Sub-orbital, high altitude communications system
원문보기
IPC분류정보
국가/구분
United States(US) Patent
등록
국제특허분류(IPC7판)
H04B-007/185
H04W-004/00
출원번호
UP-0228144
(2005-09-16)
등록번호
US-7567779
(2009-08-05)
발명자
/ 주소
Seligsohn, Sherwin I.
Seligsohn, Scott
출원인 / 주소
International Multi Media Corporation
대리인 / 주소
Kenyon & Kenyon LLP
인용정보
피인용 횟수 :
46인용 특허 :
45
초록▼
A sub-orbital, high altitude communications system comprising at least two ground stations and at least one high altitude relay station. Each of the ground stations including means for sending and receiving telecommunications signals. The relay stations include means for receiving and sending teleco
A sub-orbital, high altitude communications system comprising at least two ground stations and at least one high altitude relay station. Each of the ground stations including means for sending and receiving telecommunications signals. The relay stations include means for receiving and sending telecommunications signals from and to said ground stations and from and to other relay stations. Means are provided for controlling the lateral and vertical movement of the relay stations so that a predetermined altitude and location of each of said relay stations can be achieved and maintained. Means are provided for receiving the relay stations so that they can be serviced for reuse.
대표청구항▼
The invention claimed is: 1. A telecommunications apparatus comprising at least two ground stations, each of said ground stations including means for sending and receiving telecommunications signals, at least one relay station, said relay station including means for receiving and sending telecommun
The invention claimed is: 1. A telecommunications apparatus comprising at least two ground stations, each of said ground stations including means for sending and receiving telecommunications signals, at least one relay station, said relay station including means for receiving and sending telecommunications signals from and to said ground stations and from and to others of said relay stations, said relay station being at a predetermined altitude that is between about 12 and 35 miles, said relay station being at a fixed predetermined location over the earth for transmitting and receiving telecommunications signals from and to said ground stations and from and to others of said relay stations, means on said relay station for controlling the vertical and lateral movement of said relay station so that said predetermined altitude and fixed predetermined location of said relay station are achieved and maintained for sending and receiving said telecommunications signals to and from said ground stations and said other relay stations. 2. An apparatus as defined in claim 1 wherein said means for controlling the vertical and lateral movement of said relay station so that said predetermined altitude and location of said relay station are achieved and maintained comprises first means, said first means being operative to selectively or simultaneously identify the current altitude or location of said relay station, second means, said second means being operative to selectively or simultaneously identify said predetermined altitude or location for said relay station, and means for moving said relay station from said current altitude or location to said predetermined altitude or location. 3. An apparatus as defined in claim 2 wherein said means for controlling said relay station at said predetermined altitude or location comprises a thrust system, and means for selectively energizing said thrust system. 4. An apparatus as defined in claim 1 wherein said means for controlling the vertical and lateral movement of said relay station so that said predetermined altitude and location of said relay station are achieved and maintained comprises first means, said first means being operative to selectively or simultaneously identify the current altitude and location of said relay station, second means, said second means being operative to selectively or simultaneously identify a predetermined altitude and location for said relay station, and means for moving said relay station from said current altitude and location to said predetermined altitude and/or location. 5. An apparatus as defined in claim 4 wherein said means for controlling said relay station at said predetermined altitude and location comprises a thrust system, and means for selectively energizing said thrust system. 6. An apparatus as defined in claims 3 or 5 wherein said thrust system comprises propellers. 7. An apparatus as defined in claims 3 or 5 wherein said thrust system comprises rockets. 8. An apparatus as defined in claims 3 or 5 wherein said thrust system comprises jets. 9. An apparatus as defined in claims 3 or 5 wherein said means for energizing said thrust system includes means for receiving and converting solar energy to electric energy. 10. An apparatus as defined in claims 3 or 5 wherein said means for energizing said thrust system includes means for receiving and converting wind energy to electric energy. 11. An apparatus as defined in claims 3 or 5 wherein said means for energizing said thrust system includes means for receiving and converting microwave energy to electric energy. 12. An apparatus as defined in claim 11 including at least one ground based microwave transmitter, and means for aiming a microwave beam at said microwave receiving means on said relay station. 13. An apparatus as defined in claim 11 including a second relay station, at least one microwave transmitter based on said second relay station, and means on said second relay station for aiming a microwave beam at said receiving means on said relay station. 14. An apparatus as defined in claims 2 or 4 wherein said relay station is lighter than air. 15. An apparatus as defined in claim 14 wherein said means for controlling said lateral movement comprises a thrust system, and electric means for driving said thrust system. 16. An apparatus as defined in claim 14 wherein said thrust system comprises a plurality of propellers 17. An apparatus as defined in claim 14 wherein said thrust system comprises a plurality of rockets. 18. An apparatus as defined in claim 14 wherein said thrust system comprises a plurality of jets. 19. An apparatus as defined in claim 14 wherein said relay station comprises an inflatable device, and means connected to said inflatable device for deflating it while it is aloft. 20. An apparatus as defined in claim 19 wherein said means for deflating said inflatable device is operative in response to a signal from a remote source. 21. An apparatus as defined in claim 20 wherein said means for deflating said inflatable device includes an opening in said inflatable device, a frangible cover forming part of an inflatable portion of the inflatable device covering and closing said opening and being operative to seal said opening against the escape of gases from said inflatable device, and an explosive charge operative when detonated to remove the frangible cover from said opening. 22. The apparatus according to claim 21, further comprising a housing integral with the inflatable device and disposed within the opening, an interior of the housing communicating with an interior of the inflatable device but being sealed off from the atmosphere by the cover. 23. The apparatus according to claim 22, wherein the housing contains a parachute. 24. The apparatus according to claim 22, wherein the housing contains an explosive material. 25. The apparatus according to claim 24, wherein the housing further contains a shield between the housing and the explosive material, the explosive material between the shield and the cover, the shield configured to direct explosive force generated by the explosive material out through the hole away from the inflatable device. 26. An apparatus as defined in claim 20 wherein said means for deflating said inflatable device includes an opening in said inflatable device, a dislodgeable cover covering and closing said opening against the escape of gases from said inflatable device, and a plurality of clamping brackets for releasably retaining the cover in sealing relation with said opening, at least one electrically driven motor supported by said inflatable device, said electrically driven motor being in engagement with said clamping brackets and being operative when energized to move said clamping brackets so that they release the cover from said opening, air pressure in the inflatable device dislodging the cover upon movement of the clamping brackets. 27. The apparatus according to claim 26, further comprising a housing integral with the inflatable device and disposed within the opening, an interior of the housing communicating with an interior of the inflatable device but being sealed off from the atmosphere by the cover. 28. The apparatus according to claim 27, wherein the housing contains a parachute. 29. The apparatus according to claim 27, wherein the housing contains an explosive material. 30. The apparatus according to claim 29, wherein the housing further contains a shield between the housing and the explosive material, the explosive material between the shield and the cover, the shield configured to direct explosive force generated by the explosive material out through the hole away from the inflatable device. 31. An apparatus in defined in claim 19 wherein said inflatable device includes a parachute having control lines for controlling its descent when it is recovered. 32. An apparatus as defined in claim 31 including means for deploying said parachute, and means for connecting said means for deploying said parachute to said means for deflating said inflatable device so that said parachute is deployed when said inflatable device is deflated. 33. An apparatus as defined in claim 32 including radio controlled means supported by said inflatable device and being connected to the control lines for said parachute, said radio controlled means being operative to provide directional control to said parachute as it descends. 34. An apparatus as defined in claim 19 wherein said relay station comprises a balloon. 35. An apparatus as defined in claim 14 wherein said relay station comprises a super pressure balloon. 36. An apparatus as defined in claim 1 including a ground based telecommunications network, and at least one of said ground stations is connected to said telecommunications network. 37. An apparatus as defined in claim 1 wherein at lease one of said ground stations is mobile. 38. An apparatus as defined in claim 1 wherein at least one of said ground stations is stationary. 39. An apparatus as defined in claim 1 wherein said relay station comprises a balloon. 40. An apparatus as defined in claim 39 wherein said balloon includes means for controlling its altitude. 41. An apparatus as defined in claim 40 wherein said balloon comprises a zero pressure balloon. 42. An apparatus as defined in claim 40 wherein said balloon comprises an overpressure zero pressure balloon. 43. An apparatus as defined in claim 42 wherein said balloon comprises a zero pressure balloon. 44. An apparatus as defined in claim 42 wherein said balloon comprises an overpressure zero pressure balloon. 45. An apparatus as defined in claim 39 wherein said balloon comprises a super pressure balloon. 46. An apparatus as defined in claim 39 wherein said balloon includes means for controlling the temperature of the gas that it contains. 47. An apparatus as defined in claim 39 wherein said balloon includes a skin, and at least a portion of said skin is comprised of electro-chromatic material. 48. An apparatus as defined in claim 39 wherein said balloon includes a skin, and at least a portion of said skin is comprised of photochromatic material. 49. An apparatus as defined in claim 48 wherein said balloon comprises a zero pressure balloon. 50. An apparatus as defined in claim 48 wherein said balloon comprises an overpressure zero pressure balloon. 51. An apparatus as defined in claim 1 wherein at least one of the relay stations comprise a plurality of sections each supported by a separate balloon, at least one of said sections including means for selectively receiving and sending telecommunications signals from and to said ground stations and/or others of said relay stations, and at least one of said sections including means for providing energy for said means for receiving and sending telecommunications signals and/or said means for controlling the lateral and vertical movement of said relay stations. 52. An apparatus as defined in claim 51 wherein at least two of said sections include means for selectively receiving and sending telecommunications signals from and to said ground stations and/or others of said relay stations, so that if said last named means on one of said sections fails, the other section will continue to operate and thereby keep the relay station in service. 53. An apparatus as defined in claim 51 wherein at least two of said sections include means for providing energy for said means for receiving and sending telecommunications signals and/or said means for controlling the lateral and vertical movement of said relay stations, so that if said last named means on one of said sections fails, the other section will continue to operate and thereby keep the relay station in service. 54. An apparatus as defined in claim 51 wherein said means for providing energy includes means for receiving microwave energy and converting it to electric energy. 55. An apparatus as defined in claim 54 wherein said means for receiving microwave energy includes means for collecting microwave energy from space. 56. An apparatus as defined in claim 54 including at least one ground microwave transmitter, and said means for receiving microwave energy receives microwave energy from said ground microwave transmitter. 57. An apparatus as defined in claim 51 wherein said means for providing energy includes means for converting solar energy to microwave energy and transmitting it to said means for receiving microwave energy. 58. An apparatus as defined in claim 57 wherein said airplane includes means for providing energy for said means for receiving and sending telecommunications signals and/or said means for controlling the lateral and vertical movement of said relay stations. 59. An apparatus as defined in claim 58 wherein said means for providing energy includes means for receiving microwave energy and converting it to electric energy. 60. An apparatus as defined in claim 59 including at least one ground microwave transmitter, and said means for receiving microwave energy receives microwave energy from said ground microwave transmitter. 61. An apparatus as defined in claim 58 wherein said means for providing energy includes means for converting solar energy to microwave energy and transmitting it to said means for receiving microwave energy. 62. An apparatus as defined in claim 58 wherein said means for providing energy includes means for converting chemical energy to microwave energy and transmitting it to said means for receiving microwave energy. 63. An apparatus as defined in claim 58 wherein said means for providing energy includes means for converting wind energy to microwave energy and transmitting it to said means for receiving microwave energy. 64. An apparatus as defined in claim 58 wherein said means for receiving microwave energy includes means for collecting microwave energy from space. 65. An apparatus as defined in claim 51 wherein said means for providing energy includes means for converting chemical energy to microwave energy and transmitting it to said means for receiving microwave energy. 66. An apparatus as defined in claim 51 wherein said means for providing energy includes means for converting wind energy to microwave energy and transmitting it to said means for receiving microwave energy. 67. An apparatus as defined in claim 1 wherein said relay station comprises a light weight airplane. 68. An apparatus as defined in claim 1 wherein said means for selectively receiving and sending telecommunications signals from and to said ground stations and/or others of said relay stations operates at frequencies that are the same as those allocated to terrestrial telecommunications. 69. An apparatus as defined in claim 68 wherein the use of said frequencies is increased by digital multiple access technologies. 70. An apparatus as defined in claim 1 wherein there are a plurality of relay stations, and relay stations stationed over more densely populated areas are lower than relay stations stationed over less densely populated areas. 71. An apparatus as defined in claim 70 wherein said lower relay stations require less power for their telecommunications signals than said higher relay stations. 72. An apparatus as defined in claim 1 wherein there are a plurality of relay stations, the relay stations over more densely populated areas have a narrow focus for the angle of reception and propagation of telecommunications signals, and the relay stations over less densely populated areas have a broad focus for the angle of reception and propagation of telecommunications signals. 73. An apparatus as defined in claim 72 wherein said relay stations whose angles of reception and propagation are narrow require less power for their telecommunications signals than said relay stations whose angles of reception and propagation are broad. 74. A telecommunications method comprising the steps of providing at least two ground stations and at least one relay station, positioning said relay station at a fixed predetermined location over the earth and at a predetermined altitude for receiving and transmitting telecommunications signals to and from said ground stations and other relay stations, said predetermined altitude being between about 12 and 35 miles, transmitting a telecommunications signal from a first one of said ground stations to said relay station, receiving said telecommunications signal at said relay station and transmitting said signal to a second ground station, and maintaining said relay station at said fixed predetermined altitude and location for sending and receiving said telecommunications signals to and from said ground stations and said other relay stations. 75. A method as defined in claim 74 including the steps of identifying a current altitude and location over the earth of said relay station, identifying a predetermined altitude and location for said relay station, and moving said relay station from said current altitude and/or location to said predetermined altitude and location. 76. A method as defined in claim 74 including the steps of identifying a current altitude or location over the earth of said relay station, identifying said predetermined altitude or location for said relay station, and moving said relay station from said current altitude or location to said predetermined altitude or location. 77. A method as defined in claims 75 or 76 wherein the step of moving said relay station includes the step of applying a thrust force to said relay station in the direction in which it is to move. 78. A method as defined in claim 77 including the step of enabling said relay stations to receive and store energy, and using said energy to create said thrust force and to enable said relay station to transmit and receive telecommunications signals. 79. A method as defined in claim 78 wherein said relay stations can receive and store solar energy. 80. A method as defined in claim 78 wherein said relay stations can receive and store microwave energy. 81. A method as defined in claim 78 wherein said relay stations can receive and store wind energy. 82. A method as defined in claim 78 wherein said energy is chemical energy. 83. A method as defined in claim 75 or 76 including the step of returning said relay station to a predetermined location on the earth. 84. A method as defined in claim 74 wherein at least one of said ground stations is mobile. 85. A method as defined in claim 74 wherein said relay station is lighter than air. 86. A method as defined in claim 85 wherein said relay station is inflated with a gas. 87. A method as defined in claim 85 including the step of controlling the altitude of said relay station. 88. A method as defined in claim 87 wherein said step of controlling the altitude of said relay station includes controlling the temperature of said gas. 89. A method as defined in claim 88 wherein the temperature of said gas is controlled by controlling the amount of solar radiant energy that enters said balloon. 90. A method as defined in claim 89 wherein said step of controlling the amount of solar energy that enters said balloon includes the step of changing the transparency of the skin of said balloon. 91. A method as defined in claim 90 wherein at least a portion of said skin is comprised of electro-chromatic material. 92. A method as defined in claim 91 wherein said balloon comprises a zero pressure balloon. 93. A method as defined in claim 91 wherein said balloon comprises an overpressure zero pressure balloon. 94. A method as defined in claim 90 wherein said balloon includes a skin, and at least a portion of said skin is comprised of photochromatic material. 95. A method as defined in claim 94 wherein said balloon comprises a zero pressure balloon. 96. A method as defined in claim 94 wherein said balloon comprises an overpressure zero pressure balloon. 97. A method as defined in claim 74 wherein the step of providing a relay station includes the step of providing it with a plurality of sections each supported by a separate balloon, selectively receiving and sending telecommunications signals from and to said ground stations and/or other relay stations by at least one of said sections, transmitting energy to said last named section from at least one of said other sections, and said energy is operative to enable said telecommunications. 98. A method as defined in claim 97 wherein the step of receiving and sending telecommunications signals from and to said ground stations and/or other relay stations is by at least two of said sections so that if there is a failure of the ability to send and/or receive telecommunications signals from or to one of said sections, the other section will continue to operate and thereby keep the relay station in service. 99. A method as defined in claim 97 wherein the step of transmitting energy to said section that selectively receives and sends telecommunications signals from and to said ground stations and/or other relay stations includes the step of transmitting energy by at least two of said sections so that if there is a failure of the ability to transmitting energy from one of said sections, the other section will continue to operate and thereby keep the relay station in service. 100. A method as defined in claim 97 wherein said energy that is transmitted is microwave energy, converting said microwave energy to electric energy, and using said electric energy for said telecommunication. 101. A method as defined in claim 97 wherein said step of transmitting energy to said last named section includes the steps of collecting solar energy at said other section, converting said solar energy to microwave energy, and transmitting said microwave energy. 102. A method as defined in claim 97 wherein said step of transmitting energy to said last named section includes the steps of collecting wind energy at said other section, converting said wind energy to microwave energy, and transmitting said microwave energy. 103. A method as defined in claim 97 wherein said step of transmitting energy to said last named section includes the steps of providing chemical energy at said other section, converting said chemical energy to microwave energy, and transmitting said microwave energy. 104. A method as defined in claim 97 wherein said step of transmitting energy to said last named section includes the steps of collecting microwave energy at said other section, and transmitting said microwave energy. 105. A method as defined in claim 74 wherein said telecommunications signals are at the same frequencies as those allocated to terrestrial telecommunications signals. 106. A method as defined in claim 105 including the step of increasing the number of channels available for communication on said frequencies by digital multiple access technologies. 107. A method as defined in claim 106 wherein said digital multiple access technology includes TDMA. 108. A method as defined in claim 106 wherein said digital multiple access technology includes FDMA. 109. A method as defined in claim 106 wherein said digital multiple access technology includes CDMA. 110. A method as defined in claim 74 including the step of providing a plurality of relay stations, locating relay stations stationed over more densely populated areas at lower altitudes than relay stations located over less densely populated areas. 111. A method as defined in claim 110 wherein said relay stations at lower altitudes require less power for telecommunications signals than said higher relay stations. 112. A method as defined in claim 74 including the step of providing a plurality of relay stations, providing a narrow focus for the angle of reception and propagation of telecommunications signals for those relay stations over more densely populated areas, and providing a broad focus for the angle of reception and propagation of telecommunications signals for those relay stations over less densely populated areas. 113. A method as defined in claim 112 including the steps of providing said relay stations whose angles of reception and propagation are narrow with less power for their telecommunications signals than said relay stations whose angles of reception and propagation are broad. 114. A method as defined in claim 74 wherein said relay station is lighter than air. 115. A method as defined in claim 114 wherein said relay station is inflatable. 116. A method as in claim 115 wherein said relay station is a super pressure balloon. 117. A method as in claim 114 wherein said relay station is a super pressure balloon. 118. A method as defined in claim 74 wherein the step of transmitting said telecommunications signal to said second ground station includes the steps of providing a second relay station, transmitting said telecommunications signal from said first relay station to said second relay station, and transmitting said telecommunications signal from said second relay station to said second ground station. 119. A method as defined in claim 74 wherein the step of transmitting said signal to said second ground station includes the steps of providing a second relay station, transmitting said communications signal from said first relay station to said second relay station, and transmitting said communications signal from said second relay station to said second ground station. 120. A telecommunications apparatus comprising at least two ground stations, each of said ground stations including means for sending and receiving telecommunications signals, at least one relay station, said relay station including means for receiving and sending telecommunications signals from and to said ground stations and from and to others of said relay stations, first means for identifying the current altitude and location of said relay station, second means for identifying a predetermined altitude and a fixed predetermined location over the earth for said relay station, said predetermined altitude being between about 12 to 35 miles, and means on said relay station for moving said relay station from said current altitude and location to said predetermined altitude and fixed predetermined location over the earth for sending and receiving signals to and from said ground stations and said other relay stations. 121. An apparatus as defined in claim 120 wherein said means for controlling said relay station at said predetermined altitude and location comprises a thrust system, said thrust system comprises a plurality of elements, and means for selectively energizing selected ones of said plurality of elements so that the direction in which said relay station moves is controlled. 122. An apparatus as defined in claims 120 or 121 wherein said relay station is lighter than air. 123. An apparatus as defined in claim 122 wherein said means for controlling said lateral movement comprises a thrust system, and electric means for driving said thrust system. 124. An apparatus as defined in claim 123 wherein said thrust system comprises a plurality of propellers. 125. An apparatus as defined in claim 123 wherein said thrust system comprises a plurality of rockets. 126. An apparatus as defined in claim 123 wherein said thrust system comprises a plurality of jets. 127. An apparatus as defined in claim 122 wherein said relay station is a super pressure balloon. 128. An apparatus as defined in claim 122 wherein said relay station comprises an inflatable device, and means connected to said inflatable device for deflating it while it is aloft. 129. An apparatus as defined in claim 128 wherein said means for deflating said inflatable device is operative in response to a signal from a remote source. 130. An apparatus as defined in claim 129 wherein said means for deflating said inflatable device includes an opening in said inflatable device, a frangible cover forming part of an inflatable portion of the inflatable device covering and closing said opening and being operative to seal said opening against the escape of gases from said inflatable device, and an explosive charge operative when detonated to remove the frangible cover from said opening. 131. The apparatus according to claim 130, further comprising a housing integral with the inflatable device and disposed within the opening, an interior of the housing communicating with an interior of the inflatable device but being sealed off from the atmosphere by the cover. 132. The apparatus according to claim 131, wherein the housing contains a parachute. 133. The apparatus according to claim 131, wherein the housing contains an explosive material. 134. The apparatus according to claim 133, wherein the housing further contains a shield between the housing and the explosive material, the explosive material between the shield and the cover, the shield configured to direct explosive force generated by the explosive material out through the hole away from the inflatable device. 135. An apparatus as defined in claim 129 wherein said means for deflating said inflatable device includes an opening in said inflatable device, a dislodgeable cover covering and closing said opening against the escape of gases from said inflatable device, and a plurality of clamping brackets for releasably retaining the cover in sealing relation with said opening, at least one electrically driven motor supported by said inflatable device, said electrically driven motor being in engagement with said clamping brackets and being operative when energized to move said clamping brackets so that they release the cover from said opening, air pressure in the inflatable device dislodging the cover upon movement of the clamping brackets. 136. The apparatus according to claim 135, further comprising a housing integral with the inflatable device and disposed within the opening, an interior of the housing communicating with an interior of the inflatable device but being sealed off from the atmosphere by the cover. 137. The apparatus according to claim 136, wherein the housing contains a parachute. 138. The apparatus according to claim 136, wherein the housing contains an explosive material. 139. The apparatus according to claim 138, wherein the housing further contains a shield between the housing and the explosive material, the explosive material between the shield and the cover, the shield configured to direct explosive force generated by the explosive material out through the hole away from the inflatable device. 140. An apparatus in defined in claim 128 wherein said inflatable device includes a parachute having control lines for controlling its descent when it is recovered. 141. An apparatus as defined in claim 140 including means for deploying said parachute, and means for connecting said means for deploying said parachute to said means for deflating said inflatable device so that said parachute is deployed when said inflatable device is deflated. 142. An apparatus as defined in claim 141 including radio controlled means supported by said inflatable device and being connected to the control lines for said parachute, said radio controlled means being operative to provide directional control to said parachute as it descends. 143. An apparatus as defined in claim 128 wherein said relay station is a super pressure balloon. 144. A telecommunications apparatus comprising at least two ground stations, each of said ground stations including means for sending and receiving telecommunications signals, at least one relay station, said relay station including means for receiving and sending telecommunications signals from and to said ground stations and from and to others of said relay stations, first means for identifying the current altitude or location of said relay station, second means for identifying a predetermined altitude or a fixed predetermined location over the earth for said relay station, said predetermined altitude being between about 12 to 35 miles, and means on said relay station for moving said relay station from said current altitude and location to said predetermined altitude or fixed predetermined location over the earth for sending and receiving signals to and from said ground stations and said other relay stations. 145. An apparatus as defined in claim 144 wherein said means for controlling said relay station at said predetermined altitude or location comprises a thrust system, said thrust system comprises a plurality of elements, and means for selectively energizing selected ones of said plurality of elements so that the direction in which said relay station moves is controlled. 146. An apparatus as defined in claims 121 or 145 wherein said thrust system comprises propellers. 147. An apparatus as defined in claims 121 or 145 wherein said thrust system comprises rockets. 148. An apparatus as defined in claim 121 or 145 wherein said thrust system comprises jets. 149. An apparatus as defined in claim 121 or 145 wherein said means for energizing said thrust system includes means for receiving and converting solar energy to electric energy. 150. An apparatus as defined in claim 121 or 145 wherein said means for energizing said thrust system includes means for receiving and converting wind energy to electric energy. 151. An apparatus as defined in claim 121 or 145 wherein said means for energizing said thrust system includes means for receiving and converting microwave energy to electric energy. 152. An apparatus as defined in claim 151 including at least one ground based microwave transmitter, and means for aiming a microwave beam from said transmitter at said microwave receiving means on said relay station. 153. An apparatus as defined in claim 151 including a second relay station, at least one microwave transmitter based on said second relay station, and means on said second relay station for aiming a microwave beam from said transmitter at said microwave receiving means on said relay station. 154. An apparatus as defined in claims 120 or 144 including a ground based telecommunications network, and at least one of said ground stations is connected to said telecommunications network. 155. An apparatus as defined in claim 120 or 144 wherein at least one of said ground stations is mobile. 156. An apparatus as defined in claim 120 or 144 wherein at least one of said ground stations is stationary. 157. A relay station for a high altitude sub-orbital telecommunications system which is to be disposed at a predetermined altitude of between about 12 to 35 miles and at a fixed predetermined location over the earth comprising means for receiving and sending telecommunications signals from and to ground stations and from and to other relay stations, and means for controlling the vertical and lateral movement of said relay station so that said predetermined altitude and said fixed predetermined location of said relay station is achieved and maintained for sending and receiving said telecommunications signals to and from said ground stations and said other relay stations. 158. The relay station as defined in claim 157 wherein said means for maintaining said relay station at said predetermined altitude and location comprises a thrust system, and means for energizing said thrust system. 159. The relay station as defined in claim 158 wherein said means for controlling the lateral and vertical movement of said relay station so that a predetermined altitude and location of said relay station is achieved and maintained comprises first means for identifying the current altitude or location of said relay station, and second means for identifying a predetermined altitude or location for said relay station, and an energizable thrust system on said relay station, said thrust system being selectively operative to move said relay station from its current altitude or location to said predetermined altitude or location. 160. The relay station as defined in claim 157 wherein said means for controlling the lateral and vertical movement of said relay station so that a predetermined altitude and location of said relay station is achieved and maintained comprises first means for identifying the current altitude and location of said relay station, and second means for identifying a predetermined altitude and location for said relay station, and an energizable thrust system on said relay station, said thrust system being selectively operative to move said relay station from its current altitude and location to said predetermined altitude and location. 161. The relay station as defined in claim 160 or 159 wherein said thrust system comprises propellers. 162. The relay station as defined in claim 160 or 159 wherein said thrust system comprises rockets. 163. The relay station as defined in claim 160 or 159 wherein said thrust system comprises jets. 164. The relay station as defined in claim 160 or 159 wherein said means for energizing said thrust system includes means for receiving and converting solar energy to electric energy. 165. The relay station as defined in claim 160 or 159 wherein said means for energizing said thrust system includes means for receiving and converting wind energy to electric energy. 166. The relay station as defined in claim 160 or 159 wherein said means for energizing said thrust system includes means for receiving and converting microwave energy to electric energy. 167. The relay station as defined in claim 166 including at least one ground based microwave transmitter, and means for aiming a microwave beam at said microwave receiving means on said relay station. 168. The relay station as defined in claim 167 including at least one microwave transmitter based on said relay station, and means on said relay station for aiming a microwave beam at said receiving means on another relay station. 169. The relay station as defined in claim 157 wherein said relay station comprises a balloon. 170. The relay station as defined in claim 169 wherein said balloon includes means for controlling the temperature of the gas that it contains. 171. The relay station as defined in claim 170 wherein said balloon includes a skin, and at least a portion of said skin is comprised of electro-chromatic material. 172. The relay station as defined in claim 171 wherein said balloon comprises a zero pressure balloon. 173. The relay station as defined in claim 172 wherein said balloon includes a skin, and at least a portion of said skin is comprised of photochromatic material. 174. The relay station as defined in claim 173 wherein said balloon comprises an overpressure zero pressure balloon. 175. The relay station as defined in claim 171 wherein said balloon comprises an overpressure zero pressure balloon. 176. The relay station as defined in claim 175 wherein said balloon comprises a zero pressure balloon. 177. The relay station as defined in claim 169 wherein said balloon includes means for controlling its altitude. 178. The relay station as defined in claim 177 wherein said balloon comprises a zero pressure balloon. 179. The relay station as defined in claim 177 wherein said balloon comprises an overpressure zero pressure balloon. 180. The relay station as defined in claim 179 wherein said balloon comprises a super pressure balloon. 181. The relay station as defined in claim 157 wherein said relay station is lighter than air. 182. The relay station as defined in claim 181 wherein said means for controlling said lateral movement comprises a thrust system, and electric means for driving said thrust system. 183. The relay station as defined in claim 181 wherein said thrust system comprises a plurality of propellers. 184. The relay station as defined in claim 181 wherein said thrust system comprises a plurality of rockets. 185. The relay station as defined in claim 181 wherein said thrust system comprises a plurality of jets. 186. The relay station as defined in claim 181 wherein said relay station comprises an inflatable device, and means connected to said inflatable device for deflating it while it is aloft. 187. The relay station as defined in claim 186 wherein said means for deflating said inflatable devices is operative in response to a signal from a remote source. 188. The relay station as defined in claim 187 wherein said means for deflating said inflatable device includes an opening in said inflatable device, a cover closing said opening and being operative to seal said opening against the escape of gases from said inflatable device, and an explosive charge connected to said cover, said explosive charge being operative when detonated to remove said cover from said opening. 189. The relay station as defined in claim 187 wherein said means for deflating said inflatable device includes an opening in said inflatable device, a cover closing said opening against the escape of gases from said inflatable device, and a plurality of clamping brackets for releasably retaining said cover in sealing relation with said opening, at least one electrically driven motor supported by said inflatable device, said electrically driven motor being in engagement with said clamping brackets and being operative when energized to move said clamping brackets so that they release said cover from said opening, air pressure in the inflatable device dislodging the cover upon movement of the clamping brackets. 190. The apparatus according to claim 189, further comprising a housing integral with the inflatable device and disposed within the opening, an interior of the housing communicating with an interior of the inflatable device but being sealed off from the atmosphere by the cover. 191. The apparatus according to claim 190, wherein the housing contains a parachute. 192. The apparatus according to claim 190, wherein the housing contains an explosive material. 193. The apparatus according to claim 192, wherein the housing further contains a shield between the housing and the explosive material, the explosive material between the shield and the cover, the shield configured to direct explosive force generated by the explosive material out through the hole away from the inflatable device. 194. The relay station in defined in claim 186 wherein said inflatable device includes a parachute for controlling its descent when it is recovered. 195. The relay station as defined in claim 194 including means for deploying said parachute, and means for connecting said means for deploying said parachute to said means for deflating said inflatable device so that said parachute is deployed when said inflatable device is deflated. 196. The relay station as defined in claim 194 including radio controlled means supported by said inflatable device and being connected to the control lines for said parachute, and said radio controlled means is operative to provide directional control to said parachute as it descends.
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