Damage detecting device for wire rope
A flaw detection device and wire rope technology, which is applied in the direction of material magnetic variables, etc., can solve the problems of complex wire rope structure, wire breakage, and small output of electromagnetic detection sensors.
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Embodiment 1
[0032] Such as figure 1 As shown, the flaw detection device of the steel wire rope in this example is mainly composed of the following components: a magnetizer (the magnetization unit) 2 that magnetizes the steel wire rope 1 along the length direction; electromagnetic sensors (magnetic detection units) 3a~3p, thus surrounding the steel wire rope 1; a corrector 4 for correcting the output signal values of these 16 electromagnetic sensors 3a~3p; The first memory (storage unit) 5a for the correction value and position information of the sensors 3a-3p; the comparator 6 for comparing the output signal values of the electromagnetic sensors 3a-3p corrected by the corrector 4; 4 The sum of the output signal values of the corrected electromagnetic sensors 3a to 3p is used to determine the calculation part 7 of the damage degree of the steel wire rope; the second memory (storage part) 5b that stores the coefficient used by the calculation part 7; An output device 8 for outputting...
Embodiment 2
[0060] Figure 9 A flaw detection device for a steel wire rope according to Example 2 is shown. The wire rope flaw detection device of this example is characterized in that time delay circuits 9a to 9p are provided in the preceding stage of the calculation unit 10; the calculation unit 10 multiplies coefficients by the electromagnetic sensors 3a passing through these time delay circuits 9a, 9b, 9c... ~ 3P output signal.
[0061] Like the flaw detection device of the steel wire rope in Embodiment 1, the flaw detection device of the steel wire rope of this example also has: the magnetizer 2 that magnetizes the steel wire rope 1 along the longitudinal direction; The electromagnetic sensors 3a to 3p surround the steel wire rope 1 . The outputs of the electromagnetic sensors 3a to 3p are input to the calculator 10 after passing through the time delay circuits 9a to 9p.
[0062] Calculator 10 reads in sequence according to the output of time delay circuit 9a, the output of time d...
Embodiment 3
[0065] Figure 11A flaw detection device for a steel wire rope according to Example 3 is shown. The wire rope flaw detection device of this example is characterized in that: the outputs of the electromagnetic sensors 3a, 3b, 3c, 3d, and 3e are respectively input into time delay circuits 9a and 9q, 9b and 9r, 9c and 9s, and 9d with different time constants. and 9t, 9e and 9u (in Figure 11 The illustration of 9t and 9u is omitted in ).
[0066] Like the flaw detection device of the steel wire rope in Embodiment 1, the flaw detection device of the steel wire rope of this example also has: the magnetizer 2 that magnetizes the steel wire rope 1 along the longitudinal direction; The electromagnetic sensors 3a to 3p surround the steel wire rope 1 . The outputs of the electromagnetic sensors 3a-3p are input to the calculator 11 after passing through the time delay circuits 9a-90.
[0067] In the wire rope flaw detection device of this example, the outputs of the electromagnetic s...
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