4P-MCB · machine semantics and automated intelligence

Virtual MCB IC — Eleven-part signal-flow workbench

Run the proposed eleven-part MCB IC as a deterministic software signal-flow model with explicit voltage bands, signed current paths, feedback, and physical-evidence boundaries.

MCB / VIRTUAL IC
SIGNAL-FLOW WORKBENCH
LOCAL SIMULATION11-PART TOPOLOGY
AUTHORED CIRCUIT / 11 PARTS

Follow the signal.

Step through the virtual IC one tick at a time. Trace signed states, current paths, feedback and output across the authored model.

SIMULATION CONTRACTmcb-virtual-ic-signal-flow-v1
LOW WINDOW
mV
0LOW ≤ 990 mVHIGH ≥ 2310 mV3300 mV
Step tick Run 4 ticks Reset
Adjust the virtual modelThresholds, oscillator, path currents, exponent array and decision band
Apply n paths
Enter 1 to 128 comma-separated safe integers. Each produces one ordered signal path.
MCB layersn = exponent positions · s = populated signal paths · m = feedback depth, increased only when a signed output is available for the next cycle.
LIVE READOUT

Tick result

TICK— — —
Awaiting first tick

Choose an input voltage, then step the model to resolve this readout.

01 / 11
TRACE THE CIRCUIT

Eleven authored parts. All signal paths visible.

+1 −1 unresolved
01 — SOURCE & RAILEstablish
03
Internal and external power supplySeparate external input and internal circuit supplies; the internal rail oscillates.awaiting tick
—
04
Printed power pathwaysRoutes the simulated rail to the transistor and amplifier nodes.awaiting tick
—
07
PMOS global voltage controlA configured periodic rail oscillation shared by the virtual nodes.awaiting tick
—
02 — SIGNAL PATHDistribute
08
One-to-one external input splitterCopies one decoded input state to each ordered exponent path.awaiting tick
—
01
Base transistor (PMOS/PNP)Foundational Base/phase anchor.awaiting tick
—
02
Orthodox transistor array (NMOS/NPN)Finite exponent-array paths, one element per populated branch.awaiting tick
—
03 — CURRENT & RETURNCombine
06
Base/orthodox inter-transistor pathwaysCarries Base and exponent-array contributions to the amplifier.awaiting tick
—
10
Second in-phase Base and 9:1 current splitNine equal return paths and one equal current path into the amplifier.awaiting tick
—
05
Printed PMOS amplifierA bounded signed-current decision stage in this virtual model.awaiting tick
—
04 — OBSERVEClose the loop
09
Amplifier feedback to external inputReturns the previous amplifier state on the next simulation tick.awaiting tick
—
11
External output traceMirrors the amplifier state and its bounded output voltage.awaiting tick
—
DECLARED CONNECTIONS 17 WIRES
powerInternal and external power supplyPrinted power pathwaysexternal + internal rails
powerPrinted power pathwaysBase transistor (PMOS/PNP)Base rail
powerPrinted power pathwaysOrthodox transistor array (NMOS/NPN)orthodox rails
powerPrinted power pathwaysPrinted PMOS amplifieramplifier rail
powerPrinted power pathwaysPMOS global voltage controlcontrol rail
logicPMOS global voltage controlBase transistor (PMOS/PNP)phase / rail
logicPMOS global voltage controlOrthodox transistor array (NMOS/NPN)phase / rail
logicPMOS global voltage controlSecond in-phase Base and 9:1 current splitshared phase
inputOne-to-one external input splitterOrthodox transistor array (NMOS/NPN)equal 1:1 branches
logicBase transistor (PMOS/PNP)Base/orthodox inter-transistor pathwaysBase contribution
logicOrthodox transistor array (NMOS/NPN)Base/orthodox inter-transistor pathwaysexponent-array outputs
logicBase/orthodox inter-transistor pathwaysPrinted PMOS amplifiersummed contributions
returnSecond in-phase Base and 9:1 current splitSecond in-phase Base and 9:1 current split9 equal return paths
injectionSecond in-phase Base and 9:1 current splitPrinted PMOS amplifier1/10 current injection
feedbackPrinted PMOS amplifierAmplifier feedback to external inputnext-tick feedback
feedbackAmplifier feedback to external inputOne-to-one external input splitterclosed input loop
outputPrinted PMOS amplifierExternal output traceparallel output trace
ORDERED SPLITTER OUTPUTS

Exponent paths

4 BRANCHES · 1:1
Path states will appear here after the first simulation tick.
RECENT EXECUTION

Tick sequence

0 / 12 retained in this view
∅No ticks in this run. Execution is transient and stays in this page.
i

Deterministic signal-flow simulation. It models configured voltage bands, signed current paths and feedback—not transistor device physics. Outputs are not physical measurements or validated circuit performance.

NO HARDWARE CONNECTED · NO DATA SAVED

About Virtual MCB IC — Eleven-part signal-flow workbench

Run the proposed eleven-part MCB IC as a deterministic software signal-flow model with explicit voltage bands, signed current paths, feedback, and physical-evidence boundaries.

4P-MCB operating context

Machine semantics, MCB computation, and logical automation across physical and software systems.

Presenting site: 4P-MCB · route: 4p-mcb:mcb:/mcb/virtual-ic · validation authority: 4P-MCB machine-semantics and bounded 4P alignment.