioned, the said support being transparent to said light radiation.
A penetration part fireproof covering material used when a penetration part covered for fireproof is formed in a wooden building, wherein the fireproof covering material is formed to have a tubular shape by stacking a plurality of gypsum board pieces in a thickness direction and unitarily connecting the plurality of gypsum board pieces.
A derivative of a GLP-1 peptide, which peptide comprises a first K residue at a position corresponding to position 26 of GLP-1 (SEQ ID NO:1), a second K residue at a position corresponding to position 34 of GLP-1 (SEQ ID NO:1), and a maximum of eight amino acid changes as compared to GLP-1, which derivative comprises two protracting moieties attached to said first and second K residue, respectively, via a linker, wherein the protracting moiety is Chem. 2: Chem. 2: HOOC-C 6 H 4 -O-(CH 2) y -CO-*, in which y is an integer in the range of 6-13; and the linker comprises Chem. 3a: *-NH-(CH 2) q -CH[(CH 2) w -NR 1 R 2]-CO-*, wherein q is an integer in the range of 0-5, R 1 and R 2 independently represent *-H or *-CH 3, and w is an integer in the range of 0-5; or a pharmaceutically acceptable salt, amide, or ester thereof.
A method in a wireless communication device, the method comprising: receiving, at the device, a downlink transmission including a reference signal from a base station while camped on the base station in idle mode; estimating, at the device, a quality metric of a hypothetical paging channel reception based on the reference signal; and determining whether to perform reselection evaluation of a neighboring base station by the device based on the estimated quality metric; characterised in that the estimating includes either: using a serving cell Reference Signal Received Power, RSRP, to predict a Block Error Rate, BLER, of Downlink Control Information, DCI, format reception; or determining a BLER of a hypothetical Physical Downlink Shared Channel, PDSCH, payload or a Modulation and Code Scheme, MCS, level. receiving, at the device, a downlink transmission including a reference signal from a base station while camped on the base station in idle mode; estimating, at the device, a quality metric of a hypothetical paging channel reception based on the reference signal; and determining whether to perform reselection evaluation of a neighboring base station by the device based on the estimated quality metric; characterised in that the estimating includes either: using a serving cell Reference Signal Received Power, RSRP, to predict a Block Error Rate, BLER, of Downlink Control Information, DCI, format reception; or determining a BLER of a hypothetical Physical Downlink Shared Channel, PDSCH, payload or a Modulation and Code Scheme, MCS, level. using a serving cell Reference Signal Received Power, RSRP, to predict a Block Error Rate, BLER, of Downlink Control Information, DCI, format reception; or determining a BLER of a hypothetical Physical Downlink Shared Channel, PDSCH, payload or a Modulation and Code Scheme, MCS, level.
A computer system comprising: a processor; a non-volatile memory configured to store a firmware image comprising code used to boot the system; a volatile random-access memory comprising a first reserved region (21, 22) and one or more additional regions (203a, 204, 205a), wherein the first reserved region is designated on initial system boot for use by Unified Extensible Firmware Interface, UEFI, code, Basic Input/Output System, BIOS, code or system management code, the first reserved region being protected from access by an operating system, wherein the one or more additional regions are available for use by the operating system, wherein the first reserved region comprises an extended memory region (201a, 202a) that is reserved during the initial system boot but is not used to store code during the initial system boot, thereby making excess room available on reboot to implement additional BIOS and system management operations that are not present in the firmware image, the first reserved region being configured to be available to store code in an updated firmware image following a system reboot; and instructions executable by the processor to replace the firmware image with an updated firmware image and to reboot the computer system using the updated firmware image, wherein the reserved regions are reformatted during reboot while maintaining an existing operating system and application context in the additional regions of the volatile random-access memory. a processor; a non-volatile memory configured to store a firmware image comprising code used to boot the system; a volatile random-access memory comprising a first reserved region (21, 22) and one or more additional regions (203a, 204, 205a), wherein the first reserved region is designated on initial system boot for use by Unified Extensible Firmware Interface, UEFI, code, Basic Input/Output System, BIOS, code or system management code, the first reserved region being protected from access by an operating system, wherein the one or more additional regions are available for use by the operating system, wherein the first reserved region comprises an extended memory region (201a, 202a) that is reserved during the initial system boot but is not used to store code during the initial system boot, thereby making excess room available on reboot to implement additional BIOS and system management operations that are not present in the firmware image, the first reserved region being configured to be available to store code in an updated firmware image following a system reboot; and instructions executable by the processor to replace the firmware image with an updated firmware image and to reboot the computer system using the updated firmware image, wherein the reserved regions are reformatted during reboot while maintaining an existing operating system and application context in the additional regions of the volatile random-access memory.
Electrolyte which comprises 100 parts by weight of aprotic solvent, 1 to 50 parts by weight of lithium-containing conducting salt, 5 to 100 parts by weight of vinylene carbonate, 0.5 to 20 parts by weight of nitrile and 0.1 to 10 parts by weight of amine.
A power quad flat no-lead (PQFN) leadframe comprising: a U-phase power switch situated on said PQFN leadframe and connected to a U-phase output pad that is connected to a U-phase output strip of said PQFN leadframe, a W-phase power switch situated on said PQFN leadframe and connected to a W-phase output pad of said PQFN leadframe, a V-phase power switch situated on said PQFN leadframe and connected to a V-phase output pad, said V-phase power pad being connected to a V-phase output strip of said PQFN leadframe, wherein the U-phase output pad, the V-phase output pad and the W-phase output pad are arranged at a first edge of the package, a multi-phase power inverter situated on said PQFN leadframe, said multi-phase power inverter including a U-phase output connected to the U-phase output strip of said PQFN leadframe, a V-phase output connected to a V-phase output strip of said PQFN leadframe and a W-phase output connected to a W-phase output pad of said PQFN leadframe, a common drain/collector die pad arranged at a second edge of the package that intersects with the first edge, a U-phase power switch, a V-phase power switch and a W-phase power switch being situated on the common drain/collector die pad, a common integrated circuit comprising a driver circuit and a control circuit, said common IC being situated on a common integrated die pad and connected to said U-phase output strip and to said W-phase output pad of said PQFN leadframe, characterised in that said W-phase output pad is connected to a W-phase output strip of said PQFN leadframe, and the U-phase output strip, the V-phase output strip and the W phase output strip are positioned between the common drain/collector die pad and the common integrated die pad. a U-phase power switch situated on said PQFN leadframe and connected to a U-phase output pad that is connected to a U-phase output strip of said PQFN leadframe, a W-phase power switch situated on said PQFN leadframe and connected to a W-phase output pad of said PQFN leadframe, a V-phase power switch situated on said PQFN leadframe and connected to a V-phase output pad, said V-phase power pad being connected to a V-phase output strip of said PQFN leadframe, wherein the U-phase output pad, the V-phase output pad and the W-phase output pad are arranged at a first edge of the package, a multi-phase power inverter situated on said PQFN leadframe, said multi-phase power inverter including a U-phase output connected to the U-phase output strip of said PQFN leadframe, a V-phase output connected to a V-phase output strip of said PQFN leadframe and a W-phase output connected to a W-phase output pad of said PQFN leadframe, a common drain/collector die pad arranged at a second edge of the package that intersects with the first edge, a U-phase power switch, a V-phase power switch and a W-phase power switch being situated on the common drain/collector die pad, a common integrated circuit comprising a driver circuit and a control circuit, said common IC being situated on a common integrated die pad and connected to said U-phase output strip and to said W-phase output pad of said PQFN leadframe,
A semiconductor on insulator, SOI, device (300,400, 500), comprising: a semiconductor handle substrate (302, 402, 502) comprising a porous semiconductor layer (360, 560), and an etch stop layer (340, 440, 540) proximate the porous semiconductor layer, wherein the etch stop layer comprises implanted germanium; an insulator layer (310, 410) on the etch stop layer; and a device semiconductor layer (320, 420) on the insulator layer. a semiconductor handle substrate (302, 402, 502) comprising a porous semiconductor layer (360, 560), and an etch stop layer (340, 440, 540) proximate the porous semiconductor layer, wherein the etch stop layer comprises implanted germanium; an insulator layer (310, 410) on the etch stop layer; and a device semiconductor layer (320, 420) on the insulator layer.
Apparatus for gripping a tubular member where the apparatus includes a die and a die holder, and where at least one of the die and the die holder, on its portion facing the other, has at least two axially, in the direction of the tubular member when engaged by the die, formed ridges (12, 28) that complementary fit in valleys (14, 30) in the other of the die and the die holder, the ridges (12, 28) having a larger bottom width than top width in the radial direction from the die or die holder towards the other of the die or die holder, characterised in that centre lines of the ridges (12, 28) are substantially parallel, and where the die, when unengaged, is radially movable between abutment of the die ridges to the die holder and abutment of the die to at least one stop member of the die holder.