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You know, that wouldn't take much force. Light slows when it passes through any medium (like through water.) We don't talk much about how much force still water has though, do we?
No need to be dismissive. You know very well that shade is different than singularity.
Yeah. I see where you're going, and it's really cool how we're sort of converging on the same idea from totally different directions.
Inside materials, the space surrounding particles is warped, causing the light to move in a zigzag course instead of a straight line. That causes the light to appear to slow down, even though it is always moving at velocity c. The only 'force' required for this to occur is the force that all matter exerts upon space... i.e. gravitational lensing on a microscopic level, which is a side effect of the force we call 'gravity.'
originally posted by: TheRedneck
a reply to: moebius
If you say so.
TheRedneck
originally posted by: bluemooone2
They say that mass increases greatly as you get closer to the speed of light. What I never hear discussed is that gravity must also increase. Perhaps there is something here that craft use to open a type of wormhole or enter hyperspace ?
It is not just me who says so. Ask any physicist, telecom engineer, or read a book about electromagnetism.
Okay, now we're in that orbit around the Earth. The first thing to note is that we're in freefall. We can detect no inertial forces. If we were in a box with no windows we wouldn't be able to tell if we were stationary or in motion. This is known as the Einstein Equivalence Principle. Now. The Earth is getting bigger, so we know we're approaching perigee, which means we must be accelerating. However, we feel nothing. Still in freefall. Now we're past perigee so we must be decelerating, yet still no sensation of inertial forces. Furthermore, since we're in orbit we know we're experiencing an inward acceleration causing our path to be curved but there is no sensation to indicate so. The most sensitive accelerometer would read 0 gees.
What is actually happening is that the shift from the X-Y-Z planes into the iX-iY-iZ planes create a 3-D wormhole that connects the particles. Space-time flows into matter in the X-Y-Z planes, shifts into the iX-iY-iZ planes, flows into the corresponding antimatter particle, and shifts back into the X-Y-Z planes again where it flows out of antimatter and back toward the nearest matter again.
originally posted by: Phage
a reply to: Zelun
I think acceleration due to gravity is indistinguishable from acceleration due to inertia
Acceleration due to inertia?
I thought inertia resists acceleration. Silly me.
Inertia is a force, so its SI units are kilogram meters per second squared
That is an expression of acceleration, not inertia.
What do you suppose an intrinsic resistance to an angular acceleration in SI terms comes out to? You guessed it! Radians per second squared.
It isn't a force at all.
Try as you might, you will be hard-pressed to rigorously defend the notion that the inertial resistance to acceleration is a distinct "kind" of force
No you haven't. Inertial acceleration is not a thing.
Using the EEP(shown above) I've demonstrated that force due to a gravitational influence is distinct from force due to an inertial acceleration(thrust).
originally posted by: Phage
a reply to: Zelun
Inertia is a force, so its SI units are kilogram meters per second squared
Perhaps you are thinking of moment of inertia? The SI units for that are kg/m^2. No time parameter and it's an expression of the amount of force required to change the angular velocity of a mass.
That is an expression of acceleration, not inertia.
What do you suppose an intrinsic resistance to an angular acceleration in SI terms comes out to? You guessed it! Radians per second squared.
It isn't a force at all.
Try as you might, you will be hard-pressed to rigorously defend the notion that the inertial resistance to acceleration is a distinct "kind" of force
No you haven't. Inertial acceleration is not a thing.
Using the EEP(shown above) I've demonstrated that force due to a gravitational influence is distinct from force due to an inertial acceleration(thrust).
The whole entanglement thing remains a headache for me. On one hand, particle/antiparticle pairs created directly from energy are entangled. But what happens when one of them is annihilated by a member of a completely different pair? Do the orphaned particles now exist in a sort of hybrid entanglement, consisting of the states of both pairs?
Euler is my jam.
Hurry up and write that book so I can buy it!
originally posted by: TheRedneck
a reply to: Phage
Inertia is a resistance to change in velocity. In that sense it can be seen as analogous to friction, which is a resistance (a force which opposes) a change in position. Friction only exhibits itself as an opposing force during a change in position, whereas inertia only presents itself during a change in velocity. Both are indeed forces in that respect.
TheRedneck