Finepitch Electro Magnetic Chuck for Grinding

/Finepitch Electro Magnetic Chuck for Grinding
  • Finepitch Electro Magnetic Chuck for Grinding
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  • Finepitch Electro Magnetic Chuck for Grinding, Finepitch Electromagnetic Chuck, Magnetic Table, FINE-POLE ELECTROMAGNETIC CHUCK, FINE-LINE ELECTROMAGNETIC CHUCK, Fine Pitch Electro Permanent Magnetic Chucks For Grinding Machine, Electro Perm Magnetic Chucks Fine Pitch for Grinding Machine, Electromagnetic Rectangular Magnetic Chuck (Fine Pitch) China supplier factory

    Finepitch Electro Magnetic Chuck for Grinding  Specifications:
    Model: MP-EMA Series
    Use: For versatile clamping on a broad range of workpiece sizes
    Pole pitch 5+0.5+5+0.5+5+3 mm
    Highest uniform clamping force up to 140 N/cm²
    Less than 5°C chuck temperature rise after 1 hour working
    Mono-block housing for maximum stability
    Low current with minimum power consumption
    Low profile for more wheel head clearance
    Versatile clamping, excellent holding on a broad range of workpiece size

    The fine-pole electromagnetic chuck is also called the fine-pitch or fine-line electromagnetic chuck. It is one of the work-holding systems that are commonly involved in the modern machining and manufacturing sector. A work-holding system, or a clamping device, is a necessary element in any machining processes we know today. The primary goal of a work-holding system is to hold a workpiece in place so that the machine tool gets to perform operations on it. The fine-pole electromagnetic chuck is unique among all other clamping devices such as vises, jaw chucks, vacuums, etc. because of its construction and the mechanism it uses to clamp the workpiece.

    Each type of work-holding device finds its way to firmly secure a workpiece during a machining process. Their clamping mechanism brings about several advantages in terms of efficiency but also comes with several limits. Take jaw chucks for example. Jaw chucks, or simply chucks, have a couple of sets of jaws (typically three or four jaws) that form a claw-like structure. It works very much like a hand that uses fingers to grip an object. Such a clamping mechanism is intuitive and works just fine in most scenarios, but it is inefficient in handling workpieces with certain dimensional characteristics. That is where the electromagnetic/magnetic chuck weighs in.

    How does the fine-pole electromagnetic chuck clamp a workpiece?

    Simply put, the fine-pole electromagnetic chuck uses magnetism to hold a workpiece. Instead of using jaws to exert the clamping force onto the workpiece, the electromagnetic chuck holds and releases the workpiece by the force of magnetic attraction and repulsion. It uses the simple physical principle that the opposite poles attract each other and the same poles repel each other to secure a workpiece. The electromagnetic/magnetic chuck can create magnetic fields on the top plate and magnetize the metal workpiece temporarily to create a strong attraction between the workpiece and the chuck, hence the workpiece is clamped.

    How does electromagnetism work?

    To create the magnetic field and generate the clamping force, the two imperative elements in an electromagnetic unit are the electric force and the magnetic force. The presence of the electric force induces the magnetic force. In a typical electromagnetic unit construction, there is a wire (conductor) that winds around a core (ferromagnetic material, usually steel or iron), creating an electromagnet. The wire connects to a power source that provides the electric current to the electromagnet.

    Such a configuration allows for a controllable magnetic force. When the current passes through the wire coil, the magnetic field is created within the coil and turns the core into a magnet. When the power is cut off, the current stops passing through and the magnetic field ceases to sustain. Resultingly, the magnetic force disappears. The key feature of the electromagnet is that its magnetic force is proportional to the electric force. The higher the current, the stronger the magnetism, hence the more versatile the application. For this reason, electromagnets have been put into a wide spectrum of industrial and commercial uses upon their discovery, with the electromagnetic chuck being one of the most prevalent applications.

    Characteristics of fine-pole electromagnetic chucks

    As mentioned earlier, each type of work-holding device works best in certain fields of application. The fine-pole electromagnetic chuck can create a stable clamping force across the surface of the top plate. This makes it ideal for clamping thin, flat workpieces. The magnetic force is distributed evenly on the top plate, so it is less likely to distort the workpiece than the jaw chuck. The magnetic force is strong enough to grip the workpiece firmly while resisting the vibration and impact from the cutting bit. Though having a great magnetic force, the chuck does not influence the operation of the cutting bit. The low magnetic field created by the extra small transverse poles makes sure no magnetic force influences the metal cutting bit.  Fine Pitch Electro Permanent Magnetic Chuck

    Aside from the low magnetic field, the electromagnetic chuck renders more freedom of machining to the machine tool because of the jawless design. The machine tool can only cut the workpiece on the top side. The accessibility to the other sides is limited because of the jaws. However, using the electromagnetic/magnetic chuck, the machine tool can process the workpiece on five sides. The five-side accessibility facilitates the machining process and improves the overall efficiency profoundly, which explains why the electromagnetic chuck is preferable to more and more shops.

    Finepitch electromagnetic chuck EMA dimension

     

    EMA-3060 300 (11.82) 600 (23.62_ 294 (11.57) 80 (3.15) 554 (21.81) 27 (1.06) DC 110 V 0.78 A 107 kg / 236 lb
    EMA-3080 300 (11.82) 800 (31.50) 294 (11.57) 80 (3.15) 744 (29.29) 27 (1.06) DC 110 V 1. A 143 kg / 315 lb
    EMA-30100 300 (11.82) 1000 (39.37) 294 (11.57) 80 (3.15) 934 (36.77) 27 (1.06) DC 110 V 1.2 A 179 kg / 394 lb
    EMA-30120 300 (11.82) 1200 (47.24) 294 (11.57) 80 (3.15) 1124 (44.25) 27 (1.06) DC 110 V 1.6 A 215 kg / 473 lb
    EMA-30150 300 (11.82) 1500 (59.06) 294 (11.57) 80 (3.15) 1428 (56.22) 27 (1.06) DC 110 V 2.1 A 268 kg / 591 lb
    EMA-4060 400 (15.75) 600 (23.62) 394 (15.51) 80 (3.15) 554 (21.81) 27 (1.06) DC 110 V 1.2 A 143 kg / 315 lb
    EMA-4080 400 (15.75) 800 (31.50) 394 (15.51) 80 (3.15) 744 (29.29) 27 (1.06) DC 110 V 1.4 A 191 kg / 420 lb
    EMA-40100 400 (15.75) 1000 (39.37) 394 (15.51) 80 (3.15) 934 (36.77) 27 (1.06) DC 110 V 1.9 A 239 kg / 525 lb
    EMA-40120 400 (15.75) 1200 (47.24) 394 (15.51) 80 (3.15) 1124 (44.25) 27 (1.06) DC 110 V 2.2 A 286 kg / 630 lb
    EMA-40150 400 (15.75) 1500 (59.06) 394 (15.51) 80 (3.15) 1428 (56.22) 27 (1.06) DC 110 V 2.5 A 358 kg / 788 lb
    EMA-40200 400 (15.75) 1000 (39.37)*2 394 (15.51) 80 (3.15) 934 (36.22)*2 27 (1.06) DC 110 V 1.9 A*2 477 kg / 1050 lb
    EMA-5060 500 (19.69) 600 (23.62) 494 (19.45) 80 (3.15) 554 (21.81) 27 (1.06) DC 110 V 1.2 A 179 kg / 394 lb
    EMA-5080 500 (19.69) 800 (31.50) 494 (19.45) 80 (3.15) 744 (29.29) 27 (1.06) DC 110 V 1.5 A 239 kg / 525 lb
    EMA-50100 500 (19.69) 1000 (39.37) 494 (19.45) 80 (3.15) 934 (36.77) 27 (1.06) DC 110 V 1.7 A 298 kg / 656 lb
    EMA-50120 500 (19.69) 1200 (47.24) 494 (19.45) 80 (3.15) 1124 (44.25) 27 (1.06) DC 110 V 1.9 A 358 kg / 788 lb
    EMA-50150 500 (19.69) 1500 (59.06) 494 (19.45) 80 (3.15) 1428 (56.22) 27 (1.06) DC 110 V 2.6 A 447 kg / 984 lb
    EMA-50200 500 (19.69) 1000 (39.37)*2 494 (19.45) 80 (3.15) 934 (36.22)*2 27 (1.06) DC 110 V 1.7 A*2 597 kg / 1313 lb
    EMA-6080 600 (23.62) 800 (31.50) 594 (23.39) 85 (3.35) 744 (29.29) 27 (1.06) DC 110 V 1.5 A 304 kg / 669 lb
    EMA-60100 600 (23.62) 1000 (39.37) 594 (23.39) 85 (3.35) 934 (36.77) 27 (1.06) DC 110 V 2.2 A 336 kg / 738 lb
    EMA-60120 600 (23.62) 1200 (47.24) 594 (23.39) 85 (3.35) 1124 (44.25) 27 (1.06) DC 110 V 2.4 A 456 kg / 1004 lb
    EMA-60150 600 (23.62) 1500 (59.06) 594 (23.39) 85 (3.35) 1428 (56.22) 27 (1.06) DC 110 V 2.4 A 570 kg / 1255 lb
    EMA-60200 600 (23.62) 1000 (39.37)*2 594 (23.39) 85 (3.35) 934 (36.22)*2 27 (1.06) DC 110 V 2.2 A*2 761 kg / 1673 lb
    EMA-70150 700 (27.56) 1500 (59.06) 694 (27.32) 85 (3.35) 1428 (56.22) 27 (1.06) DC 110 V 2.4 A 666 kg / 1464 lb
    EMA-80200 800 (31.50) 1000 (39.37)*2 794 (31.25) 85 (3.35) 934 (36.22)*2 27 (1.06) DC 110 V 2.9 A*2 1014 kg / 2231 lb
    EMA-100150 1000 (39.37) 1500 (59.06) 994 (39.13) 85 (3.35) 1428 (56.22) 27 (1.06) DC 110 V 5 A*2 951 kg / 2092 lb
    EMA-100200 1000 (39.37) 1000 (39.37)*2 994 (39.13) 85 (3.35) 934 (36.22)*2 27 (1.06) DC 110 V 3.3 A*2 1268 kg / 2789 lb
    EMA-120200 1200 (47.24) 1000 (39.37)*2 1194 (47.01) 85 (3.35) 934 (36.22)*2 27 (1.06) DC 110 V 4 A*2 1521 kg / 3347 lb
    EMA-120300 1200 (47.24) 1000 (39.37)*3 1194 (47.01) 85 (3.35) 934 (36.22)*3 27 (1.06) DC 110 V 4 A*3 2282 kg / 5020 lb
    EMA-150300 1500 (59.06) 1000 (39.37)*3 1494 (52.82) 85 (3.35) 934 (36.22)*3 27 (1.06) DC 110 V 6.5 A*3 2852 kg / 6275 lb
    EMA-150500 1500 (59.06) 1000 (39.37)*5 1492 (52.82) 85 (3.35) 934 (36.22)*5 27 (1.06) DC 110 V 6.5 A*5 4754 kg / 10459 lb

    Unit: mm(in)

     

     

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