LINKS:  STEP-BY-STEP GUIDE     LIST OF PHYSICAL EFFECTS   LITERATURE and LINKS    FORMS: Plan, Status, Evolution, Level


Long Range Plan - Detailed Steps
Name of the product/part to be improved/invented .........................................................................
Who are the customers/users of the part or product.........................................................................
Needs/requirements/goals and limitations(review the 39 x 39 table) .................................................
Cost.....................................................  Volume/Size.....................................................................
Performace..........................................   Maintainability..................................................................
ReliabilitySafety....................................   Weight.............................................................................
How much resources can be committed to solving this problem ?
Money, $ ............................................    Man-days........................................................................
Select the magnitude of the change to be made.................................................................................
* Minimal change (recommended for first consideration)
* Moderate change
* Large change (perhaps a completely new device / equipment)

Evaluation of the stage of development of the system
Stage 1.  Infancy
    Specification of parts
    All parts are specified and all parts are working without problems.  At least one element is controllable.
 
Stage 2.  Rapid growth of efficiency/technical parameters
    Optimization
    At least one part has better performance/capability than other parts;
    other parts should be changed to take advantage of the "most capable" part.
    Mechanical interactions are replaced by force fields (electromagnetic, optical, etc.)(strong principle).
    Flow of energy through the system becomes smooth.
    Parameters are changing towards zero weight, volume and area.
    Dispersion, number of links and controllability are increasing.
    The frequencies/rhythms of parts are being harmonized.

Stage 3.  Maturity - 1  Dynamization
    Elements of the system are changing to adapt to changing conditions, but feedback is not used yet.
    (example: rigid wheel ---> rubber tire in vehicles)
 

Stage 4.  Maturity - 2   Self monitoring
    Automatic control using feedback

Stage 5.  Stagnation; need for transition to a higher level system
    Transition to higher-level system; transition from macro to micro
    Two or more systems are joined to create a super-system.
    Transition from macro (mechanical parts) to micro particles /molecules /liquids).
    Examples/super-system:
        joining two ships gives a catamaran;
        joining computers (networking: LAN -> WAN -> Internet
    Examples/macro-to-micro:rollers supporting hot glass plates replaced by molten tin.
 



Evolution of parts / subsystems / systems
 
Mono-system
Bi-system
Poly-system (super-system)
Poly-system with self control
Single-function system
Single-function syst. with adjusting properties
Poly-functional system
Poly-functional system with self control
Immobile part
Part with a joint
Part with many joints
Elastic system
System using force field
Solid
Liquid
Gas 
Force field
Monolithic part
Part with a void
Part/system with many voids
System with miniature voids or pores
System with dynamic voids (eg. quick sand)
Flat shape
Bent shape
Curved shape (eg. Mobius or hyperbolic)
Dynamic or changing shape
Continuous action
Use of vibrations
Use of resonance
Use of standing waves


Five levels of inventions
Level 1.  Contradiction: remains unsolved.
    Discipline: single field of technology.
    Used: devices/methods/substances intended precisely for the given goal.
    Eg. special thermal insulation to prevent heat loss.
    Number of trials: several.
Level 2.  Contradiction: resolved with small change.
    Discipline: single field of technology.
    Number of trials: 50 - 70.
Level 3.  Contradiction: resolved with a major change.
    Discipline: several technical disciplines.
    Number of trials: 100 - 1000.  Percentage of patents: about 10%.
Level 4.  Contradiction: resolved; the object is totally changed.
    Discipline: another field or "rarely used physical effects"
    Number of trials: 1000 - 10000 (100,000); eg. Edison's car battery required about 50,000 trials.
    Percentage of patents: 3 - 4%.
Level 5.  Contradiction: resolved by using a new fundamental effect.
    The solution can change the super-system to which it belongs.
    Discipline: beyond contemporary science (example: discovery of lasers).
    Number of trials:100,000 - 1,000,000.
    Percentage of patents: below 1%.




 
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