Difference between revisions of "TFNR - Physical Systems"
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| − | Here we distinguish Systems of Physical Forms from Physical Systems. It's a subtle but necessary distinction. | + | Here we distinguish Systems of Physical Forms from Physical Systems. It's '''a subtle but necessary distinction'''. |
As seen, by Systems of Physical Forms we mean any collection, set, or network of Physical Forms in Interaction, which behaves as a unified whole. This term highlights the individual components (the physical entities) that form a System. It emphasizes the parts themselves, such as atoms, planets, or machines, and how they collectively contribute to forming the system. | As seen, by Systems of Physical Forms we mean any collection, set, or network of Physical Forms in Interaction, which behaves as a unified whole. This term highlights the individual components (the physical entities) that form a System. It emphasizes the parts themselves, such as atoms, planets, or machines, and how they collectively contribute to forming the system. | ||
| − | The concept of Physical System is much broader and has a peculiar and specific functional and experiential connotation. This term refers broadly to Systems governed by the laws of physics, focusing on the interactions and behaviors within the System. For example, an ecosystem or an electrical circuit qualifies as a Physical System because they exhibit patterns or rules defined by physics. | + | '''The concept of Physical System is much broader and has a peculiar and specific functional and experiential connotation'''. This term refers broadly to Systems governed by the laws of physics, focusing on the interactions and behaviors within the System. For example, an ecosystem or an electrical circuit qualifies as a Physical System because they exhibit patterns or rules defined by physics. |
| − | The difference between "Systems of Physical Forms" and "Physical Systems", therefore, often lies in how the terms are used or emphasized. In essence: | + | The difference between "Systems of Physical Forms" and "Physical Systems", therefore, often lies in '''how the terms are used or emphasized'''. In essence: |
| − | *Systems of Physical Forms zooms in on the physical constituents themselves, focusing on the ontological aspect, | + | *Systems of Physical Forms zooms in '''on the physical constituents themselves''', focusing on the ontological aspect, |
*Physical systems emphasize the overarching system, the phenomena in which it participates, and its dynamics. | *Physical systems emphasize the overarching system, the phenomena in which it participates, and its dynamics. | ||
Returning to the theme of this section, we can say that Physical Systems are Systems composed of Physical Matter and Energy (Information, therefore, more or less elementary, more or less structured), governed by the laws of physics. | Returning to the theme of this section, we can say that Physical Systems are Systems composed of Physical Matter and Energy (Information, therefore, more or less elementary, more or less structured), governed by the laws of physics. | ||
| − | Physical Systems can include objects classifiable as Structures of Information (Waves, Vortices, Interactions) and as Physical Forms and Systems of Physical Forms. In a broader sense, they can also include Cognitive Forms, such as hypotheses, theories, or predictive models that describe the System's Properties and Behaviors. | + | '''Physical Systems can include objects classifiable as Structures of Information''' (Waves, Vortices, Interactions) '''and as Physical Forms and Systems of Physical Forms'''. In a broader sense, they can also include Cognitive Forms, such as hypotheses, theories, or predictive models that describe the System's Properties and Behaviors. |
Physical Systems includes really small and not directly observable objects, such as particles, waves, etc. and / or tangible entities, such as mechanical devices, electrical circuits, fluid dynamics, or even planetary bodies interacting in the universe. They are studied to understand the behavior and interaction of physical sub-systems under different conditions. | Physical Systems includes really small and not directly observable objects, such as particles, waves, etc. and / or tangible entities, such as mechanical devices, electrical circuits, fluid dynamics, or even planetary bodies interacting in the universe. They are studied to understand the behavior and interaction of physical sub-systems under different conditions. | ||
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Among the Physical Systems we find Systems described using classical and relativistic physics, and Systems requiring Quantum Mechanics and Quantum Field Theory for their description. | Among the Physical Systems we find Systems described using classical and relativistic physics, and Systems requiring Quantum Mechanics and Quantum Field Theory for their description. | ||
| − | More precisely, we can imagine a physical system as a collection of physical objects or entities that interact within a defined structure to perform specific functions. These systems can range from simple mechanical setups like gears and levers to complex ecosystems or technological networks. They often involve the transformation of Matter, Energy, or Information, producing outcomes that individual components cannot achieve alone. | + | More precisely, we can imagine '''a physical system as a collection of physical objects or entities that interact within a defined structure to perform specific functions'''. These systems can range from simple mechanical setups like gears and levers to complex ecosystems or technological networks. They often involve the transformation of Matter, Energy, or Information, producing outcomes that individual components cannot achieve alone. |
| − | In theoretical physics, a physical system refers to a model or abstraction of physical entities and their interactions, described mathematically to explain and predict natural phenomena. These systems can range from simple setups like harmonic oscillators to complex constructs such as quantum fields or spacetime geometries. Theoretical physicists utilize these models to delve into the fundamental laws of the universe, serving as a bridge between experimental observations and mathematical precision. | + | '''In theoretical physics, a physical system refers to a model or abstraction of physical entities and their interactions''', described mathematically to explain and predict natural phenomena. These systems can range from simple setups like harmonic oscillators to complex constructs such as quantum fields or spacetime geometries. Theoretical physicists utilize these models to delve into the fundamental laws of the universe, serving as a bridge between experimental observations and mathematical precision. |
| − | + | For the sake of simplicity, while acknowledging the differences and peculiarities mentioned, and considering that from a functional / experiential perspective, each System of Physical Forms is also a Physical System, '''we will now consistently use the more common term "Physical System to refer to both concepts"'''. | |
| − | + | ||
| − | For the sake of simplicity, while acknowledging the differences and peculiarities mentioned, and considering that from a functional / experiential perspective, each System of Physical Forms is also a Physical System, we will now consistently use the more common term "Physical System to refer to both concepts". | + | |
{{Template:PaperPages1}} | {{Template:PaperPages1}} | ||
Latest revision as of 16:48, 18 April 2025
Here we distinguish Systems of Physical Forms from Physical Systems. It's a subtle but necessary distinction.
As seen, by Systems of Physical Forms we mean any collection, set, or network of Physical Forms in Interaction, which behaves as a unified whole. This term highlights the individual components (the physical entities) that form a System. It emphasizes the parts themselves, such as atoms, planets, or machines, and how they collectively contribute to forming the system.
The concept of Physical System is much broader and has a peculiar and specific functional and experiential connotation. This term refers broadly to Systems governed by the laws of physics, focusing on the interactions and behaviors within the System. For example, an ecosystem or an electrical circuit qualifies as a Physical System because they exhibit patterns or rules defined by physics.
The difference between "Systems of Physical Forms" and "Physical Systems", therefore, often lies in how the terms are used or emphasized. In essence:
- Systems of Physical Forms zooms in on the physical constituents themselves, focusing on the ontological aspect,
- Physical systems emphasize the overarching system, the phenomena in which it participates, and its dynamics.
Returning to the theme of this section, we can say that Physical Systems are Systems composed of Physical Matter and Energy (Information, therefore, more or less elementary, more or less structured), governed by the laws of physics.
Physical Systems can include objects classifiable as Structures of Information (Waves, Vortices, Interactions) and as Physical Forms and Systems of Physical Forms. In a broader sense, they can also include Cognitive Forms, such as hypotheses, theories, or predictive models that describe the System's Properties and Behaviors.
Physical Systems includes really small and not directly observable objects, such as particles, waves, etc. and / or tangible entities, such as mechanical devices, electrical circuits, fluid dynamics, or even planetary bodies interacting in the universe. They are studied to understand the behavior and interaction of physical sub-systems under different conditions.
Among the Physical Systems we find Systems described using classical and relativistic physics, and Systems requiring Quantum Mechanics and Quantum Field Theory for their description.
More precisely, we can imagine a physical system as a collection of physical objects or entities that interact within a defined structure to perform specific functions. These systems can range from simple mechanical setups like gears and levers to complex ecosystems or technological networks. They often involve the transformation of Matter, Energy, or Information, producing outcomes that individual components cannot achieve alone.
In theoretical physics, a physical system refers to a model or abstraction of physical entities and their interactions, described mathematically to explain and predict natural phenomena. These systems can range from simple setups like harmonic oscillators to complex constructs such as quantum fields or spacetime geometries. Theoretical physicists utilize these models to delve into the fundamental laws of the universe, serving as a bridge between experimental observations and mathematical precision.
For the sake of simplicity, while acknowledging the differences and peculiarities mentioned, and considering that from a functional / experiential perspective, each System of Physical Forms is also a Physical System, we will now consistently use the more common term "Physical System to refer to both concepts".
Links to the tables of contents of TFNR Paper
