We offer PID Controller, PID-01 useful for control labs. The experimental unit consists of simulated building blocks like error detector, dead time, integrator and time constants, which may be configured into a variety of systems. A PID section with adjustable proportional gain, derivative and integral time constants provide the control action. Built-in set value, square and triangular sources enable the students to study the response on a CRO. The literature includes system description, theory, experimental procedure and typical results. An important feature of the system is that the simulated blocks are designed to operate at frequencies suitable for CRO viewing.
Highlights
PID-action study on CRO
Simulated blocks for flexible system
Time delay (transportation lag) block
Synchronised square and triangular source for flicker free display
Experiments
Open loop response of various process configurations (10 in all)
Study of closed loop response for above
P, PI, PD and PID design and performance evaluation in each case
Features and Specifications
Simulated blocks – dead time (transportation lag), integrator, time constants, error detector and gain
PID Controller (configurable as P, PI, PD or PID)
Prop. Band: 5% to 50% (Gain 2-20)
Integral time: 10msec - 100msec
Derivative time: 2-20msec
Built-in signal sources
Set value: -1V to +1V
Square wave: 1V p-p (min.) at 40Hz (typical)
Triangular wave: 1V p-p (min.) at 40Hz (typical)
Built-in 3½ digit DVM for d.c. measurements
Built-in IC regulated power supply
Detailed literature and patch chords included
Essential accessory – a CRO
The experiment is complete in all respect, except a CRO.

We offer PID Controller, PID-01 useful for control labs. The experimental unit consists of simulated building blocks like error detector, dead time, integrator and time constants, which may be configured into a variety of systems. A PID section with adjustable proportional gain, derivative and integral time constants provide the control action. Built-in set value, square and triangular sources enable the students to study the response on a CRO. The literature includes system description, theory, experimental procedure and typical results. An important feature of the system is that the simulated blocks are designed to operate at frequencies suitable for CRO viewing.
Highlights
PID-action study on CRO
Simulated blocks for flexible system
Time delay (transportation lag) block
Synchronised square and triangular source for flicker free display
Experiments
Open loop response of various process configurations (10 in all)
Study of closed loop response for above
P, PI, PD and PID design and performance evaluation in each case
Features and Specifications
Simulated blocks – dead time (transportation lag), integrator, time constants, error detector and gain
PID Controller (configurable as P, PI, PD or PID)
Prop. Band: 5% to 50% (Gain 2-20)
Integral time: 10msec - 100msec
Derivative time: 2-20msec
Built-in signal sources
Set value: -1V to +1V
Square wave: 1V p-p (min.) at 40Hz (typical)
Triangular wave: 1V p-p (min.) at 40Hz (typical)
Built-in 3½ digit DVM for d.c. measurements
Built-in IC regulated power supply
Detailed literature and patch chords included
Essential accessory – a CRO
The experiment is complete in all respect, except a CRO.