Übersetzung für "Vector drive" in Deutsch

In addition, a drive vector is also determined for each interpolation point.

A 30 HP AC Vector drive with encoder feedback was supplied to precisely regulate the line speed.

The first derivation of the spline in each of the interpolation points then corresponds to the drive vector of the corresponding interpolation point.

Drill/Tap Center; 20" x 16" x 15.5" (508 x 406 x 394 mm), BT30 taper, 15 hp (11.2 kW) vector drive, 15,000 rpm, 2400 ipm (61 m/min) rapids, high-speed 20+1 side-mount tool changer, power failure detection module, 1 MB program memory, 15" color LCD monitor, USB port, memory lock keyswitch, rigid tapping and 45- gallon (170 L) flood-coolant system.

Vertical Machining Center; 30" x 16" x 20" (762 x 406 x 508 mm), 40 taper, 30 hp (22.4 kW) vector drive, 8100 rpm, inline direct-drive, 20-station carousel tool changer, 1000 ipm (25.4 m/min) rapids, 1 MB program memory, 15" color LCD monitor, USB port, memory lock keyswitch, rigid tapping and 55-gallon (208 liter) flood coolant system.

Vertical Machining Center; 20" x 16" x 14" (508 x 406 x 356 mm), 40 taper, 15 hp (11.2 kW) vector drive, 10,000 rpm, 1200 ipm (30.5 m/min) rapids, high-speed 10-station automatic tool changer, coolant pump, 1 MB program memory, 15" color LCD monitor, memory lock keyswitch, USB port, rigid tapping and work light.

As the toothing of the pinion 25 engages with the ring gear 27, said pinion 25 is also made to rotate and runs off on the central wheel 21, as a result of which the driving part 22 is rotated in relation to the transmission part 26 and effects an eccentric motion thereof in which the vector connecting the drive axis 4 to the output point 29, the length of which vector corresponds to the eccentricity E, revolves about the drive axis 4 .

The method according to claim 2, wherein the drive vector is determined for a first interpolation point on the tool path by placing a vector through the first interpolation point and a next leading angle interpolation point in a direction of movement.

In addition, a normal vector is determined for each interpolation point from the leading angles and the setting angles as well as from a drive vector determined for each interpolation point.

In addition, a drive vector of the milling cutter is defined for each interpolation point on each tool path.

According to a first embodiment of the method, at each interpolation point of the tool path, the corresponding drive vector is determined by placing a vector through the corresponding interpolation point and a neighboring interpolation point.

For the first interpolation point of each tool path, the drive vector is determined by placing a vector through the first interpolation point and the next leading angle interpolation point in the direction of movement, i.e., the second interpolation point of the tool path.

For each additional interpolation point of the tool path, the drive vector is determined by placing a vector through the interpolation point and the next interpolation point toward the rear in the direction of movement.

In a second step, the cross product of the first intermediate vector of the particular interpolation point and the drive vector of the particular interpolation point is formed, this cross product yielding a second intermediate vector for the interpolation point.

The means 14 determined from the APT file 11 the drive vector and the normal vector for each interpolation point on the tool path, whereby the means 14 supply the normal vector in the form of APT data.

Vertical Machining Center; 20" x 16" x 14" (508 x 406 x 356 mm), 40 taper, 7.5 hp (5.6 kW) vector drive, 6000 rpm, 10-station automatic tool changer, coolant pump, 1 MB program memory, 15" color LCD monitor, memory lock keyswitch, USB port and work light.

A 30 HP AC Vector drive with encoder feedback was supplied to precisely regulate the line speed up to 100FPM and reduce coil clockspringing.

Office Mill; 12" x 10" x 12" (305 x 254 x 305 mm) (xyz), ISO 20 taper, 5 hp (3.7 kW) vector drive, 30,000 rpm, 20-station automatic tool changer, coolant pump, high-speed machining, 750 MB program memory, memory lock keyswitch, 15" color LCD monitor and USB port.

Vertical Machining Center; 16" x 12" x 10" (406 x 305 x 254 mm), 40 taper, 15 hp (11.2 kW) vector drive, 10,000 rpm, 1200 ipm (30.5 m/min) rapids, high-speed 10-station automatic tool changer, coolant pump, 1 MB program memory, 15" color LCD monitor, USB port, memory lock keyswitch, and rigid tapping.

Vertical Machining Center; 16" x 12" x 10" (406 x 305 x 254 mm), 40 taper, 7.5 hp (5.6 kW) vector drive, 6000 rpm, 10-station automatic tool changer, coolant pump, 1 MB program memory, memory lock keyswitch, 15" color LCD monitor and USB port.

Bit-vector of hard drives present (bit 31 = Drive A: etc).

As of PC-GEM Version 2.0 this value is interpreted as a bit-vector with the drives registered with the desktop (bit 15 = Drive A:).

In addition, in the sense of the present invention, a quantity is derived from these angles and drive vectors, which are determined using the interpolation points on the tool paths, namely the quantity being derived is the normal vector which is supplied as the input variable to a 3D-radius correction function and which can be processed by a 3D-radius correction function.

Alternatively, the drive vectors for the interpolation points may also be determined by placing a spline through all interpolation points on a tool path.

In the next step S 130, the determined values of the driving state parameters (that is to say the 9-dimensional vector from the driving state parameters in the above example) for the journey route that has been travelled are compared with the respective values (or the corresponding 9-dimensional vector) for the standard journey situations (see Table 1).