The Physics of
Unlimited Bandwidth.

Exploring the Dielectric Rod Waveguide (DRW) architecture that powers LeapWave’s breakthrough in sub-millimeter and terahertz connectivity.

[The Core Innovation: DRW Architecture]

Rethinking the Physical Layer: The DRW Interface

Traditional metallic waveguides and copper interconnects suffer from skin-effect losses and severe attenuation as frequencies enter the millimeter and sub-millimeter ranges. To unlock true high-bandwidth potential, the physical medium had to change.

 

LeapWave’s core innovation is based on the Dielectric Rod Waveguide (DRW). By confining the electromagnetic field within and immediately around a highly engineered dielectric material, we effectively eliminate the resistive losses associated with metal walls. The result is a single, continuous interface capable of propagating extreme high-frequency signals with near-zero degradation.

Rd Rm Rp
[THE LEAPWAVE SOLUTION]

Rethinking the Physical Layer: The DRW Interface

Traditional metallic waveguides and copper interconnects suffer from skin-effect losses and severe attenuation as frequencies enter the millimeter and sub-millimeter ranges. To unlock true high-bandwidth potential, the physical medium had to change.

 

LeapWave’s core innovation is based on the Dielectric Rod Waveguide (DRW). By confining the electromagnetic field within and immediately around a highly engineered dielectric material, we effectively eliminate the resistive losses associated with metal walls. The result is a single, continuous interface capable of propagating extreme high-frequency signals with near-zero degradation.

[The Spectrum Advantage: DC to 500 GHz]

One Interface. The Entire Sub-Millimeter Spectrum.

In standard RF environments, testing or operating across broad frequency bands requires swapping multiple specialized waveguides, each tuned to a narrow slice of the spectrum. LeapWave renders this obsolete.

 

Our DRW technology operates in an extremely broadband regime, seamlessly covering the spectrum from 50 GHz up to 500 GHz.

0 DC 500 GHz 600 GHz copper / coax LeapWave DRW < 0.15 dB/cm
0 DC 500 GHz 600 GHz copper / coax LeapWave DRW < 0.15 dB/cm
0 DC 500 GHz 600 GHz copper / coax LeapWave DRW < 0.15 dB/cm
001.

Ultra-Low Insertion Loss

Engineered for virtually seamless transitions.

002.

Negligible Propagation Loss

Attenuation values of < 0.15 dB/cm across the entire 50-500 GHz range.

003.

Phase Stability

Maintaining absolute signal integrity for complex modulation schemes and non-destructive sensing.

[Bridging Photonics and RF]

The Convergence of Light and Radio

The future of data does not live in isolation. It requires the massive bandwidth of optical networks integrated directly with the versatility of radio frequency electronics.

 

LeapWave generates Ultra Wide Band (UWB) signals driven by photonic means. By utilizing optical heterodyning and photonic generation, our TX500 and RX500 systems can generate, manipulate, and receive high-fidelity signals deep into the THz gap. We are providing the essential hardware link for next-generation co-packaged optics and heterogeneous integration.

PHOTONIC RF LEAPWAVE INTERFACE
PHOTONIC RF LEAPWAVE INTERFACE
PHOTONIC LEAPWAVE INTERFACE RF
[Scalability & Manufacturing]

From Lab Bench

to Mass Production

A paradigm shift is only valuable if it can be scaled. LeapWave’s technology is not just a laboratory proof-of-concept; it is designed for integration into mature semiconductor manufacturing and advanced packaging lines.

 

Through our CT/110 Coaxial adapters and WRxx rectangular waveguide adapters, we ensure that our advanced DRW interfaces remain completely compatible with your current laboratory standards and testing equipment, allowing for plug-and-play adoption of terahertz-capable hardware today.