mhurhangee/ep-ind-claims huggingface dataset:
A method for collecting per call measurement data, PCMD, comprising: when an instruction to activate a PCMD-related function is received, sending by a base station a message including an indication of whether the base station is capable of collecting the PCMD to a mobility management entity, MME, device; based on the received message including the indication of whether the base station is capable of collecting the PCMD, adding by the MME device the base station capable of collecting the PCMD to a PCMD contact list of the MME device; when an instruction to start PCMD collection is received, sending by the MME device a message including an indication of starting collecting the PCMD to at least one base station capable of collecting the PCMD; based on the received indication of starting collecting the PCMD, collecting by the base station the PCMD for at least one user equipment UE connection. when an instruction to activate a PCMD-related function is received, sending by a base station a message including an indication of whether the base station is capable of collecting the PCMD to a mobility management entity, MME, device; based on the received message including the indication of whether the base station is capable of collecting the PCMD, adding by the MME device the base station capable of collecting the PCMD to a PCMD contact list of the MME device; when an instruction to start PCMD collection is received, sending by the MME device a message including an indication of starting collecting the PCMD to at least one base station capable of collecting the PCMD; based on the received indication of starting collecting the PCMD, collecting by the base station the PCMD for at least one user equipment UE connection.
A compound represented by Formulae 12 and 13 below having hole conduction characteristics: wherein R1, R2, R10 and R11 are each independently hydrogen; alkyl of C1 ∼ C15 unsubstituted or substituted with alkoxy of C1 ∼ C15; alkoxy of C1 ∼ C15 unsubstituted or substituted with alkyl of C1 ∼ C15; alkoxy of C1 ∼ C15 substituted with alkoxy of C1 ∼ C15; aryl or heteroaryl of CS ∼ C20 unsubstituted or substituted with a substituent selected from the group consisting of alkyl of C1 ∼ C15 unsubstituted or substituted with alkoxy of C1 ∼ C15, alkoxy of C1 ∼ C15 unsubstituted or substituted with alkyl of C1 ∼ C15, and alkoxy of C1 ∼ C15 substituted with alkoxy of C1 ∼ C15; or arylalkyl or heteroarylalkyl of C6 ∼ C22 unsubstituted or substituted with a substituent selected from the group consisting of alkyl of C1 ∼ C15 unsubstituted or substituted with alkoxy of C1 ∼ C15, alkoxy of C1 ∼ C15 unsubstituted or substituted with alkyl of C1 ∼ C15 and alkoxy of C1 ∼ C15 substituted with alkoxy of C1 ∼ C15; wherein the alkyl of C1 ∼ C15 included in each of the substituents in the Formulae 12 and 13 is methyl, ethyl, propyl, butyl, pentyl, hexyl, heptyl or octyl, and the alkoxy of C1 ∼ C 15 is methoxy, ethoxy, propoxy, butoxy, pentoxy, hexo xy or heptoxy; the aryl or heteroaryl included in the aryl or heteroaryl of C5 ∼ C20 and arylalkyl or heteroarylalkyl of C6 ∼ C22 is phenyl, naphthyl, thiophenyl, anthracyl, imidazole, pyridine, oxazole, thiazole, quinoline or EDOT (3,4-ethylenedioxythiophene); and the alkyl included in each of the substituents is straight chain alkyl or branch chain alkyl.
A pellicle for lithography having a multilayer pellicle membrane including a membrane made of a fluoropolymer which contains, as the main component, repeating units obtained by cyclopolymerization of a perfluorodiene having one etheric oxygen atom, and a membrane made of a fluoropolymer which has fluorinated alicyclic ring structures each containing, in the ring structure, two or three etheric oxygen atoms not being adjacent to one another, wherein the total thickness of the membrane made of the fluoropolymer is at most 40% of the total thickness of the membrane made of the fluoropolymer.
A multivalent oligopeptide, comprising a fusion of three or more Staphylococcus aureus -derived Superantigen (SAg) polypeptides arranged in any order, wherein the multivalent oligopeptide comprises: (a) a staphylococcal enterotoxin B attenuated toxoid comprising SEQ ID NO: 49; (b) a staphylococcal enterotoxin A attenuated toxoid comprising SEQ ID NO: 50; and (c) a staphylococcal toxic shock syndrome toxin-1 (TSST-1) attenuated toxoid comprising SEQ ID NO: 51. (a) a staphylococcal enterotoxin B attenuated toxoid comprising SEQ ID NO: 49; (b) a staphylococcal enterotoxin A attenuated toxoid comprising SEQ ID NO: 50; and (c) a staphylococcal toxic shock syndrome toxin-1 (TSST-1) attenuated toxoid comprising SEQ ID NO: 51.
A testing member for eliciting blood samples, the testing member configured to be rotatably mounted inside a cartridge and comprising: a lancet for lancing a body part of a user, the lancet protruding from an edge of the testing member; a second blood collection part; second contact pads, the second contact pads being electrically connected to the second blood collection part, the second blood collection part and second contact pads together being configured to facilitate an analysis of the quantity of blood in a first blood sample in the second blood collection part; a blood analysis part; first contact pads, the first contact pads being electrically connected to the blood analysis part, the blood analysis part and first contact pads together being configured to facilitate an analysis of a second blood sample in the blood analysis part, wherein the testing member is configured to be rotated such that the blood analysis part and the second blood collection part are able to be presented at an aperture in the cartridge in turn. a lancet for lancing a body part of a user, the lancet protruding from an edge of the testing member; a second blood collection part; second contact pads, the second contact pads being electrically connected to the second blood collection part, the second blood collection part and second contact pads together being configured to facilitate an analysis of the quantity of blood in a first blood sample in the second blood collection part; a blood analysis part; first contact pads, the first contact pads being electrically connected to the blood analysis part, the blood analysis part and first contact pads together being configured to facilitate an analysis of a second blood sample in the blood analysis part, wherein the testing member is configured to be rotated such that the blood analysis part and the second blood collection part are able to be presented at an aperture in the cartridge in turn.
A tire comprising a tread portion provided with two circumferential grooves disposed one each side of the tire equator (c) and extending continuously in the tire circumferential direction, and a crown land region formed between the two circumferential grooves, wherein the crown land region is provided with first crown sipes extending from one of the circumferential grooves and terminating within the crown land region, and second crown sipes extending from the other circumferential groove and terminating within the crown land region, wherein the first crown sipes and the second crown sipes extend from the circumferential grooves while inclining to one side in the tire circumferential direction; characterized in that the tire has a tread pattern having an intended rotational direction, and the first crown sipes and the second crown sipes extend from the circumferential grooves while inclining to the opposite direction to the intended rotational direction.
A stator assembly comprising: an outer case; and a stator subassembly including an array of circumferentially arranged stator vanes wherein at least one of the stator vanes includes first and second hooks (34,36); characterised by further comprising: a damper spring (44;72) provided between and engaging the array and the outer case, and which is configured to bias the array radially inward from the outer case; and first and second attachment liners (40,42) respectively secured to the first and second hooks (34,36) to provide the stator subassembly, wherein the damper spring is discrete from the first and second attachment liners. an outer case; and a stator subassembly including an array of circumferentially arranged stator vanes wherein at least one of the stator vanes includes first and second hooks (34,36); characterised by further comprising: a damper spring (44;72) provided between and engaging the array and the outer case, and which is configured to bias the array radially inward from the outer case; and first and second attachment liners (40,42) respectively secured to the first and second hooks (34,36) to provide the stator subassembly, wherein the damper spring is discrete from the first and second attachment liners. a damper spring (44;72) provided between and engaging the array and the outer case, and which is configured to bias the array radially inward from the outer case; and first and second attachment liners (40,42) respectively secured to the first and second hooks (34,36) to provide the stator subassembly, wherein the damper spring is discrete from the first and second attachment liners.
A semiconductor field effect transistor comprising a semiconductor structure of a nitride semiconductor, wherein the semiconductor structure comprises: a first semiconductor region (101, 201, 301, 401, 501) disposed over a substrate (100, 200, 300, 400, 500) and having n-type conductivity; a second semiconductor region (103, 203, 303, 403, 503) having n-type conductivity; and a third semiconductor region (102, 202, 302,402, 502) located between the first and second semiconductor regions and having p-type conductivity, wherein the semiconductor field effect transistor comprises: a punch-through electrode (115, 215, 315, 415, 515) having an ohmic characteristic with respect to the first semiconductor region; a drain electrode (112, 212, 312, 414, 512, 514) having an ohmic characteristic with respect to the second semiconductor region; a source electrode (110, 210, 310, 413, 510, 513) adjacent to the drain electrode; and a gate electrode (111, 211, 311, 511) between the drain electrode and the source electrode, wherein when a positive voltage with respect to the punch-through and source electrodes is applied to the drain electrode during an On state, an On current by carriers having the n-type conductivity flows between the drain and source electrodes, wherein the semiconductor structure is configured to let a breakdown current occur due to a punch-through breakdown, and wherein when a positive voltage with respect to the punch-through and source electrodes is applied to the drain electrode and reaches a punch-through breakdown voltage during an Off state, the punch-through breakdown current by carriers having the n-type conductivity flows between the drain electrode and the punch-through electrode through second, third and first semiconductor regions, characterized in that: the third semiconductor region is doped with an acceptor impurity of Mg and the Mg doping concentration is equal to or higher than 1x10 16 cm -3 and equal to or lower than 2x10 19 cm -3; and the third semiconductor region is configured to be electrically floating. a first semiconductor region (101, 201, 301, 401, 501) disposed over a substrate (100, 200, 300, 400, 500) and having n-type conductivity; a second semiconductor region (103, 203, 303, 403, 503) having n-type conductivity; and a third semiconductor region (102, 202, 302,402, 502) located between the first and second semiconductor regions and having p-type conductivity, a punch-through electrode (115, 215, 315, 415, 515) having an ohmic characteristic with respect to the first semiconductor region; a drain electrode (112, 212, 312, 414, 512, 514) having an ohmic characteristic with respect to the second semiconductor region; a source electrode (110, 210, 310, 413, 510, 513) adjacent to the drain electrode; and a gate electrode (111, 211, 311, 511) between the drain electrode and the source electrode, the third semiconductor region is doped with an acceptor impurity of Mg and the Mg doping concentration is equal to or higher than 1x10 16 cm -3 and equal to or lower than 2x10 19 cm -3; and the third semiconductor region is configured to be electrically floating.
A stapling reload assembly for a circular stapling instrument comprising: a casing; a staple holder attached to the casing; a staple driver comprising an anvil alignment surface, the staple driver receivable within the casing and configured to move within the casing from a pre-fired position to a fired position; and an anvil assembly comprising an anvil shaft, an anvil base surface, an alignment surface, and a staple forming surface, the anvil base surface configured to move from an open position away from the casing to a closed position adjacent the casing; wherein the alignment surface is configured to mate with the anvil alignment surface, to rotationally align the staple forming surface with the staple holder, when the anvil base surface is in the closed position; characterized in that the anvil shaft is integrally molded to the anvil base surface, the alignment surface extends from a top portion of the anvil shaft to a bottom portion of the anvil shaft and a metal shaft is connected to the anvil shaft, wherein the metal shaft does not include an alignment surface to rotationally align the staple forming surface with the staple holder. a casing; a staple holder attached to the casing; a staple driver comprising an anvil alignment surface, the staple driver receivable within the casing and configured to move within the casing from a pre-fired position to a fired position; and an anvil assembly comprising an anvil shaft, an anvil base surface, an alignment surface, and a staple forming surface, the anvil base surface configured to move from an open position away from the casing to a closed position adjacent the casing; wherein the alignment surface is configured to mate with the anvil alignment surface, to rotationally align the staple forming surface with the staple holder, when the anvil base surface is in the closed position; characterized in that the anvil shaft is integrally molded to the anvil base surface, the alignment surface extends from a top portion of the anvil shaft to a bottom portion of the anvil shaft and a metal shaft is connected to the anvil shaft, wherein the metal shaft does not include an alignment surface to rotationally align the staple forming surface with the staple holder.
A laundry dryer comprising - a cabinet, - a drum disposed inside the cabinet, - a heater mounted on the cabinet rear wall, - a casing covering over the heater, formed by cutting and folding a metal plate, which comprises two side walls covering the side surfaces thereof, a ceiling covering the top surface thereof, a substantially isosceles trapezoid shaped deflector secured to the cabinet rear wall by extending from the ceiling towards the cabinet rear wall with an inclination and closing the rear face thereof, and intermediate elements each disposed on one side and which close the space remaining between the deflector and the side wall, characterized by - an intermediate element that is composed of two pieces, a first extension fastened to the side wall and a second extension fastened to the deflector. - a cabinet, - a drum disposed inside the cabinet, - a heater mounted on the cabinet rear wall, - a casing covering over the heater, formed by cutting and folding a metal plate, which comprises two side walls covering the side surfaces thereof, a ceiling covering the top surface thereof, a substantially isosceles trapezoid shaped deflector secured to the cabinet rear wall by extending from the ceiling towards the cabinet rear wall with an inclination and closing the rear face thereof, and intermediate elements each disposed on one side and which close the space remaining between the deflector and the side wall, - an intermediate element that is composed of two pieces, a first extension fastened to the side wall and a second extension fastened to the deflector.
A mobile infant-supporting apparatus comprising: a generally planar child-supporting platform supported above a floor surface by a mobile base; a perimeter frame connected to and disposed generally above the child-supporting platform, the perimeter frame having first and second elongate perimeter frame portions (410,412); an anchor structure connecting the first and second perimeter frame portions (410, 412) to the child-supporting platform, each perimeter frame portion (410,412) being pivotally coupled to the anchor structure to permit movement between generally opposing raised and lowered positions; an actuator handle moveably connected to the anchor structure and operable between raised and lowered positions; and a first resilient member connected between the first perimeter frame portion and the actuator handle, and a second resilient member connected between the second perimeter frame portion and the actuator handle, the resilient members biasing respective perimeter frame portions (410, 412) toward the raised position when the actuator handle is in the raised position and toward the lowered position when the actuator handle is moved to the lowered position, wherein the connection of the resilient members to the actuator handle is positioned above the pivot connections of the perimeter frame portions when the actuator handle is in the raised position and below the pivot connections of the perimeter frame portions (410, 412) when the actuator handle is in the lowered position. a generally planar child-supporting platform supported above a floor surface by a mobile base; a perimeter frame connected to and disposed generally above the child-supporting platform, the perimeter frame having first and second elongate perimeter frame portions (410,412); an anchor structure connecting the first and second perimeter frame portions (410, 412) to the child-supporting platform, each perimeter frame portion (410,412) being pivotally coupled to the anchor structure to permit movement between generally opposing raised and lowered positions; an actuator handle moveably connected to the anchor structure and operable between raised and lowered positions; and a first resilient member connected between the first perimeter frame portion and the actuator handle, and a second resilient member connected between the second perimeter frame portion and the actuator handle, the resilient members biasing respective perimeter frame portions (410, 412) toward the raised position when the actuator handle is in the raised position and toward the lowered position when the actuator handle is moved to the lowered position, wherein the connection of the resilient members to the actuator handle is positioned above the pivot connections of the perimeter frame portions when the actuator handle is in the raised position and below the pivot connections of the perimeter frame portions (410, 412) when the actuator handle is in the lowered position.
A method of forming a substrate comprising: mapping a three dimensional spatial distribution of at least one structural protein fiber of extracellular matrix of biological material of interest, wherein the at least one structural protein fiber comprises collagen fibers and elastin fibers of the extracellular matrix of the biological material; designing a fiber assembly pattern based on an intrinsic pattern of the at least one structural protein fiber of the extracellular matrix of the biological material; and assembling fibers based on the fiber assembly pattern to form the substrate; characterized in that the three dimensional spatial distribution of the collagen fibers and elastin fiber are mapped using second harmonic imaging microscopy imaging of the collagen fibers and two photon excitation imaging microscopy of the elastin fibers and in that the fiber assembly pattern comprises a weaving algorithm based on the intrinsic pattern. mapping a three dimensional spatial distribution of at least one structural protein fiber of extracellular matrix of biological material of interest, wherein the at least one structural protein fiber comprises collagen fibers and elastin fibers of the extracellular matrix of the biological material; designing a fiber assembly pattern based on an intrinsic pattern of the at least one structural protein fiber of the extracellular matrix of the biological material; and assembling fibers based on the fiber assembly pattern to form the substrate; characterized in that the three dimensional spatial distribution of the collagen fibers and elastin fiber are mapped using second harmonic imaging microscopy imaging of the collagen fibers and two photon excitation imaging microscopy of the elastin fibers and in that the fiber assembly pattern comprises a weaving algorithm based on the intrinsic pattern.
An apparatus for activation of at least one element, the apparatus comprising a) at least one activation layer that comprises an electrically conducting polymer, wherein the at least one activation layer is arranged on a surface of a substrate that is made of an electrically insulating material; b) at least one migration layer deposited on the at least one activation layer so that the at least one activation layer and the at least migration layer are in contact, wherein the at least one migration layer is permeable to a fluid along a transversal direction across a surface of the at least one migration layer such that a change in doping level of the electrically conductive polymer of the at least one activation layer is achievable, for activating the at least one activation layer along the transversal direction for the portion of the activation layer that is in contact with the fluid; and c) an encapsulating layer that covers the at least one migration layer, leaving a migration layer edge of the at least one migration layer exposed, so that the migration layer edge is accessible to a fluid for activation of the at least one element. a) at least one activation layer that comprises an electrically conducting polymer, wherein the at least one activation layer is arranged on a surface of a substrate that is made of an electrically insulating material; b) at least one migration layer deposited on the at least one activation layer so that the at least one activation layer and the at least migration layer are in contact, wherein the at least one migration layer is permeable to a fluid along a transversal direction across a surface of the at least one migration layer such that a change in doping level of the electrically conductive polymer of the at least one activation layer is achievable, for activating the at least one activation layer along the transversal direction for the portion of the activation layer that is in contact with the fluid; and c) an encapsulating layer that covers the at least one migration layer, leaving a migration layer edge of the at least one migration layer exposed, so that the migration layer edge is accessible to a fluid for activation of the at least one element.