KR102401322B1 - A multi-wave generation system - Google Patents

Abstract

The present invention relates to a multi-waveform generation system and to multi-waveform generation system for generating waveforms used in various fields such as functional surface processing machines, waveform generation devices, research fields using waveforms, etc. To this end, provided is a multi-waveform generation system comprising: a channel management module (10) which controls an input and an output, and generates and manages a channel according to a processing machine connected to an output side and an output means using waveforms; a wave module (20) which generates waveforms to be applied to the channel generated by the channel management module (10), and is capable of loading the waveforms in the channel management module (10); a sweep module (30) which is generated by the wave module (10), and is capable of controlling the increase/decrease pattern of an amplitude and a period of the waveforms loaded in the channel management module (10); a smart random module (40) generating and controlling muti-waveforms; a manual module (50) enabling a user or an administrator to generate various types of multi-waveforms; and an AI module (60) deriving an AI machine learning model, which is made through training and optimization, by using preceding data stored in a file module (70). The present invention makes it easy to generate and manage the multi-waveforms.

Description

Complex Waveform Generation System {A MULTI-WAVE GENERATION SYSTEM}

The present invention relates to a complex waveform generation system, and by making it possible to generate a single waveform or a complex waveform, a functional surface processing machine disposed at the output stage, a waveform generating device, or a waveform used in various fields such as a research field using a waveform It is to provide a complex waveform generating system for generating.

As technology advances, research and technical applications for various types of waves, that is, waveforms are increasing.

Such a waveform is a continuous signal having a specific shape, and is a sine wave, a pulse wave, a square wave, a sawtooth wave, a triangle wave, and a noise wave. ), etc., and are continuously generated with a cycle in various forms.

It can be used in various fields according to the characteristics of these waveforms, and it is used in various fields such as functional surface processing, which is recently in the spotlight, wave study of waves, which is an important factor in the marine industry, and signal fields related to radio waves.

However, while waveforms are widely used in various fields, most of them are methods capable of generating only a single frequency or single shape waveform due to their characteristics.

In addition, there was a problem that the complex waveform was difficult to be applied because the generation frequency was also limitedly applied.

With respect to such a waveform generation technology, Korean Patent Laid-Open Patent No. 10-2011-0058750 (a high-frequency microwave and high-frequency magnetic field generating device using a spin transfer torque phenomenon, published on June 01, 2011) discloses that the high-frequency microwave generating device is fixed It has a structure consisting of a magnetic layer / non-magnetic layer / free magnetic layer / non-magnetic layer / sensing magnetic layer / anti-ferromagnetic layer, wherein the free magnetic layer is a first thin film containing a first soft magnetic material and a second having a negative magnetic anisotropy constant (K) a second thin film made of a material, wherein the pinned magnetic layer has a magnetization characteristic in a vertical direction of the thin film, and the sensing magnetic layer has a magnetization characteristic in a horizontal direction of the thin film, and the high-frequency microwave generating device according to the present invention is more Magnetization is possible even at high current. Therefore, since the high-frequency device according to the present invention can generate a high-frequency AC signal, the development of devices such as a resonator, oscillator, and bandpath filter driven in such a high-frequency region transmits and processes more information in a faster time than conventional devices. Therefore, a technology that can increase the efficiency of the device has been proposed.

However, in the case of the prior art as described above, there is a limitation in that only microwaves can be generated, and there is a problem in that it is difficult to generate various types of waves, that is, multi-waves, and the field of application thereof is inevitably limited.

Korean Patent Laid-Open Patent No. 10-2011-0058750 (High-frequency microwave and high-frequency magnetic field generating device using spin transfer torque phenomenon, published on June 01, 2011) Republic of Korea Patent Publication No. 10-2004-00501003 (a continuous sawtooth wave generator of millimeter wave radar, published on June 16, 2004)

An object of the present invention is to provide a system capable of generating a complex waveform so as to respond to the technical needs of various fields using waveforms.

An object of the present invention is to enable control of a single or a plurality of output terminals, thereby generating and managing a complex waveform.

Another object of the present invention is to provide a system that facilitates the creation and management of complex waveforms by users or administrators.

In a complex waveform generation system for achieving the object of the present invention, a channel management for controlling input and output, and generating and managing a channel according to an output means using a waveform such as a CNC machining machine connected to an output connected to an output module 10; and a wave module 20 that generates a waveform to be applied to the channel generated by the channel management module 10 and mounts it in the channel management module 10; and the wave module 20 A sweep module 30 for controlling the increase/decrease pattern of the amplitude and period of the generated waveform and mounted on the channel management module 10; and a smart random module 40 for generating and controlling a complex waveform; and a user or administrator Manual module 50 for generating various types of complex waveforms; and AI module 60 for deriving a work model through AI machine learning learning using previous work data stored in the file module 70 It provides a complex waveform generating system, characterized in that consisting of.

At this time, a file module 70 for calling file information stored in an internal memory further included in the channel management module 10 or an external storage medium and using the called information is further included, , the channel management module 10 generates, controls, and manages channels according to the type and quantity of output means using a waveform such as a CNC machining machine connected to the output side provided on the output side, and manages the output values of multiple channels. To control the X-axis and Y-axis, respectively, after designating the output terminals CH.1 and CH.2, respectively, when outputting the same waveform, Sine Wave, it controls the size of the output signal of the output terminal to form the Lissajous curve. curve) and apply it to machine tools placed at the output stage.

In addition, the channel management module 10 further includes an offset function for moving the median value of the waveform, and the offset function includes a center offset function for moving the median value in the + or - direction through amplification or compensation of the input raw waveform. to include more.

In addition, the wave module 20 includes a waveform selection area 21 for selecting a waveform, a period type selection area 22 for selecting the period of the selected waveform, and a period setting area 23 for setting the number of repetitions of the waveform. , DC time setting area 24 for forming a DC wave that is a smooth wave after repetition of each waveform, amplitude type selection area 25 for selecting the amplitude type, and offset setting area 26 for setting the offset of the waveform section ), the waveform angle setting area 27 where you can adjust the start time by setting the angle of the waveform, the amplitude deflection setting area 28 where you can adjust the amplitude deflection of square and pulse waves, and the periodic balance and symmetry of triangle and sawtooth waves. It consists of a triangular waveform symmetry setting area 29 that can be set for the sine wave so that the waveform selection area 21 of the wave module 20 is mounted on the channel management module 10 to select and activate a waveform to be generated. Select the area consisting of Sine Wave, Pulse Wave, Square Wave, Saw Wave, Triangle Wave, Noise Wave and DC Wave. Including, activated by the selection of a user or an administrator so as to be mounted on the channel management module (10).

The sweep module 30 generates and controls a sweep waveform that is a waveform such as increase or decrease of a waveform, and includes a sweep period period setting area 31 that can set a period section of the sweep waveform, a sweep waveform The sweep unit setting area 32 for setting the sweep unit of , the sweep displacement section setting area 33 for setting the sweep displacement section of the sweep waveform, the displacement sweep unit setting area for setting the displacement value according to the sweep displacement section setting (34) , Offset setting area 35 for offsetting the entire section of the waveform, Waveform angle setting area 36 for setting the start time by setting the angle of the waveform, Smoothing time setting for setting the operation time of the smooth wave of the sweep wave Area 37, the amplitude deflection setting area 38 for setting the amplitude deflection when the sweep waveform is generated in the form of a square wave or pulse wave, and the symmetry and It consists of a triangular waveform symmetry setting area 39 that can set the balance, and the sweep unit setting area 32 has an Incre. (Increment) window for setting the value to be incremented for the sweep waveform and a Split window for setting the number of increments. It is provided so that the incremented value between the start and end points of the sweep waveform can be automatically calculated and applied, but when one of the Incr. value or Split value is input, it is automatically calculated and the other value is automatically input.

In addition, the sweep waveform is a single channel, which is a single-wave increase/decrease wave, which is repeatedly generated for a set period, or when multiple channels are generated using a plurality of channels, the set value is adjusted to generate a complex sweep waveform as a complex waveform. let it be

The smart random module 40 includes a random frequency control region 41 for controlling the frequency of the random waveform, a random period control region 42 for controlling the period of the random waveform, and a random for controlling the displacement range of the random waveform. Consists of a displacement control area 43, and a waveform angle setting area 44 that can set the start time of the random waveform by setting the angle of the random waveform and a random waveform offset area 45 that turns off the random waveform .

In addition, the manual module 50 allows the user to select one or more waveforms and continuously generates manual waveforms according to the order selected by the user, and the manual module 50 allows the manual waveforms to be formed. A waveform selection area 51 to set the operation sequence of the selected waveform, an ordering area 52 for designating the operation sequence of the selected waveform, a frequency setting area 53 for setting the frequency of the selected waveform, an amplitude setting area 54 for setting the amplitude of the selected waveform; It consists of a repetition number setting area 55 for setting the repetition number of the selected waveform and a time setting area 56 for setting the driving time.

In addition, the AI module 60 includes a period type selection area 61 for selecting the period type of the waveform, an amplitude type selection area 62 for selecting the amplitude type of the waveform, and for AI machine learning and data processing. It consists of an AI input area 63 for inputting data and an AI output area 64 for storing or outputting processed results, and the AI module 60 obtains similar information from existing data through machine learning and In the initial setting before work, it minimizes repetitive actions for error correction so that an optimized model can be derived and applied according to the work. to derive an optimized model.

In addition, the channel management module 10 is generated in the channel management module 10 to create, control, and manage channels according to the type and quantity of output means using a processing machine or waveform signal provided on the output side. Each channel is formed according to the number of output means connected to the output side, or a plurality of channels of the same output means can be applied, so that each menu according to multiple channels can be used in a complex manner. It is to better achieve the object of the present invention by providing a system for generating a complex waveform.

By providing the multi-wave generating system of the present invention, it is possible to generate multi-waves to respond to the technical needs of various fields using waves, and the effect of providing a system that allows users or administrators to easily create and manage multi-waves there is

1 is a block diagram of a complex waveform generation system of the present invention.
2 is a block diagram of a wave module 20 according to the present invention.
3 is an exemplary diagram of a waveform generated by the wave module 20 .
4 is an exemplary view in which a continuous waveform is generated by the wave module 20 .
5 is an exemplary diagram of a multi-channel complex waveform generated by the wave module 20. Referring to FIG.
6 is an exemplary view to which the offset displacement of the continuous waveform generated by the wave module 20 is applied.
7 is a block diagram of the sweep module 30 according to the present invention.
8 is an exemplary diagram of a sweep waveform generated by the sweep module 30 .
9 is an exemplary diagram in which a sweep waveform of a continuous waveform is generated by the sweep module 30 .
10 is a diagram illustrating an example of generating a multi-channel multi-sweep waveform of the sweep module 30 .
11 is a block diagram of a smart random module 40 according to the present invention.
12 is an exemplary diagram of a random complex waveform generated by the smart random module 40 .
13 to 15 are exemplary diagrams of a random complex waveform according to a set value of the smart random module 40. As shown in FIG.
16 is a block diagram of the manual module 50 .
17 is an exemplary diagram of a manual waveform according to a set value of the manual module 50. As shown in FIG.
18 is a block diagram of the AI module 60 .
19 is a block diagram of the file module 70 .
20 is an exemplary diagram illustrating multi-channel operation of the channel management module 10 .
21 is an exemplary diagram of an offset function of the channel management module 10 .

Hereinafter, the complex waveform generating system and method of the present invention will be described in detail with reference to the drawings so that those skilled in the art can easily implement the same.

1 is a block diagram of a complex waveform generation system of the present invention.

1, the channel management module 10 and the channel management module that control input and output, and create and manage a channel according to an output means using a waveform such as a CNC machining machine connected to the output side The wave module 20 that generates a waveform to be applied to the channel generated in 10 and allows it to be loaded on the channel management module 10, and the wave module 20 generated by the wave module 20 and mounted on the channel management module 10 A sweep module 30 to control the increase/decrease pattern of the amplitude and period of a waveform, a smart random module 40 to generate and control a complex waveform, and a manual that allows a user or administrator to create various types of complex waveforms Further included in the AI module 60 and the channel management module 10 for deriving an optimized work model through AI machine learning learning using the previous work data stored in the module 50 and the file module 70 It is composed of a file module 70 that calls file information stored in an internal memory or an external storage medium and allows the called information to be used.

In addition, a time management module 80 for controlling wave generation and driving time, and the like, and a display module 90 for confirming a state in which the wave is generated and driven are further provided.

Here, the display module 90 further includes a preview function and an output end view function for checking a signal output through the output side.

The channel management module 10 generates, controls, and manages channels according to the type and quantity of a processing machine provided on the output side or an output means using a waveform signal.

At this time, the channel generated by the channel management module 10 is formed according to the number of output means connected to the output side, or a plurality of channels of the same output means can be applied, so that each channel according to the multi-channel is applied. It allows multiple menus to be used (refer to FIG. 20).

In addition, by allowing the channel management module 10 as described above to control the output values of multiple channels, it is possible to generate and control various types of complex waveforms. For example, the X-axis and the Y-axis are CH. When outputting the same waveform (Sine Wave) after designating them as and CH.2 respectively, control the size of the output signal at the output stage to generate a Lissajous curve and apply it to machine tools placed at the output stage, etc. will do

More specifically, one or more channels are generated according to the number of output means connected to the output side, and the number is not limited, and a plurality of channels, ie, n channels, are created and managed through the channel management module 10 . it can be done

The channel management module 10 as described above can acquire information such as the type and history of the output means connected to the output side, and the plug-and-play function is further mounted so that the output means is connected to the output side while being connected to the output means. It sets communication protocol, etc., and enables data to be called by inquiring past connection history.

In addition, the channel management module 10 further includes a function for controlling the operation state for each channel, and further includes a waveform offset function.

Here, the offset function of the regular waveform is to set the position of the median value (0V) of the waveform, and to set the amplitude of the waveform.

At this time, the offset function is possible through the control of the voltage value, and this offset function moves the center value to set the center offset function and the voltage value of + or - so that the center value of the waveform can be moved, and the center value is moved. The offset function makes it possible to perform functions such as amplification or compensation of the input raw waveform in addition to the shift function that simply moves the median value of the waveform in the + or - direction (see Fig. 21).

2 is a block diagram of a wave module 20 according to the present invention, FIG. 3 is an exemplary view of a waveform generated by the wave module 20, and FIG. 4 is a continuous waveform generated by the wave module 20 It is an example view, and FIG. 5 is an example of generating a multi-channel complex waveform of the wave module 20 , and FIG. 6 is an example of applying an offset displacement of a continuous waveform generated by the wave module 20 .

The wave module 20 will be described in detail below with reference to FIGS. 2 to 6 .

The wave module 20 is mounted on the channel management module 10 so as to select and control a waveform to generate, a sine wave, a pulse wave, a square wave, a sawtooth wave (Saw). Wave), triangle wave, noise wave, and smooth wave (DC Wave) including a selection area, activated by the user or administrator's selection to be installed in the channel management module (10) do rock

At this time, the waveform provided by the wave module 20 enables a single or a plurality of waveforms to be activated.

This is to enable the generation of a complex waveform of a complex waveform or a waveform of a single shape.

For example, when a user or administrator wants to generate a waveform of a single sine wave, only a sine wave is selected and activated, and then mounted on the channel management module 10 so that the waveform can be generated, controlled and managed.

In addition, when a user or administrator wants to create a complex waveform that is a mixture of a sine wave, a pulse wave, and a triangular wave, select and activate each waveform, and then mount it on the channel management module 10 to generate and control the complex waveform. .

The wave module 20 as described above includes a waveform selection area 21 for selecting a waveform, a period type selection area 22 for selecting the period of the selected waveform, and a period setting area 23 for setting the number of repetitions of the waveform. , DC time setting area 24 for forming a DC wave that is a smooth wave after repetition of each waveform, amplitude type selection area 25 for selecting the amplitude type, and offset setting area 26 for setting the offset of the waveform section ), the waveform angle setting area 27 where you can adjust the start time by setting the angle of the waveform, the amplitude deflection setting area 28 where you can adjust the amplitude deflection of square and pulse waves, and the periodic balance and symmetry of triangle and sawtooth waves. It is composed of a triangular waveform symmetry setting area 29 that can be set with respect to each other.

In this case, the waveform selection area 21 is a sine wave, a pulse wave, a square wave, a sawtooth wave, a triangle wave, a noise wave, and a smoothing wave. Allows you to select one or more of the DC Waves so that they can be activated.

In the period type selection area 22, as a method of inputting the period of a wave, a Frequency input window for setting repetition and frequency, that is, frequency, etc. or a Period input window for setting an occurrence period, etc. Separate them so that they can be entered.

The period setting area 23 allows to set the number of repetitions according to the period of the waveform, and the DC time setting area 24 allows to set the time for the DC wave, which is a smooth wave signal.

In this case, the smoothing wave is such that a smoothing wave can be generated between the period and the period of the waveform (refer to FIGS. 4 and 6).

In addition, the amplitude type selection area 25 for selecting the amplitude type is configured to select a Peak to Peak method for setting the highest point of the amplitude and a High/Low method for selecting the highest and lowest points. do.

In addition, the waveform angle setting area 27 serves to adjust the start time by setting the angle of the waveform.

Also, in the amplitude deflection setting area (28), the amplitude of the waveform is set so that the amplitude can be deflected by setting a value other than 0 (V).

In more detail, it refers to making it possible to shift in the amplitude direction.

In addition, the triangular wave waveform symmetry setting area 29 is to set the periodic balance and symmetry of the triangular wave and the sawtooth wave, and the balance and symmetry of the triangular wave can be adjusted from an equilateral triangle to a right triangle or a right-angled triangle wave and a left-handed right triangle wave. is to make it

In addition, the wave module 20 may control driving of each wave when the channel management module 10 generates a plurality of channels.

For example, when two channels are created in the channel management module 10, two windows for controlling channel 1 (Ch 1.) and channel 2 (Ch 2.) are activated, respectively, and then each wave is executed. to create and control it.

7 is a block diagram of a sweep module 30 according to the present invention, FIG. 8 is an exemplary view of a sweep waveform generated by the sweep module 30, and FIG. 9 is a continuous waveform generated by the sweep module 30 It is an example of generating a sweep waveform, and FIG. 10 is an example of generating a multi-channel multi-sweep waveform of the sweep module 30 .

The sweep module 30 will be described in detail below with reference to FIGS. 7 to 10 .

The sweep module 30 generates and controls a sweep waveform that is a waveform such as increase or decrease of a waveform, and includes a sweep period period setting area 31 that can set a period section of the sweep waveform, a sweep waveform The sweep unit setting area 32 for setting the sweep unit of , the sweep displacement section setting area 33 for setting the sweep displacement section of the sweep waveform, the displacement sweep unit setting area for setting the displacement value according to the sweep displacement section setting (34) , Offset setting area 35 for offsetting the entire section of the waveform, Waveform angle setting area 36 for setting the start time by setting the angle of the waveform, Smoothing time setting for setting the operation time of the smooth wave of the sweep wave Area 37, the amplitude deflection setting area 38 for setting the amplitude deflection when the sweep waveform is generated in the form of a square wave or pulse wave, and the symmetry and It is composed of a triangular waveform symmetry setting area 39 that can set the balance.

The sweep period section setting area 31 is provided with a window that can be set by inputting a start value and an end value, so that a start point and an end point of the sweep waveform can be set.

The sweep unit setting area 32 is provided with an Increment (Increment) window for setting the value by which the sweep waveform is incremented and a Split window for setting the number of increments, by automatically calculating the incremented value between the start point and the end point of the sweep waveform. It can be applied, but when one of Incr. value or Split value is input, it is automatically calculated and the other value is automatically entered.

The sweep unit setting area 34 of the displacement allows the input and setting of the start value and the end value according to the displacement of the sweep displacement section setting area 33 to set the displacement section, that is, the amplitude of the sweep waveform.

At this time, the peak to peak value of the amplitude is applied as a reference, and the Vpp value is applied because the output value output to the outside is operated under power control, that is, voltage control.

The offset setting area 35 is to offset the entire waveform section so as not to generate a sweep waveform when generating a complex waveform or generating a single waveform.

The waveform angle setting area 36 sets the angle of the waveform to set the start time of the sweep waveform.

The smoothing wave time setting area 37 sets the smoothing wave operation time of the sweep waveform. The smooth wave signal section is set after the number of repetitions of the sweep waveform, and the smooth wave can be repeatedly generated in the middle of the wave cycle. to set it to be

In addition, the amplitude deflection setting area 38 and the triangular waveform symmetry setting area 39 set the amplitude deflection when the sweep waveform is generated in the form of a square wave or a pulse wave, or the sweep waveform is generated in the form of a triangular wave or sawtooth wave When it is done, it is possible to set the symmetry and balance of the triangular wave waveform.

Here, the sweep waveform is a single channel, and a single-wave increase/decrease wave, that is, a sweep waveform, is repeatedly generated for a set period, or multi-channel using a plurality of channels, that is, channel 1 (Ch 1.) and channel 2 (Ch 2.). At the time of generation, it is possible to create a complex sweep waveform, which is a complex waveform, by adjusting the set value.

11 is a block diagram of a smart random module 40 according to the present invention, FIG. 12 is an exemplary diagram of a random complex waveform generated by the smart random module 40, and FIGS. 13 to 15 are a smart random module ( 40) is an example of a random complex waveform according to the setting value.

The smart random module 40 will be described in detail below with reference to FIGS. 11 to 15 .

The smart random module 40 is for generating and controlling a complex waveform by mixing a plurality of waveforms, a random frequency control area 41 for controlling the frequency of the random waveform, and random period control for controlling the period of the random waveform It consists of an area 42, a random displacement control area 43 for controlling the displacement range of the random waveform, and a waveform angle setting area 44 that can set the start time of the random waveform by setting the angle of the random waveform and a random It is composed of a random waveform offset region 45 that turns off the waveform.

Here, the random frequency control area 41 includes setting the range of the random frequency to be used (Frequency), setting the smooth wave signal application period (DC Range), and setting the convergence limit frequency period (Limited).

In addition, the random cycle control area 42 further includes a function of setting the cycle of the random waveform, the output time of the smooth wave (DC · RT: DC Range Time), and the number of repetitions of one cycle of the random waveform (Repeat). do.

The random displacement control area 43 further includes a function of setting the displacement range of the random waveform, that is, the amplitude range setting, setting the application period of the smooth wave in the displacement of the random waveform, and setting the convergence limit frequency interval according to the displacement range setting.

Here, the smart random module 40 selects a plurality of waveforms of various types to be mounted on the wave module 20, so that a complex waveform, that is, a complex random It allows you to create waveforms.

16 is a configuration diagram of the manual module 50, and FIG. 17 is an exemplary diagram of a manual waveform according to a set value of the manual module 50. As shown in FIG.

16 to 17, the manual module 50 allows a user to select one or more waveforms to generate a manual waveform. Specifically, according to the order sequence selected by the user It is possible to continuously generate manual waveforms.

To this end, the manual module 50 includes a waveform selection area 51 for forming a manual waveform, an ordering area 52 for designating the operation sequence of the selected waveform, and a frequency setting area for setting the frequency of the selected waveform ( 53), an amplitude setting area 54 for setting the amplitude of the selected waveform, a repetition number setting area 55 for setting the repetition number of the selected waveform, and a time setting area 56 for setting the driving time.

In this case, the manual module 50 may further expand the menu according to the number of various applied waveforms.

18 is a block diagram of the AI module 60 .

When described in detail with reference to FIG. 18 , the AI module 60 uses the preceding job data stored in the file module 70 to derive an optimized job model through AI machine learning learning.

To this end, the period type selection area 61 for selecting the period type of the waveform, the amplitude type selection area 62 for selecting the amplitude type of the waveform, and AI input for inputting data for AI machine learning and data processing It is composed of an area 63 and an AI output area 64 for storing or outputting the processed result.

At this time, the AI module 60 obtains similar information from existing data through machine learning, and minimizes repetitive operations for error correction during initial setting before work. is to make it

In addition, by storing data after work, when a similar work is performed later, information is called and an optimized work model can be derived according to the work.

19 is a block diagram of the file module 70 .

Referring to FIG. 19 in detail, it is responsible for managing such as storing or calling data according to the job, the initial data management area 71 for calling the initial data required for the job, and a tool for managing the work tool Pass area 72, AI control area 73 that allows the user to specify data to be applied to the AI module when the AI module 60 is driven, and automatic management such as calling and saving data when the AI module is automatically driven It is composed of an AI auto control area 74 that enables

With such a configuration, it is possible to provide the multi-wave generation system of the present invention.

10: channel management module
20: wave module
30: sweep module
40: smart random module
50: manual module
60: AI module
70: file module

Claims (15)

In the complex waveform generation system,
A channel management module 10 that controls input and output, and creates and manages a channel according to an output means using a waveform such as a CNC machining machine connected to the output side; and
A wave module 20 that generates a waveform to be applied to the channel generated by the channel management module 10 and mounts it on the channel management module 10; and
A sweep module 30 that is generated by the wave module 20 and is capable of controlling the increase/decrease pattern of the amplitude and period of the waveform mounted on the channel management module 10; and
A smart random module 40 for generating and controlling complex random waveforms by setting a generation period, size, and time of each waveform by selecting a plurality of waveforms of various types mounted on the wave module 20; and
A manual module 50 that allows a user or administrator to generate various types of complex waveforms; and
AI module 60 for deriving a job model through AI machine learning learning using the previous job data stored in the file module 70; and
A file module 70 for calling file information stored in an internal memory further included in the channel management module 10 or an external storage medium and using the called information is further included. complex waveform generation system.
delete The method of claim 1,
The channel management module 10 is
Channels can be created, controlled, and managed according to the type and quantity of output means using waveforms such as CNC machining machines connected to the output side. When outputting the same waveform, sine wave, after designating each output stage as CH.1 and CH.2, control the size of the output signal at the output stage to generate a Lissajous curve, which is then used in machine tools placed on the output stage, etc. A complex waveform generation system, characterized in that it can be applied.
The method of claim 1,
The channel management module 10 further includes an offset function for moving the median value of the waveform, and the offset function further includes a center offset function for moving the median value in the + or - direction through amplification or compensation of the input raw waveform. A complex waveform generation system, characterized in that it can.
The method of claim 1,
The wave module 20 includes a waveform selection area 21 for selecting a waveform, a period type selection area 22 for selecting the period of the selected waveform, and a period setting area 23 for setting the number of repetitions of the waveform, respectively. DC time setting area 24 for forming a DC wave that is a smooth wave after repeating the waveform of Waveform angle setting area (27) where you can adjust the start time by setting the angle of the waveform, amplitude deflection setting area (28) where you can adjust the amplitude deflection of square and pulse waves, set for periodic balance and symmetry of triangle and sawtooth waves Composite waveform generating system, characterized in that it consists of a triangular waveform symmetry setting area (29) that can be.
6. The method of claim 5,
The waveform selection area 21 of the wave module 20 is mounted on the channel management module 10 to select and activate a waveform to generate Sine Wave, Pulse Wave, Square Wave Wave), sawtooth wave, triangle wave, noise wave, and smooth wave (DC Wave) are included and activated by the user or administrator’s selection, the channel management module ( 10) Complex waveform generation system, characterized in that it is mounted on.
The method of claim 1,
The sweep module 30 allows the sweep module 30 to generate and control a sweep waveform, which is a waveform of the same type as an increase or decrease of the waveform, and set a sweep period period in which a period period of the sweep waveform can be set. Area 31, sweep unit setting area 32 for setting the sweep unit of the sweep waveform, sweep displacement section setting area 33 for setting the sweep displacement section of the sweep waveform, and setting the displacement value according to the sweep displacement section setting Sweep unit setting area 34 for displacement, offset setting area 35 for offsetting the entire section of the waveform, waveform angle setting area 36 for setting the start time by setting the angle of the waveform, operation time of smooth wave of sweep wave A smoothing wave time setting area 37 for setting the amplitude deflection setting area 38 for setting the amplitude deflection when the sweep waveform is generated in the form of a square wave or a pulse wave, and the sweep wave being generated in the form of a triangular or sawtooth wave. A complex waveform generating system, characterized in that it is composed of a triangular wave waveform symmetry setting area (39) that can set the symmetry and balance of the triangular wave waveform.
8. The method of claim 7,
The sweep unit setting area 32 is provided with an Increment (Increment) window for setting the value by which the sweep waveform is incremented and a Split window for setting the number of increments, by automatically calculating the incremented value between the start point and the end point of the sweep waveform. However, when one of Incr. value or Split value is input, it is automatically calculated and the other value is automatically input.
8. The method of claim 7,
The sweep waveform repeatedly generates a sweep waveform that is a single-wave increase/decrease wave with a single channel for a set period, or when generating multi-channels using a plurality of channels, adjust the set value to generate a complex sweep waveform as a complex waveform A complex waveform generation system characterized by.
The method of claim 1,
The smart random module 40 includes a random frequency control region 41 for controlling the frequency of the random waveform, a random period control region 42 for controlling the period of the random waveform, and a random for controlling the displacement range of the random waveform. Consists of a displacement control area 43, and a waveform angle setting area 44 that can set the angle of the random waveform to set the start time of the random waveform, and a random waveform offset area 45 that turns off the random waveform A complex waveform generation system characterized by.
The method of claim 1,
The manual module (50) is a complex waveform generating system, characterized in that the user selects one or more waveforms and continuously generates the manual waveforms according to the order sequence selected by the user.
12. The method of claim 11,
The manual module 50 includes a waveform selection area 51 for forming a manual waveform, an ordering area 52 for designating the operation sequence of the selected waveform, a frequency setting area 53 for setting the frequency of the selected waveform, A complex waveform comprising an amplitude setting area 54 for setting the amplitude of the selected waveform, a repetition number setting area 55 for setting the repetition number of the selected waveform, and a time setting area 56 for setting the driving time creation system.
The method of claim 1,
The AI module 60 includes a period type selection area 61 for selecting the period type of the waveform, an amplitude type selection area 62 for selecting the amplitude type of the waveform, and data for AI machine learning and data processing. A complex waveform generating system, characterized in that it consists of an AI input area (63) for input and an AI output area (64) for storing or outputting the processed result.
14. The method of claim 13,
The AI module 60 obtains information from existing data through machine learning, reduces repetitive operations for error correction during initial setting before work, so that an optimized work model can be derived and applied according to work, A composite waveform generation system, characterized in that by storing the data afterward, when the work is in progress, the information is called and an optimized work model can be derived according to the work.
15. The method of any one of claims 1, 3 to 14,
The channel management module 10 is a channel generated by the channel management module 10 in order to create, control, and manage a channel according to the type and quantity of an output means using a processing machine or a waveform signal provided on the output side. is a composite, characterized in that each channel is formed according to the number of output means connected to the output side, or a plurality of channels of the same output means can be applied, so that each menu according to multiple channels can be used in a composite manner Waveform generation system.

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