Brochure
Enquire
- Need for cnc machines
- Example of cnc program
- Program body
- Header
- Program body
- End of the program
- Conventional machine
- Cnc machine
- NC machine, cnc
- Cnc work – An introduction
- Advantages, Disvantages
- Cnc machine and its applications
- Reference systems
- Origins of the reference systems
- OMmachine zero
- Properties of the function
- Axis
- Programming
- Main planes and axes
- Properties of the function
- Work plan program by two directions (G20)
- Programming
- Rotary axes
- Linear like rotary axis
- Normal rotary axis
- Unidirectional rotary axis
- Positioning-only rotary axis
- CNC Vertical boring machine
Quick Facts
| particular | details | |||
|---|---|---|---|---|
|
Medium of instructions
English
|
Mode of learning
Self study
|
Mode of Delivery
Video and Text Based
|
Course and certificate fees
Fees information
₹ 3,499
certificate availability
Yes
certificate providing authority
Vskills
The syllabus
CNC machine and safety
Machine zero and reference point programming
- Coordinate programming
- Cartesian coordinates
- Definition of position values
- Standard axes (x…C9)
- Definition of position values
- Polar origin preset
- Origin selection
- Programming with respect to machine zero
- Program a movement referred to machine zero
- Machine coordinate system
- Considerations for movement referred to machine zero
- Zero offsets and coordinate transformations
- Tool radius and length compensation
- System units; millimeters or inches
- Technological functions
- Movement without with out programmed feed rate
- Variable to limit the feed rate via PLC
- Feed rate regulation
- Understanding how the CNC calculates the feed rate
- Feed rate programming units (G93/94/95)
- Programming
- Tool number (T)
- Load a tool in the spindle
- List of “M” function
- Program interruption (M00/M01)
- Tool change (M06)
- M06 Tool change
- Constant surface speed
- G96 constant surface speed
- Constant turning speed
- Spindle start and stop
- M03/M04 start the spindle clockwise counter clockwise
- Stop the spindle
- G02 and G03 commands zero offset absolute and incremental co- ordiantes tool call, tool length compensation cutter radius compensation
- Tool path control
- Programming
- In polar coordinates
- Circular interpolation
- Programming
- Cartesian coordinates
- Coordinates of the arc’s final point
- Arc center coordinates
- Cartesian coordinates
- Arc radius
- Depending on the active work plane, the programming format is
- Electronic threading with constant pitch
- Programming
- Thread pitch
- Programming examples for a mill
- Multi –entry electronic threading
- Longitudinal electronic threading
- Multi –entry longitudinal electronic threading Electronic taper threading
- Thread blending
- Corner chamfering
- Programming
- Mirror image
- Considerations
- Additional preparatory functions
- Tool compensation
- Types of compensation
- Tool radius compensation
- Tool length compensation
- Tool radius compensation
- Programming
- Subroutines
- Types of subroutines
- Global subroutines
- Local subroutines
- Subroutine nesting and parameters
- Arithmetic parameters in the subroutines
- Location (path) of the global subroutines
- Programming format
- The programming format
- Global parameters
- Subroutine execution
- The programming format
- Call to a global or local subroutine initializing parameters
- Modal call to a local or global subroutine
Introduction to pneumatics block diagrams directional, pressure and flow control valve
- Pneumatics
- Examples of pneumatic systems
- Pneumatic tools
- Pipe organs
- Advantages of pneumatics
- Reliability
- Storage
- Safety
- Pneumatic symbols
- Pneumatic block diagrams
- Layout of the system
- Front panel
- Dimensions
- Sensor inputs
- Valves
- Serial port
- Reset button
- Power input
- MCU
- Gas
- Tank
- Regulators
- Buffer tank
- Pneumatic hoses and fittings
- Valves
- The actuator
- Theories behind compressed air technology
- Directional control valves
- Classification
- Poppet
- Rotary spool
- Sliding spool
- Modeling of directional valve
- Applications of DCV
- Pressure control pressure control valve
Principal of Hydraulics Definition of Force, Pressure,
- Flow Pascal’s Low Hydraulic Pumps, Motors And Intensifiers
- Hydraulics
- Basic hydraulic principles
- Hydraulic pressure and Force
- Flow rate
- Introduction
- Basic symbols
- Valve operators
- Energy conversion devices
- Fluid cylinders
- System pressurization
- Hydraulic intensifiers
- Nomenclature
- Reciprocating intensifiers
- Types of hydraulic fluids
- Petroleum-based fluids
- Synthetic fire-resistant fluids
- Phosphate ester fire-resistant fluids
- Silicone synthetic fire-resistant fluids
- Lightweight synthetic fire-resistant fluids
- Water-based fire-resistant fluids
- Properties of hydraulic fluids
- Viscosity
- Single-acting cylinder
- Double –acting cylinder
- Hydraulic pumps
- Hydraulic pumps types
- Gear pumps
- Gerotor pumps
- Rotary vane pumps
- Screw pumps
- Bent axis pumps
- Axial piston pumps swash plate principle
- Radial piston pumps
- Peristaltic pumps
- Hydraulic motor
- Hydraulic motor types
- Gear and vane motors axial
- Axial plunger motor
- Radial piston motors
- Braking
- Uses
- Direction Control Valve Types Pressure Control Valve Types Flow Control Valve Types
- Directional control valve
- Types of directional control valve
- Poppet-type directional control valves
- Spool valve disadvantages
- Hydraulic 4-way spool valves
- Pressure control
- Types
- Main types of pressure relief valves include
- Definition of “backpressure”
- Sequence valves sequence valves basics
- A sequence of events
- Some precautions
- Sequence valves at work
- The counterbalance valve
- Functioning
- Pilot operated pressure relief
- Single –acting cylinder circuit with three-port valve
- Drawing pneumatic circuits
- Double-acting cylinder circuit with five-port valve
- Double –acting cylinder and five-port valve
Articles
Popular Articles
prev
next
Latest Articles
prev
next
