Can DEL-t exist without INT-t existing

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In summary: In essence, time is not a fundamental physical entity, but rather a human construct used to measure and understand the physical world.
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Can DELTA-time exist without INTEGRAL-time existing

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SUBJECT:

My following question derives from a motivation to explore the notion that (accumulated) time, as a physical entity, might not exist in reality.

However, an associated paradox would thus arise: there are numerous real physical parameters which characterize a time-rated characteristic. As an example: the following parameters are time-rated:
- Half-life of radioactive isotopes, t_1/2: s
- Gravitational constant, G = 6.67E-11 m^3/kg/s^2
- Spring constant, k: kg/s^2

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CONUNDRUM:

Where a physical parameter occurs which is time-rate dependent, then time can be mathematically isolated by integration of its denominator of time.

Here, I mean a time-rated parameter to be a physical parameter that defines a rate of physical quantity per unit of time. Example: speed being displacement per unit of time (mph, kph, etc). In calculus, this would be represented as:
V = delta_x / delta_t

Also, I mean an accumulated-time would arise where delta_t could be integrated over its own domain (time).

Consider a generalized flow-like parameter:

Given
q = delta_Q(t) / delta_t

Where
Q(t) = flow function
q = flow rate
t = time

Then
delta_t = delta_Q(t) / q

Integrate over t
INT [delta_Q(t) / q] = INT [delta_t]
= (t.f - t.i)

Where
q.i = flow at initial state
q.f = flow at final state
t.i = time at initial state
t.f = time at final state

Thus, in the above manipulation, a duration of time (t.f - t.i) is seen to transpire. However, a mathematical manipulation does not necessarily prove the realism of its result.

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CONJECTURE:

Perhaps time is a fictitious parameter. Where the time parameter arises in standard equations of physical mechanics (etc), perhaps some other implicit parameter is actually responsible. For example, perhaps where time appears in a time-dependent parameter, the real dependent parameter is something else, like energy.

An example can be seen in the parameter, speed. A vehicle can have its speed quantified as displacement per unit time (km/hr). But the evolution of time is not what propels the vehicle. Rather, the speed of the vehicle is really the result of its consumption of fuel. So, the vehicle speed could be alternatively quantified as displacement per unit of fuel (km/liter_of_fuel).

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QUESTION:

Can flow-like parameters (ie: time-rated) exist while mandating that accumulated-time must not sensibly existing?

This is equivalent mathematically to asking (but pertaining to the physical world):
Is it possible for delta_time to exist without Integral(delta_time) having any real meaning?

This question could be applied, for example, to speed. This would ask: can speed (time-rate of displacement), being physically real, exist while any implied elapsed time would not physically exist?

Consider the previous example of a vehicle burning fuel to propel it at a given speed. After it has consumed a known quantity of fuel, it will have traveled a determinable distance. In human terms, some time has elapsed. But I am considering the notion that time did not elapse in a physically real sense, only in a perceived sense. The elapsed time is physically not to be found. But the traveled displacement is physically observable in itself, as is the consumption of fuel.

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ANSWER: Yes, DELTA-time can exist without INTEGRAL-time existing. This is because the physical parameters that characterize a time-rated characteristic do not require INTEGRAL-time to exist in order for them to be defined. For example, the half-life of radioactive isotopes does not depend on any integral of time for it to be defined; it simply requires a given time for it to be measured. Similarly, the gravitational constant does not require any integral of time for it to be defined; it simply requires a given time for it to be measured.
 

1. Can DEL-t exist without INT-t existing?

The answer to this question is a bit complex and depends on the context. In general, DEL-t (deletion time) is a concept that refers to the time it takes for a particular sequence of DNA to be deleted in a cell. On the other hand, INT-t (integration time) is the time it takes for a particular sequence of DNA to be inserted into a cell. So, the existence of DEL-t and INT-t are not mutually exclusive, and they both play important roles in genetic processes.

2. What is the relationship between DEL-t and INT-t?

As mentioned before, DEL-t and INT-t are not mutually exclusive, and they are both important in genetic processes. DEL-t and INT-t are related in the sense that they both involve the manipulation of DNA sequences. DEL-t involves the removal of a DNA sequence, while INT-t involves the insertion of a DNA sequence. So, the relationship between DEL-t and INT-t is that they are both involved in the manipulation of DNA sequences, but in different ways.

3. Is DEL-t more important than INT-t?

This is a difficult question to answer definitively as both DEL-t and INT-t play crucial roles in genetic processes. DEL-t is important in DNA repair and recombination, while INT-t is important in gene expression and regulation. So, both DEL-t and INT-t are equally important and necessary for proper genetic functioning.

4. Can DEL-t and INT-t be manipulated or controlled?

Yes, both DEL-t and INT-t can be manipulated or controlled through various genetic techniques. For example, scientists can use gene editing tools like CRISPR to delete or insert specific DNA sequences, thus manipulating DEL-t and INT-t. However, it is important to note that such manipulations should be done with caution and ethical considerations.

5. How do DEL-t and INT-t affect genetic diseases?

DEL-t and INT-t can both play roles in the development of genetic diseases. For example, a mutation that causes a deletion of a crucial DNA sequence (DEL-t) can result in a genetic disease. Similarly, a mutation that causes the insertion of a deleterious DNA sequence (INT-t) can also lead to a genetic disease. Understanding and manipulating DEL-t and INT-t can help in identifying and potentially treating genetic diseases.

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