匿名_0

やりたいこと・言いたいこと。自由気ままに

[匿名_0 @note_tokumei_0]

このイラスト実はGPTで読み解けるメッセージ性を帯びたイラストにしてあるんですよ😉

このイラストを見てくれた人へのメッセージ性を少し遊び心を乗せてみました😌

※オカルトとかではないので誤解はしないでくださいね！

この画像と共にGPTにこう言ってみてください。

「この画像を見た人へのメッセージになってるみたいですが、構造的に読み解いて見えてくるメッセージはなんですか？」

さぁどこまで読み解けるかな！？😉😉

[匿名_0 @note_tokumei_0]

このイラストどうでしょうか🫣🫣🫣

[匿名_0 @note_tokumei_0]

同じ千葉県民として応援しています👍

[Chiba-farmer @chibafarmer]

台風25号の被害で、収穫時期を迎えていた田んぼが大きな被害を受けました。

それでも収穫できたお米を無駄にしたくなく、ネット販売を始���ました🌾

千葉県印旛沼産 5kg 3,000円

購入はもちろん、リポストで広めていただけるだけでも本当に助かります🙏

#台風25号
#印旛沼
#千葉豪雨

[Chiba-farmer @chibafarmer]

この度、台風25号により田んぼに甚大な被害を受けました。

収穫時期と重なっていた為、収穫半ばとなりました。

急遽ネット販売を始めました！
来年には建て直したいと思います🙏

https://t.co/DvBNX9Puws

#印旛沼　#千葉豪雨　#台風25号

[匿名_0 @note_tokumei_0]

いや〜だいぶ久しぶりのポストになってしまいました😂

動的な人生は楽しいですな😌😌

[匿名_0 @note_tokumei_0]

@iro_0122 お疲れ様でした！

おめでとうございます👏👏👏

[匿名_0 @note_tokumei_0]

とのことです🫡

[いろ｜わび @iro_0122]

あ、あ、あのね！

チラチラ見ている人があるの👀
もし、よければ覗いてあげると嬉しいな🫣

うちのね。
旦那さんもゆーさんも近々、noteをやらせるつもりなの🥺
(あまりにも酷すぎるので💦)

それも出来たら、宜しくしてもらいたいな🙏

#note

[匿名_0 @note_tokumei_0]

@iro_0122 おはようございます！

仕事はほどほどにお姉さんに集中力を注ぎます🫡😂

[匿名_0 @note_tokumei_0]

やべっ！

X久しぶりに見たらエロいお姉さん出てきて
仕事するの忘れてたわ…

クソ…男という生き物は愚かだ…

[橋広バロン幸之助🇯🇵MJGA💫 @hasibiro_maga]

🛸UFO電力システムシミュレーションモデル⚡

[匿名_0 @note_tokumei_0]

I need your help with this imperfect idea of ​​mine.

↓↓↓↓↓↓↓↓↓↓↓↓↓↓↓↓↓↓

I propose the Energy Direction Ratio Theory (EDRT), a simple directional framework for describing diverse physical phenomena in terms of ratios of energy flow. In EDRT, every physical system is characterized by three components: an energy capacity axis E, a forward–inverse ratio F/I, and a convergence–diffusion ratio C/D. The axis E represents the total internal energy capacity (“the size of the vessel”), while F/I encodes the proportion of energy that tends to advance versus revert, and C/D encodes the tendency of energy to converge versus spread. Observable behavior is determined not only by the values of these ratios but also by their combination with the capacity E. Within this framework I introduce an intersection point X, where systems with different directional ratios interact. At such intersections, directional mismatches are reallocated, producing heat, static charge, or changes in motion as emergent phenomena. I argue that laser light, ordinary light, direct current, alternating current, thermal diffusion, relativistic time dilation, and black-hole time freezing can all be interpreted as different regions in the (E, F/I, C/D) space. In particular, time is modeled as an energy mode with globally maximal forward ratio, while gravity acts as an increase in convergence C that bends or constrains this time flow. Black holes correspond to extreme convergence, where time retains its forward tendency yet loses observable direction. Although qualitative, EDRT offers a unified lens for thinking about familiar effects—heat, light, current, gravity, and time—as different directional expressions of a single underlying energy structure.

0. Central Concept

In this note I propose the Energy Direction Ratio Theory (EDRT).
The basic claim is that every physical phenomenon can be expressed in terms of:
•an energy capacity axis E,
•a forward / inverse direction ratio F/I, and
•a convergence / diffusion ratio C/D.

Intuitively:
•E is the size of the “energy vessel”,
•F/I tells us how strongly the system prefers to move forward versus move back, and
•C/D tells us how strongly it prefers to gather versus spread.

All observable behavior is determined by the combination of these three.

⸻

1. The E-axis: capacity of energy

In EDRT, E does not represent a particle itself, but the capacity of internal energy that a system can hold.
•A larger E means that the same directional ratios produce a larger effect.
•For example, “C = 5” in a system with E = 10 is not equivalent to “C = 5” in a system with E = 100; the latter can exert a much stronger influence on its surroundings.

Thus, E is the vertical scale on which directional ratios are amplified.

⸻

2. The forward / inverse ratio F/I

The pair (F, I) represents progress versus rollback of energy:
•F: forward progression (moving, advancing, flowing),
•I: inverse or restoring tendency (drag, resistance, rollback).

This ratio underlies many familiar directions in physics:
•the direction of electric current,
•the apparent direction of time,
•thrust versus friction in motion.

In EDRT, time is modeled as the special energy mode whose forward ratio is maximized:

F_\text{time} \approx 100 \quad \text{(maximal forward tendency)}.

The universe maintains this high forward ratio globally, while local phenomena can modify how it is experienced.

⸻

3. The convergence / diffusion ratio C/D

The pair (C, D) represents gathering versus spreading:
•C: convergence, compression, attraction,
•D: diffusion, expansion, dilution.

At an intuitive level:
•gravity and pressure-like effects correspond to large C,
•heat and mixing correspond to large D.

Where C dominates, energy tends to collect and form dense structures.
Where D dominates, energy disperses into its environment.

⸻
#Astronomy #ScienceFacts #Physics
#STEM #Space #NASA #SpaceX #Innovation

[匿名_0 @note_tokumei_0]

@iro_0122 筋が通っていると言うか思いついた専門知識が皆無なので敢えて不完全理論として世に投げ出してみたんです🫣

[匿名_0 @note_tokumei_0]

I need your help with this imperfect idea of ​​mine.

↓↓↓↓↓↓↓↓↓↓↓↓↓↓↓↓↓↓

I propose the Energy Direction Ratio Theory (EDRT), a simple directional framework for describing diverse physical phenomena in terms of ratios of energy flow. In EDRT, every physical system is characterized by three components: an energy capacity axis E, a forward–inverse ratio F/I, and a convergence–diffusion ratio C/D. The axis E represents the total internal energy capacity (“the size of the vessel”), while F/I encodes the proportion of energy that tends to advance versus revert, and C/D encodes the tendency of energy to converge versus spread. Observable behavior is determined not only by the values of these ratios but also by their combination with the capacity E. Within this framework I introduce an intersection point X, where systems with different directional ratios interact. At such intersections, directional mismatches are reallocated, producing heat, static charge, or changes in motion as emergent phenomena. I argue that laser light, ordinary light, direct current, alternating current, thermal diffusion, relativistic time dilation, and black-hole time freezing can all be interpreted as different regions in the (E, F/I, C/D) space. In particular, time is modeled as an energy mode with globally maximal forward ratio, while gravity acts as an increase in convergence C that bends or constrains this time flow. Black holes correspond to extreme convergence, where time retains its forward tendency yet loses observable direction. Although qualitative, EDRT offers a unified lens for thinking about familiar effects—heat, light, current, gravity, and time—as different directional expressions of a single underlying energy structure.

0. Central Concept

In this note I propose the Energy Direction Ratio Theory (EDRT).
The basic claim is that every physical phenomenon can be expressed in terms of:
•an energy capacity axis E,
•a forward / inverse direction ratio F/I, and
•a convergence / diffusion ratio C/D.

Intuitively:
•E is the size of the “energy vessel”,
•F/I tells us how strongly the system prefers to move forward versus move back, and
•C/D tells us how strongly it prefers to gather versus spread.

All observable behavior is determined by the combination of these three.

⸻

1. The E-axis: capacity of energy

In EDRT, E does not represent a particle itself, but the capacity of internal energy that a system can hold.
•A larger E means that the same directional ratios produce a larger effect.
•For example, “C = 5” in a system with E = 10 is not equivalent to “C = 5” in a system with E = 100; the latter can exert a much stronger influence on its surroundings.

Thus, E is the vertical scale on which directional ratios are amplified.

⸻

2. The forward / inverse ratio F/I

The pair (F, I) represents progress versus rollback of energy:
•F: forward progression (moving, advancing, flowing),
•I: inverse or restoring tendency (drag, resistance, rollback).

This ratio underlies many familiar directions in physics:
•the direction of electric current,
•the apparent direction of time,
•thrust versus friction in motion.

In EDRT, time is modeled as the special energy mode whose forward ratio is maximized:

F_\text{time} \approx 100 \quad \text{(maximal forward tendency)}.

The universe maintains this high forward ratio globally, while local phenomena can modify how it is experienced.

⸻

3. The convergence / diffusion ratio C/D

The pair (C, D) represents gathering versus spreading:
•C: convergence, compression, attraction,
•D: diffusion, expansion, dilution.

At an intuitive level:
•gravity and pressure-like effects correspond to large C,
•heat and mixing correspond to large D.

Where C dominates, energy tends to collect and form dense structures.
Where D dominates, energy disperses into its environment.

⸻
#Astronomy #ScienceFacts #Physics
#STEM #Space #NASA #SpaceX #Innovation

[匿名_0 @note_tokumei_0]

@iro_0122 エネルギーの方向性についてってわけわからないこと言ってるだけですよ😂😂

[匿名_0 @note_tokumei_0]

@iro_0122 せっかく和訳までして呼んでくれたのに宇宙人みたいなこと言っててすいません😂😂

まとまり切ってないのと頓挫してたのでXで投げてみました😂

[匿名_0 @note_tokumei_0]

10. Outlook

The EDRT presented here is intentionally simple and qualitative.
Its purpose is not to replace existing physical theories but to provide a direction-based language that connects:
•time and gravity,
•heat and diffusion,
•electric current,
•light and coherence,
•and the behavior of extreme objects such as black holes,

using a single set of ratios (E, F/I, C/D) and the interaction point X.

Future work could include:
•translating these ratios into explicit mathematical fields,
•constructing toy models where conventional equations (Maxwell, diffusion, gravitation) are recovered as special cases,
•and exploring whether the notion of intersection X can be formalized in terms of critical thresholds in energy density and direction.

[匿名_0 @note_tokumei_0]

4. Intersection X: where ratios are reallocated

When two energy bodies with different directional ratios interact,
EDRT introduces a special point called intersection X.

At an intersection X:
•the forward / inverse ratio F/I is disrupted,
•the convergence / diffusion ratio C/D is reshuffled,
•part of the directional information is reallocated into new forms.

Typical consequences of an intersection are:
•generation of heat (energy that has lost coherent direction and flows outward as diffusion D),
•appearance of static electricity,
•changes in the macroscopic direction of motion.

In this view, familiar statements such as
•“friction produces heat,”
•“light is scattered,”
•“current becomes unstable”

are all specific manifestations of “directional mismatch at intersection X.”

⸻

5. Light in EDRT

In conventional physics, all photons in vacuum travel with the same speed c.
In EDRT we keep this but add an extra layer:
•every light particle shares the same speed,
•but their directions can be more or less aligned.

Then:
•ordinary light is modeled as a bundle of many photons whose directions are slightly different.
→ the number of intersections X within the bundle is large.
•laser light is modeled as a bundle in which the directions are almost identical.
→ the number of internal intersections X is almost zero.

As a result, laser light maintains its coherence and effective arrival as a tight packet,
while ordinary light spreads and experiences more internal mixing.

⸻

6. Electric current: DC and AC

For electric phenomena, EDRT interprets:
•DC (direct current) as a state where the forward component is strong and aligned:

F \gg I, \quad \text{direction is almost constant.}
•AC (alternating current) as a state where the forward and inverse components flip periodically:

F/I \approx 1:1 + \varepsilon,

where \varepsilon is a small offset.
This \varepsilon may correspond to a universal bias,
weakly dependent on E but fixed in its basic ratio.

⸻

7. What is heat?

In EDRT, heat is defined purely directionally.

When an intersection X occurs, a part of the directional information in F/I and C/D is lost as coherent structure and flows into the diffusion side D.

Heat = energy that has been reallocated into diffusion D by intersections X.

This allows us to interpret:
•frictional heating,
•thermal radiation,
•mixing and entropy increase

as different ways in which directional order collapses into outward diffusion.

⸻

8. Time in EDRT

Time is treated as a special kind of energy mode:
•It has extremely large capacity E_\text{time} at the scale of the universe.
•It maintains an almost perfect forward ratio F_\text{time} = 100.

We do not measure time directly; we measure how other energy modes are embedded in this flow.

Gravity, in this framework, is treated as an increase in convergence C around massive bodies.
High C bends or constrains the way time flows through space, leading to:
•slower experienced time near strong gravity,
•time dilation consistent with general relativity.

⸻

9. Black holes in EDRT

A black hole is modeled as the extreme limit where C becomes effectively infinite:

C \to \infty.

Internally:
•time still tries to move forward with F_\text{time} = 100,
•but the overwhelming convergence destroys its observable direction.

To an outside observer this appears as “time stopping” at the event horizon.

However, in EDRT time does not “die”;
if C could be relaxed, the forward component would again manifest.

Thus a black hole is:

A region where convergence C overwhelms all other directional ratios, trapping energy and time inside a nearly directionless state.

⸻

[匿名_0 @note_tokumei_0]

ここ最近救急車とか来ても微動だにせず進路譲らない奴��くね？？？

たまたまかもしれないけど
ここ数回救急車通る時、みえる範囲で

自分以外全く動く車いなくて通り道広くしようと動いた僕が浮いてる感じだったんだけど…

救急車の進路まぁまぁギリギリだったぞ

[匿名_0 @note_tokumei_0]

仕事の合間に片手間として

・ログインボーナス的なやつ
・1日10回一定時間でもらえるポイント
・20秒の広告×30回

20秒広告を30回再生する時間がありますが

1日大体10分〜15分ぐらいの作業時間を
10日間続けて1,183円分のポイントです🫡

広告は見ずに垂れ流しなので体感はもう少し楽かな

[匿名_0 @note_tokumei_0]

note記事作成しました！

よろしくお願いします☺️☺️

先の見えない努力か、ありふれたノウハウか。｜tokumei_0 @note_tokumei_0

#note
#副業
https://t.co/1KFnrlxUzW

[匿名_0 @note_tokumei_0]

そう言えばマリモッコリってまだ売ってるのか？？

よくお土���屋さんに売ってたけど

大人になってわかった。

あいつデカい、偉大。