mhurhangee/ep-ind-claims huggingface dataset:
A device for treating an affected area of the mucosal tissue of a person, the device comprising: a fitting portion having an arcuate shape corresponding to the dental arche of the person; at least one covering portion defined on the fitting portion, the covering portion having a respective outer surface, an upper wing portion and a lower wing portion; at least one bite flange extending from an interior surface of the fitting portion; and an upper ledge extending from the interior surface of the fitting portion and following the arc of the fitting portion, wherein an upper surface of the upper ledge and an upper surface of the at least one bite flange are continuous with one another, characterized in that the at least one covering portion is more flexible than the fitting portion, by being made of a softer or a more flexible material. a fitting portion having an arcuate shape corresponding to the dental arche of the person; at least one covering portion defined on the fitting portion, the covering portion having a respective outer surface, an upper wing portion and a lower wing portion; at least one bite flange extending from an interior surface of the fitting portion; and an upper ledge extending from the interior surface of the fitting portion and following the arc of the fitting portion, wherein an upper surface of the upper ledge and an upper surface of the at least one bite flange are continuous with one another, characterized in that the at least one covering portion is more flexible than the fitting portion, by being made of a softer or a more flexible material.
A bumper system (20;20') for use with a compressor variable vane system, said bumper system comprising: a synchronizing ring; a bumper joined to said synchronizing ring; a shim for defining a gap between a bumper pad and said bumper; and means for trapping the shim; and means for preventing rotation of said bumper relative to said synchronizing ring, characterised in that said shim has a slot; and in that said means for trapping the shim comprises a shim-lockable sleeve or a shoulder of a fastener engaged with side walls of the slot, wherein the shim-lockable sleeve or the shoulder has a diameter greater than a width dimension of said slot. a synchronizing ring; a bumper joined to said synchronizing ring; a shim for defining a gap between a bumper pad and said bumper; and means for trapping the shim; and means for preventing rotation of said bumper relative to said synchronizing ring, characterised in that said shim has a slot; and in that said means for trapping the shim comprises a shim-lockable sleeve or a shoulder of a fastener engaged with side walls of the slot, wherein the shim-lockable sleeve or the shoulder has a diameter greater than a width dimension of said slot.
A method for sending Physical Downlink Control Channel, PDCCH, signaling, comprising: determining locations of a first search space and a second search space of a User Equipment, UE; and sending a PDCCH signaling with a Carrier Indication Field, CIF to the UE in a physically overlapped region between the first search space and the second search space within a time interval from sending radio resource control, RRC, signaling to the UE to receiving RRC connection reconfiguration complete signaling returned by the UE if the physically overlapped region exists and a length of first PDCCH signaling with no CIF in the first search space is equal to a length of second PDCCH signaling with the CIF in the second search space; wherein the PDCCH signaling with the CIF is of other types than that of the first PDCCH signaling and the second PDCCH signaling, and the first search space and the second search space include two UESSs that are used to schedule different component carriers, CCs, of the UE. determining locations of a first search space and a second search space of a User Equipment, UE; and sending a PDCCH signaling with a Carrier Indication Field, CIF to the UE in a physically overlapped region between the first search space and the second search space within a time interval from sending radio resource control, RRC, signaling to the UE to receiving RRC connection reconfiguration complete signaling returned by the UE if the physically overlapped region exists and a length of first PDCCH signaling with no CIF in the first search space is equal to a length of second PDCCH signaling with the CIF in the second search space; wherein the PDCCH signaling with the CIF is of other types than that of the first PDCCH signaling and the second PDCCH signaling, and the first search space and the second search space include two UESSs that are used to schedule different component carriers, CCs, of the UE.
A method performed by a network node in a wireless communication system, the method comprising: determining whether a voice session between a user equipment, UE, and an internet protocol, IP, multimedia subsystem, IMS, is initiated by an application regarding web real time communication, web RTC; if the voice session is initiated by the application regarding webRTC, determining a quality of service, QoS, class identifier, QCI for the voice session to be different from a QCI-1; and transmitting, to a enhanced NodeB, eNB, information comprising the determined QCI for the voice session initiated by the application regarding web RTC. determining whether a voice session between a user equipment, UE, and an internet protocol, IP, multimedia subsystem, IMS, is initiated by an application regarding web real time communication, web RTC; if the voice session is initiated by the application regarding webRTC, determining a quality of service, QoS, class identifier, QCI for the voice session to be different from a QCI-1; and transmitting, to a enhanced NodeB, eNB, information comprising the determined QCI for the voice session initiated by the application regarding web RTC.
A spunbond nonwoven substrate having a first surface defining a plane of the first surface; and a plurality of three-dimensional features extending outwardly from the plane of the of the first surface, wherein the plurality of three-dimensional features comprise: a first three-dimensional feature having a first intensive property having a first value; and a second three-dimensional feature having the first intensive property having a second value different from the first value; wherein the first intensive property is basis weight, wherein the first three-dimensional feature has a second intensive property having a third value, and wherein the second three-dimensional feature has the second intensive property having a fourth value, and wherein the third and fourth values are different, and the second intensive property is density, wherein the spunbond nonwoven substrate is characterized in that: the first value is at least 1.5 times higher than the second value; each of the plurality of three-dimensional features (20, 22) is bounded by a curvilinear closed figure, the curvilinear closed figure forming a region having a higher density relative to the interior of the respective three-dimensional feature (20, 22); and the spunbond nonwoven substrate is point bonded to provide an MD Fuzz Value of less than 0.25 mg/cm 2 when tested according to the Fuzz Level Test herein. a first three-dimensional feature having a first intensive property having a first value; and a second three-dimensional feature having the first intensive property having a second value different from the first value; wherein the first intensive property is basis weight, wherein the first three-dimensional feature has a second intensive property having a third value, and wherein the second three-dimensional feature has the second intensive property having a fourth value, and wherein the third and fourth values are different, and the second intensive property is density, wherein the spunbond nonwoven substrate is characterized in that: the first value is at least 1.5 times higher than the second value; each of the plurality of three-dimensional features (20, 22) is bounded by a curvilinear closed figure, the curvilinear closed figure forming a region having a higher density relative to the interior of the respective three-dimensional feature (20, 22); and the spunbond nonwoven substrate is point bonded to provide an MD Fuzz Value of less than 0.25 mg/cm 2 when tested according to the Fuzz Level Test herein. the first value is at least 1.5 times higher than the second value; each of the plurality of three-dimensional features (20, 22) is bounded by a curvilinear closed figure, the curvilinear closed figure forming a region having a higher density relative to the interior of the respective three-dimensional feature (20, 22); and the spunbond nonwoven substrate is point bonded to provide an MD Fuzz Value of less than 0.25 mg/cm 2 when tested according to the Fuzz Level Test herein.
A container comprising; a releasable metal closure formed with an end wall and a depending skirt; and a glass container body comprising a neck with an annular sealing surface surrounding a circular opening the container body and the closure are formed with no mechanical means for coupling them together to form or maintain a seal therebetween, in particular not threaded or crimped, wherein the annular sealing surface of the container body is formed with a localised protrusion (5; 25) or recess which provides a discontinuity in the annular sealing interface; characterized in that the annular sealing surface is adapted to seal against an annular layer of sealing compound provided on the inside of the end wall adjacent the skirt in the closed position of the closure on the container body, and the seal is also provided by a partial vacuum formed in the container during processing; whereby relative rotation of the closure and the container body from the closed position creates a venting path from the interior of the container body to the exterior so that the seal is broken and the closure is released, in particular such that the closure cannot be properly resealed to the container body after opening and release of the vacuum.
A method for creating an authentication entity derived from an original data carrier, wherein the original data carrier has firstly a key pair that is individual to the original data carrier and comprises a public key and a secret key of the original data carrier, and secondly a certificate (C PKO) for the public key of the original data carrier, comprising the steps of: deriving a secret key for the authentication entity from the secret key of the original data carrier with an derivation value by the original data carrier; forming (TS33, S5) derivation data (g1, C g1) from the derivation value for the derived authentication entity; transferring authentication data to the derived authentication entity, wherein the authentication data have the derivation data (g1, C g1), the certificate (C PKO) of the public key of the original data carrier as well as a derived key pair which comprises the derived secret key and the public key of the original data carrier. deriving a secret key for the authentication entity from the secret key of the original data carrier with an derivation value by the original data carrier; forming (TS33, S5) derivation data (g1, C g1) from the derivation value for the derived authentication entity; transferring authentication data to the derived authentication entity, wherein the authentication data have the derivation data (g1, C g1), the certificate (C PKO) of the public key of the original data carrier as well as a derived key pair which comprises the derived secret key and the public key of the original data carrier.
A process to form an ethylene-based polymer, said process comprising polymerizing ethylene and at least one asymmetrical polyene, comprising an "alpha, beta unsaturated - carbonyl end" and a "C-C double bond end," and wherein the polymerization takes place in the presence of at least one free-radical initiator; and wherein the polymerization takes place in a reactor configuration comprising at least two reaction zones, reaction zone 1 and reaction zone i (i ≥ 2), wherein reaction zone i is downstream from reaction zone 1, wherein the asymmetrical polyene is selected from the group consisting of the following: i) wherein n is from 1 to 50; Ra is selected from H or alkyl; Rb is selected from H or alkyl; vii) viii) wherein more polyene is added to reaction zone i compared to the amount of polyene added to reaction zone 1, or wherein more polyene is added to reaction zone 1 as compared to the amount of polyene added to reaction zone i. i) wherein n is from 1 to 50; Ra is selected from H or alkyl; Rb is selected from H or alkyl; vii) viii)
A method for measuring temperature, characterized in that the temperature is determined from frequency variation of a local oscillator of a RFID tag and said frequency variation is determined by a RFID reader device by varying the duration of TRcal.
A crystallizing glass solder for high temperature uses, containing (in % by weight on oxide basis) 45 % to 60 % of BaO, 25 % to 40 % of SiO 2, 5 % to 15 % of B 2 O 3, 0 to < 2 % of Al 2 O 3 as well as at least one alkaline earth oxide from the group MgO, CaO and SrO, wherein the sum of the alkaline earth oxides of MgO, CaO and SrO is 2 % to 20 %.
A monofilament comprising a matrix of thermoplastic polymer selected from the group comprising polyethylene terephthalate homo- or -copolymers, polybutylene terephthalate homo- or -copolymers or the polyamides and dispersed therein particles of silsesquioxane which are from 10 nm to 200 μm in diameter.
A radiation image processing method comprising: obtaining a radiation image using an indirect radiation detector comprising a scintillator panel and a pixel array panel; determining a parameter value for defining a point spread function according to at least any one among a thickness of the scintillator panel, a type of a scintillator, and a pixel size of the pixel array panel; and correcting the radiation image by deconvoluting the radiation image using the PSF to which the parameter value is applied, wherein, in the determining a parameter value, the parameter value is determined so that a correction image deconvoluting the radiation image using the PSF satisfies an image quality reference, and the image quality reference comprises a condition that a detective quantum efficiency value of the correction image deconvoluting the radiation image is maintained in a range of 90% to 110% of a DQE value of the radiation image in a same spatial frequency. obtaining a radiation image using an indirect radiation detector comprising a scintillator panel and a pixel array panel; determining a parameter value for defining a point spread function according to at least any one among a thickness of the scintillator panel, a type of a scintillator, and a pixel size of the pixel array panel; and correcting the radiation image by deconvoluting the radiation image using the PSF to which the parameter value is applied, wherein, in the determining a parameter value, the parameter value is determined so that a correction image deconvoluting the radiation image using the PSF satisfies an image quality reference, and the image quality reference comprises a condition that a detective quantum efficiency value of the correction image deconvoluting the radiation image is maintained in a range of 90% to 110% of a DQE value of the radiation image in a same spatial frequency.
A device for protecting wristwatches or jewelry comprising: a support cushion having a first end and a second end, wherein the first end of the support cushion is an open end, and the second end of the support cushion is a closed end; a tubular protective sheath having a first end and a second end, wherein the first end of the protective sheath is integrally connected to the first end of the support cushion; wherein the support cushion has a suitable thickness and size for fitting one or more wristwatches or jewelry to be protected thereon and providing support therefor; and wherein the protective sheath is foldable toward the second end of the support cushion to cover at least a portion of the support cushion on which the wristwatch or jewelry fitted. a support cushion having a first end and a second end, wherein the first end of the support cushion is an open end, and the second end of the support cushion is a closed end; a tubular protective sheath having a first end and a second end, wherein the first end of the protective sheath is integrally connected to the first end of the support cushion; wherein the support cushion has a suitable thickness and size for fitting one or more wristwatches or jewelry to be protected thereon and providing support therefor; and wherein the protective sheath is foldable toward the second end of the support cushion to cover at least a portion of the support cushion on which the wristwatch or jewelry fitted.
A nozzle for a cleaner comprising: a main nozzle; a movable nozzle (320, 330) rotatably provided at the main nozzle; and a rotary cleaning unit which is provided inside the main nozzle and the movable nozzle (320, 330) and cleans a floor surface using rotary motion, wherein the rotary cleaning unit includes: a rotation portion rotatably provided inside the main nozzle; and an auxiliary cleaning portion (350, 360) provided inside the movable nozzle (320, 330) and connected to the rotation portion, and the auxiliary cleaning portion (350, 360) rotates using a rotational force transmitted from the rotation portion, characterised in that the main nozzle or the movable nozzle (320, 330) further includes a sealing portion (315, 316, 317, 318) configured to seal a gap between the main nozzle and the movable nozzle (320, 330), wherein the sealing portion (315, 316, 317, 318) is formed in a curved shape to correspond to the changeable gap between the main nozzle and the movable nozzle (320, 330). a main nozzle; a movable nozzle (320, 330) rotatably provided at the main nozzle; and a rotary cleaning unit which is provided inside the main nozzle and the movable nozzle (320, 330) and cleans a floor surface using rotary motion, wherein the rotary cleaning unit includes: a rotation portion rotatably provided inside the main nozzle; and an auxiliary cleaning portion (350, 360) provided inside the movable nozzle (320, 330) and connected to the rotation portion, and the auxiliary cleaning portion (350, 360) rotates using a rotational force transmitted from the rotation portion, characterised in that the main nozzle or the movable nozzle (320, 330) further includes a sealing portion (315, 316, 317, 318) configured to seal a gap between the main nozzle and the movable nozzle (320, 330), wherein the sealing portion (315, 316, 317, 318) is formed in a curved shape to correspond to the changeable gap between the main nozzle and the movable nozzle (320, 330). a rotation portion rotatably provided inside the main nozzle; and an auxiliary cleaning portion (350, 360) provided inside the movable nozzle (320, 330) and connected to the rotation portion, and the auxiliary cleaning portion (350, 360) rotates using a rotational force transmitted from the rotation portion, characterised in that the main nozzle or the movable nozzle (320, 330) further includes a sealing portion (315, 316, 317, 318) configured to seal a gap between the main nozzle and the movable nozzle (320, 330), wherein the sealing portion (315, 316, 317, 318) is formed in a curved shape to correspond to the changeable gap between the main nozzle and the movable nozzle (320, 330).
A method of printing in a small transition region where a first subdivided region and a second sub-divided region of a printable region overlap wherein a separate one of a first printhead array and a second printhead array prints to each of said first and second sub-divided regions with both printhead arrays printing in said transition region, the method to make said transition region after printing undetectable to the eye, said method comprising the steps of: a) transporting said first printhead array only across the first sub-divided region and said second printhead array only across the second subdivided region; b) firing said first and second printhead arrays when adjacent said transition region, with the fraction of dots printed i. from said first printhead array gradually decreasing as viewed from the first sub-divided region to the second sub-divided region; and ii. from said second printhead array gradually increasing as viewed from the first sub-divided region to the second sub-divided region; wherein, in the transition region, the fraction of dots printed by the first printhead array plus the fraction of dots printed by the second printhead array exceed a total of 1.0, thus exceeding the number of dots that would have been printed had the transition region been entirely printed by a single printhead array; and c) firing each of said first printhead array and said second print array in the corresponding sub-divided region using a halftone mask with the mask being different for each of the first and second printhead arrays with said masks uncorrelated one with the other. a) transporting said first printhead array only across the first sub-divided region and said second printhead array only across the second subdivided region; b) firing said first and second printhead arrays when adjacent said transition region, with the fraction of dots printed i. from said first printhead array gradually decreasing as viewed from the first sub-divided region to the second sub-divided region; and ii. from said second printhead array gradually increasing as viewed from the first sub-divided region to the second sub-divided region; wherein, in the transition region, the fraction of dots printed by the first printhead array plus the fraction of dots printed by the second printhead array exceed a total of 1.0, thus exceeding the number of dots that would have been printed had the transition region been entirely printed by a single printhead array; and i. from said first printhead array gradually decreasing as viewed from the first sub-divided region to the second sub-divided region; and ii. from said second printhead array gradually increasing as viewed from the first sub-divided region to the second sub-divided region; c) firing each of said first printhead array and said second print array in the corresponding sub-divided region using a halftone mask with the mask being different for each of the first and second printhead arrays with said masks uncorrelated one with the other.
A method for providing a plurality of fire pulses in an ink jet printer, comprising the steps of: producing a plurality of fire signals (F1, F2) for each of a plurality of ink colours, each fire signal of said plurality of fire signals being asserted at a different timing than other of said plurality of fire signals; and combining said plurality of fire signals to form a composite fire signal for each ink colour that maintains said different timing. producing a plurality of fire signals (F1, F2) for each of a plurality of ink colours, each fire signal of said plurality of fire signals being asserted at a different timing than other of said plurality of fire signals; and combining said plurality of fire signals to form a composite fire signal for each ink colour that maintains said different timing.
A method of manufacturing a semiconductor chip apparatus comprising: forming a plurality of first peripherally placed through-silicon-vias (100f-100i) in a first semiconductor chip, each first through-silicon-via including a first end and a second end; forming a first die seal proximate, and in ohmic contact with, first ends of the plurality of first through-silicon-vias; and forming a second die seal proximate, and in ohmic contact with, second ends of the plurality of first through-silicon-vias. forming a plurality of first peripherally placed through-silicon-vias (100f-100i) in a first semiconductor chip, each first through-silicon-via including a first end and a second end; forming a first die seal proximate, and in ohmic contact with, first ends of the plurality of first through-silicon-vias; and forming a second die seal proximate, and in ohmic contact with, second ends of the plurality of first through-silicon-vias.