Product, method and equipment for remote communication using chromogenic materials

Process comprising the following steps:

• (a) preparing simultaneously one or several samples (7, 25, 26) including a chromogenic material having at least one metastable state completely or partially opaque or colored, except purely thermochromic materials;
• (b) proceeding to at least one of the following processing, called processing of excitation thereafter, either at least to one bombardment, or at least to one irradiation or at least to one illumination of the aforementioned one or several samples by means of particles which are appropriate to excite the aforementioned chromogenic material to the aforementioned metastable state, the aforementioned bombardment or bombardments, or the aforementioned irradiation or irradiations, or the aforementioned illumination or illuminations, comprising groups of entangled particles, the aforementioned entangled particles transferring their entanglement to the aforesaid chromogenic material which is excited to the aforementioned metastable state, one or several of the aforementioned samples being able to be divided and/or separated to form a collection of samples, called by convention entangled samples, each entangled sample forming one simple product.

Method of quantum emission applied to a simple product comprising a sample (7′, 7″) including a chromogenic material excited to at least one metastable state completely or partially opaque or colored, except for materials purely thermochromic, and some electrons present in ionic or covalent bonds of the aforesaid chromogenic material, which are entangled with electrons present in ionic or covalent bonds of one or several other samples similar to the aforesaid sample, the aforesaid sample being called thereafter by convention entangled sample, the aforementioned entangled sample being able to be separated in space from the aforesaid other samples and presenting remote quantum couplings between some of its electrons and some of the electrons of one or several of the aforesaid other samples, in which the aforementioned remote quantum couplings are used by causing at least one stimulation of deexcitation of the aforesaid electrons of ionic or covalent bonds, called thereafter stimulation, which is appropriate to cause the return to the ground state of the excited aforesaid chromogenic material, applied to the aforementioned entangled sample, qualified as master entangled sample (54, 69, 94, 110), the aforementioned stimulation characterizing an information or a command to be remotely transmitted.

Method of quantum reception applied to a simple product comprising a sample (7′, 7″) including a chromogenic material excited to at least one metastable state completely or partially opaque or colored, except for materials purely thermochromic, and some electrons present in ionic or covalent bonds of the aforesaid chromogenic material, which are entangled with electrons present in ionic or covalent bonds of one or several other samples similar to the aforesaid sample, the aforesaid sample being called thereafter by convention entangled sample, the aforementioned entangled sample being able to be separated in space from the aforesaid other samples and presenting remote quantum couplings between some of its electrons and some of the electrons of one or several of the aforesaid other samples, in which the aforementioned remote quantum couplings are used in real-time or in differed time for the determination, either of at least one detection of remote information, or of at least one detection of a remote command, by means of at least one measurement, made with a source of light and a detector of light, of at least one surplus variation of opacity or coloring, on the aforesaid chromogenic material included in at least one aforesaid entangled sample, qualified as slave entangled sample (65, 70, 89, 101,116).