子分类：
| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 81 | Paper recycling device and paper recycling method | US14859789 | 2015-09-21 | US09435078B2 | 2016-09-06 | Toshiaki Yamagami; Ken Ikuma |
| A paper recycling device includes a dry type defibrator, a first transport unit, a classifier unit, a second transport unit a paper forming unit and a control unit. The dry type defibrator unit is configured to defibrate first paper into defibrated material. The first transport unit is configured to transport the defibrated material after being defibrated by the dry type defibrator unit. The classifier unit is configured to deink by an air flow classification the defibrated material after being transported by the first transport unit. The second transport unit is configured to transport the defibrated material after being deinked by the classifier unit. The paper forming unit is configured to for second paper with the defibrated material after being transported by the second transport unit. The control unit is configured to control volume of the first paper supplied to the dry type defibrator unit. | ||||||
| 82 | A METHOD FOR GENERATING A MICROSTRUCTURE IN A MATERIAL THAT INCLUDES THERMOPLASTIC POLYMER MOLECULES, AND RELATED SYSTEMS | US15023109 | 2014-09-19 | US20160229973A1 | 2016-08-11 | KRISHNA V. NADELLA; VIPIN KUMAR; HUIMIN GUO |
| A method for generating a microstructure that includes microcellular bubbles, in a material that includes molecules of a thermoplastic polymer, comprises: determining a size-index for the material that represents an average size of the thermoplastic polymer molecules included in the material, and in response to the determined size-index, setting a parameter of a process to generate a microstructure in the material that includes microcellular bubbles. The process to generate a microstructure in the material includes: 1) infusing into the material, during a first period, a gas that does not react with the material, 2) making the gas-infused material thermodynamically unstable. | ||||||
| 83 | MOLD AND MOLDING APPARATUS FOR EMBEDDING BIOLOGICAL SPECIMEN IN A BLOCK AND RELATED METHODS | US15012751 | 2016-02-01 | US20160169778A1 | 2016-06-16 | Alex PASTERNAK; Keren SHAPIRA-SCHWEITZER |
| A molding apparatus for producing a biological tissue embedded in a block of an embedding material. The molding apparatus comprising a mold comprising a compartment configured for containing the embedding material. The compartment having a compartment floor and at least one wall extending upwards from said compartment floor. The compartment comprises at least one depression extending downwards from the compartment floor. The molding apparatus further comprising a sample sheet configured to attach to the biological tissue and hold the biological tissue thereon. The sample sheet being further dimensioned to be positioned in the compartment and to be constrained to the position thereof, at least along one direction, by the compartment. The depression is configured for accepting the biological tissue at least partially therein. Thereby the molding apparatus being configured for producing a block of an embedding material having at least one protrusion associated with the at least one depression wherein the biological tissue, attached to the sample sheet, is embedded at least partially in the protrusion. | ||||||
| 84 | System and Method for Preparing, Dispensing and Curing Epoxy | US15010430 | 2016-01-29 | US20160144533A1 | 2016-05-26 | Keith Van Duinen; Miguel Rodriguez; Alejandro Leon |
| A method for dispensing epoxy comprising the step of degassing an epoxy. The method further comprises the step of associating the epoxy with an epoxy injector comprising a dispensing end. The method further comprises the step of a computer receiving data representative of a selected container to receive the epoxy. The method further comprises the step of a computer determining a dispensing rate and a dispensing amount, based on the received data. The method further comprises the step of a computer causing the epoxy injector to dispense the determined dispensing amount of epoxy, via the dispensing end, at the determined dispensing rate. The method further comprises the step of a computer causing a dispensing arm, supporting the dispensing end, to retract the dispensing end while the epoxy injector is dispensing the epoxy. The method further comprises the step of curing the dispensed epoxy. | ||||||
| 85 | BIOADHESIVE FILMS FOR LOCAL AND/OR SYSTEMIC DELIVERY | US14897140 | 2013-03-15 | US20160128947A1 | 2016-05-12 | Jason Thomas McConville; Javier O. Morales; Alistair Ross |
| Bioadhesive films suitable for topical, local, and systemic drug delivery and methods for making the same. The films may incorporate one or more polymeric layers that enable delivery of a specific, desired dosage, to a specific, desired location over a specific, desired time period. | ||||||
| 86 | DEVICE AND METHOD FOR PULSED-POWER RECYCLING OF COMPOSITE MATERIALS WITH REINFORCEMENTS AND MATRIX | US14747058 | 2015-06-23 | US20150375423A1 | 2015-12-31 | Abdelaziz Bentaj; Gauthier Demaret; Mourad Bentaj |
| The present invention relates to a device for recycling carbon fibers (5), which includes two metal rails (1, 2) between which the carbon fibers (5) are intended to be stretched, and a current generator (3), the terminals of which are connected or intended to be connected to the two metal rails (1, 2). The rails (1, 2) form electrodes (1, 2) in short circuit when the carbon fibers (5) are arranged on said rails (1, 2). The generator (3) is suitable for outputting at least one current pulse of a power in the order of or greater than the MW between these two rails (1, 2), which allows the separation of the fibers from their resin.A recycling method implemented with this device is also proposed. | ||||||
| 87 | Methods and apparatuses for consolidating elastic substrates | US13929857 | 2013-06-28 | US09221195B2 | 2015-12-29 | Mark Mason Hargett; Jeffrey Alan Darner |
| The method includes rotating a drum about an axis of rotation. A discrete length of elastic substrate is positioned on the outer circumferential surface of the rotating drum, wherein the discrete length of elastic substrate is in a stretched state and defines a first length. The discrete length of elastic substrate may be defined by a first end region, a second end region, and a central region separating the first and second end regions. The method may comprise applying vacuum pressure to the first, second, and central regions of the discrete length of elastic substrate. Vacuum pressure may be reduced on the first and second end regions such that the discrete length of elastic substrate consolidates to a second length that is less than the first length. | ||||||
| 88 | Pseudothermoplastic, self-crosslinking composites | US14360442 | 2012-11-06 | US09169363B2 | 2015-10-27 | Friedrich Georg Schmidt; Stefan Hilf |
| In the present process, reversibly crosslinking composites or storage-stable prepregs are produced by means of a hetero Diels-Alder reactions (HDA,) for example of PMMA polymers. At slightly elevated temperature, these prepregs can be reversibly decrosslinked again by a retro hetero Diels-Alder reaction so that they become moldable. The back-reaction to products which are again crosslinked or high molecular weight then takes place at room temperature. | ||||||
| 89 | Method and apparatus for compacting powders | US14513551 | 2014-10-14 | US09102115B1 | 2015-08-11 | William H. Wiggins |
| An apparatus for compacting a powder includes a feed section (20), a compaction section (21), a discharge section (22), and a conveyor belt (103) extending through the feed, compaction, and discharge sections to convey powder through those sections. The feed section receives an incoming powder onto the conveyor belt. The compaction section compresses the incoming powder on the conveyor belt between two plates (8, 9) to provide a compacted powder. The top plate (8) may be pressed downward toward the bottom plate (9), the bottom plate may be pressed upward toward the top plate, or both. The discharge section receives the compacted powder from the compaction section on the conveyor belt. End plates (16) and side plates (11) confine the incoming powder during compaction. | ||||||
| 90 | PROFILES FOR PRECURSORS TO POLYMERIC MATERIALS | US14621216 | 2015-02-12 | US20150151453A1 | 2015-06-04 | James Dempster |
| Methods for obtaining a profile for a batch, or lot, of a precursor material and using the profile while processing the precursor material to form a polymer are disclosed. In such a method, a process profile that corresponds to the characteristics of a particular precursor material (e.g., the batch, etc.) may be generated. That process profile may then be used to cause a material processing system to process the precursor material in a manner that accounts for differences between that precursor material and a “standard” precursor material, while providing a polymer and, optionally, a film of “standard” quality. Apparatuses and systems that are configured to obtain profile data for a batch of precursor material, generate or modify a process profile based on the profile data and use the process profile to form a polymer are also disclosed. | ||||||
| 91 | Production method of polyarylene sulfide, cyclic polyarylene sulfide pellet and production method thereof | US14381803 | 2013-02-27 | US09029484B2 | 2015-05-12 | Akinori Kanomata; Yosuke Nishimura; Shunsuke Horiuchi; Shu Kaiho; Kazusada Takeda; Koji Yamauchi; Junya Suzuki |
| A production method includes a process (I) of heating a cyclic polyarylene sulfide composition under reduced pressure and a process (II) of heating and polymerizing a cyclic polyarylene sulfide composition. This simple method allows for production of a polyarylene sulfide of the higher molecular weight and can produce a polyarylene sulfide having a narrow molecular weight distribution, low gas generation and high industrial usability. Additionally, pelletization after the process (I) can produce a cyclic polyarylene sulfide pellet having ease of conveyance, excellent molding processability, less gas generation amount and high industrial usability. | ||||||
| 92 | PRODUCTION METHOD OF POLYARYLENE SULFIDE, CYCLIC POLYARYLENE SULFIDE PELLET AND PRODUCTION METHOD THEREOF | US14381803 | 2013-02-27 | US20150057429A1 | 2015-02-26 | Akinori Kanomata; Yosuke Nishimura; Shunsuke Horiuchi; Shu Kaiho; Kazusada Takeda; Koji Yamauchi; Junya Suzuki |
| A production method includes a process (I) of heating a cyclic polyarylene sulfide composition under reduced pressure and a process (II) of heating and polymerizing a cyclic polyarylene sulfide composition. This simple method allows for production of a polyarylene sulfide of the higher molecular weight and can produce a polyarylene sulfide having a narrow molecular weight distribution, low gas generation and high industrial usability. Additionally, pelletization after the process (I) can produce a cyclic polyarylene sulfide pellet having ease of conveyance, excellent molding processability, less gas generation amount and high industrial usability. | ||||||
| 93 | MOLD AND MOLDING APPARATUS FOR EMBEDDING BIOLOGICAL SPECIMEN IN A BLOCK AND RELATED METHODS | US14377854 | 2013-12-17 | US20150008616A1 | 2015-01-08 | Alex Pasternak; Keren Schweizer |
| A mold for producing a biological tissue embedded in a block of an embedding material is provided. The mold comprises a compartment having a compartment floor and a depression extending downwards from the compartment floor. A molding apparatus, comprising a mold and a press for pressing a sample sheet onto the compartment floor of the mold is provided. The press comprises a foot configured to enter at least partially into the compartment and press a sample tissue, at least partially into the depression. A method of embedding a biological tissue in an embedding material using a mold as described herein is provided. A cleaning device configured for removing excess embedding materials from the press of the molding apparatus is provided. | ||||||
| 94 | METHOD AND APPARATUS FOR CONTINUOUS RESIN DEGASSING | US14005846 | 2011-04-06 | US20140013947A1 | 2014-01-16 | Xiaoming Liu |
| An apparatus and method for the treatment of a resin to remove gas from the resin are provided. The apparatus can be operated continuously so that multiple amounts of resin can be consecutively degassed until the overall desired amount of resin has been provided. Thus, batch treatment at one time of the entire desired amount of resin for degassing can be avoided. The gases removed from the resin can be readily captured such that e.g., further treatment can occur. | ||||||
| 95 | Methods and Apparatuses for Consolidating Elastic Substrates | US13929857 | 2013-06-28 | US20140001681A1 | 2014-01-02 | Mark Mason Hargett; Jeffrey Alan Darner |
| The method includes rotating a drum about an axis of rotation. A discrete length of elastic substrate is positioned on the outer circumferential surface of the rotating drum, wherein the discrete length of elastic substrate is in a stretched state and defines a first length. The discrete length of elastic substrate may be defined by a first end region, a second end region, and a central region separating the first and second end regions. The method may comprise applying vacuum pressure to the first, second, and central regions of the discrete length of elastic substrate. Vacuum pressure may be reduced on the first and second end regions such that the discrete length of elastic substrate consolidates to a second length that is less than the first length. | ||||||
| 96 | PROCESS FOR MANUFACTURING COMPOSITE MATERIALS | US13634988 | 2011-03-15 | US20130005205A1 | 2013-01-03 | Emilie Fisset; John Ellis |
| The invention relates to a prepreg comprising a structural layer of conductive fibres comprising thermosetting resin in the interstices, and a first outer layer of resin comprising thermosetting resin, and comprising a population of conductive free filaments located at the interface between the structural layer and the outer resin layer which, when cured under elevated temperature, produces a cured composite material comprising a cured structural layer of packed conductive fibres and a first outer layer of cured resin, the outer layer of cured resin, comprising a proportion of the population of conductive free filaments dispersed therein, and to a process for manufacturing prepregs wherein the electrically conductive fibres pass a fibre disrupting means to cause a proportion of the fibres on an external face of the sheet to become free filaments. | ||||||
| 97 | METHOD AND ARRANGEMENT TO IMPROVE THE PRODUCTION OF A BLADE | US13014063 | 2011-01-26 | US20110183029A1 | 2011-07-28 | Karsten Schibsbye |
| A method and an arrangement to improve the production of a blade, preferably to improve the production of a wind turbine blade is provided. A first container includes a resin. The first container is connected with a degas-system, thus the resin is provided to the degas-system. The degas-system is constructed and designed in a way that the amount of gas within the provided resin is reduced. Thus gas-reduced resin is produced, which is mixable with a hardener. The resin-hardener-mixture is applicable for an injection into an enclosed composite structure, which is used to produce the blade. | ||||||
| 98 | Thin film in-line degasser | US10914549 | 2004-08-09 | US07717982B2 | 2010-05-18 | Kent A. Young; Stephen C. Pegram; Kerry T. Sanders |
| The present invention relates to a stackable packing element for use in degassing liquid ophthalmic lens monomer and a lens resulting therefrom. One or more stackable elements can be used to form a modular degasser and implement an in-line degassing process, employing same. The stackable packing element is comprised of a body module and a removable puck component. | ||||||
| 99 | Thin film in-line degasser | US10914549 | 2004-08-09 | US20090045532A1 | 2009-02-19 | Kent A. Young; Stephen C. Pegram; Kerry T. Sanders |
| The present invention relates to a stackable packing element for use in degassing liquid ophthalmic lens monomer and a lens resulting therefrom. One or more stackable elements can be used to form a modular degasser and implement an in-line degassing process, employing same. The stackable packing element is comprised of a body module and a removable puck component. | ||||||
| 100 | Method and device for transforming crystalline or semicrystalline polymers | US11066391 | 2005-02-28 | US20050225010A1 | 2005-10-13 | Joel Soulier |
| A method for processing thermoplastics in a shaping device, whereby before and/or during its passage in the shaping device the thermoplastic is submitted to a static electrical field. | ||||||
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