Based on current reporting, the probability that this Iran War Powers resolution will pass the House is low, primarily because even if it clears the Senate, it faces a Republican‑controlled House that has shown no signs of defecting in meaningful numbers — and the President would almost certainly veto it even if it did pass.

• The Senate vote was procedural only, not final.
• The measure advanced 50–47, with four GOP defections.
• Even supporters acknowledge that passing both chambers is unlikely.
• CNBC explicitly states the resolution has “little chance of becoming law” because it must
  1. pass a final Senate vote,
  2. pass the House, and
  3. overcome an almost certain Trump veto.

None of the reports provide a numeric probability, but the language is unambiguous: the House is the major roadblock, even before considering a veto.

Best estimate (non‑numerical, consistent with evidence)

Given the reporting and structural factors, the probability of House passage is low, likely well below 50%, and plausibly in the 10–25% range if we translate the qualitative language into a rough band.

$USO Next target levels (ranked by probability)

Primary target: $168–$175

Why this zone:

• 1.272–1.382 Fibonacci extension of the December 2025 → April 2026 impulse
• Matches the upper boundary of the accelerated channel
• Consistent with WTI retesting $115–$120 (already seen in April)

This is the highest‑probability next stop if WTI holds above $100.

Secondary target: $188–$195

This requires:

• WTI pushing $125–$135 (Brent already hit $138)
• Continued Hormuz disruption (currently ongoing)
• SPR continuing to drain (also ongoing)

This is the “sustained crisis premium” scenario.

Extreme extension: $215–$225

This only happens if:

• Hormuz remains closed for months
• OPEC+ cohesion breaks further (UAE already left OPEC+ on May 1)
• U.S. shale fails to respond (current data suggests declining non‑OPEC production)

This is low probability but not fantasy — it’s tied to geopolitical persistence.

Reasons bulls still have control

• Supply shock is structural, not transient
• Backwardation is steep → USO benefits
• US inventories + SPR continue falling
• No diplomatic resolution yet

Reasons to expect volatility / pullbacks

• USO is up >100% YTD (parabolic)
• Any ceasefire or partial reopening of Hormuz triggers a fast correction
• USO’s futures roll can flip negative if curve normalizes.

Opinion (not advice)

Next target: $168–$175
Stretch target: $188–$195
Extreme tail: $215–$225

These levels are regime‑consistent with the current supply shock and the technical breakout above $152.

$USO

$BTC

Bitcoin is testing its 50-day moving average. If it holds, it will probably rally and, once again, test its resistance line around its 200-day moving average. Will it break below support lines or breakout above resistance areas is yet to be determined.

Bitcoin's intermediate trend remains neutral with a slightly bullish bias. Long-term it remains bearish. Next few weeks will be the key to determine its next trend.

What silver does in EVs (and why it’s hard to replace)

Silver is used in EVs because of its highest electrical conductivity and excellent corrosion resistance. It is critical in:

• Battery management systems
• Power electronics
• High‑reliability connectors
• Charging interfaces
• Sensors and control electronics

EVs use 25–50 grams of silver per vehicle, roughly 2× that of ICE vehicles.

Silver’s role is performance‑critical, not bulk‑critical.

Source: Grokpedia "Substitutes for silver in electric vehicles"

Can copper substitute for silver in EV components?

Yes — in bulk conductive roles

Copper is already the substitute and the standard for:

• Wiring
• Motors
• Busbars
• High‑current paths

Copper’s conductivity (5.96×10⁷ S/m) is close to silver’s (6.30×10⁷ S/m), making it a practical alternative for most electrical paths.

Partially — in some connectors and low‑voltage components

Copper can replace silver if engineered properly, but often requires:

• Larger cross‑sections
• Anti‑oxidation coatings
• Silver‑free fastening systems (e.g., eConnect bushings) that pierce oxide layers on copper/aluminum to match silver‑plated resistance levels .

No — in ultra‑high‑reliability, high‑frequency, or precision contacts

Silver remains superior because:

• It has the highest conductivity of any metal
• Silver tarnish (Ag₂S) remains conductive, while copper oxide is non‑conductive
• Even a 0.1% voltage drop can cause sensor errors in low‑voltage automotive systems.

Thus, silver is still required in:

• High‑precision connectors
• Sensor interfaces
• High‑frequency signal paths
• Some power electronics

These are small but critical applications.

Copper is a viable substitute for silver in EVs — but only in bulk roles.

It already dominates wiring, motors, and power distribution.

Copper oxide → resistance rise → heat buildup → thermal runaway

From your open tab:

• Copper oxidizes rapidly in humidity and heat (85°C / 85% RH tests show severe degradation)
• Copper oxide is non‑conductive, unlike silver sulfide
• As resistance rises, heat increases
• Heat accelerates oxidation → resistance rises further → positive feedback loop

This is the classic precursor to:

• Connector overheating
• Insulation melting
• Localized thermal runaway
• Electrical fires

Silver avoids this because its tarnish remains conductive, preventing runaway resistance.

Arcing and contact welding in high‑current EV components

Your tab notes that copper requires plating (tin, nickel, gold) to prevent oxidation, but even then:

• Plating can degrade under thermal cycling
• Exposed copper arcs more easily
• Arcing causes pitting, material transfer, and contact welding

In EVs, this is catastrophic in:

• Battery disconnect units
• High‑current relays
• DC fast‑charging connectors

A welded relay = battery cannot disconnect during a fault, which is a direct fire hazard.

Silver has lower arcing energy and maintains stable contact surfaces.

Electrochemical migration → short circuits

Your tab explicitly describes copper’s vulnerability to ion migration under humidity and bias:

• Copper ions dissolve and redeposit
• Dendrites form
• Dendrites bridge conductors → short circuit

This is a known ignition source in:

• BMS boards
• Inverters
• DC‑DC converters

Silver is far more resistant to electrochemical migration.

High‑frequency heating in radar/LiDAR circuits

Copper has higher RF losses than silver:

• Higher resistive heating at GHz frequencies
• More heat in small traces

ADAS radar modules sit near:

• Plastic housings
• Wiring bundles
• Thermal insulation

Excess RF heating can ignite nearby materials if a fault occurs.

Silver is the lowest‑loss RF conductor, preventing this.

Why copper substitution introduces fire hazards

Failure Mode	Why Copper Causes Fire Risk	Why Silver Avoids It
Oxidation	Non‑conductive oxide → heat	Tarnish stays conductive
Arcing	Higher arc energy, pitting	Lower arc energy
Contact welding	Softens under heat	More stable under load
Ion migration	Dendrites → shorts	Highly resistant
RF heating	Higher losses → heat	Lowest RF loss
Thermal cycling	Expansion mismatch	Stable interfaces

Bottom line: Copper is perfect for bulk power, but in precision, high‑current, or safety‑critical EV electronics, it introduces multiple fire‑hazard pathways that silver does not.

Silver remains essential in high‑performance, high‑reliability electronics.

These applications use small amounts but cannot be replaced without performance loss.

Long‑term trend:

• Copper use per EV will continue rising
• Silver use per EV will rise more slowly, but will not disappear
• Silver‑free connector technologies will reduce silver intensity, but not eliminate it.

How much silver is in an EV? (Cited)

Across three authoritative sources, the numbers converge tightly:

• Engineer Fix reports that “estimates typically range from 25 to 50 grams per vehicle”
• Gibraltar IRA states: “On average, an electric vehicle contains 25 to 50 grams of silver… Standard EVs: 25–30 g; luxury EVs: up to 50 g or more.”
• AxleWise (2026) confirms: “Between 25 and 50 grams of silver… hybrids use 18–34 grams.”

Consensus range:

25–50 grams of silver per EV
(≈0.8–1.6 troy ounces)

Why EVs use this much silver

Silver is used in:

• Battery management systems (BMS)
• High‑current relays and contactors
• Inverters and converters
• Onboard chargers
• ADAS sensors
• Infotainment and navigation systems
• Power steering and braking electronics
• Airbag deployment systems

These systems require high‑reliability, low‑resistance contacts, where silver’s unmatched conductivity and corrosion resistance are essential.

Breakdown by EV type

EV Type	Typical Silver Content
Standard EV	25–30 g
Luxury / high‑electronics EV	40–50+ g
Plug‑in hybrid	18–25 g
Hybrid	18–34 g

FIAT CURRENCY MELTDOWN ALERT! ... First Casualty: INDIAN RUPEE

Tether has been a steady buyer of huge amounts of physical gold—bringing its total holdings to 132 tons, worth $19.8 billion at market value.

Clearly, this raises the question of "insider trading." However, it would be nearly impossible to prosecute a sitting president for insider trading, even if evidence existed.

Long term bonds have not been this high since just before the "Great Recession of 2008."