High Integration
128 Channels in One Chassis
Meet NAISHU with
Power Quantum
Expert in Large-Scale Quantum Computing Control & Readout
DDS Architecture
10 GSa/s DAC and 4 GSa/s ADC
Instruction Set
FPGA Feedback in 280 ns
Low Noise Design
Baseband Noise 10 uVrms
Why NAISHU
Built for Quantum-Scale Control
A unified control-and-readout architecture enables labs to scale from prototype experiments to large multi-channel systems with more cost-effective integration.
Fast Iteration, Less Friction
Replace fragmented device chains with software-defined workflows that reduce setup complexity and accelerate calibration, validation, and feedback loops.
Engineering-Grade Reliability
From timing stability to low-noise performance, every module is optimized for repeatable results in demanding R&D and production validation environments.
Modular Design
Based on the industry-standard PXIe modular architecture.
Main Platform
PXIe Chassis
High-density PXIe chassis designed for stable synchronization, high-throughput data acquisition, and multi-card expansion in demanding quantum and mixed-signal test systems.
PQ-XY
Microwave control module with high sampling rate and wide output frequency range.
PQ-RD
Readout module optimized for low-noise capture and high-fidelity signal recovery.
PQ-ZC
Bias control module with low noise and extremely fast rise time.
Simplify your System
Traditional IQ mixer approach use two AWG channels and one LO to generate control signal for each Qubit's XY axis.The NAISHU DDS solution requires only one output with filter.
Traditional IQ Mixer System
NAISHU DDS System
NSQC Instruction Set
Built on a pulse-level instruction set, users can program and execute a wide range of quantum tasks through intuitive code — for example, performing two active resets on a qubit using PQ-XY.
@nw.kernel
def wave_program_judge(delays: np.ndarray, g_wave: np.ndarray):
judge_reg_1: nw.Reg = 0
frame_0: nw.Frame = nw.init_frame(0, 0.5*np.pi)
envelope_0: nw.Envelope = nw.ins_envelope(g_wave)
nw.wait_for_trigger()
nw.wait(delays[0])
nw.play_wave(envelope_0, 1, 0, 0)
nw.wait(delays[1])
judge_reg_1 = nw.receive(1)
if judge_reg_1 == 0x0:
nw.play_wave(envelope_0, 1, 0, 0)
else:
nw.wait(600e-9)
return nw.Kernel()