mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a plurality of electrochemical cells arranged in a series along an axis to form an electrochemical stack; and a compression system comprising a structure having a defined shape that is configured to receive and contain: the electrochemical stack located between end blocks (12A, 12B); and at least one compression mechanism (14A, 14B) configured to apply a compressive force to the electrochemical stack located adjacent to and along the axis of the electrochemical stack; wherein the structure is formed of wound fibers that form a continuous border surrounding the electrochemical stack and the at least one compression mechanism (14A, 14B); characterized in that the compression mechanism comprises gibs (14A, 14B) inserted between the stack and an end block, the gibs (14A, 14B) each having a flat surface and an opposite, angled surface; wherein the flat surface of one gib lies adjacent the stack; and wherein the angled surface of another gib is sloped at an angle complimentary to the angled surface of the one gib and is inserted adjacent the angled surface of said one gib. a plurality of electrochemical cells arranged in a series along an axis to form an electrochemical stack; and a compression system comprising a structure having a defined shape that is configured to receive and contain: the electrochemical stack located between end blocks (12A, 12B); and at least one compression mechanism (14A, 14B) configured to apply a compressive force to the electrochemical stack located adjacent to and along the axis of the electrochemical stack; the electrochemical stack located between end blocks (12A, 12B); and at least one compression mechanism (14A, 14B) configured to apply a compressive force to the electrochemical stack located adjacent to and along the axis of the electrochemical stack; wherein the structure is formed of wound fibers that form a continuous border surrounding the electrochemical stack and the at least one compression mechanism (14A, 14B); characterized in that the compression mechanism comprises gibs (14A, 14B) inserted between the stack and an end block, the gibs (14A, 14B) each having a flat surface and an opposite, angled surface; wherein the flat surface of one gib lies adjacent the stack; and wherein the angled surface of another gib is sloped at an angle complimentary to the angled surface of the one gib and is inserted adjacent the angled surface of said one gib.
A rubber composition for pneumatic tires, comprising, per 100 parts by mass of a rubber component including a butyl-based rubber: 100 to 400 parts by mass of a liquid polymer; 1 to 40 parts by mass of an organic peroxide; 1 to 40 parts by mass of a crosslinking activator; and 1 to 40 parts by mass of a plasticizer. 100 to 400 parts by mass of a liquid polymer; 1 to 40 parts by mass of an organic peroxide; 1 to 40 parts by mass of a crosslinking activator; and 1 to 40 parts by mass of a plasticizer.
A front portion structure of a saddle-ride type vehicle including a head pipe provided in a vehicle body frame, a steering shaft rotatably supported by the head pipe and having a handlebar attached to an upper end of the steering shaft, a bridge member provided at a lower end portion of the steering shaft, a fork member extending from the bridge member and supporting a front wheel, a handle stopper (101L, 101R) protruding upward from a position on the bridge member close to the head pipe and configured to restrict a steering angle of the handlebar by contacting the vehicle body frame, and a flexible member (73, 74) extending from equipment around the handlebar above the handle stopper (101L, 101 R) and connected to equipment provided on a vehicle body side, wherein a stopper cover provided between the handle stopper (101 L, 101 R) and the flexible member (73, 74) and configured to guide the flexible member (73, 74) away from the handle stopper (101L, 101R) is attached to the vehicle body frame or the bridge member; characterized in that the stopper cover has a tapered face which is gradually made close to the steering shaft in an upward direction.
A biaxially oriented polyamide film formed of a polyamide resin containing not lower than 60% by mass of polyamide 6, wherein a molecular orientation angle of the film is not smaller than 20°, a strain at moisture absorption of the film is not higher than 1.3%, an impact strength of the film is not lower than 0.8 J/15 μm, and a heat shrinkage rate, after heating for ten minutes at 160°C, of the film is 0.6 to 3.0% in both an MD direction and a TD direction, wherein the molecular orientation angle, the strain at moisture absorption, the impact strength and the heat shrinkage rate are determined by the methods defined in the description. a molecular orientation angle of the film is not smaller than 20°, a strain at moisture absorption of the film is not higher than 1.3%, an impact strength of the film is not lower than 0.8 J/15 μm, and a heat shrinkage rate, after heating for ten minutes at 160°C, of the film is 0.6 to 3.0% in both an MD direction and a TD direction, wherein the molecular orientation angle, the strain at moisture absorption, the impact strength and the heat shrinkage rate are determined by the methods defined in the description.
device according to the riser tube principle for the preparation of a hot beverage, in particular coffee and/or tea, comprising - a lower housing section which is designed such that heated liquid can be fed into it and/or liquid located therein can be heated by means of an external heat source; - an upper housing section for discharging liquid that has flowed through the insert from the lower housing section; - an insert with a riser pipe for guiding the heated liquid from the lower housing section into the upper housing section and for receiving the coffee or tea to be flowed through by heated liquid, - wherein the device is designed in such a way that the lower housing section can be sealed with the upper housing section in a pressure-tight manner towards the environment in both the cold and hot state, so that an excess pressure can be produced in the lower housing section by the heating of liquid, by means of which excess pressure liquid can be forced out of the lower housing section first through the insert, then through the flow volume and finally through an outlet region. - wherein a thermally insulated grip is provided on the insert, which can be reached from outside the housing sections (16, 17) and with which the insert can be removed from the lower housing section. characterised in that the thermally insulated grip option is guided from the insert by one or more guides through threaded closures of the lower housing section. - a lower housing section which is designed such that heated liquid can be fed into it and/or liquid located therein can be heated by means of an external heat source; - an upper housing section for discharging liquid that has flowed through the insert from the lower housing section; - an insert with a riser pipe for guiding the heated liquid from the lower housing section into the upper housing section and for receiving the coffee or tea to be flowed through by heated liquid, - wherein the device is designed in such a way that the lower housing section can be sealed with the upper housing section in a pressure-tight manner towards the environment in both the cold and hot state, so that an excess pressure can be produced in the lower housing section by the heating of liquid, by means of which excess pressure liquid can be forced out of the lower housing section first through the insert, then through the flow volume and finally through an outlet region. - wherein a thermally insulated grip is provided on the insert, which can be reached from outside the housing sections (16, 17) and with which the insert can be removed from the lower housing section.
A method for making lubricant base stock, comprising: performing solvent deasphalting using a C 4 or C 5 solvent under effective solvent deasphalting conditions on a feedstock having a T5 boiling point of at least 370°C, the effective solvent deasphalting conditions producing a yield of deasphalted oil of at least 50 wt% of the feedstock; hydroprocessing at least a portion of the deasphalted oil under first effective hydroprocessing conditions to form a hydroprocessed effluent having a sulfur content of 100 wppm or less and a nitrogen content of 100 wppm or less, the at least a portion of the deasphalted oil having an aromatics content of at least 50 wt%; separating the hydroprocessed effluent to form at least a fuels boiling range fraction and a bottoms fraction; and hydroprocessing at least a portion of the hydroprocessed bottoms fraction under second effective hydroprocessing conditions, the second effective hydroprocessing conditions comprising catalytic dewaxing conditions, to form a catalytically dewaxed effluent; and solvent extracting at least a portion of the catalytically dewaxed effluent to form a solvent processed effluent, wherein the solvent processed effluent comprises a 950°F+ (510°C+) portion having a VI of at least 80, a pour point of -6°C or less, a cloud point of -2°C or less, and an aromatics content of less than 10 wt%. performing solvent deasphalting using a C 4 or C 5 solvent under effective solvent deasphalting conditions on a feedstock having a T5 boiling point of at least 370°C, the effective solvent deasphalting conditions producing a yield of deasphalted oil of at least 50 wt% of the feedstock; hydroprocessing at least a portion of the deasphalted oil under first effective hydroprocessing conditions to form a hydroprocessed effluent having a sulfur content of 100 wppm or less and a nitrogen content of 100 wppm or less, the at least a portion of the deasphalted oil having an aromatics content of at least 50 wt%; separating the hydroprocessed effluent to form at least a fuels boiling range fraction and a bottoms fraction; and hydroprocessing at least a portion of the hydroprocessed bottoms fraction under second effective hydroprocessing conditions, the second effective hydroprocessing conditions comprising catalytic dewaxing conditions, to form a catalytically dewaxed effluent; and solvent extracting at least a portion of the catalytically dewaxed effluent to form a solvent processed effluent, wherein the solvent processed effluent comprises a 950°F+ (510°C+) portion having a VI of at least 80, a pour point of -6°C or less, a cloud point of -2°C or less, and an aromatics content of less than 10 wt%.
The non-therapeutic use of compounds of the following formula XII: wherein R 5 represents a linear or branched (C 1 -C 13)-alkyl, preferably a (C 1 -C 6)-alkyl, and the pharmaceutically acceptable salts, enantiomers, diastereoisomers of same, as well as mixture of same, for the inhibition of the biofilm formation, notably the biofilm formation of bacteria of the genus Pseudomonas, in particular Pseudomonas aeruginosa species. wherein R 5 represents a linear or branched (C 1 -C 13)-alkyl, preferably a (C 1 -C 6)-alkyl, and the pharmaceutically acceptable salts, enantiomers, diastereoisomers of same, as well as mixture of same, for the inhibition of the biofilm formation, notably the biofilm formation of bacteria of the genus Pseudomonas, in particular Pseudomonas aeruginosa species.
A stent for implant in a mammalian body comprising a tubular structure having a central axis defining a longitudinal direction and a circumferential sidewall having a wall thickness, and apertures extending through the sidewall, said apertures separating longitudinal struts (6A,7A) having different widths and joined at apices (6B,7B), with a plurality of the struts (6A,7A) grouped to define a cell, and adjacent cells being joined by connectors (6C,7C) on opposed sides of the cell in the longitudinal direction, the struts (6A,7A), apices (6B,7B) and connectors (6C,7C) forming undulating row patterns, wherein in the circumferential direction of the stent, each cell comprises a first group of struts (6A,7A) having a first width and a second group of struts (6A,7A) having a second width different from the first width, and wherein at least one of the struts (6A,7A) in the first group of struts extends from a connector (6C,7C) and has a smaller width dimension than the struts (6A,7A) in the second group of struts (6A,7A), wherein the first group of struts (6A,7A) has a length that is different from a length of the second group of struts (6A,7A); characterised in that at least some of said apices (6B,7B) are opposed to one another when the stent is in an unexpanded configuration and are circumferentially offset from one another when the stent is in an expanded configuration.
A method for extracting an analyte from a sample, the method comprising: introducing a sample into a capillary; inserting a probe into the capillary, wherein the probe comprises an adsorbent material, the probe being configured to fit within the capillary such that the adsorbent matter enters the sample interacting within the capillary the sample with the adsorbent material of the probe such that at least one analyte is extracted from the sample and binds to the adsorbent material, wherein the adsorbent material comprises a polyporous polymer comprising micropores, mesopores, and pores larger than micropores and mesopores; interacting the adsorbent material of the probe with an extraction solvent by at least one of: (i) moving the probe from the sample into the extraction solvent that is already within the capillary in a manner that the adsorbent material enters the extraction solvent wherein the sample is immiscible with the extraction solvent; or (ii) removing the sample from the capillary after the probe has been inserted into the sample within the capillary, and introducing the extraction solvent into the capillary in a manner that the adsorbent material interacts with the extraction solvent; and interacting the extraction solvent with the adsorbent material in order to elute the at least one analyte from the adsorbent material. introducing a sample into a capillary; inserting a probe into the capillary, wherein the probe comprises an adsorbent material, the probe being configured to fit within the capillary such that the adsorbent matter enters the sample interacting within the capillary the sample with the adsorbent material of the probe such that at least one analyte is extracted from the sample and binds to the adsorbent material, wherein the adsorbent material comprises a polyporous polymer comprising micropores, mesopores, and pores larger than micropores and mesopores; interacting the adsorbent material of the probe with an extraction solvent by at least one of: (i) moving the probe from the sample into the extraction solvent that is already within the capillary in a manner that the adsorbent material enters the extraction solvent wherein the sample is immiscible with the extraction solvent; or (ii) removing the sample from the capillary after the probe has been inserted into the sample within the capillary, and introducing the extraction solvent into the capillary in a manner that the adsorbent material interacts with the extraction solvent; and (i) moving the probe from the sample into the extraction solvent that is already within the capillary in a manner that the adsorbent material enters the extraction solvent wherein the sample is immiscible with the extraction solvent; or (ii) removing the sample from the capillary after the probe has been inserted into the sample within the capillary, and introducing the extraction solvent into the capillary in a manner that the adsorbent material interacts with the extraction solvent; and interacting the extraction solvent with the adsorbent material in order to elute the at least one analyte from the adsorbent material.
Lighting or signaling device, in particular for motor vehicles, comprising: - a light guide comprising a transparent or translucent block, comprising a light entry surface and a light exit surface, - one or more light sources located opposite the light entry surface, of the type in which the rays emitted by the light source penetrate the transparent block at the light entry surface and propagate directly or by successive reflections on the walls of the transparent block towards the exit surface through which they emerge, characterized in that the light outlet surface is covered with a layer overmoulded on a part of the transparent block, said layer being composed of a light-scattering material. - a light guide comprising a transparent or translucent block, comprising a light entry surface and a light exit surface, - one or more light sources located opposite the light entry surface, of the type in which the rays emitted by the light source penetrate the transparent block at the light entry surface and propagate directly or by successive reflections on the walls of the transparent block towards the exit surface through which they emerge, characterized in that the light outlet surface is covered with a layer overmoulded on a part of the transparent block, said layer being composed of a light-scattering material.
A positive electrode for a lithium secondary battery comprising a positive electrode active material layer including: a first positive electrode active material represented by Formula 1 below and having a crystalline size of 150 nm or more, wherein crystalline size is determined by X-ray diffraction analysis as set out in the description; a conductive agent including single-walled carbon nanotubes; and a binder: [Formula 1] Li x1 [Ni a1 Co b1 M 1 c1 M 2 d1]O 2 wherein, in Formula 1 above, M 1 is Mn, Al, or a combination thereof, M 2 is at least one selected from the group consisting of Zr, B, W, Mg, Ce, Hf, Ta, La, Ti, Sr, Ba, F, P, and S, and 0.9≤x1≤1.1, 0.8≤a1<1, 0<b1<0.2, 0<c1<0.2, 0≤d1≤0.1. a first positive electrode active material represented by Formula 1 below and having a crystalline size of 150 nm or more, wherein crystalline size is determined by X-ray diffraction analysis as set out in the description; a conductive agent including single-walled carbon nanotubes; and a binder: [Formula 1] Li x1 [Ni a1 Co b1 M 1 c1 M 2 d1]O 2 wherein, in Formula 1 above, M 1 is Mn, Al, or a combination thereof, M 2 is at least one selected from the group consisting of Zr, B, W, Mg, Ce, Hf, Ta, La, Ti, Sr, Ba, F, P, and S, and 0.9≤x1≤1.1, 0.8≤a1<1, 0<b1<0.2, 0<c1<0.2, 0≤d1≤0.1. M 1 is Mn, Al, or a combination thereof, M 2 is at least one selected from the group consisting of Zr, B, W, Mg, Ce, Hf, Ta, La, Ti, Sr, Ba, F, P, and S, and 0.9≤x1≤1.1, 0.8≤a1<1, 0<b1<0.2, 0<c1<0.2, 0≤d1≤0.1.
A network replacement method, characterized by comprising: setting a second cell, which is for replacing a first cell, to reject each of all user equipments, UEs, to update a location area; adjusting a quality offset parameter value of the first cell to be less than a quality offset parameter value of the second cell; dividing all the UEs into a plurality of user groups; setting the second cell to permit the UEs of a first user group to update the location area by cancelling the location area update rejection setting of the first user group; and setting, at regular intervals, the second cell to permit the UEs of a further user group to update the location area by cancelling the location area update rejection setting of the further user group, until the location area update rejection settings of all the user groups are cancelled. setting a second cell, which is for replacing a first cell, to reject each of all user equipments, UEs, to update a location area; adjusting a quality offset parameter value of the first cell to be less than a quality offset parameter value of the second cell; dividing all the UEs into a plurality of user groups; setting the second cell to permit the UEs of a first user group to update the location area by cancelling the location area update rejection setting of the first user group; and setting, at regular intervals, the second cell to permit the UEs of a further user group to update the location area by cancelling the location area update rejection setting of the further user group, until the location area update rejection settings of all the user groups are cancelled.
Use of a transparent substrate comprising: a thin-plate glass having a thickness of 10 μm to 100 μm; and a resin layer on at least one side of the thin-plate glass, wherein a shrinkage stress of the resin layer on the thin-plate glass is 5 MPa or more, in a lighting device for improving the bending property of the transparent substrate. a thin-plate glass having a thickness of 10 μm to 100 μm; and a resin layer on at least one side of the thin-plate glass, wherein a shrinkage stress of the resin layer on the thin-plate glass is 5 MPa or more, in a lighting device for improving the bending property of the transparent substrate.
A method for managing a queue by a router in a broadcasting system, the method comprising: receiving a moving picture experts group, MPEG, media transport, MMT, packet; obtaining a header of the MMT packet; identifying whether a type value of a bit rate included in the header corresponds to a constant bit rate,CBR, or a non-constant bit rate, nCBR; and queuing the MMT packet according to the type value of the bit rate, wherein the queuing the MMT packet comprises: if the type value of the bit rate is a value indicating that the bit rate corresponds to the CBR, assigning (330, 340) a first queue according to a priority of the MMT packet, recording (330, 340) the MMT packet in the first queue, and outputting the MMT packet recorded in the first queue to a port corresponding to the first queue, wherein the first queue records one or more MMT packets having a same priority, and if the type value of the bit rate is a value indicating that the bit rate corresponds to the nCBR, assigning (330, 340) a second queue according to a reception order of the MMT packet, recording (330, 340) the MMT packet in the second queue, and outputting the MMT packet recorded in the second queue to a port corresponding to the second queue. receiving a moving picture experts group, MPEG, media transport, MMT, packet; obtaining a header of the MMT packet; identifying whether a type value of a bit rate included in the header corresponds to a constant bit rate,CBR, or a non-constant bit rate, nCBR; and queuing the MMT packet according to the type value of the bit rate, wherein the queuing the MMT packet comprises: if the type value of the bit rate is a value indicating that the bit rate corresponds to the CBR, assigning (330, 340) a first queue according to a priority of the MMT packet, recording (330, 340) the MMT packet in the first queue, and outputting the MMT packet recorded in the first queue to a port corresponding to the first queue, wherein the first queue records one or more MMT packets having a same priority, and if the type value of the bit rate is a value indicating that the bit rate corresponds to the nCBR, assigning (330, 340) a second queue according to a reception order of the MMT packet, recording (330, 340) the MMT packet in the second queue, and outputting the MMT packet recorded in the second queue to a port corresponding to the second queue. if the type value of the bit rate is a value indicating that the bit rate corresponds to the CBR, assigning (330, 340) a first queue according to a priority of the MMT packet, recording (330, 340) the MMT packet in the first queue, and outputting the MMT packet recorded in the first queue to a port corresponding to the first queue, wherein the first queue records one or more MMT packets having a same priority, and if the type value of the bit rate is a value indicating that the bit rate corresponds to the nCBR, assigning (330, 340) a second queue according to a reception order of the MMT packet, recording (330, 340) the MMT packet in the second queue, and outputting the MMT packet recorded in the second queue to a port corresponding to the second queue.