To provide a parameter determination support device and a program capable of simplifying determination of driving parameters upon driving a motor for which the slip constant is unknown. A parameter determination support device includes: an acquisition unit for acquiring specification information of a drive device of a motor and output specification information of an induction motor; an initial parameter determination unit for determining an initial parameter for test running, based on the specification information and the output specification information; a program creation unit for creating a test-run program to be used in test running for acquiring data that is required for adjustment of a parameter that determines output of the induction motor, based on the output specification information; an automatic measurement unit for automatically measuring a Q-phase voltage command of the induction motor according to the speed, as operating information upon driving by varying the speed of the induction motor according to the test-run program by applying the initial parameters; an estimation unit for estimating a slip constant of the induction motor, based on the operating information; and a calculation unit for performing calculation of an optimum parameter tailored to the output specification of the induction motor, based on the slip constant.

A numerical controller includes: a spindle load detection unit that detects time-series data on a load on a spindle when a workpiece is machined; a target load setting unit that sets a target load on the spindle; a machining time prediction unit that, based on the time-series data, predicts a machining time taken when a feed rate of the spindle is controlled so that a load on the spindle matches the target load; and a machining time output unit that outputs data on the predicted machining time.

To provide a parameter determination support device and a program capable of simplifying determination of driving parameters upon driving a motor for which the slip constant is unknown. A parameter determination support device includes: an acquisition unit for acquiring specification information of a drive device of a motor and output specification information of an induction motor; an initial parameter determination unit for determining an initial parameter for test running, based on the specification information and the output specification information; a program creation unit for creating a test-run program to be used in test running for acquiring data that is required for adjustment of a parameter that determines output of the induction motor, based on the output specification information; an automatic measurement unit for automatically measuring a Q-phase voltage command of the induction motor according to the speed, as operating information upon driving by varying the speed of the induction motor according to the test-run program by applying the initial parameters; an estimation unit for estimating a slip constant of the induction motor, based on the operating information; and a calculation unit for performing calculation of an optimum parameter tailored to the output specification of the induction motor, based on the slip constant.

A numerical controller includes: a program analyzing unit to obtain an end point position of a tool; a first angle calculating unit to calculate an inclination angle of a synthetic feeding direction that maximizes a synthetic torque, based on an upper limit movement torque of the tool in each of the two axis directions; a second angle calculating unit to calculate an inclination angle of a cutting feed direction of the tool based on a start point position and the end point position of the tool; a rotation angle calculating unit to calculate a difference between the inclination angle of the synthetic feeding direction and the inclination angle of the cutting feed direction as a rotation angle of a table; and a servo motor control unit to control rotation of the table based on the rotation angle.

A numerical controller includes: a program analyzing unit to obtain an end point position of a tool; a first angle calculating unit to calculate an inclination angle of a synthetic feeding direction that maximizes a synthetic torque, based on an upper limit movement torque of the tool in each of the two axis directions; a second angle calculating unit to calculate an inclination angle of a cutting feed direction of the tool based on a start point position and the end point position of the tool; a rotation angle calculating unit to calculate a difference between the inclination angle of the synthetic feeding direction and the inclination angle of the cutting feed direction as a rotation angle of a table; and a servo motor control unit to control rotation of the table based on the rotation angle.