At Red5, we’ve always been a few milliseconds ahead of the curve—but today, we’re proud to announce we’ve finally broken the latency barrier. Not just low latency. Not ultra-low latency. We’re talking negative latency. That’s right: thanks to recent breakthroughs in quantum mechanics, generative AI, and just the right amount of caffeine, we’ve updated our… Continue reading Introducing: Red5 QuantumStream™ – Streaming Before It Even Happens
At Red5, we’ve always been a few milliseconds ahead of the curve—but today, we’re proud to announce we’ve finally broken the latency barrier. Not just low latency. Not ultra-low latency. We’re talking negative latency.
That’s right: thanks to recent breakthroughs in quantum mechanics, generative AI, and just the right amount of caffeine, we’ve updated our original patent on quantum networking to finally realize the impossible. With the help of a purpose-built LLM (code-named SchrödiNet), our system now predicts not only your viewers’ next move—but the data stream before you even hit “Go Live.”
And we didn’t stop there. We trained the model using entangled packets (you’re welcome, Einstein), and then—because we believe in full-stack innovation—we let the model design and assemble its own physical infrastructure. As a software focused group, we could not do this all on our own, so we partnered with hardware experts at Videon Labs and AMD to help build the physical aspects of the system leveraging modern quantum processors and advanced robotics.
This self-built system is now humming quietly inside a secure OCI data center, where time moves a little… differently. Thanks to our friends at Oracle Cloud Infrastructure, we’re now running Red5 QuantumStream™ across multi-dimensional edge zones that exist in a superposition of being both live and pre-recorded.

“When we first joked about quantum streaming years ago, I never imagined we’d actually build it—let alone retroactively patent it. But that’s the thing about innovation: sometimes you have to bend space-time a little. And honestly, we aren’t even sure what crazy things people will build with this now that it’s out in the wild.
With SchrödiNet and QuantumStream™, we’re not just reducing latency—we’re turning it inside out. This isn’t the future of streaming. This is the future before the future happens.”

— Chris Allen
CEO & Co-Founder, Red5 Pro
“When Red5 Pro approached us about helping build a hardware system that could literally assemble itself, we assumed it was a metaphor. It wasn’t.
By combining our edge encoding expertise with Red5’s entangled stream tech and some late-night robotic prototyping, we co-designed a platform that not only handles negative latency—but occasionally finishes encoding before the video is shot. We’re proud to say it’s the first encoder that requires a quantum almanac during boot.

This partnership pushed the boundaries of physics, firmware, and caffeine tolerance—and we’d do it again in all timelines.”
— Paul Brown
CTO, Videon
🧠 Team Update: Quantum Talent, Acquired
To ensure the integrity of our quantum infrastructure (and because someone needed to explain what a “wavefunction” actually is), we’re thrilled to announce the newest addition to the Red5 team: Dr. Vega Planck-Wheeler.
Meet Dr. Vega Planck-Wheeler, Ph.D.
Dr. Planck-Wheeler joins us after serving as an Adjunct Professor of Temporal Mechanics at the Institute for Chrono-Relativistic Computation (ICRC) and completing a postdoctoral fellowship at CERN’s Experimental Entanglement Lab. Her doctoral thesis, “Causal Loops and Packet Prediction in Anisotropic Media”, remains mostly redacted, but we’re told it “definitely involved lasers.”
With published papers in The Journal of Quantum Irreversibility and Spacetime Monthly, she brings with her a deep knowledge of quantum coherence, decoherence, and snack-based motivation cycles during extended lab lockdowns.
She will be spearheading our Non-Deterministic Protocol Optimization Team (NDPOT), where she’s already contributed a novel qubit-alignment algorithm that was described by one engineer as “probably illegal in most classical systems.”
“At Red5 Pro, I found a team willing to ask the questions that keep most theoretical physicists up at night—like ‘what if we streamed before the photon was emitted?’ and ‘can a livestream be both watched and unwatched until observed?’
Joining forces with their engineers and SchrödiNet’s predictive entanglement engine has opened a new frontier for media delivery. This isn’t just innovation. It’s temporal defiance at scale.”
— Dr. Vega Planck-Wheeler, Ph.D.
Lead Quantum Architect, Red5 Pro

⚙️ Implementation
We understand that when you’re streaming into the vast unknown of quantum networks, you need tools that just work. That’s why we built QuantumStream™ with a developer-first mindset—complete with a SchrödiNet-powered API, negative latency monitoring, and full support for multiversal edge zones.
Here’s how easy it is to get started:
Python Script
from quantumstream import QuantumStream
# Initialize the SchrödiNet-powered stream
qs = QuantumStream(
observer_state="indeterminate",
causality_override=True,
edge_zone="multiversal"
)
# Predict and stream content before it happens
qs.precast_stream("event_42") # SchrödiNet precasts a stream that hasn't started yet
# Begin retrocasting to viewers in the past
qs.retrocast(live=True, dimensions=3)
# Monitor the latency (should be negative)
print(f"Current latency: {qs.latency}ms") # Output: -237ms
SchrödiNet API Reference (v0.0.0-beta⁻¹)
Method
Description
QuantumStream.__init__(observer_state, causality_override, edge_zone)
Initializes the stream with your desired quantum configuration
precast_stream(stream_id)
Predicts and prepares a stream before it begins
retrocast(live=True, dimensions=1)
Broadcasts the stream to the past via entangled edge zones
measure_latency()
Returns current stream latency (can be negative)
collapse_wavefunction(observer)
Manages decoherence when observer count exceeds threshold
Pro Tip: Setting observer_state="superposition" allows multiple timelines to watch simultaneously. Just don't cross the streams. (Seriously.)
Sample Terminal Output
shell
CopyEdit
$ quantumstream --init --entangle --precast event_42
[QuantumStream] SchrödiNet v0.0.0-beta⁻¹ initializing...
[✓] Entanglement handshake complete.
[✓] Multiversal Edge Zone found: zone-α/χ@t-1
[✓] Observer state set to: INDETERMINATE
[~] Precasting stream: "event_42" from t+17s to t-5min
[✓] SchrödiCast generated. Latency: -184.3ms
[✓] Retrofitting edge node spacetime buffer...
[✓] Retrocast initiated: viewers in timeline t-1 now watching event_42
[!] Warning: Observers may experience slight déjà vu.
Whether you’re an edge-case tinkerer or a multiverse media mogul, QuantumStream™ is your ticket to streamlining time itself. Just remember: if you’re seeing the stream before it happens, you probably signed the right NDA.
Closed Beta Testing Now Available
We’re currently opening up our closed beta to early testers. Requirements include:
- A solid understanding of quantum decoherence
- An active imagination
- A healthy disregard for causality
Apply now. Or rather, apply yesterday.
👉 Join the Quantum Beta
Because the future of streaming… is already buffering in the past.