If you could choose the metal of your first chain, what would it be?
Gold, copper, aluminum, steel, zinc...?
Please write your choice below π
https://x.com/Orecast_RWA/status/1950163731100447027
Gold, copper, aluminum, steel, zinc...?
Please write your choice below π
https://x.com/Orecast_RWA/status/1950163731100447027
π15π14β€12π12π₯11π₯°10π10
We have currently fed over 1,500 structured data points into our training process, covering mine production, warehouse incoming cargoes, refinery logs, and historical price fluctuations.
The AI model is learning how metals behave in the real world before being tokenized.
Some signals are stabilizing.
Forecast accuracy is improving.
The validation logic is becoming clearer.
We are making rapid progress.
The AI model is learning how metals behave in the real world before being tokenized.
Some signals are stabilizing.
Forecast accuracy is improving.
The validation logic is becoming clearer.
We are making rapid progress.
π₯°16π15π₯7π7π7β€6π6
Before any asset is put on-chain, we verify the following key aspects:
Is the price data accurate?
Is the inventory real and accounted for?
Has the transaction actually been executed?
We verify the data, not just the blocks.
Because true metal tokenization requires proof of authenticity.
Is the price data accurate?
Is the inventory real and accounted for?
Has the transaction actually been executed?
We verify the data, not just the blocks.
Because true metal tokenization requires proof of authenticity.
β€8π7π₯°6π₯5π5π5π2
Orecast operates across 12 modules, each closely related to how metals circulate in the real world:
1. Inbound: Recording warehouse and inspection data
2. Reserves: Verifying inventory quantities
3. Inventory: Tracking remaining inventory
4. Pricing: AI-powered updates every 60 seconds
5. Custody: Confirming asset ownership
6. Tokenization: Minting 1:1 collateral units
7. Collateral: Registering locked assets
8. Trading: Matching and clearing orders
9. Auditing: Building a traceable historical record
10. Connectivity: Connecting to DeFi protocols
11. Risk: Identifying unusual signals
12. Reporting: Compliance output
1. Inbound: Recording warehouse and inspection data
2. Reserves: Verifying inventory quantities
3. Inventory: Tracking remaining inventory
4. Pricing: AI-powered updates every 60 seconds
5. Custody: Confirming asset ownership
6. Tokenization: Minting 1:1 collateral units
7. Collateral: Registering locked assets
8. Trading: Matching and clearing orders
9. Auditing: Building a traceable historical record
10. Connectivity: Connecting to DeFi protocols
11. Risk: Identifying unusual signals
12. Reporting: Compliance output
β€8π5π5π₯4π3π₯°3π1
Every unit of metal starts its journey long before tokenization in dusty mines, busy roads, industrial zones, and storage vaults.
What matters isnβt just the metal.
Itβs the data that proves where it came from, how it moved, and what itβs worth.
Thatβs the layer weβre building.
A verifiable link between matter and markets.
What matters isnβt just the metal.
Itβs the data that proves where it came from, how it moved, and what itβs worth.
Thatβs the layer weβre building.
A verifiable link between matter and markets.
π16π₯°12β€10π₯8π8π7π2
Orecast's AI captures real-time pricing signals, cross-validates them with inventory updates, and routes them to the execution engine within 60 seconds.
Inventory location, custody, and valuation are synchronized across APIs, UIs, and on-chain calls.
Inventory location, custody, and valuation are synchronized across APIs, UIs, and on-chain calls.
π11π8β€7π₯3π3π₯°2π1
We are validating real-time inventory synchronization between simulated warehouse endpoints.
Update interval: Stable at 58-62 seconds
Data mismatch rate: Less than 0.12% over 681 test cycles
Update interval: Stable at 58-62 seconds
Data mismatch rate: Less than 0.12% over 681 test cycles
β€9π9π₯°7π6π₯5π5π4
During a controlled stress test, we simulated 50+ coordinated data injection attempts targeting our price and inventory streams.
1. Detection time: 2.4s
2. Containment: 100% of invalid entries blocked
3. Data integrity: 99.98% consistency maintained across modules
1. Detection time: 2.4s
2. Containment: 100% of invalid entries blocked
3. Data integrity: 99.98% consistency maintained across modules
π11π₯°9π₯8β€6π6π6π3
Commodity prices move on multiple clocks.
Our system reads all of them
βͺοΈοΈ Minutes: capture high-frequency shocks in supply & demand
βͺοΈοΈ Hours: map the daily flow of trades
βͺοΈοΈ Weeks: identify structural turning points in inventory & pricing
By linking these horizons, we turn raw volatility into signals that drive real-world execution.
Our system reads all of them
βͺοΈοΈ Minutes: capture high-frequency shocks in supply & demand
βͺοΈοΈ Hours: map the daily flow of trades
βͺοΈοΈ Weeks: identify structural turning points in inventory & pricing
By linking these horizons, we turn raw volatility into signals that drive real-world execution.
π₯10π8β€7π₯°7π7π6π6
In a recent load test, we introduced malformed trade orders into the execution queue to test fault isolation.
Identification: 1.7s
Isolation success rate: 99.94%
Impacted trades: 0
Identification: 1.7s
Isolation success rate: 99.94%
Impacted trades: 0
π15π13π₯°12π₯11β€9π9π6