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FieldGauge™ Voltage-Field Compass

Sydney Matinga
Sep 18
2 min read

Updated: Sep 26


Diagram 1
Diagram 1

The device in Diagram 1 represents a voltage field-actuated compass. No moving parts present in the compass componentry. The rectangles with 'S' characters printed on them, are symbols which represent vertically oriented air-core solenoids or air-core inductors. The device is a double field gauge.


The solenoid polarities must share parity. They must both point South to North vertically, upwards. The less winding conductor used the more reactive the field gauge. The thicker the winding conductor, the more reactive the gauge will be. Reactivity will also increase with increase in voltage.


For all dimensions of attitude, the device may measure the changes in those dimesions, similarly. Direction, according to the relatively weak technology interaction with the Earth's magnetic field, can relate the basic compass function. Virtual actuators may include and not be limited to those for, cardinal direction, pitch, roll, yaw, acceleration and altitude.


The attitudes are all variable gauges of the necessarily air-core solenoid technology's reaction to the Earth's gravity, in the presence of its magnetic field. Reconfiguring the solenoid-to-solenoid orientation of each solenoid pair, as an axis of 3-dimensional, Cartesian geometry is what determines which attitute component is measured.


High constant voltage and low resistance is a requirement of the technology, for sensitive metering of the environment's changes. The higher the voltage, the greater and more precise the instrument's reaction will be, to the prevailing fields of the external environment.


The database, whether Analogue Database or digital database, must record the output of each solenoid as a ratio of the output of its partner, for greater sensitivity/precision of the whole device. The only factor which will change will be the output voltage and current, while the input voltage remains constant. The voltage changes should be recorded as the preferred sensory output.


The equations which describe electrical energy flux are:


d = diameter of solenoid winding cross section



P = ( m [ i ] * g [ i ] * h [ i ] / (1 s) )



F = B * I [ i ] * L [ i ] ,


P = B * I [ i ] * L [ i ] * d [ circumference ]/ (1 s) ,


B * I [ i ] * L [ i ] * ( Pi rad * d [ i ] )/(1 s)


---> T * A * m * rad * m/s


---> W



FieldGauge™ will also replace gas flow or gas flux gauges, currently known as wind tunnels. The increased flow rate or flow frequency of a known gas will proportionately increase the density of its core volume over 1 standard second (for SI measurements). Spatial and fluid field flux is now at an unprecented level of precision measurement. FieldGauge can be scaled for field ranging and direction.





© Xerqon Pty Ltd 2026




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Centreweave Pty Ltd developed Intellectual Property is wholly owned by Xerqon Pty Ltd (Holding Company). Intellectual Property rights are governed by the Copyright Act (Commonwealth) 1968 Australia and by the Xerqon Pty Ltd Intellectual Property Agreement.

 


© Xerqon Pty Ltd 2026

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