Seismic activity predictor in proximity with the earth including a dielectric for receiving precursor seismic electromagnetic waveforms

A method of predicting future seismic activity in the form of an earthquake comprising the steps of:

• (a) locating a detector including at least one of a dielectric material and a conductive material in proximity with the earth;
• (b) receiving within said at least one of said dielectric material and said conductive material energy emanating from a region of seismic activity;
• (c) sensing with a sensor responsive to said receiving said energy within said at least one of said dielectric material and said conductive material a discrete signal imposed by said waveforms at said at least one of said dielectric material and said conductive material characterized by a plurality of overlapping waveforms with multiple sharp transitions between both a positive and negative polarity;
• and
• (d) predicting based on said discrete signal the occurrence of said earthquake.

A method of predicting future seismic activity in the form of an earthquake, comprising the steps of:

• (a) locating a detector including at least one of a dielectric material and a conductive material in proximity with the earth;
• (b) receiving within said at least one of said dielectric material and said conductive material energy emanating from a region of seismic activity;
• (c) sensing with a sensor responsive to said receiving said energy within said at least one of said dielectric material and said conductive material a series of individual discrete signals imposed by said waveforms at said at least one of said dielectric material and said conductive material, said each of said signals having the characteristic of a rise time that is generally less than 40 milliseconds in duration;
• and
• (d) predicting based on said series of said signals the occurrence of said earthquake.

A method of predicting future seismic activity in the form of an earthquake, comprising the steps of:

• (a) locating a detector including at least one of a dielectric material and a conductive material in proximity with the earth;
• (b) receiving within said at least one of said dielectric material and said conductive material energy emanating from a region of seismic activity;
• (c) sensing with a sensor responsive to said receiving said energy with said at least one of said dielectric material and said conductive material a discrete signal imposed by said waveforms at said at least one of said at least one of said dielectric material and said conductive material characterized by a plurality of overlapping waveforms with a rise time of generally less than 40 milliseconds of both a positive and negative polarity;
• and
• (d) predicting based on said discrete signal the occurrence of said earthquake.

A method predicting future seismic activity in the form of an earthquake, comprising the steps of:

• (a) locating a detector in proximity with the earth;
• (b) receiving with said detector energy emanating from a region of seismic activity;
• (c) sensing with a sensor in response to said receiving said energy from a plurality of signals, where each of said signals are characterized by at least one of;
• (i) each of said signals having the characteristic of a rise time that is shorter than its fall time;
• (ii) each of said signals including overlapping waveforms with multiple sharp transitions between both a positive and a negative polarity;
• (iii) each of said signals having the characteristic of a rise time that is generally less than 40 milliseconds in duration;
• and
• (iv) each of said signals including a plurality of overlapping waveforms with a rise time of generally less than 40 milliseconds of both a positive and negative polarity;
• (d) predicting based on said signals the occurrence of said earthquake.

A method of predicting future seismic activity in the form of an earthquake comprising the steps of:

• (a) sensing at least one signal responsive to energy emanating from the earth with a sensor, where said at least one signal is characterized by at least one of;
• (i) said at least one signal having the characteristic of a rise time that is shorter than its fall time;
• (ii) said at least one signal including overlapping waveforms with multiple sharp transitions between both a positive and a negative polarity;
• (iii) said at least one signal having the characteristic of a rise time that is generally less than 40 milliseconds in duration;
• and
• (iv) said at least one signal including a plurality of overlapping waveforms with a rise time of generally less than 40 milliseconds of both a positive and negative polarity;
• (d) predicting based on said at least one signal the occurrence of said earthquake.