mhurhangee/ep-ind-claims huggingface dataset:
A microfluidic device comprising: a separation medium having a first flow path with a first directional axis; and a protein renaturation component in fluid communication with the separation medium and having a second flow path with a second directional axis aligned in a different direction from the first directional axis, and characterised in that the microfluidic device further comprises a binding medium in fluid communication with the separation medium and having a third flow path. a separation medium having a first flow path with a first directional axis; and a protein renaturation component in fluid communication with the separation medium and having a second flow path with a second directional axis aligned in a different direction from the first directional axis, and characterised in that the microfluidic device further comprises a binding medium in fluid communication with the separation medium and having a third flow path.
Fastening and guiding device for electric harnesses running between a longitudinal member and a covering lining (9, 10); said device comprising an elongated main body intended to be fixed by means of fixing means against and along said longitudinal beam between the latter and said covering lining (9, 10), said body comprising a first longitudinal chute with inverted U-section intended to receive a first said electrical beam and comprising a roof and two side walls (32, 33), said body also comprising cover means (34, 35) mounted articulated on said first chute head and capable of closing at least the major part of the latter, said fastening and guiding device being characterized in that said body comprises a second longitudinal channel with a U-shaped section adjoining said first channel, designed to receive a second said electrical beam, and comprising a sole and two side walls (42, 43), the second channel comprising a sole and two side walls (42, 43) one of which merges here the side wall of the inner chute so as to form a partition between these two chutes (30, 40).
A secondary battery, comprising: a cap plate; electrode terminals, disposed on the cap plate; an electrode assembly, comprising a main body and tabs extending from the main body, wherein each of the tabs comprises a connection portion and a bend portion, the connection portion is electrically connected to one of the electrode terminals, and the bend portion is bent against the connection portion and is connected between the connection portion and the main body; and a first insulation member, disposed at a side that is of the connection portion and that is away from the cap plate, wherein the first insulation member comprises a first insulator connected to the connection portion, a second insulator connected to the main body, and a third insulator connected between the first insulator and the second insulator, wherein the third insulator connects the first insulator and the second insulator together; the secondary battery being characterized in that at least a part of a surface that is of the bend portion and that is orientated toward the first insulation member is covered by the third insulator and not fixed to the third insulator. a cap plate; electrode terminals, disposed on the cap plate; an electrode assembly, comprising a main body and tabs extending from the main body, wherein each of the tabs comprises a connection portion and a bend portion, the connection portion is electrically connected to one of the electrode terminals, and the bend portion is bent against the connection portion and is connected between the connection portion and the main body; and a first insulation member, disposed at a side that is of the connection portion and that is away from the cap plate, wherein the first insulation member comprises a first insulator connected to the connection portion, a second insulator connected to the main body, and a third insulator connected between the first insulator and the second insulator, wherein the third insulator connects the first insulator and the second insulator together; the secondary battery being characterized in that at least a part of a surface that is of the bend portion and that is orientated toward the first insulation member is covered by the third insulator and not fixed to the third insulator.
A non-aqueous electrolyte solution for a lithium secondary battery, comprising an electrolyte salt and an organic solvent, wherein the non-aqueous electrolyte solution further comprises a first ester-based compound having the following formula and a second ester-based compound having the following formula, and the amount of the first and the second ester-based compounds is in the range of 50 to 90 vol% based on the total volume of the organic solvent and the ester-based compounds: wherein, R 1 is straight- or branched-chain alkyl group having 1 to 10 carbon atoms; R 2 is isoalkyl group having 3 to 8 carbon atoms, sec -alkyl group having 4 to 8 carbon atoms or tert -alkyl group having 4 to 8 carbon atoms; R 3 and R 4 are straight-chain alkyl group having 1 to 10 carbon atoms; and the volume mixing ratio (a:b) of the first ester-based compound (a) and the second ester-based compound (b) is 80:20 to 20:80. R 1 is straight- or branched-chain alkyl group having 1 to 10 carbon atoms; R 2 is isoalkyl group having 3 to 8 carbon atoms, sec -alkyl group having 4 to 8 carbon atoms or tert -alkyl group having 4 to 8 carbon atoms; R 3 and R 4 are straight-chain alkyl group having 1 to 10 carbon atoms; and the volume mixing ratio (a:b) of the first ester-based compound (a) and the second ester-based compound (b) is 80:20 to 20:80.
A method being performed by a user equipment, UE, (100; 600; 700; 800; 1000; 1402) in a system comprising the UE (100; 600; 700; 800; 1000; 1402), an identity provider, IdP, (110; 302; 604; 704; 804; 906) and a service provider,.SP, (102; 204; 300; 602; 702; 802; 904; 1006) which communicate via a network, the method comprising: receiving (808; 910) a request for at least one token, wherein the request for the token is responsive to a request for access to a service provided by the service provider (102; 204; 300; 602; 702; 802; 904; 1006); in response to the request for the at least one token creating (812; 918) an identity, ID, token and an access token in accordance with the request for the at least one token; issuing (814; 920) the access token, wherein the access token is verified so that a user attribute can be retrieved from a user information endpoint that resides on the UE (100; 600; 700; 800; 1000; 1402); and issuing (814; 920) the ID token, wherein the ID token is verified to provide the UE (100; 600; 700; 800; 1000; 1402) access to the service. receiving (808; 910) a request for at least one token, wherein the request for the token is responsive to a request for access to a service provided by the service provider (102; 204; 300; 602; 702; 802; 904; 1006); in response to the request for the at least one token creating (812; 918) an identity, ID, token and an access token in accordance with the request for the at least one token; issuing (814; 920) the access token, wherein the access token is verified so that a user attribute can be retrieved from a user information endpoint that resides on the UE (100; 600; 700; 800; 1000; 1402); and issuing (814; 920) the ID token, wherein the ID token is verified to provide the UE (100; 600; 700; 800; 1000; 1402) access to the service.
A method of preparing a solid dosage form, comprising the steps of: a. preparing a binder consisting of at least one polyunsaturated fatty acid salt; b. adding the binder and further ingredients to a mixer; c. optionally carrying out one or more of the following steps: granulation, drying and sizing, d. blending the contents of the mixer; e. compressing or slugging the blended contents to produce a solid dosage form, wherein the binding parameter for the solid dosage form is at least 2 and is determined by: BP = H C wherein H is the tablet breaking force in Newton and C is the compression force in kilo Newton (kN). a. preparing a binder consisting of at least one polyunsaturated fatty acid salt; b. adding the binder and further ingredients to a mixer; c. optionally carrying out one or more of the following steps: granulation, drying and sizing, d. blending the contents of the mixer; e. compressing or slugging the blended contents to produce a solid dosage form, wherein the binding parameter for the solid dosage form is at least 2 and is determined by: BP = H C wherein H is the tablet breaking force in Newton and C is the compression force in kilo Newton (kN).
A steam generator comprising: a heating chamber comprising a chamber body and a chamber cover coupled to the chamber body, the heating chamber having a heating space defined between the chamber body and the chamber cover, a water supply hole through which steam water is supplied into the heating space, and a steam discharge hole disposed above the water supply hole to discharge steam; one steam heater inserted into one of the chamber body and the chamber cover, the steam heater heating the steam water stored in the heating space to generate the steam, and a barrier member disposed in at least one side of the chamber body and the chamber cover, characterized in that the barrier member prevents the steam water supplied and dropping into the heating space through the water supply hole from colliding with and spring up one side of at least one direction of the chamber body and the chamber cover, thereby being discharged through the water supply hole. a heating chamber comprising a chamber body and a chamber cover coupled to the chamber body, the heating chamber having a heating space defined between the chamber body and the chamber cover, a water supply hole through which steam water is supplied into the heating space, and a steam discharge hole disposed above the water supply hole to discharge steam; one steam heater inserted into one of the chamber body and the chamber cover, the steam heater heating the steam water stored in the heating space to generate the steam, and a barrier member disposed in at least one side of the chamber body and the chamber cover, characterized in that the barrier member prevents the steam water supplied and dropping into the heating space through the water supply hole from colliding with and spring up one side of at least one direction of the chamber body and the chamber cover, thereby being discharged through the water supply hole.
Method for the preparation of a controlled release system comprising a polymer matrix incorporating an active ingredient, comprising the steps of: (i) mixing an active ingredient comprising a reactive polymerisable moiety coupled to the active ingredient through a degradable linker, with an aqueous solution or dispersion comprising polymer chains comprising at least one reactive polymerisable moiety, capable of reacting with the reactive moiety of the active ingredient, the polymer chains further being capable of cross-linking intra- or intermolecularly; and (ii) subjecting this mixture to cross-linking forming a polymer matrix under such conditions that simultaneous with the formation of the polymer matrix the active ingredient is covalently entrapped in this polymer matrix, wherein the polymer chains are thermo-sensitive polymer chains and are selected from (co)polymers based on hydrophobically modified esters of N- hydroxyalkyl-(meth)acrylamide or N -(methyl)acryloyl amino acids. (i) mixing an active ingredient comprising a reactive polymerisable moiety coupled to the active ingredient through a degradable linker, with an aqueous solution or dispersion comprising polymer chains comprising at least one reactive polymerisable moiety, capable of reacting with the reactive moiety of the active ingredient, the polymer chains further being capable of cross-linking intra- or intermolecularly; and (ii) subjecting this mixture to cross-linking forming a polymer matrix under such conditions that simultaneous with the formation of the polymer matrix the active ingredient is covalently entrapped in this polymer matrix,
A method for operating a subset of transmission points in a set of transmission points (120a-120d) of a telecommunications cell, the set of transmissions points being associated with an eNodeB, eNB, in the cell, and the method comprising: each transmission point of the subset of transmission points transmitting a unicast physical downlink control channel, PDCCH, intended only for a specific user equipment, UE, in the cell; wherein the unicast PDCCH has allocated to it a plurality of resource element groups, REGs, within corresponding control channel elements, CCEs, allocated to a legacy PDCCH, wherein at least one resource element in each REG, that is not allocated for cell-specific reference signal, CRS, being broadcast in the cell, is replaced with a UE-specific demodulation reference signal, DMRS, to be used for decoding, at the UE, the unicast PDCCH without the use of the CRS being broadcast by the eNB, and wherein a remainder of the set of transmission points (120a, 120c, 120d) other than the subset of transmission points does not transmit the unicast PDCCH, wherein the subset of transmission points is closer to the UE than the remainder of the set of transmission points, wherein the same legacy PDCCH resource is reused for transmitting another UE-specific DMRS intended only for another specific UE via another subset of transmission points in the remainder of the set of transmission points having non-overlapping coverage areas with the subset of transmission points. each transmission point of the subset of transmission points transmitting a unicast physical downlink control channel, PDCCH, intended only for a specific user equipment, UE, in the cell; wherein the unicast PDCCH has allocated to it a plurality of resource element groups, REGs, within corresponding control channel elements, CCEs, allocated to a legacy PDCCH, wherein at least one resource element in each REG, that is not allocated for cell-specific reference signal, CRS, being broadcast in the cell, is replaced with a UE-specific demodulation reference signal, DMRS, to be used for decoding, at the UE, the unicast PDCCH without the use of the CRS being broadcast by the eNB, and wherein a remainder of the set of transmission points (120a, 120c, 120d) other than the subset of transmission points does not transmit the unicast PDCCH, wherein the subset of transmission points is closer to the UE than the remainder of the set of transmission points, wherein the same legacy PDCCH resource is reused for transmitting another UE-specific DMRS intended only for another specific UE via another subset of transmission points in the remainder of the set of transmission points having non-overlapping coverage areas with the subset of transmission points.
A frozen confection product comprising a frozen confection and a flexible flow-wrap wrapper, wherein the flexible flow-wrap wrapper comprises an inner material and at least one subsequent material, wherein the inner material has a water vapour transmission rate of at least 300 gm -2 per 24 hr, the subsequent material has a water vapour transmission rate of at most 300 gm -2 per 24 hr; wherein water vapour transmission rate is measured according to test method: ASTM 1249-13 at 38 °C and 90% humidity, the frozen confection is adjacent to the inner material and the flexible flow-wrap wrapper is closed or sealed.
An audio decoder (200; 400) for providing a decoded audio information (220; 412) on the basis of an encoded audio information (210;410), the audio decoder comprising: an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) derived from one or more audio frames encoded in frequency domain representation preceding a lost audio frame, in order to obtain the error concealment audio information; wherein, for audio frames encoded using the frequency domain representation, the encoded audio information comprises an encoded representation of spectral values and scale factors representing a scaling of different frequency bands. an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) derived from one or more audio frames encoded in frequency domain representation preceding a lost audio frame, in order to obtain the error concealment audio information; wherein, for audio frames encoded using the frequency domain representation, the encoded audio information comprises an encoded representation of spectral values and scale factors representing a scaling of different frequency bands.
A flow-through optical spin exchange hyperpolarized gas production system for producing hyperpolarized gas comprising: a pre-saturation chamber having a ratio of surface area to cross-sectional area (Area Ratio, AR) of between 20 and 500, wherein the pre-saturation chamber comprises alkali metal therein; a heat source in communication with the pre-saturation chamber configured to heat the pre-saturation chamber to between 140 Celsius and 300 Celsius; a flow-through optical pumping cell in fluid communication with the pre-saturation chamber; and a heat source in communication with the optical pumping cell, wherein the heat source is configured to heat the optical pumping cell to a temperature that is less than the pre-saturation chamber. a pre-saturation chamber having a ratio of surface area to cross-sectional area (Area Ratio, AR) of between 20 and 500, wherein the pre-saturation chamber comprises alkali metal therein; a heat source in communication with the pre-saturation chamber configured to heat the pre-saturation chamber to between 140 Celsius and 300 Celsius; a flow-through optical pumping cell in fluid communication with the pre-saturation chamber; and a heat source in communication with the optical pumping cell, wherein the heat source is configured to heat the optical pumping cell to a temperature that is less than the pre-saturation chamber.
Method for optimizing the operability of the engine set of an aircraft including main engines as main drive sources, characterized in that it consists, by means of an engine-type main power source fit for the certification as engine usable during all flight phases as a drive source, in producing the totality of the non-propulsive energy (Enp) and, during the transient phases of the engines, in supplying at most partially an additional power (kEp, k t Ept) to the high-pressure body HP of the main engines and in increasing the surge margin of the main engines.
Device for receiving an electric motor which extends along a longitudinal axis comprising a motor support capable of housing the electric motor, and comprising an intermediate wall, a collar and at least one decoupling means connecting the intermediate wall and the collar, the collar comprising at least one first means for immobilizing the electric motor, the receiving device comprising a ring distinct from the collar and comprising at least one second means for immobilizing the electric motor, the collar and the ring being connected to one another by at least one fastening means, wherein the ring comprises an insert means adapting dimensions of the receiving device to the dimensions of said motor characterized in that the insert means takes the form of at least one arm which emerges from the ring and which is capable of being inserted between said motor and said collar.
A system comprising: a cochlear implant configured to be implanted within a patient; a sound processor configured to be located external to the patient and to direct the cochlear implant to apply electrical stimulation representative of one or more audio signals to the patient; a headpiece configured to be located external to the patient and to be communicatively coupled to the sound processor, the headpiece comprising one or more interface components configured to facilitate selective wireless coupling of the sound processor to the cochlear implant; and an implantable battery configured to be implanted within the patient and to provide operating power for the cochlear implant, characterized in that the cochlear implant is further configured to: determine that a signal is not being provided by way of the headpiece; determine, in response to the determination that the signal is not being provided by way of the headpiece, that an amount of power remaining in the implantable battery is above a predetermined threshold amount; and initiate, in response to the determination that the amount of power remaining in the implantable battery is above the predetermined threshold, an idle mode in which the cochlear implant remains powered on while waiting for one or more signals to be provided by way of the headpiece. a cochlear implant configured to be implanted within a patient; a sound processor configured to be located external to the patient and to direct the cochlear implant to apply electrical stimulation representative of one or more audio signals to the patient; a headpiece configured to be located external to the patient and to be communicatively coupled to the sound processor, the headpiece comprising one or more interface components configured to facilitate selective wireless coupling of the sound processor to the cochlear implant; and an implantable battery configured to be implanted within the patient and to provide operating power for the cochlear implant, determine that a signal is not being provided by way of the headpiece; determine, in response to the determination that the signal is not being provided by way of the headpiece, that an amount of power remaining in the implantable battery is above a predetermined threshold amount; and initiate, in response to the determination that the amount of power remaining in the implantable battery is above the predetermined threshold, an idle mode in which the cochlear implant remains powered on while waiting for one or more signals to be provided by way of the headpiece.