Sojourner01
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I think you should step back and carefully restate exactly what question you were asking to begin with. Nobody here looks sure what they're arguing about.
This discussion revolves around the understanding of relativistic momentum, particularly the differences in measurements of distance and time between observers in different frames of reference. Participants explore the implications of relativistic effects such as length contraction and time dilation on the equations for momentum.
Participants do not reach a consensus on the interpretation of \( Dx \) and its implications for relativistic momentum. There are multiple competing views regarding the measurements and the application of relativistic principles.
Limitations in understanding arise from the complexity of relativistic effects, the dependence on the definitions of proper time and distance, and the unresolved mathematical steps in the derivation of momentum equations.
Anant,anantchowdhary said:Sorry for all the truble to Hoot.Maybe I am too young and I've not read much of physics.Ill try to understand myself.And thanks anywayz for all the help provided.
anantchowdhary said:Hey thanks.Actually i am also spellbound by the derivations of things like time dilation and its elegance and simplicity.THanks for the inspiration,but i have my exams coming up.Maybe after them,ill devote more time on this.In my country every1 expects you to learn other things first rather than to be curious and follow ur interests.Thnx nywyz
anantchowdhary said:Heres the text quoted:
Consider a particle moving with a constant speed v in the positive x direction.Classically it has momentum=mv=mDx/Dt
in which Dx is the distance it travels in time Dt.To find a relativistic expression for momentum,we start with the new definition
p=mDx/Dt(o)
Here,as before Dx is the distance traveled by a moving particle as viewed by the observer watching that particle.However t(o) is the time required to travel that distance,measured by not the observer watching the moving particle but by an observer moving with the particle.
Using time dilation t/gamma=t(o)
therefore p=mv[gamma]
I didnt understand why distance Dx is same for both observers!