Clocks On a Hyperdimensional Planet

In summary, on a 4D planet with one dimension of time, a clock would have two perpendicular 2D planes for rotation, with independent periods. The hands on the clock correspond to the Sun's position in the sky, with blue and red hour hands and no minute hand. The length of the hands depends on the location of the clock on the planet's surface. This concept was first explained by Clifford in 1895. Beings from the fourth dimension were once believed to be highly intelligent, but it was later understood that their actions would be incredibly complex. The Earth already rotates around two planes at an acute angle, with independent and incommensurate periods known as day and year. The movement of the month hand on a
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Hornbein
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On a planet with four spatial dimensions and one of time a clock would look like this.

Back Cover -  Clock Face.jpg


The hands are connected with pivots. The height of the jewel corresponds to the height of the Sun in the sky. If it is above white then it is daylight, if above black it is night. Here the sun has height 6. There is no minute hand on this clock, rather there are the blue and red hour hands. The time shown is 6p5a, with a and p corresponding to am and pm.

All this is because 4D objects can rotate on two perpendicular 2D planes. The periods of rotation are independent. This was elucidated by Clifford in about 1895. If the periods are different then the Sun can do things like dip below the horizon then rise again.

The length of the hands depends on the location of the clock on the surface of the planet. This clock is closer to the "blue" plane than it is to the "red" plane so the blue hand is longer.

https://www.researchgate.net/publication/359213812_Elsewhere_Everyday_Life_On_A_Hypergeometric_Earth.
 
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It was once believed that beings from the fourth dimension would possess spectacular intelligence. The vastly greater room for neural pathways in their brains would make them as gods to us lowly humans. But in time we came to understand. Every move they make, every simple endeavor, explodes in hopeless complexity. And in time, they would find themselves without the will to even get up in the morn ... noon... early... whatever that clock says.
 
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Hornbein said:
All this is because 4D objects can rotate on two perpendicular 2D planes. The periods of rotation are independent. This was elucidated by Clifford in about 1895. If the periods are different then the Sun can do things like dip below the horizon then rise again.
Earth already rotates around two planes that are actually at an acute angle. The periods are independent, incommensurate and important. They are called day and year.
How does the month hand on clocks move? (Note that while hours are equal, months are not.)
 
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I think the Earth around the Sun is revolve, not rotate. A 4d planet would do that too, but OP is just talking about rotating. The path the 4d planet would take around the star... I have no idea.
 

FAQ: Clocks On a Hyperdimensional Planet

What are the fundamental principles of timekeeping on a hyperdimensional planet?

The fundamental principles of timekeeping on a hyperdimensional planet involve understanding how multiple dimensions can affect the perception and measurement of time. In such environments, time may not flow uniformly, and the presence of additional dimensions could introduce variations in the passage of time, leading to the need for clocks that can account for these complexities.

How do clocks operate in different dimensions?

Clocks on a hyperdimensional planet may operate using mechanisms that are sensitive to the unique properties of each dimension. For instance, a clock could utilize oscillations or vibrations that are influenced by the gravitational and spatial characteristics of the surrounding dimensions, allowing it to maintain accurate timekeeping despite the non-linear time flow.

What challenges do scientists face when designing clocks for hyperdimensional environments?

Scientists face several challenges when designing clocks for hyperdimensional environments, including the need to account for variable time dilation effects, the potential for spatial anomalies that could disrupt traditional timekeeping methods, and the complexity of synchronizing time across different dimensions. These factors necessitate innovative approaches to clock design and calibration.

Are there existing models or theories that explain time on a hyperdimensional planet?

Yes, there are existing models and theories that explore the concept of time in hyperdimensional spaces, such as string theory and certain interpretations of quantum mechanics. These theories suggest that time may behave differently in higher dimensions and provide a framework for understanding how time can be measured and perceived in such environments.

What implications does hyperdimensional timekeeping have for our understanding of physics?

Hyperdimensional timekeeping has significant implications for our understanding of physics, as it challenges traditional notions of time as a linear and uniform progression. It could lead to new insights into the nature of space-time, causality, and the fundamental laws of the universe, potentially reshaping our understanding of reality itself.

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