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shawnr
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Do you just cube a variable? How does it work?
Has this been figured out yet? Any thoughts if it hasn't? Any applications if it has?
Has this been figured out yet? Any thoughts if it hasn't? Any applications if it has?
Your question is unclear. A plane is inherently two-dimensional. A plane can be embedded in three-dimensional space, though.shawnr said:Do you just cube a variable? How does it work?
Has this been figured out yet? Any thoughts if it hasn't? Any applications if it has?
The Cartesian plane is two-dimensional, so there are only two axes, typically x and y. There are not three axes.shawnr said:Like z-y-x axis Cartesian plane.
? I don't know what you're saying here.shawnr said:I'm only slightly educated.
you can map the 0th, 1st, 2nd, and 3rd on number line (or first dimension plane[excuse the term]).
Or here, either.shawnr said:You can see each dimension's interpretation on other dimensions. The only difference being variables used. How does the fourth look on the third?
The Quadratic Formula is used to find the two solutions of a general quadratic equation -- ax2 + bx + c = 0. Maybe you're thinking of the area of a square, A = x2, or the volume of a cube, V = x3.shawnr said:If the quadratic formula represents the actions or operations of third
We live in a three-dimensional world. Most of us cannot visualize a space with more than three dimensions. In mathematics there are objects with more than three dimensions, but you can't visualize the space that they belong to.shawnr said:, would cubing a variable on the third dimension be enough to suffice fourth dimensional operations
shawnr said:Somebody else. You're too applicable. This is a pure mathematics question.
Bringing up a synonym doesn't demonstrate you understand the concepts inherent in it.shawnr said:What is Theoretical Mathematics? Now can you answer mine.
I don't know how to break down the word theoretical any farther without sounding pretentious. I will do my best: Theoretical anything is the point at which you develop frameworks for knowledge. If knowledge would be applicable then the frameworks for theoretical would be considered wisdom. So math wisdom is what we are dealing with. More precisely, while applicable allows use of gained wisdom to apply towards real-world problems, theoretical is the search for new knowledge in the hopes of breaking ground for the applicable world. The Greeks were extremely theoretical until Alexandria became the capitol of thought in the classic world.pwsnafu said:Bringing up a synonym doesn't demonstrate you understand the concepts inherent in it.
Look, you've claimed Mark is "too applicable" (sic), and yet he's given you pure math answers. Secondly, visualization of mathematics is not mathematics. Thirdly, you're post makes no sense.
The fourth dimension is defined as an additional dimension beyond the three dimensions of length, width, and height that we are familiar with in our physical world. It is often referred to as time, and is essential for understanding the movement and changes of objects in the universe.
No, the fourth dimension cannot be fully visualized on a 3d plane. Our brains are limited to perceiving and understanding only three dimensions, so it is impossible to accurately depict the fourth dimension in a 3d space. However, there are mathematical and scientific methods for representing and understanding the fourth dimension.
The fourth dimension is often represented mathematically using the concept of a coordinate system. In three dimensions, we use the x, y, and z axes to locate an object in space. In four dimensions, we add a fourth axis, usually denoted by the letter w, to represent the object's position in time.
Charting the fourth dimension allows us to better understand the behavior and movement of objects in the universe. It is crucial for fields such as physics, astronomy, and engineering, where precise measurements and predictions are necessary. It also helps us conceptualize and explore the idea of time and its role in our world.
Yes, there are many real-world applications for charting the fourth dimension. For example, in physics, it is essential for understanding the behavior of particles in space-time. In engineering, it is used for designing complex structures and predicting their movements. It also has applications in computer graphics and animation, allowing for more realistic and accurate depictions of movement and change.