Wireless transmission of energy through concentric laser-induced plasma channels in atmosphere

Abstract

A method and apparatus for transmission of charged particles along a laser-induced conduction path of concentric plasma channels in atmosphere. The apparatus comprises a high power laser array in operable communication with a high energy output means to accomplish initiation of at least two concentric plasma channels in atmosphere, a second energy source for outputting the charged particles to be transmitted, and means for introducing the charged particles to be transmitted into the wall of at least one of the laser-induced conduction channels. Other embodiments further include means for inducing the energy across the conduction path to a target capable of receiving and storing the energy, and a plurality of charging rods bearing a negative or positive charge and in communication with each conductive channel for shaping and stabilizing the charge transmitted therethrough.

1 . An apparatus for the wireless transmission of energy through the atmosphere, comprising:
 a. a first pulsed ionizing beam emitting means for producing a first pulsed ionizing beam through the atmosphere;   b. a second pulsed ionizing beam emitting means for producing a second pulsed ionizing beam through the atmosphere;   c. means for rotating said first pulsed ionizing beam to form a first conductive channel comprised of a wall of partially ionized atmosphere; said first conductive channel having a substantially ring-shaped cross section; said ring having a diameter;   d. means for rotating said second pulsed ionizing beam to form a second conductive channel comprised of a wall of partially ionized atmosphere; said second conductive channel having a substantially ring-shaped cross section; said ring having a diameter greater than said diameter of said first conductive channel; said first conductive channel and said second conductive channel being concentric and being separated by a distance therebetween;   e. an energy source capable of outputting a flow of electrically charged particles; and   f. means for introducing said flow of electrically charged particles into said wall of either said first conductive channel, said second conductive channel, or both; whereby said walls of said first conductive channel and said second conductive channel provide. concentric pathways for the transmission of said electrically charged particles.   
     
     
         2 . An apparatus for the wireless transmission of energy through the atmosphere, comprising:
 a. at least two pulsed ionizing beam emitting means each for producing a separate pulsed ionizing beam through the atmosphere;   b. means for rotating each of said pulsed ionizing beams such that each pulsed ionizing beam forms a separate conductive channel comprised of a wall of partially ionized atmosphere; each said conductive channel being concentric and being separated by a distance therebetween;   c. an energy source capable of outputting a flow of electrically charged particles; and   d. means for introducing said flow of electrically charged particles into said wall of 12 at least one of said conductive channels;   whereby said walls of each said conductive channel provides a pathway for the transmission of said electrically charged particles.   
     
     
         3 . The apparatus for wireless transmission of energy of  claim 1 , further including a target to which said first pulsed ionizing beam and said second pulsed ionizing beam are directed; said target including means for inducing to said target said flow of electrically charged particles introduced into said wall of said first and/or said second conductive channel. 
     
     
         4 . The apparatus for wireless transmission of energy of  claim 2 , further including a target to which said at least two pulsed ionizing beams are directed; said target including means for inducing to said target said flow of electrically charged particles introduced into said wall of said at least one conductive channels. 
     
     
         5 . The apparatus for wireless transmission of energy of  claim 1 , further including a target to which said first pulsed ionizing beam and said second pulsed ionizing beam are directed; said target including means for receiving and/or storing said electrically charged particles transmitted thereto via said first conductive channel and/or said second conductive channel. 
     
     
         6 . The apparatus for wireless transmission of energy of  claim 2 , further including a target to which said at least two pulsed ionizing beams are directed; said target including means for receiving and/or storing said electrically charged particles transmitted thereto via said at least two conductive channels. 
     
     
         7 . The apparatus for wireless transmission of energy of  claim 3 , wherein said target further includes means for receiving and storing said electrically charged particles transmitted thereto via said first conductive channel and/or said second conductive channel. 
     
     
         8 . The apparatus for wireless transmission of energy  4 , wherein said target further includes means for receiving and storing said electrically charged particles transmitted thereto via said first conductive channel and/or said second conductive channel. 
     
     
         9 . The apparatus for wireless transmission of energy of  claim 1 , further including a first charging rod partially extending into an area between said first conductive channel and said second conductive channel; and at least three additional charging rods uniformly distributed around and adjacent to the outer perimeter of said wall of each said conductive channel; said at least three additional charging rods being selectively positively charged or negatively charged; each of said at least three additional charging rods having a channel wall engaging portion; whereby said channel wall engaging portion of each said at least three additional charging rods is capable of independent movement across the wall of a charge-carrying channel such that the radius of the charge within the channel can be manipulated and the electromagnetic field associated with the charge re-optimized during the course of energy transmission by maintaining dynamic neutrality between the electromotive force of the transmitted charge and the charged particles that constitute the channel. 
     
     
         10 . The apparatus for wireless transmission of energy of  claim 2 , further including an area between said wall of the centermost conductive channel; a first charging rod partially extending into said area; and at least three additional charging rods uniformly distributed around and adjacent to the outer perimeter of said wall of each said conductive channel; said at least three additional charging rods being selectively positively charged or negatively charged; each of said at least three additional charging rods having a channel wall engaging portion; whereby said channel wall engaging portion of each said at least three additional charging rods is capable of independent movement across the wall of a charge-carrying channel such that the radius of the charge within the channel can be manipulated and the electromagnetic field associated with the charge re-optimized during the course of energy transmission by maintaining dynamic neutrality between the electromotive force of the transmitted charge and the charged particles that constitute the channel. 
     
     
         11 . The apparatus for wireless transmission of energy of  claim 1 , further including a first charging rod partially extending into an area between said first conductive channel and said second conductive channel; and at least three additional charging rods uniformly distributed around and adjacent to the outer perimeter of said wall of each said conductive channel; said at least three additional charging rods being selectively positively charged or negatively charged; each of said at least three additional charging rods having a channel wall engaging portion; whereby said channel wall engaging portion of each said at least three additional charging rods is capable of independent movement across the wall of a charge-carrying channel such that the radius of the charge within the channel can be manipulated and the electromagnetic field associated with the charge re-optimized during the course of energy transmission by maintaining dynamic neutrality between the electromotive force of the transmitted charge and the charged particles that constitute the channel. 
     
     
         12 . The apparatus for wireless transmission of energy of  claim 2 , further including an area between said wall of the centermost conductive channel; a first charging rod partially extending into said area; and at least three additional charging rods uniformly distributed around and adjacent to the outer perimeter of said wall of each said conductive channel; said at least three additional charging rods being selectively positively charged or negatively charged; each of said at least three additional charging rods having a channel wall engaging portion; whereby said channel wall engaging portion of each said at least three additional charging rods is capable of independent movement across the wall of a charge-carrying channel such that the radius of the charge within the channel can be manipulated and the electromagnetic field associated with the charge re-optimized during the course of energy transmission by maintaining dynamic neutrality between the electromotive force of the transmitted charge and the charged particles that constitute the channel. 
     
     
         13 . The apparatus for wireless transmission of energy of  claim 1 , further including a first charging rod partially extending into an area between said first conductive channel and said second conductive channel; and at least three additional charging rods uniformly distributed around and adjacent to the outer perimeter of said wall of each said conductive channel; said at least three additional charging rods being selectively positively charged or negatively charged; each of said at least three additional charging rods having a channel wall engaging portion; whereby said channel wall engaging portion of each said at least three additional charging rods is capable of independent movement across the wall of a charge-carrying channel such that the radius of the charge within the channel can be manipulated and the electromagnetic field associated with the charge re-optimized during the course of energy transmission by maintaining dynamic neutrality between the electromotive force of the transmitted charge and the charged particles that constitute the channel. 
     
     
         14 . The apparatus for wireless transmission of energy of  claim 2 , further including an area between said wall of the centermost conductive channel; a first charging rod partially extending into said area; and at least three additional charging rods uniformly distributed around and adjacent to the outer perimeter of said wall of each said conductive channel; said at least three additional charging rods being selectively positively charged or negatively charged; each of said at least three additional charging rods having a channel wall engaging portion; whereby said channel wall engaging portion of each said at least three additional charging rods is capable of independent movement across the wall of a charge-carrying channel such that the radius of the charge within the channel can be manipulated and the electromagnetic field associated with the charge re-optimized during the course of energy . transmission by maintaining dynamic neutrality between the electromotive force of the transmitted charge and the charged particles that constitute the channel. 
     
     
         15 . The apparatus for wireless transmission of energy of  claim 1 , further including a first charging rod partially extending into an area between said first conductive channel and said second conductive channel; and at least three additional charging rods uniformly distributed around and adjacent to the outer perimeter of said wall of each said conductive channel; said at least three additional charging rods being selectively positively charged or negatively charged; each of said at least three additional charging rods having a channel wall engaging portion; whereby said channel wall engaging portion of each said at least three additional charging rods is capable of independent movement across the wall of a charge-carrying channel such that the radius of the charge within the channel can be manipulated and the electromagnetic field associated with the charge re-optimized during the course of energy transmission by maintaining dynamic neutrality between the electromotive force of the transmitted charge and the charged particles that constitute the channel. 
     
     
         16 . The apparatus for wireless transmission of energy of  claim 2 , further including an area between said wall of the centermost conductive channel; a first charging rod partially extending into said area; and at least three additional charging rods uniformly distributed around and adjacent to the outer perimeter of said wall of each said conductive channel; said at least three additional charging rods being selectively positively charged or negatively charged; each of said at least three additional charging rods having a channel wall engaging portion; whereby said channel wall engaging portion of each said at least three additional charging rods is capable of independent movement across the wall of a charge-carrying channel such that the radius of the charge within the channel can be manipulated and the electromagnetic field associated with the charge re-optimized during the course of energy transmission by maintaining dynamic neutrality between the electromotive force of the transmitted charge and the charged particles that constitute the channel. 
     
     
         17 . A method of wireless transmission of energy through the atmosphere, the method comprising the steps of:
 a. producing a first pulsed ionizing beam through the atmosphere using a first pulsed ionizing beam emitting means;   b. producing at least one additional pulsed ionizing beam through the atmosphere using a corresponding at least one additional pulsed ionizing beam emitting means;   c. causing said first pulsed ionizing beam to rotate to form a first conductive channel comprised of a wall of partially ionized atmosphere; said first conductive channel having an essentially ring-shaped cross section; said ring having a diameter;   d. causing said at least one additional pulsed ionizing beam to rotate to form a corresponding additional conductive channel comprised of a wall of partially ionized atmosphere; said first conductive channel and said at least one additional conductive channel being concentric and each having a different diameter; and   e. introducing a flow of charged particles into said wall of either said first conductive channel or said wall of said at least one additional conductive channel.   
     
     
         18 . The method of transmitting energy through the atmosphere of  claim 17 , further including the step of inducing said charged particles across said first conductive channel and/or said at least one additional conductive channel, or both, to a target. 
     
     
         19 . The method of transmitting energy through the atmosphere of  claim 17 , wherein at least one of said first conductive channel and said at least one additional conductive channel is open at all times during the transmission of said charged particles. 
     
     
         20 . The method of transmitting energy through the atmosphere of  claim 18 , wherein at least one of said first conductive channel and said at least one additional conductive channel is open at all times during the transmission of said charged particles.