D69-3 OAWWOOLEA UEWA OEMM. Description of the UMMO spacecraft (3)

XOODI NAA (STRUCTURAL COVERING OF THE UEWA)

 

What you would call the “COVERING OF THE STRUCTURE” is designated by us with the untranslatable name or phoneme XOODI NAA. The most suitable Spanish word to associate with this concept would probably be “membrane”. But this term may suggest purely static properties: of protection, of a barrier; whereas in reality, as you yourself, Mr ??????????? will be able to see, it possesses very complex dynamic functional characteristics.

 

This “MEMBRANE” has very characteristic properties of structural strength, since thanks to the UYOOALADAA it can modify its coefficients of elasticity and mechanical rigidity within a wide range of values (UYOOALADAA = VASCULAR NETWORK THROUGH WHOSE DUCTS A LIQUEFIABLE ALLOY FLOWS: See IMAGE 11 (58) See also (NOTE 15) of the APPENDIX.

 

 

These elastic coefficients can be modified at every instant according to the multiple parameters depending on the environment and on the course of the flight. The XOODI NAA must also withstand high temperatures owing to the intense friction to which it may be subjected on its passage through atmospheres of different chemical composition and varied thermal conditions. It can also resist the continuous abrasion of cosmic dust and the sporadic impacts of a wide gravimetric spectrum of MICRO COSMOLITHS (Meteorites). In addition, as I will describe to you below, it contains within it a rich multiplicity of sensory organs (TRANSDUCERS, as your brother engineers would say) connected with the central XAANMOO AYUBAA.

 

But above all, it is designed to withstand the high dynamic stresses it experiences during flight. Let us not forget that along its trajectory the effects of dynamic resonance at certain frequencies can cause serious disturbances in the complex organs integrated in the XOODI NAA (MEMBRANE), to the point that it is sometimes necessary to generate oscillations out of phase with the disturbing ones in order to compensate for them.

 

With due reserve, and warning you beforehand that I deliberately omit the mention and drawing of certain devices or systems, and even of one of the basic components of the XOODI NAA, I am going to describe to you briefly, at a level of superficial technical popularization, a section of the XOODI NAA. IMAGE 11, drawn with coloured pencils, represents a disproportionate enlargement of the MEMBRANE. For didactic reasons I have not respected at all the real proportions of the devices integrated in it, so that some components have been drawn on a larger scale, bearing no fidelity whatsoever to the genuine dimensional relations. In a word, the diagram is more faithful from the topological point of view than from the dimensional one.

 

I also warn you that the sample shown corresponds to the DUUI (CROWN) IMAGE 1 (3).

 

 

Other areas of the COVERING or MEMBRANE of the UEWA (SHIP) differ to a certain degree, both in the surface density of the components distributed and in their functionality.

 

The configuration of the XOODINAA has characteristics that you could call “MODULAR”. The various detecting organs or devices integrated in a defined spatial environment are repeated in adjacent zones of equal size, undergoing, as I said above, gradual modifications that become more and more marked in the different areas of the UEWA. The problems of a Topological order that arose in planning the distribution and fitting of that wide range of elements -some of which occupy volumes no greater than 0,07 mm³ (themselves composed of microdevices manufactured on a scale we might call cellular)- have been unimaginable for you, since the functionality of the components and their recoverability in case of damage had to be harmonized with spatial economy and with the disturbing and destructive action of the Physicochemical agents of the environment. (I invite the Mathematicians of Earth to start specializing in two branches of this science which will be of vital importance to you in the future: TOPOLOGY and what you call OPERATIONS RESEARCH, and within it GRAPH THEORY.)

 

Finally I will inform you that in the GRAPH IMAGE 11 the organs have been represented as if there were only a single UNIT in the whole section. In reality the density of distribution varies in each case for a sectioned unit of volume.

 

IMAGE 11 (SCHEMATIC SECTION OF THE XOODOU or XOODINAA)

 

 

IMAGE 11

 

(31) UOXOODINAA It is a porous covering of ceramic composition with a high melting point (7260,64 º C Earth); its external emissive power is also high and its thermal conductivity very low (2,07113 · 10^-6 Cal / (Cm) (s) ( ºC). For the XOODINAA it is very important that ablation be kept within a very wide margin of tolerance. For this a system of transpiration cooling, based on liquefied Lithium, is used. SEE (35) Although the internal stresses of a mechanical type that the MEMBRANE has to undergo are high, it does not crack easily. Sporadic fractures and fissures can nevertheless be self-repaired. (SEE NOTE 7)

 

The UOXOODINAA is provided with a thin layer of colloidal platinum situated at 0,006 ENMOO from the outer surface. The function of this metallic film is related to a system of protection against the abrasion of cosmic dust (SEE NOTE 19).

 

(32) IASXOODINAA It is formed by a very elastic material of very low thermal and electrical conductivity. Within it are located capsules (50) (YAAEDINNOO) containing a dose of the same material, called UYOOXIGEE (CERAMIC PRODUCT), that forms the outer crust already mentioned (UOXOODINAA (31) ). From each of these capsules there runs a network of almost capillary tubes and a series of information channels (ULNII see Note 3) connecting the YAEDINOO with a series of UAXOO (DETECTORS) located in the mass of the first layer (31).

 

When this cracks, or microfissures appear, or it is perforated by the impact of small meteorites, these detectors are excited, activating the YAEDINOO. The ceramic product is melted at a temperature of 7655,8 º C. and is conducted, flowing through the vascular network, to the corresponding crack, welding it or filling the cavity of the perforation. Each capsule of the system protects a small area situated above it in the said ceramic crust, although the vascular connections compensate for the losses of the product that may have been used after an emergency.

 

(33) IENXOODINAA This is a layer or submembrane crystallized with silicon dioxide and Modulated in the form of a hexagonal mosaic.

 

(34) IEVOOXOODINNAA It constitutes the innermost stratum or crust of the XOODINNAA. It is also the thickest. Its constitution is complex, but its main component is an alloy whose basic elements are those you call Columbium (Niobium) and Tungsten (Wolfram).

 

 

(35) These are sensitive coolers integrated in the IEVOXODINAA. A duct emerges up to the UOXODINAA. In the image one can see a floating crown in the ceramic mass of that layer which detects its thermal gradients, activating the emission of Lithium isotope when the temperature reaches a certain level. This then flows outside, vaporizing as it absorbs the heat.

 

In some zones of the UEWA Lithium is replaced by Caesium. These elements are subsequently replenished through a vascular network, the Lithium flowing at a temperature of 318,622 º C.

 

(36) to (49) UAXOO (DETECTORS OR RECEPTORS) An extensive series of UAXOO is distributed over the whole surface of the XOODINAA.

 

These are detecting or sensing organs activated by various stimuli of a Physical, Chemical or Biological nature (for example: electromagnetic frequencies, elastic stresses, magnetic and gravitational fields, electrostatic gradients, static and Dynamic pressures, molecular presence of gases, existence of moulds and viruses, etc.). They are, as Earth Technicians in Electronics and Systems Engineering would say, Transducers capable of transforming the exciting energy function into an equivalent function of an “Optical, Gravitational or Nuclear resonant” nature (SEE NOTE 3 of the APPENDIX). You too, as you well know, use transducers whose common characteristic is the transformation of stimuli into functions of an electrical nature; but in our case the specialists had to face simultaneously five orders of problems whose solutions had to be mutually compatible.

 

RELIABILITY of the RESPONSE so that the output Function is a faithful image of the stimulus function.

 

THERMAL LATITUDE The temperatures of what you call the boundary layer can reach high peaks at high speeds within a gaseous fluid corresponding to certain atmospheres of different OYAA (PLANETS). Although, as we will tell you later, the SHIP has Systems capable of controlling the gaseous environment, and on the other hand transpiration cooling with caesium (ablation) limits the temperature of the outer ceramic crust, the inevitable thermal gradients alter the fidelity of transduction, since what you call the “SIGNAL/NOISE ratio” increases appreciably. Apparently this fatal obstacle cannot be fought, however advanced the techniques devised. It is precisely for that reason that the UAXOO are distributed in great density over the whole area of the UEWA, that is, over zones affected in different ways by those gradients. The XAANMOO (COMPUTERS) can thus compare the responses of several transducers affected by the same stimulus but disturbed in different ways by thermal functions of time and other distorting physical agents, obtaining, after the corresponding discrimination, a purity in the Function examined that it would be impossible to obtain otherwise.

 

MECHANICAL STRESSES Do not forget that such components are embedded within a Membrane that undergoes high dynamic Stresses owing to the various mechanical strains the Spaceship experiences during flight. Despite the damping barriers, these organs undergo Torsions, elongations and compressions that could modify their functionality. That is why all of them are provided with reactive compensators that stabilize the response.

 

SUSCEPTIBILITY TO PENETRATING RADIATION Although not all the UAXOO suffer in their functionality in the presence of these physical agents, and although the UAXOO can rarely be subjected to radiant energies higher than 4 · 10³ / electron-Volts (the Spaceship usually avoids dangerous zones by changing its three-dimensional framework), the design of certain transducers responds to the danger of activation, all the more so since the energy transferred to the molecules of the structure is momentarily accumulated, to be released afterwards in the form of heat, causing dangerous thermal gradients that would damage both the system and the fidelity of the responses, when such radiation directly affects the independent nuclei of the XANMOO AYUBAA (the CENTRAL XANMOO has “peripheral nuclei” distributed throughout the UEWA. In these, thermal stability is ESSENTIAL.

 

MICROMODULATION AND RECOVERABILITY The organic complexity of these devices and the need to integrate a great number of them in a small space require their dimensions to be reduced, in certain cases, to almost cellular scales. The modal value in a Gaussian distribution by volumetric dimensions is 2,8 mm³, reaching at the 95th percentile (I try to adapt myself to Earth algorithms and terminology) a value of / 0,07 mm³. In reality the problems inherent in microminiaturization, which in some components reaches the molecular scale, were solved many XEE ago (the XEE is a time period equivalent on UMMO to 0,212 Earth years), but a whole complex range of serious drawbacks arises when it comes to designing a XOOGUU AYUBAA system (SEE NOTE 7 OF THE APPENDIX) that allows the recovery and subsequent replacement of damaged components when these are of such small dimensions.

 

Another characteristic of the UAXOO is that, integrated within the various strata of the XOODINAA, they send their information only through “Gravitational” and “Nuclear Resonant” channels (SEE NOTE 3) and rarely through the Optical channel, in order to avoid any connection of a material or mechanical type with the XANMOO, such as cables of vitreous filaments. This mechanical independence is necessary if you bear in mind that abrupt dynamic changes, perforations by cosmoliths, etc. could cause the rupture of the Network and disturbing parasitic connections, since the small space prevents such optical filaments from having adequate protection (a bundle of them, on breaking, would produce multiple anomalous crossings in the information channels). This is also the reason why certain networks, such as the vascular network for the supply of Lithium (51), have an arborescent or radial and not a reticular structure.

 

 

(36) UULAXOO: The range of transducers sensitive to the magnetoelectric spectrum extending from 2,638 ·10¹⁴ to 5,32 · 10¹⁶ cycles/sec. is very varied. All of them are included within the outermost layer of the UOXOODINAA, protected by transparent vitreous spherules. Each of these transducers is sensitive to a very narrow band of the spectrum, and some resonate at a single frequency. Their basis is different from that of the photoresistive or photosensitive cells used by your brother Earth engineers. The transducers record the alterations of the quantum state of the electron shells in the diatomic molecules of a gas when they absorb IBOAYAA OUU (ENERGY QUANTA).

 

(37) Vascular network for the supply of Lithium and Caesium.

 

(38) Transducers for evaluating the external Pressure of the gas; their measuring ranges extend from 2,9 · 10^-10 millibars to 1116,53 atmospheres (there are other transducers, not represented, such as “molecule impact counters” capable of recording lower levels of high vacuum).

 

(39) Probes for measuring the various thermal gradients in the enveloping zone bounded by the ITOAA.

 

(40) Collectors of gas and cosmic dust. They pump gas through a “U”-shaped channel, one of whose branches captures molecules of gas and particles of dust, which are then expelled under pressure through the second branch. The following are analysed at every instant: density of the gas, chemical composition, presence of biological components (viruses, microorganisms, amino acids, complex organic chains...), sectioning the complex structures (dust particles, remains of organic tissues, capturing their images for later analysis.)

 

(41) Clusters of thermal transducers that measure the temperature at various points of the XOODINAA. The evaluation is made from the change in magnetic permeability of a thin rod (ferromagnetic sample) as a function of the change of temperature at that point. They are connected directly with the Lithium and Caesium coolers.

 

(42) Differential detectors of the electromagnetic spectrum bounded by the frequencies (3,71 to 2,66) · 10¹⁴ cycles/second.

 

(43) Separation of the hexagonal modules in the mosaic of IENXOODINAA (Silicon dioxide). You would call them “Expansion Joints”. They prevent the high dynamic stresses from fracturing this protective layer. The composition of these “Joints” has characteristics of great elasticity and low thermal conductivity.

 

(44) AAXOO (emitter) of gravitational Waves. It is one of the few devices that maintains communication via UULNII (See NOTE 3) with the central organs of the XOODINAA (peripheral XANMOO located in the membrane). Its distribution density is very low / 16,8 units per ENMOO EE (1 ENMOO EE ≈ 3 / 3,5 m²)

 

(45) Crossed out at the last moment by the gentlemen of UMMO, even in the second copy I made.

 

(46) Detectors of ionic Radiation. They are integrated in spherical cavities situated in the outermost zone of the UOXOODINAA (1). These micro-enclosures, filled with a very viscous ester, contain modules of a very pure crystallized metal cut in polyhedral form. The alterations in the crystal Lattice of the metal caused by the action of corpuscular radiation are registered by a second sensing organ situated at the base of the cavity.

 

(47) Detectors of gravitational frequencies, formed by a stack of resonant sensors. The information is amplified and retransmitted to the Central XANMOO. Each of these Transducers requires a powerful energy generator situated at its base (a toroidal Structure, as can be seen in the graph). These devices are frequently damaged because they are located in a truncated-cone cavity of the UOXOODINNAA without any protection, subjected to erosion by external agents.

 

(48) Clusters of tensodynamic transducers embedded in the mass of the XOODINAA. They are formed by rods set into the various strata of this MEMBRANE and oriented in all directions.

 

Their operation is based on the variation in the permeability of a Bismuth-Cobalt alloy when it is subjected either to weak compressions or to imperceptible tractions. These devices, distributed with high density throughout the Structure of the UEWA, record all the deforming stresses, both aperiodic and periodic (Vibrations), that the Ship undergoes. Their information is extremely valuable, since it allows the Central XANMOO to correct the flight conditions at every instant when such stresses could cause fracture, fissuring or dangerous warping of any structural element.

 

(49) These sensory organs transmit information similar to that of the transducers mentioned (48). They are much less sensitive to very-low-frequency vibrations, but react to the acoustic wave trains that propagate through the mass of the XOODINAA, caused often by the impact of “COSMOLITHS” and at other times by abrupt fractures of components, etc. They are enclosures filled with ionized gas whose electric potential gradient varies according to the propagation within it of acoustic frequencies. The resulting potential function is analysed or decomposed into its constituent sinusoidal frequencies and, once coded according to their value, the information is sent to the XANMOO.

 

(50) Small reservoirs called YAEDINOO, filled with a ceramic product for sealing possible fractures or fissures of the outer membrane.

 

(51) Network of ducts for the molten Lithium. There is a second one for molten Rubidium and, in certain zones, a third for Caesium. These metals of low melting point are used interchangeably for cooling, in case certain thermal protection systems fail.

 

(52) Very dense network called NOURAXAA. It is connected with the IBOZOOAIDA, the particle inverting Equipment. We can explain nothing to you about this system.

 

(53) XOOGUU-AYUBAA. Bundles of ducts provided at the reticular points of convergence of pumping modules. This Network, of great importance, conducts spare microelements to the points that have suffered some damage. (SEE NOTE 7 of the APPENDIX).

 

(54) Censored in both originals.

 

(55) Likewise crossed out.

 

(56) IBOO (Coordinating centres of the XOOGUU Network (See Note 7).

 

(57) Ion generator for protecting the surface against the abrasion of cosmic dust and atmospheric dust. (See Note 19).

(58) UYOOALADAA AYUBAA. Conduction of an alloy capable of melting or solidifying in a variable density of branches per unit of volume. It thus confers different degrees of mechanical rigidity on certain zones of the Membrane. In this way the elastic characteristics of the structure of the XOODINAA can be varied at the “will” of the XANMOO (COMPUTER). The channels, of circular or elliptical cross-section depending on the case, are provided axially with a chain of controlled thermal generators for melting the static metallic mass that fills the vascular Network.

 

--------------------------------------------------------------------------------------------------------------------

 

NOTE NUMBER THREE (3)

 

The channels for transmitting information within our equipment are of two types: (NIIUAXOO) receiving channel or transmitter of data, and (NIIAXOO) effector channel or transmitter of orders or series of pulses for actuating the various effector organs of the AYUU (Network).

 

Earth people use almost exclusively conductors and semiconductors for connecting the various elements of a Network. These circuits, which have associated characteristics of distributed resistivity, Capacitance and Inductance, and which are also capable of carrying messages coded by means of a flow of electrons, have the drawback that they distort the information according to their length. We therefore rarely use that kind of electrical transmission, except in cases where the response does not require a high degree of integrity and fidelity.

 

Our systems are designed so that each coded message is sent simultaneously through three channels or physical systems of information transmission radically different in their basis (U-C Note: Although it is not indicated in the report, it would seem that NOTE 5 should go here), so that the reliability of the response is practically unity, since the probability of the three systems failing simultaneously is very small, except in the case of mechanical destruction of the transceiver organs of the AYUBAA (NETWORK).

 

On the other hand, even supposing that external physical factors disturb the content of the information in one of the channels, the undisturbed -or differently disturbed- response of the others allows the original signal to be reconstructed in all its purity.

 

The first system, UULNII (OPTICAL INFORMATION TRANSMISSION), uses a vitrified filament (IMAGE A).

 

(U-C Note: Note 3 Image A from the Villagrasa report)

 

 

IMAGE A (U-C Note: Aguirre compilation)

 

through which from 10³ to 8 · 10⁶ simultaneous channels or distinct flows of information are usually transmitted at the same time, within an electromagnetic spectrum extending from 6,72 · 10¹⁴ to 8,96 · 10¹⁴ cycles/second. The light undergoes various reflections on the warped cylindrical surface of the filament (whose refractive index varies from the centre to the periphery), so that the attenuation over great lengths of connection may require the interconnection, at intervals, of autonomous photonic Amplifiers (IBOAYAA GOOA).

 

The ULNII technique is still in use on our UMMO, although it was developed a long time ago.

 

The second system uses no material means of interconnection. It is based on the emission of gravitational waves within a wide spectrum of very high frequencies. Immense energies must be brought into play for this type of transmitter. This is its greatest disadvantage. On the other hand, it is not easily disturbed by Fields foreign to the AYUU (NETWORK). This technique is not as old as the preceding one.

 

The third system uses a Resonance effect totally unknown to your brother physicists of Earth (SEE NOTE 4)

Back

 

 

==========================================================

 

NOTE NUMBER FOUR (4)

 

To understand the OAWOENNIUU effect (NUCLEAR RESONANCE) I would need to explain to you our theory of the constitution of Space and Matter. I will try to give you a summary using concepts familiar to you.

 

Suppose, for example, a numerically small set of Molybdenum atoms:

 

 

 

IMAGE B (U-C Note: Left, Villagrasa; right, Aguirre)

 

For example Mo₁ Mo₂ Mo₃ .... Mo_n, whose nuclei have the peculiarity that the configuration of their energy levels at a given instant, as regards the distribution of nucleons, is identical. It does not matter whether the quantum levels of their electron shell are different or whether their orbitals are shared in some chemical bond. We then say that those atoms are OAWOOENI ( : ARE IN RESONANCE).

 

We also know that any atomic corpuscle (Neutrino, Proton, K Meson, etc. ) is in reality a different projection, within a Three-dimensional Framework, of one and the same mathematical-real entity that we call IBOZOO UU. (To the point that in the WAAM (UNIVERSE) we grant the attribute of REAL or EXISTENT only to the IBOZOO UU).

 

You may picture the IBOZOO UU, as a didactic image, as a “bundle” or “packet” of “Ideal axes” whose different multidirectional orientations will cause any Physicist to interpret that “bundle” or “hedgehog” of many oriented spines sometimes as a quantum, or perhaps as a lepton or an electron. So that your evaluations of Mass, electric Charge, Orbital Momentum, etc. in reality represent the different axial orientations of the IBOZOO UU, in the same way as the different colour hues (orange, indigo or cyan) are based on a different frequency in the electromagnetic spectrum.

 

Imagine, therefore, that we succeed in disorienting a single NUCLEON (a PROTON, for example) within the atom “Mo₁”: it may happen that the inversion is not absolute, in which case the effect observable by you would be the conversion of the MASS of the PROTON into ENERGY.

 

ΔE = mc² + K, m being the mass of the Proton and K a constant.

 

An isotope of NIOBIUM₁₀ being obtained (as you call this fundamental chemical element). But we can force the disorientation of the “axes” of the IBOZOO UU (ABSOLUTE INVERSION), so that an observing Physicist would observe with astonishment that the PROTON seems as if it had been ANNIHILATED without release of ENERGY. This phenomenon would seem to you to contradict the Universal principle of Conservation of Mass and Energy. (A conservation, moreover, very rightly questioned by other Physicists of EARTH: indeed, the Hypotheses formulated by some EARTH people ABOUT the present CREATION of MATTER in the UNIVERSE are based in reality on the fact that sets of IBOZOO UU are indeed totally inverted into our three-dimensional Framework, becoming observable by those of us who live in it.)

 

You will now observe, then, an atom of NIOBIUM₁₀ negatively ionized.

 

However, the remaining n-1 atoms of MOLYBDENUM have undergone an alteration in their nuclear energy levels, so that the nucleic energy of each of those atoms increased by (See Image B).

 

It being verified that:

 

 

R_i = Distancias radiales al Átomo de NIOBIO₁₀ de cada uno de los restantes  y  constantes del sistema cuyos valores son funciones no solo de n sino de las estructuras de los núcleos y de R_i.

 

 

(See image B)

 

The energy transferred to the Nuclei of the remaining Mo atoms by this Resonance effect is quantized, so that it could become zero for an atom of the set situated at a distance R greater than a defined threshold.

 

So that if we succeed in exciting a MOLYBDENUM ATOM Mo₁ situated in an emitting organ ( ) (IMAGE C) by inverting one of its Nucleons, we will register in a receiving organ / / containing another atom Mo₂ a quantum alteration in the latter, all the greater the fewer parasitic atoms in resonance there may be in the vicinity.

 

 

It must be pointed out that the transfer of Energy was not made by means of an exciting Field, so that the transmission time is ZERO (we then speak of an INFINITE speed of transfer or flow of information.)

 

This Physical principle would apparently facilitate the development of a system of instantaneous communications over enormous interplanetary distances, so that a message would not sometimes take several light-years to reach its destination. Unfortunately this is unfeasible in Practice, for the existence of free disturbing or parasitic atoms resonant with the emitter would absorb all the energy of the system. A quantized part of it would then never come to be transferred by resonance to such a distant atom, so that the effectiveness of the transmission system is subject to there being no masses of a Similar Chemical Element in the vicinity of the Network that would attenuate the transmitted signals.

 

 

=====================================================

 

NOTE NUMBER FIVE (5)

 

These three systems of Transmission of information flow are used simultaneously in those branches of the NETWORK whose responses require high fidelity, so that the probability of all three channels failing simultaneously is appreciably reduced.

 

In the DIAGRAM of IMAGE D we simulate in an AYUU (NETWORK) two organs () and () between which INFORMATION must flow. The three channels drawn in the colours (YELLOW, BLUE and ORANGE) represent respectively transmissions by optical, gravitational and nuclear Resonant means. and represent respectively a signal splitter and a signal integrator. The latter performs an important function: it compares the content of the same message received by the three routes, eliminating

 

 

 

the disturbances coming from a parasitic Source foreign to the system (do not forget that the transmission times vary for each system, being Zero for the “Nuclear Resonant” one)

 

Henceforth, when symbolizing a NETWORK, we will abbreviate (IMAGE E), (missing) the diagram of each Branch, representing with a broken line or chain of dots (..............) those whose function is INFORMING or, as you would say, AFFECTOR or SENSORY, AFFERENT, etc. If on the contrary it transmitted orders, motor impulses, control signals for command organs, etc., it would be coded with a continuous line (-----------); you would call these branches EFFECTOR or MOTOR branches. (An example of the first case would be the transmission of information on the pressure of a gas, and of the second, the sending of parabolic-branch pulses to actuate a Magnetic Field generator of controlled gradient.

 

Not all the branches of the NETWORK allow communication by the three systems. In many cases it is impossible to channel the flow of information optically, since the bundles of vitreous filaments (See NOTE 3) constitute a disturbing mechanical element.

 

The emission of instructions or the sending of motor orders is carried out in each of the channels described by means of a different coding. In at least two routes the transmission is carried out by means of an analysis of the component frequencies (SINUSOIDAL FREQUENCIES) of the Periodic function to be transmitted or, if it is APERIODIC, a selection of values is made by statistical sampling. A series of digits in the duodecimal system is thus obtained, which in turn are coded for emission. At least one channel repeats the original Function uncoded, maintaining a high degree of reliability so that the APERIODIC Function received is a faithful image of the first, for which purpose what you call the NOISE LEVEL has been made practically to disappear in the case of OAWOENNIU” transmission (described in NOTE 4 (NUCLEIC RESONANCE)

 

You will observe that, since in effect

     

• N = número de impulsos por segundo
• ΔF = Anchura del canal (Frecuencias)
• S/R = Relación de potencia entre señal y ruido.

 

 

The information capacity can be raised considerably (although in our case that capacity is reduced by the use of non-binary digits), allowing the emission of complex messages in a very short time (unfortunately this is not the case with the optical channels, which is why, now considered a somewhat outdated system, it is eliminated in certain AYUUBAA (NETWORKS)

 

 

=======================================================

 

NOTE NUMBER SEVEN (7),

 

It is difficult to translate correctly the word XOOGU AYUBAA (AYUBAA is a term equivalent to “NETWORK” or dynamic linked STRUCTURE).

 

The phoneme XOOGU (the G is pronounced like an aspirated H) is applied to a whole technical system which Earth engineers, your brothers, do not yet know, but which they will necessarily need to develop and perfect in a more or less near future.

 

As I informed you in our summary sent to you eighteen days earlier concerning the XOOIMAA UGII, the complexity of the structural modules has reached such a high level that direct access to their vital organs becomes almost impossible with the means known to you Earth people. In one cubic decimetre, for example, there may be room for between 400 and 23000 autonomous organs or devices, each provided with hundreds or at least dozens (in the least complex) of functional microelements, components whose volume in some cases does not exceed 0,0006 cubic millimetres; some elements can even be reduced to a few molecules, not to mention certain equipment in which a single atom or an isolated atomic corpuscle performs an essential function.

 

Under these conditions you, as an engineer, can imagine the level of the orders of problem that arise in these systems.

 

In the first place, the reliability of the AYUU (NETWORK); for although many components work in parallel, so that the failure of one of them is compensated for by the others, let us not forget that the deterioration of any microelement can paralyse a whole system that is several million times larger in volume. The degree of statistical reliability, expressed in Earth terms, is, as you know, an inverse function of the number of components, and although the systems are naturally simplified as far as our present stage of technological evolution allows, the functional limitations are obvious.

 

The second dramatic problem lies in what you would call UPKEEP OR MAINTENANCE OF THE SYSTEM. A reliability of UNITY (100%) is never attainable, so that three new problems arise:

 

IDENTIFICATION OF THE FAULTY ELEMENT: You can imagine, in the case of our XOODINAA or membrane of the Spaceship, in which millions of microscopic components are accumulated, that a human operator, even if provided with high-precision, high-definition instruments, would find it impossible to gain access to it in order to find the faulty microcomponent without destroying, or at least dismantling, vital parts that surround and mask the “sick” organ. You yourself can think of the great difference compared with a fault in an Earth milliammeter whose coil has burnt out, in which case the repairer can dismantle it on his workbench by unscrewing a few small bolts and unsoldering a few connections. Identifying the fault in our systems is easy for the XANMOO AYUBAA. When the responses of these devices are distorted -and the XANMOO is “conscious” of this, since it compares them with other responses of organs in parallel, or with STANDARD responses memorized in it- the components that may have caused the abnormal “behaviour” of the organ under study are then calculated with different probability values.

 

SPEED OF REPLACEMENT: The anomalous component must be replaced, and sometimes even repaired “in situ”, as you would say, at great speed. This would be impossible, given the difficulties presented by its inaccessibility, were it not precisely for our XOOGUU AYUBAA system. If one of the travellers of the UEWA had to repair those micromodular faults directly, he might take many hundreds of UIW, and perhaps not succeed even then. The problem -and forgive me if I use a naive didactic simile- would be the same as, or analogous to, the one facing an Earth neurosurgeon who tried, for example, to perform a marrow or kidney tissue graft on a soldier while he runs across the battlefield.

 

IDENTIFICATION, ACCESS and SPEED in repairing the component are the problems which, without a satisfactory solution, would disable or condemn without remission a TECHNOLOGICAL PROGRESS that presumably demands ever greater functional complexity, to the point that in an AYUBAA (under the name AYUU are included not only what you call GRAPHS but a large part of the structures that you would include within what EARTH calls SYSTEMS ENGINEERING.

 

There is a censored paragraph.

 

XOOGU AYUBAA. This system solves each of the problems set out as typical of a Complex linked System. It is a complicated vascular NETWORK embedded within any functional structure. Its similarity to the arterial and capillary blood Network of some multicellular beings is evident, although its operation is, as you will see, different. Thousands of small canals link all the organs with the AYUBAA. This Network is RETICULAR - RADIAL (IMAGE A). You may liken it to a CONNECTED GRAPH some of whose SUBGRAPHS are ARBORESCENT; moreover, its branches are oriented only in the latter, but not in the circuits or meshes.

 

 

 

(U-C Note: On the left is the image that appears in Dr. Aguirre's compilation and on the right the image from the report received by Mr. Enrique Villagrasa. Where did Dr. Aguirre obtain these images? Were two reports received? Although the two graphs are equivalent, it can almost be asserted that the hands that drew these two diagrams are different. On the other hand, the text of the Aguirre compilation and that of the report received by E. Villagrasa are almost identical. Where there are small discrepancies we have kept to the text of the Villagrasa report)

A dispatching centre encloses the new components that are to replace the faulty ones in a cylinder-shaped gelatinous mass (NUUGII) IMAGE B.

 

 

This cylinder moves within the vascular duct to an IBOO (POINT or NODE of the NETWORK). The NUGII is propelled by the pressure difference

ΔP = P₁ - P₂ of the Helium gas contained in the duct. The IBOO (POINTS) are true nerve centres of communication that perform the following functions.

 

• It receives the micromodule wrapped in its viscous protective cylinder.
• If necessary it modifies the calibre of the latter (NUUGII) by subtracting or adding gelatine.
• It re-dispatches it at a different speed along one of the other converging branches or channels.

 

All the IBOO are controlled by a coordinating XANMOO centre.

 

Finally the NUGII reaches its destination (the faulty organ). Beforehand, the faulty component has been extracted from its location and then re-dispatched in another NUGII, to be eliminated in the end by melting, decomposition and nuclear transmutation. The new microelement is freed from its gelatinous covering (by Oxidation of the Jelly by means of liquid Oxygen). It is now subjected to the action of a controlled Gravitational Field that orients it in space (this Field is restricted to a small region; it is not a Uniform Field; on the contrary, the complexity of the dynamic gradients at each point of it makes it possible to orient the part and to cause rotations and linear displacements in it)

 

In this way the component is moved to its new location and fitted in beside the others. The modification of the Gravitational Field is achieved thanks to the NUUGI IADUU, gelatinous cylinders that accompany the part embedded in the NUUGII. The latter returns to the point of origin once its mission is accomplished.

 

Although the preceding description is very brief (you can imagine that an exhaustive study of the system would fill thousands of sheets of this size), it serves to illustrate to you the way in which our systems are “self-repaired”. All this presents another series of problems of a topological nature, since it requires the least reliable components to be placed on the periphery, so that they can be easily recovered.

 

Structural elements that may be fractured, melted or simply suffer abrasion or chemical corrosion and that at the same time, because of their excessive size, cannot be moved through the channels of the XOOGU, are repaired in another way:

 

By means of NUUGII, small complex units controlled by pulses (SEE NOTE 3) are carried there, and they themselves carry out the repair at the very place where the fault occurred.

 

The range of operations can be very complex, and the repair units follow one another sequentially, their functions being planned by the XANMOO XOOGUU. Let us see some of them:

 

• Transducer units that gain access to the faulty organ in order to survey it, obtain images of it, etc.
• Percussors that subject the damaged element to instantaneous pressures at various points of it.
• Mobile devices that expel a self-welding product of a different nature according to the component to be repaired.
• Units capable of creating high thermal gradients able to cause melting in some zone of the faulty element, etcetera.

 

This is the reason why many of the devices in all the technical equipment of the Planet UMMO have a cylindrical arrangement, (IMAGE C) (U-C Note: Image C is missing) and their elements or components are distributed on its inner walls. Its shape allows the passage of the NUUGII, which in turn has access to any of the components distributed on the inner periphery.

 

All these operations are regulated and planned by the corresponding XANMOO. We crew members of the UEWA do not have to worry about the many microfaults that occur every UIW at any point of the Structure of the Ship. At most we know, suitably tabulated “a posteriori”, the frequencies with which those faults occurred. If their statistical distribution is abnormal, this is taken into account in the future for new design projects for structures and systems.

Back

 

=========================================================

 

NOTE NUMBER FIFTEEN (15)

 

The coefficients of elasticity of the various structural zones of the UEWA can be modified at every instant thanks to the AYUBAA UYOALAADAA. The channels of this reticular vascular NETWORK contain a flowing alloy that can easily be melted thanks to a chain of XAANIBOOA nuclei (IMAGE 11 (58) ), distributed axially along the focal axes. These thermal radiators liquefy the mass of AALAADAA (a crystallized mixture of metals) located inside them. The alloy is designed to have a high coefficient of elasticity, a low melting point and great thermal conductivity. The conductors of the NETWORK are of circular or elliptical cross-section according to the zones of the XOODINAA in which they are included.

Back

 

========================================================= 

 

NOTE NUMBER NINETEEN (19)

 

NIIO ADOGOOI SYSTEM The mass of the UEWA OEMM creates a gravitational Field which, although not excessively intense, accelerates -in some intragalactic regions through which it sails, where the density of cosmic dust is appreciable- particles of various kinds that crash against the XOODINAA (COVERING), causing over long periods, through the effect of this continuous abrasion, irreparable wear.

 

Our NIIO ADOGOOI system avoids this risk. The UOXOODINNAA (surface layer of the MEMBRANE) is provided with a very thin sublayer (XOODINAADOO) (IMAGE A) made up of very fine colloidal particles of Platinum emulsified in a medium of high dielectric coefficient.

 

 

Distributed around the periphery of the Ship are the NIIO ADOUAXOO (IONIZING CELLS), which perform a double function. In the first place they evaluate the electrostatic gradients in the immediate surroundings of the UEWA. If a great Nebula of cosmic dust (solid particles of Methane, for example, or of Nickel-Iron, or of Ammonia, or of silicon, etc.) surrounds the Ship, the particles may be neutral (without electric charge) or ionized (+ or -)

 

Suppose the first case: (NEUTRAL) The particles will be directed towards the Ship because the gravitational gradient favours this flow (IMAGE B).

 

 

Beforehand, the detection systems we have described to you elsewhere in the report have recorded the spatial density of these particles, their gravimetric spectrum (that is, the statistical distribution according to their masses and morphologies), their chemical composition and their mean electrostatic charge (zero in the case in question), as well as their kinematic function with respect to the emitting Galactic Reference Nuclei (relative speed and direction of displacement, coefficient of expansion of the Nebula, etc.)

 

All these data are analysed in the central XANMOO, provoking the response of the NIIO ADOGOOI (ANTI-ABRASION PROTECTION SYSTEM). The ion-generating cells (NIIO ADOUAXOO) emit electrons driven with high Energy, which are projected outwards in paraboloid trajectories. IMAGE C.

 

 

Simultaneously, the membrane of colloidal platinum (XOODINNADOO) has been charged to an electrostatic potential that can reach values between 180.000 and 900.600 volts (negative potential). Any particle heading towards the membrane (IMAGE B) with velocity U captures at least one or several electrons from the flow emitted by the UEWA. The particle becomes ionized. Since the electric potential gradient is very high in the vicinity of the ship, the electrical repulsion compensates both for its original kinetic energy and for the force of gravitational attraction, so that the aggressor particle is deflected in its trajectory and does not make contact with the surface of the UOXODINAA.

 

If the cosmic dust were already ionized, the platinum submembrane is electrified with a charge identical to that of the aggressor NEBULA.

 

Note that the XOODINAADOO is protected by another upper stratum of the same ceramic product or material as the UOXOODINAA.

 

A secondary effect of charge transfer between the free surface of the membrane and the sublayer of colloidal Platinum gives rise to a photon emission from the ceramic crust within the spectrum visible to our retinas, at wavelengths in vacuum of 596,9 Earth millimicrons and 602,34 or 612,68 millimicrons. This electroluminescence is not caused by the impact of electrons on the mass, but by the electric field they generate as they pass through the translucent ceramic mass. An outside observer perceives an intense luminosity whose hue depends on the wavelength emitted, ranging from yellowish-green to carmine. These colour tones are not always the same, depending of course on the chemical composition of the ceramic covering.

 

Nor should the luminosity of our UEWA OEMM seen from afar be attributed in every case to this electroluminescence. On some occasions the UOXOODINAA, in its peripheral crust, is thermally activated until it reaches a temperature high enough to attain the radiant level you call cherry-red. This is done for two reasons: to burn off the oxygen deposited in its pores and, on the other hand, to free its surface of microorganisms and other organic remains before leaving the Atmosphere for other destinations. This last measure is part of the general asepsis programme of the Ship that precedes Interplanetary Navigation. (The process is called AIAIEDUNNEII; we thus avoid disturbing the ecological environment of each OYAA with biological structures foreign to it in their origin.

 

The control of the electrostatic Potential in each surface unit of the XOODINAADOO is designed in such a way that the distribution of charges (electrostatic surface density) can vary from one region to another, to the point that in one area the density barely reaches a few tenths of a microcoulomb even though it is surrounded by zones of very high potential. The potential function is therefore not constant for areas of the same curvature or warp; in short, it is not harmonic over the periphery of the Ship. There are several reasons for making use of this flexibility in the distribution of electric charge. In the first place, the density of aggressor particles is not identical over the whole outer periphery; moreover, since these are oriented in one direction (UYUUNOODII) (WIND OF COSMIC PARTICLES), naturally not all of them will strike the Ship with the same kinetic energy. Abrasion would be more intense in a defined zone than in other areas, and that zone will have to be protected with a more intense potential.

 

Furthermore: cancelling the charge in precise areas makes it possible, thanks to the secondary effect of electroluminescence, to make drawings, insignia or graphic signs visible at a distance appear in any surface zone of the Ship, modifying their shape at will as easily as Earth writing on a blackboard. Finally, it may happen that at a given instant the high potential of a zone disturbs some measurement or analysis in a UAXOO (TRANSDUCER) in operation, in which case the XANMOAYUBAA cancels the distorting surface charge.

<Back