Smart Ball, or Smarble

1. charges by bouncing piezoelelctrically
2. has a bubble memory, or spherically arranged memory and switch/computing architecture embedded in metallopolymer mass of the ball, changing resiliency/elasticity
 for translational and 3D awareness, to reverse bouncing back to the starting point.

High tech dental:

Elimination of large x-ray machines by using a grooved ball slid over a tooth to get a CAd-scan

something like this

the tube contains
miniaturized devices for radiating x-rays, ultrasound, heat and other electromagnetic spectra, and
sensors for he absorption of the radiation,
and onboard or separate pluggable processor unit for determining absorption of the radiation, and imaging on a display

High-Tech pen ideas:

mechanical-fluid twist-controlled mechanism
onboard microcomputer elelemnt conformal to the body of the pen
Light powered lumiactive battery conformal to the body of the pen

Non-strip threads
metal-lattice polymer sleeve with elastic memory for adapting to the owner's grip 
ink delivery in alternate ball-point/fountain pen modes

signalling:
Signature/writing memory and verification of user
Replace Cap alarm beep
New user (writing detection) alarm/beep
Illumination assist glow light

The Eco-Friendly, Green and Compact Nuclear Reactor

I have had this idea for several years, and now realize that I have neither energy, time nor money for the Patent Cooperation Treaty application that is a must to patent this idea. I have chosen to disclose the invention right here and at this moment, to at least have some claim to the priority date of the invention. 

The System is a portable and compact turbo reactor power generating system comprises an integral turbo reactor - steam turbine coaxial assembly (the turbo reactor and the turbine in the drawing), charged with deuterium oxide containing coolant, and a conventional electrical generator detachably connected to the turbine of the turbo reactor assembly by a conventional direct or geared drive.

Simplifying the reactor design eliminates the need for separate and oversize reactor, a steam turbine, a primary and secondary steam pipework, multitude of pumps, control systems, and extensive cooling systems, complicated connections, and emergency power supply. The turbo reactor design allows for a highly efficient and safe energy output while occupying a minimal space and being very easy to manufacture and assemble, and transport.

The turbo reactor assembly can be easily miniaturized to dimensions that allow the reactor assembly to be easily transported by railroad, quickly connected to the electrical generator, all the while capable of producing the same amount of electrical energy as a reactor unit of standard water-cooled nuclear reactor power plant.

The important advantage of the system is that the rod control supplemented by the use of the deuterium oxide guarantees an assured safe shutdown without the need for any emergency power supply. The fuel used in the rods also offers a security advantage by precluding its potential enrichment for manufacturing nuclear weapons.

The Turbo Reactor

The turbo reactor part of the assembly is an equivalent of a conventional compressor turbine, except the heating of the coolant directly and immediately drives the turbine, and contains fuel rods. The rods are designed to protrude into the turbo reactor compression cavity through fluid-tight openings that also ensure the rods sliding inwardly-outwardly along their axes.

The rods, when inserted into the reactor section to an optimal depth, heat the coolant, which could be deuterium oxide containing fluid, vaporizing it and causing it under pressure that would act on the turbine rotors, thereby producing rotation energy to be transmitted directly to the electrical generator. The resultant heating is self-sustained, is easily controlled by the the insertion depth of the rods, or a valve, and requires no pumping.

The rods are similar in physical or nucleo-chemical design to the rods used in fuel clusters of the Canadian Deuterium (CANDU) reactors. The reactor containment vessel can be substantially similar to a casing of a conventional steam turbine, preferable manufactured of high-tensile metal.

The Rods

The rods are designed and engineered to be of optimal physical dimensions, of nuclear material and concentration thereof so as to ensure nearly critical reaction that results in production of heat, and when required, quickly stops the production of heat when moderated with the deuterium oxide containing coolant. It is envisioned that the rod dimensions could be of 1-6 cm in diameter, and 10-100 cm length.

The shape of a rod and the geometrical arrangement of the rods within the turbo-reactor are also optimized to produce prompt heat emission control. It is understood that there are variety of possibilities for the arrangement of the rods within the turboreactor cavity. The arrangement includes planarly radial, or angular with respect to the turbo reactor axis, planarly overlapping, and other three-dimensional variations thereof.

Additionally, the advantage of easy, on demand withdrawal of the rods from the turboreactor cavity, enables the rods to be inserted into a separate device, or devices, which is designed to function as a radioisotope thermoelectric generator with the rods inserted into this assembly.

The Control

The heat emission control is achieved by selective insertion or withdrawal of the rods, or only of a selected group of the rods, or by rotating a group of the rods with respect to their longitudinal axes.

The electrical energy production can also be modulated by the conventional means of controlling the pitch of the steam turbine blades, or by controlling the reduction of the generator drive ratio.

UCICS (U6) Post 2, The Languages.

COMPARISON of PC and U6 terms:

PC U6

Data Instruction mov,push,pop /,//,\,\\,

Segment Register S: CS DS ES SS @,#,$,& Ordinary Register R: AX, BX...SP,DL {{,}},[,],<,>,>>

Computer CPU MultiDim Array machine

CPU CPU Operation Block

Clock clock Signal Generator

RAM RAM Data Block

ROM ROM Source Block

Buffer Buffer Store Block

File File Pack, Paq, Packet

Code Machine Logic

LUICS ( formerly Linguistic User Interface Command System) Logic-code Uniform Interface Command System is an U6 uniform language that incorporates the following:

AIPL – Artificial Intelligence Programming Language, Real-time adaptive, scripting, self-writing program, also used as a development tool.

ICICL – Information and Computer Interface Command Language – incorporates a network OS and netbios functions, primary interface with other network formats and brands

SLATRAN – Symbol-to-Logic Array Translator- used by the OEM to make changes in processing and memory in optical, optronic and electronic interfaces.

MACOL – Machine Access Object Language

Here is a comparison of the language codes:

Language	Explicit Declare	Implicit Declare	Operates:
LUICS	%	Nexus,script,node	Network,windowing, GUI, API
ICICL	@	Alpha, number, opert	OS programming, DB&SQL, Math
AIPL	*	Object, subject,action	Modeling, simulation, gaming
SLATRAN	$	Image, graph, char	Object-network API
MACOL	#	Block, operon,acton	Programming, object,memory, Match,search

It is very easy to work with LUICS, since it serves as a very smart and simple HTML that allows a non-engineer to immediately edit web pages, tweak application code, including GUI, swim through XML, and configure a new machine, and enter it into a network. ICICL is the easiest of all the interfaces with the U6 system. AIPL is somewhat of a mysterious, omnipotent code-generating language that can handle SOAP, JAVA, BOSS, and of course, everything derived from XML. In short, the time has come that an photonic station can finally run U6, with Microsoft and UNIX running within the same environment, concurrently, without hiccups, instantaneously debugged int heir own shells, all by the same U6. I have run Frontpage, Knoppix, Lindows and MAcOS API for iPod management. Bliss is for you who do not know what ye are missing.

UCICS (U6) post 2: Programming, Signal Logic.

Instead of bits, there are 2 bases of Elements.

The Signal Generator produces Signal Elements that are conceptually equivalent to bits, but in the elements themselves can be generated in any one of 4 or 8 possible states –referred to as the Quad and the Octo system:

The four states of the Quad system can have the following values that further comprise value methods of computing in U6:

State	Symbol	Logic value	Set Value	Operation value	Condition value	Set Value
LO	o||	Not	Zero	Null (None)	except	Zero
HI	^|	Yes	Unity	One	Include	Unity
UP	/|	Up	Fill	Set	True	Fill
DN	\|	Down	Empty	Reset	False	Empty

The signal generator can also produce this Octo state element system, the octo (octal) system:

whose values are:

	Symbol	Symbol Value	Logic value	Set Value	Operation Value	Condition value
LO	o=	Empty	Not	Zero	accept	Except
U+	{=	Common to, not shared	share	plurality	send	then
U0	/=	Common to, shared	Up	Unity	compare	True
U-	§=	Includes two or more	Not equal	only	exclude	when
HI	^=	Excludes	Yes	Fill	Set to	Include
D+	¶=	Infinity	equal	Infinity	Take all	always
D0	\=	Includes some	Down	Empty	Reset	False
D	}=	Includes any one	None	full	Take only	if

I will gladly answer questions by e-mail. What do you think?

Intro to the U6- UCICS-The Unified Communication, Information and Computing System

I love working in U6's. It has a fundamental functional environment with an unlimited number of parallel GUIs that incorporates in itself :

• Its memory and the processor have been integrated into one, photonic device based on optical signalling.
• Programming is based on Logic and Symbol equivalent logic code (see U6 languages below)
• An engineering shell for any number of machines invocable from any of the remote, recognized computers
• An SGML-HTML like environment for Internet interface, organically self-written - forget the XML hassles!
• A file and server Protocol Self-Writing facility

The U6's architecture uses only one device. Instead of an IC chip with separate RAM, etc, there is one device that has RAM, ROM and clock equivalents, the (hyper-vector) size of each dictated by a task controller: or, in PC terms: The Operators! Forget the CPU. U6 core, if you will, is an operator made up of operators. Imagine a wheel with hub and spokes. Or better yet, the solar system. There is arrays, the central operator, which would remind you of addresses. Everything else is located (figuratively speaking) around the arrays.

Array Task Manager operator has in itself a group of managers each referred to as When, What, Where, How and How Many managers. The Array Task Manager often is the most crucial component, resembling a kernel in other systems.

Array Definition and Tagging (Addressing) sets up arrays according to the needs of the operation, as well as defines the arrays' discreet dimensions, tags, remembers and searches unique location addresses within all of the arrays.

Search and Iteration set of components conducts all the array searches by any of the value methods, it defines iterations according to search operations. Search and Iteration processors (which are, again, hyper-vector) actively search, find and provide found values, or sets of values, by comparing, matching and other methods that would remind you of hash and range math.

Symbol Processor is the equivalent of a CPU processor, except that it uses all of symbols of any symbol logic it creates for an operation, and uses for operation to calculate processes.

Translators simultaneously translate between different symbol logic systems, value methods, math algorithms, thereby allowing many different machine languages, solid-state PC bit systems and their operating systems to function on a single U6 platform in perfect harmony.

Calculators calculate any math, logic or other value method functions, algorithms and formulas that require result computations and excludes process decision-making (process calculation), which is done by the symbol processor.

Comparators compare entire processes, sets, algorithms, tasks, functions and other activities simultaneously, and substantially faster than your regular Cray or other electronic machines - since sets, algorithms and activities exist as objects relative to the . Unlike the Search and Iteration operator that reaches into locations to search and find, the Comparators receive sets of activities to be compared in decision making.

Programming and Logic later. Isn't U6 cool?