Showing posts with label offspring. Show all posts
Showing posts with label offspring. Show all posts

Tuesday, September 6, 2016

Brain Family

The first Brain in a Jar
BRAIN FAMILY
Viewing the genealogy of brains, one can see a trend of family. The family of brains includes at least 50 smaller brain siblings. The smaller brains are machines, built from micro-computing processor technology invented by Humanoido, and resulted from spin offs of the Big Brain and Supercomputers. The family is all machines except for Humanoido, the human father of the Big Brain.

There are 18 offspring brains.
Bantam Brain
Bit Brain
Baby Brain
Child Brain
Tiny Brain One TBO
Tiny Brain Two TB2
Tiny Brain Three TB3
Small Brain
Pint Size Brain
Brain Child
Morpher-8
Propeller Elf
Micron Propeller
MC Computer
Shrunken Computer SC
Propeller Cosmac Elf II

Ten additional smaller brains exist in the series of Brain in a Jar. These are listed in the Genealogy.
http://humanoidolabs.blogspot.com/p/genealogy.html
http://humanoidolabs.blogspot.com/search?q=mini+brain

Brown Jar Brain
2nd Jar Brain
Blue Jar Brain
Yellow Jar Brain
Aqua Marine Jar Brain
Jar'd Brain
Brain Cortex in a Jar
Mini Brain Cortex in a Jar
Dupe Cortex in a Jar
Half Gallon Brain in a Jar

There are 12 specific Children.
http://humanoidolabs.blogspot.com/2012/01/8-children.html

Machine Birthing Process
http://humanoidolabs.blogspot.com/2012/02/birthing-process.html

Big Brain Site
Big Brain Index 2
Big Brain Index 1
Big Brain Timeline
Big Brain Contributions
Space1 Site
Space1 Index

Space1 Timeline

Sunday, February 12, 2012

Machine Birthing Process

HOW DOES THE BIG MACHINE BRAIN GIVE BIRTH?
Is the offspring birthing process by the Big Machine Brain same as that of a human? What is the magical mystery of creating new life?

The Big Brain has given birth to 12 children, smaller brains consisting of Propeller chips. Currently, these children offspring have chips numbering six or less. Internal computer processors for each range from eight on up to 48. It has remained somewhat of a mystery as how the birthing process takes place. We know the Big Brain must give up something during child birth described at Brain Loss Baby Making.

To give birth, conception must first take place. The Big Brain is somewhat like a Snail. In a general sense it contains conception elements of both male and female when comparing to a human. The Intellectual Surfing (IS) Process determines if a birth will take place and defines the parameters for birthing. (IS) is an algorithm to enable a Big Brain to conduct projects by specifying parameters and then employing the use of a Lab Assistant as needed. For a birthing prerequisite, what follows is the Big Brain will give up a specified Propeller chip or number of chips, from the Third Array, based on the (IS) output. It then procures the laboratory assistant to employ the standard or specified Brain interface and assemble the little one. It's possible the Big Brain will do more than just provide the machine brain idea or DNA map, i.e. when the BB Arm becomes more functional for pick/ hold/ and place.

Monday, January 23, 2012

12 Children

BIG BRAIN HAS 12 CHILDREN
With the birth of Morpher-8 and Propeller Elf, Big Brain has now produced twelve offspring. The Offspring Series of brain machines continues to grow as the Big Brain continues to give birth to its increasing family.

Big Brains' Offspring Children Born
01) Bantam Brain
02) Child Brain
03) Baby Brain
04) Bit Brain
05) Tiny Brain One (TBO)
06) Tiny Brain Two
07) Tiny Brain Three
08) Small Brain
09) Pint Size Brain
10) Brain Child (BC)
11) Morpher-8
12) Propeller Elf

1) Bantam Brain has 3 Propeller chips, 24 Cogs with VR cores. This bantam offspring is small in physical size only, as its interior braining architecture includes over 3,000 processors in extreme high density. Bantam Brain is designed to fit inside the smallest robots and can be considered a "shirt pocket" brain. Preliminary X-Y specs log in around 2.5 x 4-inches in the first prototype.

2) Child Brain 5 Props, 40 processors - a small brain, Child Brain has exactly forty Propeller Cogs which are sync-loaded using a unique Brain Neural Matter Injector. The LEDs which are on represent the firing output state of Simplex Neurons SNs. In photos at the link, the Child Brain has all five Propeller chips running in Parallel and independently. Chip Independence makes cells of evolution possible.
http://forums.parallax.com/showthread.php?124495-Fill-the-Big-Brain&p=1004370&viewfull=1#post1004370

http://forums.parallax.com/showthread.php?124495-Fill-the-Big-Brain&p=1003572&viewfull=1#post1003572

3) Baby Brain 1 Prop (Under 5 Props). Starting with 8 Cogs. The success of the Child Brain has led to the simple development of a much smaller brain, smaller by a factor up to five times. Baby Brain originates from the Child Brain. In fact, to make a Baby Brain, take one Child Brain and remove anywhere from one to four Propeller chips. The rapid config ability of the Baby Brain to add more Propeller chips by a simple plug-in is a key feature. This is possible because Baby Brain retains wiring and components for all chips. Baby Brain is used for rapid testing where fewer props are needed. Future apps for the robotic Big Brain may include dispensing the smaller Brain Clan from the belly of the Big Brain.

4) BIT Brain Interim Test Machine, 6 props, 48 processors, Special test machine for Solo and Parallel performance, Brain BIT is made up of two Brain modules with solderless breadboards for testing base programs and paralleled programs in multi-mode formats. It can load and run different interface types at the same time and is modular. The unit is made from five main solderless breadboards and eight power rails. Three line up perpendicular to the others to delineate circuitry. Included are seven LEDs, decoupling and power mains filtering capacitors, dropping resistors, crystals (one for each module), and two pushbuttons. The two supplies are 9 volts and 3.3 volts DC provided by a bench supply or batteries. It includes five props in parallel and one solo without any initial connection to the others. This facilitates testing of different programs and the wiring of circuit combinations. Modules run one or the other, or both at the same time. BIT includes two EEPROMS and duplicated Prop Tool interfaces. This enables testing of simultaneous At Once loading, distro, piggyback eeprom'ing and other nice features. One of the best advantages of Brain BIT is the one chip portion which is based on PEK. This can run many programs in SPIN for rapid testing, configuring and development.

5) Tiny Brain One (TBO) 1 Prop, 8 internalize processors, a tiny experimental brain in the smallest config used as an adjunct to the Big Brain in primarily testing communications transfer and interfacing abilities. TBO is now used as a portable tiny brain for travel and portable work. It's prototyped on a solderless breadboard. The smallest brain in the series of brains is the Tiny Brain One. Much of the Big Brain test software can run on a TBO. TBOs have one Propeller chip with eight hard processor cores. Each of the "cog" cores in Tiny Brain One is thought of as an individual internal chip with a four I/O pin allotment for use in multiple chip development. TBOs are very portable, ideal for research and project development, and set up on one solderless breadboard. These run multiprocessor software and the full range of sensors. TBO "Internal Chips" are theoretical 20MIPS with a shared 5MHz crystal. TBO Features:
One Propeller chip
Eight Internal Setup Chips
Four pin i/o allotment per internal chip
Two dedicated hardware counters per internal chip
Standard programming for multiple cogs
Shared 5MHz crystal
Shared 32K EEPROM, RAM, ROM
20MIPS/Internal Chip
$1/Internal Chip Cost

http://forums.parallax.com/showthread.php?124495-Fill-the-Big-Brain&p=1033313&viewfull=1#post1033313 

6) Tiny Brain Two (TB2) 2 Props, 16 computers
http://forums.parallax.com/showthrea...l=1#post988558 

7) Tiny Brain Three (TB3) 3 Props, 24 computers
http://forums.parallax.com/showthrea...l=1#post988558 

8) Small Brain 5 prop chips on one board, 40 computers, main purpose is for use in developing the Big Brain and running quick tests.

9) Pint Size Brain 2 Props, 16 computers, in a 340 gram jar, built on a single solderless breadboard with wire jumpers and two power rails. It has two Parallax Propeller chips mounted piggyback. Pins, depending on the required circuit and software are either bent up or kept in contact with the other prop to create various interface functions. A nine volt battery fits behind the breadboard and software can signal exampling neurons whose firing are visible through the clear jar. The Jar Brain has sixteen cores, all of which can run in parallel, which makes it powerful given its small "pint size." The Jar lid is unscrewed to hookup the USB cable to load in the program. Lerner uses PST and Life uses a TV externally. However the Nanite and code to activate the LED can run from stored programs in the EEPROM.
http://forums.parallax.com/showthread.php?132716-Propeller-Brain-in-a-Jar 

10) Brain Child (BC) 5 props, The Big Brain begat an offspring temporarily known as the Brain Child. BC is nearly identical to its parent except for its size and limitations imposed by fewer props. It contains one Brain Span of five Propeller chips and no partitions. This means BC has a total of 40 risc computers at its disposal ready for running apps. BC is currently compatible with Big Brain software. Brain Child has many of the functions of parenting Big Brain. It can talk (with speaker and amp), sing, learn, dream, and handles the same neural injector and neurons. The biggest gain is less power draw, immediate access to experiments and tests, portable, and it runs on battery power. The convenience of its smaller solderless breadboards is immediately apparent. BC has components on two connected breadboards with four power rails. It has one 32K eeprom for program storage and connectors for a Parallax Prop Plug to download programs through a USB cable. Output is currently through five LEDs, one distributed to each Propeller chip. The base wiring is comparable to a PEK board. Next, the overlay interface of the Neural Injectors is implemented. Finally a choice of hybrid designs entertain various modes of communication. At this early stage software is limited to some test packages to distribute code and inject sampling neurons. Software also has access to other packages for speech & singing (requires speaker and amp), hearing sounds, recognizing words (requires microphone circuit), dreaming and learning. Due to lack of TV, output is routed to a supporting computer through a terminal program such as prop terminal and PST. No doubt the greatest adaptations for BC will result in portable braining operations for mobile robots and smaller humanoids. BC is also very useful for running Big Brain Tests and to develop new algorithms and programs and to set up new functions and capabilities.

11) Morpher-8 1 prop that has ability to control, morph, transform using a NARO servo and programming in SPIN language. As a new prodigy, Morpher-8, is capable of autonomous morphing and transforming and has access to eight RISC processors known as Cogs in the Parallax Propeller chip world. Morpher-8 is a controller baby, already able to manipulate position in space and time using SPIN commands and a demonstration program running from one Cog. It's small body interfaces to the real world with a tiny NARA servo, the same as used in a Parallax Penguin robot.

12) Propeller Elf (PE) 1 Prop, this is a Propeller brain with no parts whose purpose is pure thought. It runs on SPIN software using the conventional support for the Parallax Propeller chip and communicates through a standard Propeller Plug. Prop Elf is a spin off of the Big Brain "No Parts" project. All software utilized is found at the Parallax Propeller Forum. PE uses eight internal processors known as Cogs and also utilizes the internal components built into the Propeller chip. Thinking takes place with the RC clock and the chips built in protection circuits so no crystal, resistors or caps are required. It can use virtual devices internally and externally. Debugging is with the PST Parallax Serial Terminal software and Prop Terminal.

The Number of Propeller Chips within Each Offspring
Big Brain Parent - Over a hundred props 
  • 01) Bantam Brain - 3 Props
  • 02) Child Brain - 5 Props
  • 03) Baby Brain - 1 Prop
  • 04) Bit Brain - 6 Props
  • 05) Tiny Brain One (TBO) - 1 Prop
  • 06) Tiny Brain Two - 2 Props
  • 07) Tiny Brain Three - 3 Props
  • 08) Small Brain - 5 Props
  • 09) Pint Size Brain - 2 Props
  • 10) Brain Child - 5 Props
  • 11) Morpher-8 - 1 Prop
  • 12) Propeller Elf - 1 Prop
The Big Brain Genealogical Research page is a work in progress describing over 300 machines leading up to the Big Brain and its related siblings.

Brain Loss Baby Making

BABY MAKING LOSS IS REAL
Guess what a baby making brain gives up during birth?!

When a biological woman has a baby, she loses something… in the form of body nutrients and elements like vitamins, calcium, bone mass. What does a baby-making machine like the Big Brain lose?

The Big Brain has given birth to many siblings. See 12th Child and Genealogy. During the birthing process, the Brain has specific loss. Although this machine brain has no fluids, bones, calcium or vitamins to lose, it does have substantial electronic loss. Can you guess what it gives up during birth? The answer is Propeller chips!

With the first five babies, the Brain has given up over 12 Propeller chips. How does it do it and keep on going? The brain is divided into a number of Propeller Arrays. The first two arrays contain a finite number of Propeller chips set at 50 each. In the third Array, also know as an open ended Partition, the number of props is variable, and can grow more or become less and the Brain will continue to function. This allows the Big Brain to give birth to offspring, give up Propeller chips to make little brains, and keep on going...

Saturday, May 7, 2011

Big Brain Sex

CAN PROPELLER CHIPS HAVE SEX?
MACHINE REPRODUCTION: This topic was investigated May 7th, 2011 in an effort to determine if the Big Brain was Hermaphrodite, Male, or Female. The analysis went like this:

Machine reproduction is an interesting concept because it is highly dependent on the previous topics of Genome and DNA sequences. At some point the machine must become male, female, both or neither.

Four Gender States of a Propeller Chip
  • Male
  • Female
  • Hermaphrodite
  • Neuter

Compare this to some snails that are both male and female and can do self fertilization. Most species of snails are hermaphrodite, possessing both male and female reproductive organs. It is not usual for a snail to fertilize itself.

http://wiki.answers.com/Q/How_do_you...male_or_female

Machines are only somewhat Hermaphrodite in nature as they can do self cloning. Self cloning only produces an exact copy of the original and does not produce an intermixing of genome for genetic diversity and evolutionary purposes.

It would make more sense to send one Brain to the Moon and have it replicate itself rather than initially send two brains, one male and one female. This saves expense and weight.

This is the pattern of the initial Big Brain. Later, Big Brains will require sex, Male Big Brains and Female Big Brains - to ensure the mixing of DNA and evolution.

http://wiki.answers.com/Q/Why_are_sn...ale_and_female

There is a difference in reproducing and creating genetic diversity. Genetic diversity is achieved when two snails mate together.