Voodoo Labs High End Reference Cabling
VL GODSPEED™ Phono Cable DTCS
VL GODSPEED™ Phono Cable DTCS
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GODSPEED™ (patents pending)
"This is the most beautiful thing l've ever heard." (Female audiophile from Singapore at the premiere at the Guangzhou HiFi Show November 2024.)
Standing ovation, enchanted listeners, amazing tonal grace.
"Where's the SACD player? Where did you hide it?" (Ex MD of one of the world's leading speaker companies)
standard length
50cm 11.800€
with gold-plated RCAs on both sides.
Or one side with DIN plug or open ended for local installation inside turntable by buyer or an engineer (recommended).
other lengths bespoke between 20 and 90 centimeters, contact us for your individual estimate
colour
original Lamborghini leather in light blue, dark orange or racing green
Our GODSPEED Phono Cable is engineered to deliver the fastest, purest transmission ever achieved in audio (as far as we know, and we know). GODSPEED leverages fundamental electromagnetic principles to transport music at unprecedented speed. According to Maxwell’s formulas, field velocity is equal to the speed of light divided by the square root of the magnetic permeability x the electric permittivity constant — a calculation that keeps GODSPEED’s signal racing from the pick-up to the pre-amp at nearly 300.000km/sec. Unlike conventional cables that slow signal flow with co-axially assembled metals and other near-field interference to train velocity, GODSPEED ensures that every detail reaches your system with absolute immediacy and precision.
At the core of GODSPEED lies a patented German-engineered 4x4 matrix of very thin tinned, oxygen-free copper (OFC) strands of Danish origin in solid-core configuration. This innovative design not only minimizes resistive loss and capacitance but enhances the natural flow of the field, preserving every transient and microdynamic detail that brings recordings to life.
Surrounding this conductor array is our exclusive DTCS Distant Triple Carbon Shield (patent pending), a groundbreaking triple-layered barrier that isolates the signal from electromagnetic interference without sacrificing speed. The result is an ultra-fast response that keeps each note intact, capturing the subtleties of transients and the nuances of microdynamics with unparalleled clarity.
• patented grid construction with 4x4 internal strands
• Distant Triple Carbon Shielding (pat.pend.)
• individual phases pure OFC copper with tin surface
• oiled cotton dielectric
• 4 valence electrons in the atomic outer shells
• large EM-field for ideal energy propagation
• scary details, lifelike voices
• sets turntable free
• OFC copper gold plated cinch terminators
• minimal internal resistance of approx. 0.03 ohms/m
• completely hand-crafted in Northern Germany from German and Danish parts and Italian leather
The bespoke cables are individually handmade.
Delivery time is currently approx. 12 days.
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So we‘ve asked the leading AI on the old planet to sum up the real physics of field propagation:
Understanding Electric Current and Electromagnetic Fields: Where Energy Really Flows
When we think of electric current, we often imagine electrons flowing like water in a pipe, carrying energy directly from one point to another. This is wrong! The energy in electric
circuits actually flows through the invisible fields around the wires. This explains how
electrical energy moves quickly, even though individual electrons inside the wire move very
slowly. Let’s explore how this works and why it’s important.
material, travelling microscopic distances.
- When you apply voltage (electric potential difference) across a conductor, it creates an
electric field along the wire. This field pushes on the free electrons, making them "drift"
energy of the current is not carried by the electrons themselves. Instead, it travels in the
- When electrons move through the conductor, they create a magnetic field around the wire.
Together, the electric and magnetic fields form an electromagnetic field.
- This electromagnetic field is the true carrier of energy in a circuit. The direction and
shows that energy flows outside the wire, through the surrounding space, not within the wire
establish the electromagnetic field. But once the field is set up, the energy travels in the
propagation in a HiFi system:
1. Electric Current and the Role of Electrons
- In metal conductors like copper or tin, atoms share a “cloud” of free electrons that
aren’t bound to any single atom. These free electrons can move easily throughout the
slowly through the conductor. This drifting of electrons is what we call electric current.
electromagnetic fields surrounding the wire.
2. How Energy Really Flows: The Electromagnetic Field
- But here’s a surprising fact: Although the electric current flows through the wire, the
strength of the energy flow are given by something called Poynting’s vector. This vector
- How it works: Think of the wire as a guide. The wire conducts electrons, which helps
itself.
space around the wire, moving quickly from the power source to the device.
3. Poynting’s Vector: Mapping the Flow of Energy
\[
\]
where:
- \( \vec{S} \) shows the direction and strength of energy flow
- \( \vec{E} \) is the electric field, - \( \vec{H} \) is the magnetic field.
- According to Poynting’s vector, the flow of energy is perpendicular to both the electric
and magnetic fields. So, the energy “surrounds” the conductor, moving through the electromag-
- Named after scientist John Henry Poynting, Poynting’s vector describes how
**Sources used for Electromagnetic Fields and Electric Current**
1. **Books and Texts on Electromagnetic Theory:**
- *“Introduction to Electrodynamics” by David J. Griffiths*
This book is a respected resource for understanding electromagnetic fields, electric current, and concepts
like Poynting’s vector.
- *“The Feynman Lectures on Physics, Volume II” by Richard Feynman*
Richard Feynman’s lectures, especially Volume II, provide an accessible yet deep explanation of electricity,
magnetism, and energy transmission via electromagnetic fields.
2. **Poynting’s Theorem and Vector:**
- *“The Theory of the Electromagnetic Field” by David M. Cook*
This book gives a detailed discussion on Poynting’s theorem and how electromagnetic energy flows in space,
making it ideal for understanding the role of the Poynting vector in energy transmission.
- Original paper: *Poynting, J. H. (1884). “On the Transfer of Energy in the Electromagnetic Field.”
Philosophical Transactions of the Royal Society of London.*
This foundational paper introduces the Poynting vector, which mathematically describes how electromagnetic
energy flows around conductors.
3. **Modern Interpretations and Texts on Electrical Energy Transfer:**
- *“Fields and Waves in Communication Electronics” by Simon Ramo, John R. Whinnery, and Theodore Van Duzer*
This text explores the movement of electromagnetic energy in space, particularly useful for communication
and electronics contexts.
4. **Educational and Open Access Resources:**
- *HyperPhysics (Georgia State University)*
HyperPhysics offers easy-to-understand explanations on electric current, electromagnetic fields, and related
topics. It’s a reliable online reference for core concepts in physics.
5. **Research Papers and Articles:**
- Haus, Hermann A. (1984). *“Electromagnetic Fields and Energy.”* MIT OpenCourseWare.
This free resource from MIT covers key concepts, including field theory and the non-reliance on electron
drift for energy flow.
More information and bespoke solutions on request: info@voodoolabs.org or +4940485535
Always happy to help and chat with fellow audiophiles.
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