Prototype Dev Log: Humaniform Interactive Manipulable Entity [CH4N]

Dr. Kazuo Takano, Ph.D, Project Head

1. The following document is a development log for HIME Prototype CH4N. It will summarize and explain the included capabilities and features included in Prototype CH4N.

2. NOTE: No images, film and video records, or statistical data have been included in this report package, for security reasons. further information, if needed, will be made available only upon special request, personal inquiry, or contract verification.

3. OVERVIEW: The HIME project is a pioneer endeavor into advanced intelligence and robotics, in an effort to create an independent, functioning, "learning" Humaniform Entity, more popularly known as an "Android". This Prototype, HIME[CH4N] is an integrated-component model built for demonstration to both consumer and military product manufacturers. It has been constructed to meet US military standards covering man-portable equipment, and has been certified by the Consumer Product Evaluation Committee (CPEC) as safe for usage.

4. GOALS: Through this document and the upcoming product demonstrations, we aim to recieve approval to go to the first production phase of HIME consumer models, followed by HIME military models.

5. DEVELOPMENT LOG: ENDOSTRUCTURE: Prototype [CH4N] was constucted on schedule, parallel to the completion of the Sony SEVS-44936 EDS interface, and consequently, has similar body type and endostructure. The endoskeleton itself was constructed to mimic the structure of the human skeleton. The prototype, fully built, weighed at approx. 57.13 kg (117 lbs) .

6. DEVELOPMENT LOG: NEUROSYSTEMS: Following the completion of the endostructure stress trials, the neurosystems were laid in. In summary, the neurosystem is a network of electrical sensors located throughout the structure of the android, mimicking that of a human nervous system's layout. Coupled to this, a computer brain was loaded into the cranial cavity section, to process the sensory data.

7. DEVELOPMENT LOG: MOTOR CONTROL/ACTUATORS: Parallel to the installation of the neurosystems, nanofiber cords were threaded to set contact points on the endostructure. When stimulated by electrical pulses, the fibers contract and relax in a similar fashion to human muscles, allowing for movement, and fine motor operations. Balance issues were resolved with re-adjustment of the internal gyro.

8. DEVELOPMENT LOG: MAINTENANCE/ENERGY: To maintain system functionality, Nano-machines contained in a artificial plasma medium are circulated throughout the internal structure of the android, in a capillary-like system of channels. Materials are broken down into hydrogen to power internal high-capacity fuel cells. Power may be obtained through solar radiation, common power outlets, and the internalization and breakdown of raw materials.

9. DEVELOPMENT LOG: INTERFACE SYSTEMS: The prototype is fitted with a wireless close-medium range data transmission/reception system, able to connect to the internet or send data directly through microwave signals, radio, EM pulse, or physical manipulation of electron pathways. The unit is able to interface directly with any recent computer software, and can reprogram computers while in transmission range. For communication with humans, the unit was equipped with a voice synthesizer, to facilitate vocal speech.

10. NOTE: During integration testing of the transmitter/receiver, programmers noted anomalous sensor recordings of electrical spikes. In review of the data, it was found that the anomalous sensor recordings were actually the brainwave patterns of the testers; the electric signals sent throughout the brain to precipitate thought, memory, and the functions of the body. The author wishes to note that this event is of great interest, and may lead to a form of advanced thought interpretation with further study.

11. DEVELOPMENT LOG: PROGRAMMING/AI: The AI was constructed around the "feedback loop" concept. This involves the generation of "sense data", feeding it into a function of arbitrary complexity, then modifying the results and feeding it back in, accompanied by new sense data, ad infinitum. This continual code, modifying itself in response to data inputs, and thereby "learning" new means and ways of going about tasks. Polymorphic software code is ideal for a self-functioning android, as invariably leads toward greater efficiency and effectiveness.