METHOD FOR TREATING CELLULOSE-CONTAINING BIOMASS
    11.
    发明申请
    METHOD FOR TREATING CELLULOSE-CONTAINING BIOMASS 审中-公开
    用于处理含细菌生物质的方法

    公开(公告)号:US20160243782A1

    公开(公告)日:2016-08-25

    申请号:US15027599

    申请日:2014-09-09

    申请人: SHOWA DENKO K.K.

    摘要: A treatment method for biomass which is a pretreatment method including continuously performing hydrothermal treatment using a screw extruder to produce a biomass composition for saccharification from cellulose-containing biomass serving as a raw material with a small amount of electricity. The treatment method sequentially includes: pulverizing, in a pulverization section of the screw extruder, the cellulose-containing biomass so as to have a maximum grain size of 1,000 μm or less and adjusting a water content ratio thereof to from 30% to 80%; performing, in a heating section of the screw extruder, hydrothermal treatment at a temperature of from 205° C. to 250° C. for 0.1 minute to 10 minutes while performing kneading pulverization having a grinding effect; and cooling, in a cooling section of the screw extruder downstream of the heating section, a treated product to 100° C. or less to recover the treated product.

    摘要翻译: 一种生物质处理方法,其特征在于,所述预处理方法包括使用螺杆挤出机连续进行水热处理,从而生成用于以少量电的原料的含纤维素生物质的糖化的生物质组合物。 处理方法依次包括:在螺杆挤出机的粉碎部分中,将含纤维素的生物质粉碎至最大粒径为1,000μm以下,并将其含水率调整为30%〜80%; 在螺杆挤出机的加热部分中,在进行具有研磨效果的捏合粉碎的同时,在205℃至250℃的温度下进行0.1分钟至10分钟的水热处理; 在加热部下游的螺杆挤出机的冷却部中将处理后的产物冷却至100℃以下,回收处理后的产物。

    Solidification processing method and solidification processing apparatus
    13.
    发明授权
    Solidification processing method and solidification processing apparatus 有权
    凝固处理方法和凝固处理装置

    公开(公告)号:US08337756B2

    公开(公告)日:2012-12-25

    申请号:US12374940

    申请日:2007-07-26

    摘要: For manufacture of solid fuels by solidifying processing-object materials containing plastics, waste paper and waste wood, the processing-object materials inputted through an input port 12 are subjected to water injection so that their water content becomes 15 wt % or more, preferably 20 wt % or more, and then kneaded, compacted and extruded in three turns or less, being extruded from molding nozzles 53 of an end face plate 5. The water injection is performed by a water injection nozzle 31 from the input port 12 into a casing 11. Opening and closing of a solenoid valve 33 interposed on a water injection pipe 32 adjoining the water injection nozzle 31 is controlled based on a signal S1 derived from a temperature sensor 55 provided at a molding nozzle 53 of the end face plate. Such disadvantages as inflammation due to excessively high temperatures of the processing-object materials or worsened shape retention of solidified materials due to excessively low temperatures of the processing-object materials can be prevented.

    摘要翻译: 为了通过固化含有塑料,废纸和废木的加工对象材料来制造固体燃料,通过输入端口12输入的加工对象材料进行注水,使得其含水量为15重量%以上,优选为20重量% 重量%以上,然后从端面板5的成型喷嘴53挤出,以三圈以下进行捏合,压实和挤出。水喷射由喷嘴31从输入口12进入壳体 基于从设置在端面板的成型喷嘴53处的温度传感器55导出的信号S1来控制插入在与注水喷嘴31相邻的注水管32上的电磁阀33的打开和关闭。 可以防止由于加工对象材料的过高温度引起的炎症或由于加工对象材料的过低温度导致的固化材料形状保持变差的缺点。

    EXTRUSION-FORMING DEVICE AND METHOD FOR MANUFACTURING FORMED ARTICLE BY USE OF THIS DEVICE
    14.
    发明申请
    EXTRUSION-FORMING DEVICE AND METHOD FOR MANUFACTURING FORMED ARTICLE BY USE OF THIS DEVICE 有权
    挤出成型装置及使用该装置制造成形品的方法

    公开(公告)号:US20100244308A1

    公开(公告)日:2010-09-30

    申请号:US12708565

    申请日:2010-02-19

    申请人: Yasunori YAMAZAKI

    发明人: Yasunori YAMAZAKI

    IPC分类号: B29C47/26 B29C47/00

    摘要: An extrusion-forming device 100 includes an extruding portion 21 having a drum 7 including a supply port 19 through which a clay flows into the inside, a screw 4 having a rotary shaft 6 and a rotary blade 5 and configured to convey the clay, and an extrusion port 20 through which the clay is discharged; and a forming portion 22 having a die provided with forming grooves. The device includes, as the screw 4 on the side of the supply port 19, supply port side screws 10 having two rotary blades 5 and, as the screw 4 on the side of the extrusion port 20, a extrusion port side screw 12 having one rotary blade 5, and a ratio P/D is in a range of 0.5 to 0.9.

    摘要翻译: 挤出成形装置100包括具有鼓7的挤出部21,滚筒7包括粘土流入内部的供给口19,具有旋转轴6和旋转叶片5的螺杆4,构造成输送粘土, 挤出口20,粘土通过该挤出口20排出; 以及具有设置有成形槽的模具的成形部22。 该装置包括作为供给口19一侧的螺杆4,具有两个旋转叶片5的供给口侧螺钉10,作为挤出口20一侧的螺杆4,具有一个挤出口侧螺杆12 旋转刀片5,比率P / D在0.5〜0.9的范围内。

    SOLIDIFICATION PROCESSING METHOD AND SOLIDIFICATION PROCESSING APPARATUS
    15.
    发明申请
    SOLIDIFICATION PROCESSING METHOD AND SOLIDIFICATION PROCESSING APPARATUS 有权
    固体加工方法和固化加工设备

    公开(公告)号:US20090320358A1

    公开(公告)日:2009-12-31

    申请号:US12374940

    申请日:2007-07-26

    IPC分类号: C10L5/44

    摘要: For manufacture of solid fuels by solidifying processing-object materials containing plastics, waste paper and waste wood, the processing-object materials inputted through an input port 12 are subjected to water injection so that their water content becomes 15 wt % or more, preferably 20 wt % or more, and then kneaded, compacted and extruded in three turns or less, being extruded from molding nozzles 53 of an end face plate 5. The water injection is performed by a water injection nozzle 31 from the input port 12 into a casing 11. Opening and closing of a solenoid valve 33 interposed on a water injection pipe 32 adjoining the water injection nozzle 31 is controlled based on a signal S1 derived from a temperature sensor 55 provided at a molding nozzle 53 of the end face plate. Such disadvantages as inflammation due to excessively high temperatures of the processing-object materials or worsened shape retention of solidified materials due to excessively low temperatures of the processing-object materials can be prevented.

    摘要翻译: 为了通过固化含有塑料,废纸和废木的加工对象材料来制造固体燃料,通过输入端口12输入的加工对象材料进行注水,使得其含水量为15重量%以上,优选为20重量% 重量%以上,然后从端面板5的成型喷嘴53挤出,以三圈以下进行捏合,压实和挤出。水喷射由喷嘴31从输入口12进入壳体 基于从设置在端面板的成型喷嘴53处的温度传感器55导出的信号S1来控制插入在与注水喷嘴31相邻的注水管32上的电磁阀33的打开和关闭。 可以防止由于加工对象材料的过高温度引起的炎症或由于加工对象材料的过低温度导致的固化材料形状保持变差的缺点。

    Method and apparatus for producing fully cooked extrudates with significantly reduced specific mechanical energy inputs
    16.
    发明授权
    Method and apparatus for producing fully cooked extrudates with significantly reduced specific mechanical energy inputs 有权
    用于生产完全熟化的挤出物的方法和装置,具有显着降低的特定机械能输入

    公开(公告)号:US07521076B1

    公开(公告)日:2009-04-21

    申请号:US12263825

    申请日:2008-11-03

    IPC分类号: A23P1/12

    摘要: Improved extruders and methods for the extrusion cooking of comestible products such as human foods or animal feeds are provided wherein the products may be produced with very low specific mechanical energy (SME) inputs as compared with conventional processing. The methods preferably involve introduction of very high levels of steam into the extruder barrel (12) during processing, which concomitantly reduces necessary SME inputs required to achieve desired cook and expansion levels in the products. In accordance with the invention, fully-cooked pet foods can be fabricated with SME inputs of up to about 18 kWhr/T, whereas aquatic feeds can be fabricated with SME inputs of up to about 16 kWhr/T. In preferred forms, the extruder (10) includes specially configured, intermeshed extrusion screws (18, 20) and a plurality of obliquely oriented steam inlets (48, 50), and an upstream, dual-shaft preconditioner (90) is used having individual variable frequency drives (98, 100) which allow infinite variablility in the speed and rotational direction of the preconditioner shafts (94, 96).

    摘要翻译: 提供了改进的挤出机和用于挤出烹饪食品例如人类食物或动物饲料的方法,其中与常规处理相比,可以以非常低的比机械能(SME)输入来生产产品。 这些方法优选地涉及在加工期间将非常高水平的蒸汽引入挤出机筒(12),这同时减少了在产品中实现期望的煮煮和膨胀水平所需的必需SME输入。 根据本发明,可以制造具有高达约18kWh / T的SME输入的完全熟化的宠物食品,而水生饲料可以用高达约16kWh / T的SME输入制造。 在优选形式中,挤出机(10)包括特别构造的相互啮合的挤压螺钉(18,20)和多个倾斜定向的蒸汽入口(48,50),并且使用上游双轴预调节器(90),其具有单独的 变速驱动器(98,100),其允许在预调节器轴(94,96)的速度和旋转方向上无限可变。

    Process for preparing almond paste
    17.
    发明授权
    Process for preparing almond paste 失效
    杏仁酱的制备方法

    公开(公告)号:US4839193A

    公开(公告)日:1989-06-13

    申请号:US54703

    申请日:1987-05-27

    摘要: Process for preparing almond paste from whole almonds in a continuous sequence of stages involving cooking-extrusion within a screw conveyor having a plurality of regions with threads of different pitch. The temperatures are controlled at each stage so as to effect not only physical transformations, but also to produce a Maillard reaction for a predetermined part of the process.

    摘要翻译: 在具有多个具有不同节距螺纹的区域的螺旋输送机内进行烹饪挤出的连续阶段的整个杏仁中制备杏仁糊的方法。 在每个阶段控制温度,以便不仅实现物理转化,而且还可以对该过程的预定部分产生美拉德反应。

    Screw extrusion machines
    20.
    发明授权
    Screw extrusion machines 失效
    螺杆挤出机

    公开(公告)号:US2783498A

    公开(公告)日:1957-03-05

    申请号:US38585453

    申请日:1953-10-13

    摘要: 736,022. Screw extrusion machines. BRITISH INSULATED CALLENDER'S CABLES, Ltd. Oct. 22, 1953 [Oct. 23, 1952], No. 26632/52. Class 87 (2). A screw extrusion machine of the type in which the material is subjected to a milling action at the rear and to pressure build up at the front comprises a feed screw with a threaded rear portion of large diameter compared with that of a threaded front portion from which it is separated by a threaded tapered intermediate portion, the front and rear portions each being of cylindrical form or tapering in the same sense as, but to a smaller degree than, the intermediate portion, the screw working within a correspondingly shaped barrel and the tapered intermediate portion being axially adjustable within the barrel to a limited extent to vary the clearance between it and the surrounding tapering wall of the barrel. The barrel is in three portions, a cylindrical front portion 3 with a renewable liner 7, an intermediate conical portion 5, about a quarter the length of the front portion, and a cylindrical rear portion 4, about the same length as the front portion and about two and a half times its diameter, with a renewable liner 8. The three barrel portions have jackets 15, 17, 16 for heating or cooling fluids. The feed screw is in two separate sections, a front section 18 in the barrel portion 3 and a rear section 20, 19 in the barrel portions 5, 4. In the embodiment described the threads 21 are the same hand and pitch on the three portions of the feed screw, that on the portion 20 being a continuation of the thread on the portion 19, but the threads may differ on the three portions in various ways. At the rear of the machine are a main housing 2 and an inner housing 27, the front wall of the main housing carrying a ball bearing 33 and the front wall of the inner housing having screwed into it a sleeve 43 which has a multi-start thread. A spigot 37 projects from the rear of the feed screw portion 19, 20 and is splined to a sleeve 35 which is rotatable in the bearing 33 and in a ball bearing 34 mounted in the sleeve 43, which also houses a roller thrust bearing 42. The sleeve 35 carries a worm wheel 38 which is driven by a worm 39 on a shaft 40 which projects sideways from the housing. The threaded sleeve 43 enables axial adjustment to be given to the intermediate and rear portions of the feed screw by turning the sleeve through an angular distance by means of a spoke 47 which projects through the housing and has a handle 49, the multi-start thread giving a relatively large axial movement. To drive the front portion 18 of the feed screw a torque tube 51 extends rearwards from it through a bore in the rear portions of the feed screw and is keyed, with clearance to allow for thermal expansion, to a sleeve 52 supported by a ball bearing 53 in the rear wall of the inner housing 27 and by a coned roller bearing 55 in the rear wall of the outer housing 2. The sleeve 52 carries a worm wheel 57 which is driven by a worm 58 on a shaft 59 which projects sideways from the housing on the same side as, or the opposite side to, the shaft 40. The shafts 40, 59 are driven by a motor through hydraulic variable gearing which enables their relative speeds to be varied, as through mechanically variable gearing, as by two separate variable speed motors. For heating or cooling the feed screw 19 a tube 67 extends from an enlargement 68 in the bore of the feed screw 20 to the spigot 37, forming an annular chamber in the feed screw 19, and a pipe 70 passes through the wall of the spigot into this chamber and along its .length to introduce heating or cooling fluid to the front of the feed screw which is supplied from a pipe 80 through a gland 74 and a channel 72 in the driving sleeve 35. The fluid, after circulating in the feed screw, returns through a pipe 71, channel 73 and passage 81 in the wall of the gland 74 to the inside of the housing 27, from which it is drained by a pipe 82. The interior of the front portion 18 of the feed screw is heated or cooled by fluid sent through a pipe 83 which extends through the torque tube 51, returning through the clearance between the pipe and the tube. In place of, or in addition to, heating by circulating fluid, electric heating elements may be incorporated in' the wall of the feed screw, connected to clip rings on the driving sleeve 35. The connection may be through plug and socket couplings to permit the feed screw to be withdrawn without disconnecting the leads. In view of the different speeds at which the front portion 18 and the rear portions 19, 20 of the feed screw may be driven, leakage of material between the two must be guarded against, and one way in which this may be done is to provide helical grooves on the front end of the circumferential surface of the torque tube 51 and/or the internal surface of the feed screw portion 20, the helices being of opposite hands when both surfaces are grooved, material leaking through being impelled back by the action of these grooves. Any material not so repelled is allowed to flow to the rear of the portion 19, whence it escapes through an inclined passage 95. Fig. 3 shows alternative sealing means in which carbon rings 85, 86 are seated in recesses in the intermediate feed screw portion 20 and in the torque tube 51 with a space between them occupied by a U-shaped ring 87 of beryllium copper alloy with its sides pressed against the carbon rings by the pressure of material which is allowed to pass through a small gap 88 between the front and intermediate feed screw portions 18, 20. To prevent fluid from reaching the seal from the tube 67 a sealing ring 89 is fitted. In another modification the sealing means comprises a beryllium copper alloy ring,between two carbon rings, of U-secfion with the opening facing towards the axis, oil under pressure entering the U through the clearance between the tube 67 and the torque tube 51 and forcing its sides against the carbon rings. Granular material is fed to the machine from a hopper 96 fitted with a vibrator 99, the granules passing from the hopper to the inlet through a flexible tube 97. Pasty material is fed from the hopper by a spiral screw, or by a pair of feed rollers at the bottom of the hopper. To adapt the machine to various purposes different delivery heads may be bolted to the front flange 107, Fig. 1A, showing a construction in which. a head 108, for extruding a coating about wire fed transversely, is clamped by a screw carried by a yoke 109, as described in Specification 660,249. Fig. 8 shows an attachment by which pellets are produced, the material being forced through perforations in a cylinder 111 and the extruding filaments being cut by blades 116, 117 rotated by a motor 115, the pellets so formed being collected by a hood 118 and leaving by a shoot 119. The cutters may be rotary, 121, Fig. 9, each with a pinion engaging a ring of teeth carried on the inside of the hood. The liners of the barrels may be internally ribbed or grooved. Oil is contained in the lower part of the housing 2 to form an oil bath, and is kept cool by a coil through which cold liquid is circulated.