
Digital oscilloscope
Digital oscilloscope · 1 GHz · 10 GSa/s for waveform capture, timing and transient measurements.
INFRASTRUCTURE
Sapiotectronics Laboratory combines high-bandwidth electrical measurement, RF characterization, signal generation, neurophysiology, rapid prototyping and custom experimental hardware.
CORE MEASUREMENT
Our measurement stack supports waveform capture, spectral analysis, impedance characterization and controlled excitation across electrical and electromagnetic experiments.

Digital oscilloscope · 1 GHz · 10 GSa/s for waveform capture, timing and transient measurements.

Spectrum analyzer · 9 kHz–3.2 GHz for spectral content, harmonics, noise and RF measurements.

Vector network analyzer · 1 MHz–4.5 GHz for impedance, resonant structures and network response.
SIGNAL GENERATION & CHARACTERIZATION
These instruments form the core electrical and RF bench used for drive, modulation, component characterization and experimental debugging.

9 kHz–3 GHz signal generator for controlled RF excitation, sweeps and modulation experiments.

Dual-channel waveform generation for periodic drive signals, timing tests and custom excitation protocols.

Precision impedance characterization of passive components, resonant structures and experimental devices.

Programmable multi-channel DC power for instrument development, coils, electronics and controlled laboratory experiments.
NEUROPHYSIOLOGY & DDG
Laboratory work spans conventional electroencephalography and successive generations of the Dodecanogram platform for high-frequency neural-signal acquisition.

Electrode placement and neural-signal acquisition during laboratory EEG work.

Second-generation Dodecanogram research instrumentation platform for high-frequency neural-signal acquisition.

An earlier Dodecanogram instrumentation generation in the laboratory’s neural-signal acquisition programme.
FABRICATION & PROTOTYPING
The laboratory develops custom fixtures, electronics and experimental hardware rather than relying only on commercial platforms.

Fabrication of fixtures, holders, mounts and experimental prototypes for laboratory builds.

Controller boards, firmware development and custom interface hardware for experimental systems.

Mechanical, electrical and acquisition subsystems developed as part of the Dodecanogram instrumentation programme.
QUANTUM OPTICAL PLATFORM
The Panchratnam optical quantum computing platform is under development within the OIMO-QT programme implemented through Pramatra Samkhya Foundation at IIT Mandi with support from MeitY.

Part of the broader OIMO-QT research programme, the platform explores optical architectures for quantum information processing. Detailed implementation and performance information will be added as the programme publicly releases it.
PLATFORMS IN DEVELOPMENT
These are active development programmes. Their photographs and technical specifications will be added as each platform reaches a stable experimental configuration.
A developing optical platform for polarization-sensitive and photon-correlation measurements in chiral and excitonic materials.
A configurable electrical transport architecture for native-gel and solid-state measurements, with later extension toward nonlinear and field-dependent response.
A developing ultrasound and levitation system for controlled positioning of lightweight samples and, later, droplets and soft-matter systems.
THE LABORATORY AS A PLATFORM
Our infrastructure is organized around experimental questions: generate a controlled signal, measure the response, characterize the system, and build the missing hardware when required.