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    • 14. 发明申请
    • PROCESS FOR COOLING THE CUTTING ZONE OF MATERIALS BEING MACHINED AND A DEVICE FOR CARRYING OUT THE SAME
    • 用于冷却被切割的材料切割区域的方法和用于实施其的装置
    • WO1994007631A1
    • 1994-04-14
    • PCT/RU1993000110
    • 1993-05-17
    • AKHMETZYANOV, Izyaslav DmitrievichZAMMAN, Atik
    • B23B01/00
    • B23Q11/10Y10S82/90Y10T82/10Y10T409/304032
    • The process and device in question are used to cool the cutting zone of materials undergoing machining. In a process for cooling the cutting zone of a material being machined, a gaseous lubricating and cooling medium, treated in an ionizer in a corona discharge field, is directed onto the cutting zone at a rate equal to or greater than the rate of cutting. The corona discharge is produced using an adjustable stabilized electrical current which varies with the rate of feed of the gaseous lubricant/coolant. The device for carrying out this process comprises an ionizer (1) with a housing (7) which has an outlet nozzle (8) connected by the main line (9) to the source (3) of the gaseous lubricant/coolant, a corona electrode (2) mounted within the housing (7) and a power source (4) electrically connected to the corona electrode (2), and is provided with a regulator (5) connected to the main line (9) for the delivery of the gaseous lubricant/coolant, and a controllable stabilizer (6) for the output current which is incorporated into the power circuit of the corona electrode (2).
    • 所使用的方法和装置用于冷却正在进行加工的材料的切割区域。 在用于冷却被加工材料的切割区域的过程中,在电晕放电场中以电离器处理的气态润滑和冷却介质以等于或大于切割速率的速率被引导到切割区域上。 使用可调节的稳定电流产生电晕放电,其随着气态润滑剂/冷却剂的进料速率而变化。 用于执行该过程的装置包括具有壳体(7)的离子发生器(1),其具有通过主线(9)连接到气态润滑剂/冷却剂的源(3)的出口喷嘴(8),电晕 安装在壳体(7)内的电极(2)和电连接到电晕电极(2)的电源(4),并且设置有连接到主线路(9)的调节器(5) 气态润滑剂/冷却剂,以及用于输入电流的可控稳定器(6),其被结合到电晕电极(2)的电源电路中。
    • 16. 发明申请
    • METHOD AND APPARATUS OF MACHINING WITH IMPROVED CHIP CONTROL
    • 具有改进的芯片控制的加工方法和装置
    • WO1992004151A1
    • 1992-03-19
    • PCT/US1991006114
    • 1991-08-27
    • PRODUCTIVITY XPERTS, INC.
    • PRODUCTIVITY XPERTS, INC.YANKOFF, Gerald, K.
    • B23B01/00
    • B23Q11/005B05B1/34B05B17/0692
    • A nozzle apparatus (10) adapted for use with machine tools of different configuration, which perform different machining operations, comprises a nozzle body (26) having a nozzle insert (42) mounted within an outlet passageway (36) formed in the nozzle body at its intersection with a coaxial, larger diameter inlet passageway (28) connected to a source (34) of coolant. The nozzle insert and outlet passageway are constructed to induce the formation of shock waves within the coolant stream in the course of its passage through the interior of the nozzle body which increase the energy and velocity of the coolant stream so that it is effective to pierce the heat barrier developed at the interface between the cutting insert (18) and workpiece (14), and to assist in the breakage of chips (87) from the workpiece.
    • 一种适于与执行不同加工操作的不同结构的机床一起使用的喷嘴装置(10)包括:喷嘴主体(26),其具有安装在形成在喷嘴主体中的出口通道(36)内的喷嘴插件(42) 其与具有连接到冷却剂源(34)的同轴较大直径的入口通道(28)的交点。 喷嘴插入物和出口通道被构造成在冷却剂流通过喷嘴体内部的过程中引起冲击波的形成,这增加了冷却剂流的能量和速度,从而有效地刺穿 在切削刀片(18)和工件(14)之间的界面处形成的热障,并且有助于从工件中破碎切屑(87)。
    • 17. 发明申请
    • DEVICE FOR PROCESSING MATERIALS BY CUTTING
    • 通过切割加工材料的装置
    • WO1991004811A1
    • 1991-04-18
    • PCT/SU1990000135
    • 1990-05-28
    • CHEBOXARSKOE PROIZVODSTVENNOE OBIEDINENIE ...
    • CHEBOXARSKOE PROIZVODSTVENNOE OBIEDINENIE ...AKHMETZYANOV, Izyaslav DmitrievichVERESCHAGIN, Igor PetrovichDOGADIN, Georgy SergeevichILIIN, Viktor IpatievichSUSLOV, Alexei DmitrievichTERENTIEV, Alexei Grigorievich
    • B23B01/00
    • B23B1/00
    • A device for processing materials by cutting comprises a current source (6) of negative polarity, a unit (13) for providing air flows, a commutating unit (9) and an alternating current source (8). The device further comprises two means (2, 4) for ionization of the air flow with corresponding corona electrodes (3, 5). The means (2,4) for ionization of the air flow are connected to the unit (13) for providing air flows. The corona electrode (3) of the first means (2) is connected to the current source (6) of negative polarity. The corona electrode (5) of the second means (4) is connected to the commutating device (9). The first means (2) is directed towards the cutting zone on the side (B) of the rear surface of the cutting tool (1). The second means (4) is directed towards the chip-forming part (C) of the cutting zone. The device may further comprise a third means (19) for ionization of the air flow directed by its outlet towards the cutting zone on the side (D) of the front surface of the cutting tool (1). The electrode (20) of the means (19) is connected to the current source (21) of negative polarity. The invention makes it possible to intensify the cutting process by ensuring a greater endurance of the cutting tool (1) due to rendering the chip brittle, crushing it and weakening the layer of the material to be cut.
    • 用于通过切割处理材料的装置包括负极的电流源(6),用于提供空气流的单元(13),换向单元(9)和交流电源(8)。 该装置还包括用于使空气流与相应的电晕电极(3,5)电离的两个装置(2,4)。 用于电离气流的装置(2,4)连接到用于提供空气流的单元(13)。 第一装置(2)的电晕电极(3)连接到负极性的电流源(6)。 第二装置(4)的电晕电极(5)连接到换向装置(9)。 第一装置(2)指向切割工具(1)的后表面的侧面(B)上的切割区域。 第二装置(4)指向切割区域的切屑形成部分(C)。 该装置还可以包括第三装置(19),用于将由其出口引导的空气流电离到切割工具(1)的前表面的侧面(D)上的切割区域。 装置(19)的电极(20)连接到负极性的电流源(21)。 本发明可以通过确保切削工具(1)的耐久性更强,从而使切削加工成为可能,这是由于使芯片变脆,破碎并削弱待切割材料层。
    • 19. 发明申请
    • METHOD OF CONTROLLING CHASING LATHE
    • 控制变形杆的方法
    • WO1984001730A1
    • 1984-05-10
    • PCT/JP1983000373
    • 1983-10-25
    • FANUC LTDKISHI, HajimuSEKI, MasakiTAKEGAHARA, Takashi
    • FANUC LTD
    • B23B01/00
    • B23B1/00G05B19/4166G05B2219/45141G05B2219/49157G05B2219/49392G05B2219/50291Y10T82/2502
    • A method of controlling a chasing lathe uses at least two tools (TL1, TL2) provided in parallel on one side of a tool slide (TBS), and a workpiece (WK) is machined by employing a succession of predetermined tools. The method comprises: inputting data on at least part dimensions, tool selection order, positions to be cut by each tool, and mounting dimensions from a reference position of each tool; and machining at the positions (P5-P4-P3-P2-P1; P5-P7-P8-P9-P10) to be machined which are allotted to the respective tools, using the predetermined tools in order on the basis of the data. In addition, during the machining, upon the completion of machining with one tool (TL1), when the subsequent tool (TL2) is being positioned at a position which will be machined thereby by moving the tool slide (TBS), the tool slide (TBS) is moved in the Z-axis direction to a point (Pr) at which none of the tools (TL1, TL2) will come into contact with the workpiece (WK) by the movement of the tool slide (TBS) in the direction (X-axis direction) perpendicular to the longitudinal direction of the workpiece (WK) (Z-axis direction). Thereafter, the tool slide is moved in the X-axis direction to a point (Pt) at which the X-axis position of the selected tool to coincide with the X-axis coordinate of the start position of the machining done by that tool, and then machining is done by employing the selected tool.