mhurhangee/ep-ind-claims huggingface dataset:
A nonaqueous lithium-type power storage element comprising an electrode laminate body having a negative electrode body, a positive electrode body and a separator, and a nonaqueous electrolyte, housed in an external body, wherein the negative electrode body has a negative current collector and a negative electrode active material layer provided on one or both sides of the negative current collector, the negative electrode active material layer containing a negative electrode active material that includes a carbon material capable of occluding and releasing lithium ions, the negative electrode active material is selected from among composite porous materials having a carbonaceous material coated over activated carbon, and composite porous materials having a carbonaceous material coated over carbon black, and is doped with lithium ions at between 530 mAh/g and 2,500 mAh/g, inclusive, per unit weight of the composite porous material, the nonaqueous electrolyte contains at least 0.5 mol/L of a lithium salt based on the total amount of the nonaqueous electrolyte, and it includes at least one from among the following (a) and (b): (a) SO 3 2- ion (b) SO 4 2- ion in the liquid extract when the negative electrode active material layer is extracted with water, the total amount thereof being in the range of 3.0 × 10 -8 to 5.0 × 10 -6 mol/m 2 per unit surface area of the negative electrode active material layer. wherein the negative electrode body has a negative current collector and a negative electrode active material layer provided on one or both sides of the negative current collector, the negative electrode active material layer containing a negative electrode active material that includes a carbon material capable of occluding and releasing lithium ions, the negative electrode active material is selected from among composite porous materials having a carbonaceous material coated over activated carbon, and composite porous materials having a carbonaceous material coated over carbon black, and is doped with lithium ions at between 530 mAh/g and 2,500 mAh/g, inclusive, per unit weight of the composite porous material, the nonaqueous electrolyte contains at least 0.5 mol/L of a lithium salt based on the total amount of the nonaqueous electrolyte, and it includes at least one from among the following (a) and (b): (a) SO 3 2- ion (b) SO 4 2- ion in the liquid extract when the negative electrode active material layer is extracted with water, the total amount thereof being in the range of 3.0 × 10 -8 to 5.0 × 10 -6 mol/m 2 per unit surface area of the negative electrode active material layer. (a) SO 3 2- ion (b) SO 4 2- ion
A system for producing a high oxygen content gas to be delivered to a patient comprising: an oxygen concentrator, wherein the oxygen concentrator comprises: one or more adsorbent sieve beds operable to remove nitrogen from air to produce concentrated oxygen gas at respective outlets thereof; a product tank fluidly coupled to the respective outlets of the one or more adsorbent sieve beds; a compressor operable to pressurize ambient air; one or more sieve bed flow paths (160a, 160b) from the compressor to respective inlets of the one or more adsorbent sieve beds; a bypass flow path from the compressor to the product tank that bypasses the one or more adsorbent sieve beds; and a valve unit operable to selectively allow flow of pressurized ambient air from the compressor along the one or more sieve bed flow paths (160a, 160b) and along the bypass flow path in response to a control signal. one or more adsorbent sieve beds operable to remove nitrogen from air to produce concentrated oxygen gas at respective outlets thereof; a product tank fluidly coupled to the respective outlets of the one or more adsorbent sieve beds; a compressor operable to pressurize ambient air; one or more sieve bed flow paths (160a, 160b) from the compressor to respective inlets of the one or more adsorbent sieve beds; a bypass flow path from the compressor to the product tank that bypasses the one or more adsorbent sieve beds; and a valve unit operable to selectively allow flow of pressurized ambient air from the compressor along the one or more sieve bed flow paths (160a, 160b) and along the bypass flow path in response to a control signal.
An aircraft emergency evacuation system comprising: an inflatable rescue apparatus; and a conformable pressure vessel (200, 300, 400) operatively connected to the inflatable rescue apparatus, wherein the confirmable pressure vessel (200, 300, 400) in operation inflates the inflatable rescue apparatus; wherein the conformable pressure vessel (200, 300, 400) comprises: a plurality of individual pressure vessels (230, 330, 430), the individual pressure vessels (230, 330, 430) each having an outer wall (242, 342, 442) enclosing an inner volume (232, 332, 432); wherein the individual pressures vessels (230, 330, 430) are oriented parallel to each other, and wherein a valve 110 is operatively connected to one of the plurality of individual pressure vessels (230, 330, 430), wherein the valve 110 in operation serves as a filling orifice for each of the plurality of individual pressure vessels (230, 330, 430), and wherein the inner volumes (232, 332, 432) are fluidly connected to each other to form a single fluid chamber fluidly connected to the valve; characterised in that the inner volumes (232, 332, 432) are fluidly connected to each other through a plurality of elbow connectors (240, 440); wherein each individual pressure vessel shares a common outer wall of the pressure vessel with at least one adjacent individual pressure vessel; and wherein a thickness of the common outer wall increases at the elbow connector. an inflatable rescue apparatus; and a conformable pressure vessel (200, 300, 400) operatively connected to the inflatable rescue apparatus, wherein the confirmable pressure vessel (200, 300, 400) in operation inflates the inflatable rescue apparatus; wherein the conformable pressure vessel (200, 300, 400) comprises: a plurality of individual pressure vessels (230, 330, 430), the individual pressure vessels (230, 330, 430) each having an outer wall (242, 342, 442) enclosing an inner volume (232, 332, 432); wherein the individual pressures vessels (230, 330, 430) are oriented parallel to each other, and wherein a valve 110 is operatively connected to one of the plurality of individual pressure vessels (230, 330, 430), wherein the valve 110 in operation serves as a filling orifice for each of the plurality of individual pressure vessels (230, 330, 430), and wherein the inner volumes (232, 332, 432) are fluidly connected to each other to form a single fluid chamber fluidly connected to the valve; characterised in that the inner volumes (232, 332, 432) are fluidly connected to each other through a plurality of elbow connectors (240, 440); wherein each individual pressure vessel shares a common outer wall of the pressure vessel with at least one adjacent individual pressure vessel; and wherein a thickness of the common outer wall increases at the elbow connector.
A process for producing a microporous membrane comprising the steps of: providing an ultrahigh molecular weight polyethylene (UHMWPE); providing a particulate silica filler; providing a processing plasticizer; mixing UHMWPE, filler and processing plasticizer together to form a mixture, having a weight ratio of filler to UHMWPE of from 1:9 to 15:1 by weight; extruding said mixture to form a sheet; processing said sheet where processing is selected from the group consisting of: calendering, casting and blowing; extracting all or part of said processing plasticizer from said sheet to produce a matrix comprising UHMWPE and said particulate filler, the filler being distributed throughout said matrix, to produce a microporous matrix sheet; and stretching said microporous matrix sheet in at least one stretching direction to produce a stretched microporous matrix sheet; and calendering said stretched microporous matrix sheet to produce a microporous membrane, where said microporous membrane has no pores greater in size than 0.5 micrometers, and where a median pore size being between, or equal to, 0.01 to 0.3 micrometers and the pores vary in size by plus or minus 0.2 micrometers or less. providing an ultrahigh molecular weight polyethylene (UHMWPE); providing a particulate silica filler; providing a processing plasticizer; mixing UHMWPE, filler and processing plasticizer together to form a mixture, having a weight ratio of filler to UHMWPE of from 1:9 to 15:1 by weight; extruding said mixture to form a sheet; processing said sheet where processing is selected from the group consisting of: calendering, casting and blowing; extracting all or part of said processing plasticizer from said sheet to produce a matrix comprising UHMWPE and said particulate filler, the filler being distributed throughout said matrix, to produce a microporous matrix sheet; and stretching said microporous matrix sheet in at least one stretching direction to produce a stretched microporous matrix sheet; and calendering said stretched microporous matrix sheet to produce a microporous membrane, where said microporous membrane has no pores greater in size than 0.5 micrometers,
Method of applying an electromagnetic transmitting and receiving device in a tyre, having one of the following steps: - providing a tyre blank, the tyre blank having an insertion area, the insertion area being provided to receive an electromagnetic transmitting and receiving device; - heating the insertion area of the tyre blank to a temperature of at least 50° C to 200° C; - providing an electromagnetic transmitting and receiving device; - inserting the electromagnetic transmitting and receiving device into the heated insertion area of the tyre blank; - vulcanizing the tyre blank. - providing a tyre blank, the tyre blank having an insertion area, the insertion area being provided to receive an electromagnetic transmitting and receiving device; - heating the insertion area of the tyre blank to a temperature of at least 50° C to 200° C; - providing an electromagnetic transmitting and receiving device; - inserting the electromagnetic transmitting and receiving device into the heated insertion area of the tyre blank; - vulcanizing the tyre blank.
A system for performing printing by using a mobile terminal, the system comprising: a computing device which transmits print data and user identification information to a server; the server which determines a mobile terminal of a user to which the server is to transmit the print data, by using the user identification information, and transmits the print data to the determined mobile terminal via a system network of the system; further comprising the mobile terminal which stores the received print data and is configured to set a short-range wireless communication with an image forming apparatus; and the image forming apparatus which receives the print data from the mobile terminal via the short-range wireless communication, and prints the received print data. a computing device which transmits print data and user identification information to a server; the server which determines a mobile terminal of a user to which the server is to transmit the print data, by using the user identification information, and transmits the print data to the determined mobile terminal via a system network of the system; further comprising the mobile terminal which stores the received print data and is configured to set a short-range wireless communication with an image forming apparatus; and the image forming apparatus which receives the print data from the mobile terminal via the short-range wireless communication, and prints the received print data.
A tablet computing device, comprising: a display; and a display housing to support the display, the display housing having a plurality of sides and a housing cavity; electronic components disposed in the housing cavity, the electronic components configured to enable operation of the tablet computing device; a fluid channel disposed in the housing cavity, the fluid channel including a plurality of channel sections in which each channel section corresponds to a respective side of the tablet computing device; and a fluid stored in the fluid channel to move between respective portions of the channel sections based on a rotation of the display housing to redistribute a weight of the tablet computing device; wherein the tablet computing device further comprises: a single pipe including the pipe cavity therein having a single cavity volume to form the fluid channel and store the fluid, wherein the fluid occupies a volume less than the single cavity volume of the pipe cavity, or a plurality of pipes, each pipe including a respective pipe cavity having a respective cavity volume, wherein the fluid is stored in each of the respective pipe cavities, the fluid in each respective pipe cavity occupying a volume less than the respective cavity volume of the respective pipe cavity. a display; and a display housing to support the display, the display housing having a plurality of sides and a housing cavity; electronic components disposed in the housing cavity, the electronic components configured to enable operation of the tablet computing device; a fluid channel disposed in the housing cavity, the fluid channel including a plurality of channel sections in which each channel section corresponds to a respective side of the tablet computing device; and a fluid stored in the fluid channel to move between respective portions of the channel sections based on a rotation of the display housing to redistribute a weight of the tablet computing device; wherein the tablet computing device further comprises: a single pipe including the pipe cavity therein having a single cavity volume to form the fluid channel and store the fluid, wherein the fluid occupies a volume less than the single cavity volume of the pipe cavity, or a plurality of pipes, each pipe including a respective pipe cavity having a respective cavity volume, wherein the fluid is stored in each of the respective pipe cavities, the fluid in each respective pipe cavity occupying a volume less than the respective cavity volume of the respective pipe cavity. a single pipe including the pipe cavity therein having a single cavity volume to form the fluid channel and store the fluid, wherein the fluid occupies a volume less than the single cavity volume of the pipe cavity, or a plurality of pipes, each pipe including a respective pipe cavity having a respective cavity volume, wherein the fluid is stored in each of the respective pipe cavities, the fluid in each respective pipe cavity occupying a volume less than the respective cavity volume of the respective pipe cavity.
A medical image processing apparatus comprising: a storage unit configured to store a non-contrast medical image and contrast medical image regarding the same imaging region imaged at different times; a generation unit configured to generate numerical data representing a frequency of a combination of a pixel value of the non-contrast medical image and a pixel value of the contrast medical image at the same coordinates; and a segmentation unit configured to divide the contrast medical image and/or the non-contrast medical image into a plurality of image areas by using the generated numerical data; wherein the plurality of image areas comprises a misalignment area, the misalignment area comprising pixels for which a pixel value of each pixel in the contrast medical image is smaller than a pixel value of that pixel in the non-contrast medical image. a storage unit configured to store a non-contrast medical image and contrast medical image regarding the same imaging region imaged at different times; a generation unit configured to generate numerical data representing a frequency of a combination of a pixel value of the non-contrast medical image and a pixel value of the contrast medical image at the same coordinates; and a segmentation unit configured to divide the contrast medical image and/or the non-contrast medical image into a plurality of image areas by using the generated numerical data; wherein the plurality of image areas comprises a misalignment area, the misalignment area comprising pixels for which a pixel value of each pixel in the contrast medical image is smaller than a pixel value of that pixel in the non-contrast medical image.
An article of footwear comprising an upper and a sole structure secured to the upper having a midsole, an elevated plate structure formed from a non-foamed polymer material substantially embedded with the midsole, and an outsole, wherein the elevated plate structure comprises: an upper plate; a lower plate disposed at an upper region of the outsole; a first leg and a second leg formed from a non-foamed polymer material extending downward toward the outsole, wherein the first and second legs are curved toward each other and engage the lower plate in a sliding arrangement. an upper and a sole structure secured to the upper having a midsole, an elevated plate structure formed from a non-foamed polymer material substantially embedded with the midsole, and an outsole, wherein the elevated plate structure comprises: an upper plate; a lower plate disposed at an upper region of the outsole; a first leg and a second leg formed from a non-foamed polymer material extending downward toward the outsole, wherein the first and second legs are curved toward each other and engage the lower plate in a sliding arrangement. an upper plate; a lower plate disposed at an upper region of the outsole; a first leg and a second leg formed from a non-foamed polymer material extending downward toward the outsole, wherein the first and second legs are curved toward each other and engage the lower plate in a sliding arrangement.
Connection assembly for connecting a first element to a second element, the connection assembly comprising: a male element; and a female element; wherein the female element comprises a barrel nut; wherein the barrel nut comprises a conical inner portion positioned at a first longitudinal region and a cylindrical inner portion positioned at a second longitudinal region; wherein the barrel nut comprises at least one first engaging element portion and at least one first plain portion arranged alternatingly around a circumferential direction of the barrel nut; wherein the male element has a cylindrical bolt-like shape and comprises at least one second engaging element portion and at least one second plain portion arranged alternatingly around a circumferential direction of the male element; wherein the male element further comprises flattened sides at the at least one second plain portion; and wherein each of the at least one second engaging element portions of the male element is configured to engage with a respective one of the at least one first engaging element portion of the barrel nut; wherein the female element further comprises a shock absorbing element; and wherein the shock absorbing element surrounds the barrel nut around its outer circumferential direction. a male element; and a female element; wherein the female element comprises a barrel nut; wherein the barrel nut comprises a conical inner portion positioned at a first longitudinal region and a cylindrical inner portion positioned at a second longitudinal region; wherein the barrel nut comprises at least one first engaging element portion and at least one first plain portion arranged alternatingly around a circumferential direction of the barrel nut; wherein the male element has a cylindrical bolt-like shape and comprises at least one second engaging element portion and at least one second plain portion arranged alternatingly around a circumferential direction of the male element; wherein the male element further comprises flattened sides at the at least one second plain portion; and wherein each of the at least one second engaging element portions of the male element is configured to engage with a respective one of the at least one first engaging element portion of the barrel nut; wherein the female element further comprises a shock absorbing element; and wherein the shock absorbing element surrounds the barrel nut around its outer circumferential direction.
An exhaust pump, comprising: a cylindrical rotating member; support means (10, 11) for rotatably supporting said cylindrical rotating member about an axis thereof; a driving means for rotationally driving said cylindrical rotating member; an outer cylindrical fixed member disposed so as to surround an outer periphery of said cylindrical rotating member; an inner cylindrical fixed member disposed so as to be surrounded by an inner periphery of said cylindrical rotating member; a helical outer thread groove exhaust passage provided between said cylindrical rotating member and said outer cylindrical fixed member; a helical inner thread groove exhaust passage provided between said cylindrical rotating member and said inner cylindrical fixed member; and connecting opening portions that are opened in said cylindrical rotating member and that lead a part of gas existing in the vicinity of said outer periphery of said cylindrical rotating member to said inner thread groove exhaust passage, characterized in that said cylindrical rotating member has a plate body having a ring-like projection and a cylindrical body that is fitted into an outer periphery of said ring-like projection; and each of said connecting opening portions comprises holes (H1, H2) that are cut out from an outer peripheral section of said plate body and an outer peripheral section of said ring-like projection, and a portion of all said holes that opens in the form of a horizontal hole is covered by an outer-peripheral upper end portion of said cylindrical body. a cylindrical rotating member; support means (10, 11) for rotatably supporting said cylindrical rotating member about an axis thereof; a driving means for rotationally driving said cylindrical rotating member; an outer cylindrical fixed member disposed so as to surround an outer periphery of said cylindrical rotating member; an inner cylindrical fixed member disposed so as to be surrounded by an inner periphery of said cylindrical rotating member; a helical outer thread groove exhaust passage provided between said cylindrical rotating member and said outer cylindrical fixed member; a helical inner thread groove exhaust passage provided between said cylindrical rotating member and said inner cylindrical fixed member; and connecting opening portions that are opened in said cylindrical rotating member and that lead a part of gas existing in the vicinity of said outer periphery of said cylindrical rotating member to said inner thread groove exhaust passage, characterized in that said cylindrical rotating member has a plate body having a ring-like projection and a cylindrical body that is fitted into an outer periphery of said ring-like projection; and each of said connecting opening portions comprises holes (H1, H2) that are cut out from an outer peripheral section of said plate body and an outer peripheral section of said ring-like projection, and a portion of all said holes that opens in the form of a horizontal hole is covered by an outer-peripheral upper end portion of said cylindrical body.