5. A hardware active element machine implemented method comprising: translating a first computer language into a second computer language, and translating the second language into active element instructions, which are instructions implemented by the active element machine and which indicate settings of parameters of components of the active element machine, which is a machine that includes at least a multiplicity of man-made computing elements, and a multiplicity of man-made couplings communicatively connecting the multiplicity of man-made computing elements to one another, such that the man-made couplings are capable of transmitting messages between the multiplicity of computing elements; one of the settings of the parameters including an indication of a time when the active element instruction will be implemented.
5. A hardware active element machine implemented method comprising: translating a first computer language into a second computer language, and translating the second language into active element instructions, which are instructions implemented by the active element machine and which indicate settings of parameters of components of the active element machine, which is a machine that includes at least a multiplicity of man-made computing elements, and a multiplicity of man-made couplings communicatively connecting the multiplicity of man-made computing elements to one another, such that the man-made couplings are capable of transmitting messages between the multiplicity of computing elements; one of the settings of the parameters including an indication of a time when the active element instruction will be implemented. 7. The method of claim 5 , further comprising encrypting the active element instructions forming encrypted instructions.