Fast Radio Burst Real-Time Spectral Theory

Hello!

My Spectral Research on Fast Radio Bursts Repeaters

Fast Radio Burst (FRB 121102)

Used Casey Laws mp3. Of FRB 57643.mp3

what are FRBs?

more information on FRB121102 PDF download https://aas.org/files/resources/chatterjee-law-hessels-tendulkar-spolaor.pdf

My Research
I have done Many spectral analyzing of the 57643 File.

Settings used in Audacity app
Noise Reduction, Frequency smoothing, and Stretching the millisecond mp3. to 1 Hour duration
(Maximum bandwidth before stretch tones)

Programs Used
Audacity - Spectrum analyzer enabled

Noise Reduction Removal
Normalization
DC offset
Amplify
Paul Stretch
Frequency Smoothing - spreading the attenuation of “noise frequencies” across neighbouring Fast Fourier transform bins

Hardware used.

Phase Lock Loop:
The phase-locked loop (PLL) block is a feedback control system that automatically adjusts the phase of a locally generated signal to match the phase of an input signal. PLLs operate by producing an oscillator frequency to match the frequency of an input signal.

AM-Demodulation:
Amplitude demodulation is the reverse process of modulation
Notch Filter: A notch filter is a type of band-stop filter, which is a filter that attenuates frequencies within a specific range while passing all other frequencies unaltered. For a notch filter, this range of frequencies is very narrow.

Conclusion
The Phase Lock Loop and AM Demodulation Allowed for the Lightcurve of the FRB to be Expanded and Spectral (Luminosity) of Said FRB Object producing it.

Future Study followup
Need Faster Computer Capable of Rendering Larger resolution Spectral for Real Time Visual
graphics card used gtx 980m the 1 hour file is 163 MB and sometimes struggles to process the FRB sound file.

Zoomed In almost all the way of the 1Hour Long FRB produce incredible realtime spectral pulses of light (I recommend squinting the eyes it shows more intresting details)

digital oscilliscope of same audio showing more structural
Lissajous patterns

This part is the only object so far That I had found for sure that appears when the “object” speeds up Becomes Incredibly luminous at that point of acceleration seen in the other spectral video. As you can see it spins in a Yaw rotation quickly in a dynamic elongated and spinning

Im unsure if Its Natural signal or Artificial.
I do believe it may be a Neutron star
I hope to see something Distinct video showcase my work on this subject.
I believe I found something that seems to repeat and changes frequency and Flashing pulses of some unknown rotating spinning object.

I Will be posting more in the coming time. As I require additional hardware and programs, able to run digital oscilliscope and spectrals and other software at the same time to analyize in Real time to examine the progenitors closely. Will also Submit here Copy of the FRB file in-case anyone is intrested looking at it themselves

I firmly Believe if the Astronomers used a oscilloscope ( a test instrument that captures and displays the behavior of electrical signal over time) and Better spectral programs to identify signals. They would be able to quickly identify signals better and detect Microwave perytons quickly as well

Thank You For Your Time

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Thank you for sharing your work. Im interested to hear feedback from the group.

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This is Casey Laws spectral of the Same FRB

This one was done by another astronomer

This one is my work. Its very similar to their plots But I go a step further and Dissect the FRB, not to many people are happy with that idea. They dismiss it. But again they do say that whatever appears to be producing these FRB’s have to be small. And so with my work we dug little deeper into the sound wave.

In the picture below I show a Red line showing what it looks like zoomed in and what it looks like zoomed out on the FRB lightcurve.


I also have a theory that It would require a lot of Computer processing to generate Far Sharper Spectral plots. But would require a lot of computer rendering of spectral images.

Here is the Download Link to the FRB. mp3 If you like to analyze it yourself

The picture Below I highly recommend these three apps,

Equalizer APO

-Spectralissime (Spectrum Analyzer)

-sndpeek

-zelscope

All these programs plus the Audacity - Spectrum Enabled. Would run at same time analyzing the sound file all at once.

I drew a picture of what May need to happen to visualize things in Great Detail and with Computer Rendering of these spectral images.

Here’s how to increase the resolution of the spectral in Audacity application. On my computer It starts to run slower If I try to Drag too far down. But I do know it seems to produce greater detail. It just requires more hardware to perform this action
So with that in mind should be able to expand this to several more computer screens.


I dont think there is a limit to how far It can be stretched vertically downward

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I have to do a heck of a lot of learning on neutron. Ive only started to conclude that the video I have is neutron In last 6 months.
I have listen to this file thousands of times, And When im listening to it. I do Hear Glitches happening. Small Glitches. When they happen they happen multiple times in differnt parts of my audio, Those sounds are very short, but sound like a Powerful electronic Glitch, it screetches. And I do find that It has something to do with those rotations of the neutron

1:44 High Short Glitch
14:08 High Short Glitch
19:53 High Short Glitch

19:53 High Short Glitch very accelerated state till 20:38 and onward lots of small glitch sounds as it rotates

two important ways in which a pulsar can speed up. Glitches are sudden, small decreases in a pulsar’s period that last for a short time before the pulsar resumes its normal slow increase in period. Astrophysicists don’t know for sure what causes glitches, but it is thought that the crust and “mantle” interact in such a way that the crust shifts and the NS shrinks by a tiny amount, increasing its spin speed (again thanks to conservation of angular momentum).

This explains why We hear what sounds awful alot of glitches occuring. Oh this is so intresting. Sounds a lot like Radio Glitches.

Last night I found a Intresting Pattern Will share video soon. However I lost the File I was working on, And it failed to save. The Audacity program Stopped working so had to hard exit., That Dosnt Happen Much! But… For some Reason in the lower pitch Frequencies I think I was starting to see some of the nuetron star as well and the burst of light it makes So I was able to see that inbetween the light pulses the neutron star
I was able to see circular shapes of white plasma

Thanks for the info. Very interesting and educational. I don’t know a lot about these topics, but I am sure future members will.

  • Possible causes of glitches:

    • Superfluidity: It’s theorized that neutron stars contain a superfluid core, a state of matter with no viscosity, and that a sudden transfer of angular momentum from this superfluid core to the solid crust could cause a glitch.
    • Quantum Vortex Networks: Another theory proposes that glitches are caused by quantum vortex networks arising at the interface of different kinds of superfluids within the neutron star’s core.
    • Crust movement: Changes in the core’s magnetic field could cause movements in the crust, leading to glitches.
  • Why are glitches important?

Studying glitches can provide insights into the internal structure and dynamics of neutron stars, including their superfluid properties and the nature of the matter within them.

  • Gravitational Waves:

Some researchers suggest that glitches may be accompanied by the emission of gravitational waves, which could provide further information about these events.

  • Recent research:

A recent study published in Nature Astronomy suggests that the Vela pulsar, a neutron star, exhibits a three-step glitch process: a spin-down, a rapid spin-up, and then a relaxation back to its original rate.

pulsar and neutron star are same terminology

New work on the FRB. Even though A FRB is dispersed should still be able to hear the pulsar spinning in certain domain frequencies I believe. I made a short video 20 min its not the full signal.
I believe could be thousands of rotations happening in a millisecond. dont believe all the rotations of a pulsar will emit lighthouse effect. i believe the lumonisity probably varies escpecially when its slowing down from glitches, wont see much of lighthouse effect occuring in slowdown after the glitches

Lightsmall-optimised

Each time the beam of a pulsar points towards the Earth, we see a pulse of radio waves . These pulses can be “timed” just like the tick of a clock. Millisecond pulsars are a subclass of pulsars which spin hundreds of times a second

A pulsar is a highly magnetized rotating neutron star that emits beams of out of its magnetic poles

I think next I will try to only record the certain phases the nuetron/magnetar goes through during its glitches. Will focus more on those segments where the glitches occur and record smaller audio parts on that instead of 1 hour. I made note already where I believe certain glitches occur and will just make seprate videos of those said glitches. I know one glitch in particular sounds similar to what astronomers suggest occording to when the glitch happens and the rotations start to increase and then a slowing down/cooling off in rotations

We are observing in my video a 2Dimensional rotation of this neutron star pulses.

I believe I am observing hundreds of pulses occuring within 2(ms) milliseconds. hundreds of rotation periods within 2 milliseconds.

This is what astronomers want to badly know about the FRB’s period rotations
This is what meta A.i says about the period rotation

The rotation period of a Fast Radio Burst (FRB) source is still a topic of ongoing research and debate. Since FRBs are brief, intense pulses of radio energy, it’s challenging to directly measure their rotation period. Currently, there are various theories and estimates:

  • Millisecond magnetars: 1-10 milliseconds
  • Neutron star mergers: 1-100 milliseconds
  • Superconducting strings: 1-10 milliseconds

Keep in mind that these estimates vary widely, and the true rotation period of an FRB source remains unknown. Ongoing research aims to better understand the nature of FRBs and their sources.

Estimates suggest that a single rotation of an FRB source can be as short as:

  • 1-2 milliseconds
  • Some theories propose rotation periods as short as 0.1-0.2 milliseconds

have not witnessed this before. Square being formed.

Due to their mathematical nature, Lissajous figures have been analyzed extensively as basic equations and their associated advanced functions such as Chebyshev polynomials. However, to this point, Lissajous figures have been a natural “curiosity” creating interesting and pleasing images but no practical use.

From math to measurement to art

I will also add carl sagan explaining some idea of decoding a potential alien message. I believe this is one way of decoding a signal but could be many more possible ways a message could be sent. Dealing with Pictorial mathematical messages.

FRB 121102 is a repeating fast radio burst (FRB) that has been extensively studied and research has shown that its bursts exhibit a cyclic pattern, repeating roughly every 157 day

I suggest that This one FRB 121102 - 57643. the entire Dispersion is Repeating also.
So not only does the source repeat. But within a FRB radiowave it is also reapeating!

I dont hear to many modern day astronomers discussing theories around recieving what kind of potential ETI signals. Rarely talked about or explored. Unlike sagans thoughts.

Found this Intresting Grid this morning. After zooming in alot on the bright spectral spots where the lissajous appears small. so zooming in on the small lissajous pattern produced this grid. Only happenes in the Bright spectral areas.

I figure lets zoom in on the little lissajous I havnt seen the smaller lissajous patterns up close yet then this intresting Grid appears.

Lissajous curves and nodes.

First Glitch at 1:44min

Second Glitch at 14min

Glitch #3 happens at 19:50 - This one you can hear the rotations starting to pick up speed and then A glitch occurs

Glitch #4 at 29min

Glitch #5 at 53:40 min
You can hear the object really accelerate and glitch

two important ways in which a pulsar can speed up. Glitches are sudden, small decreases in a pulsar’s period that last for a short time before the pulsar resumes its normal slow increase in period

“The woosh woosh woosh sound” is the oribital period. the orital period slowly increases and then the orbital period becomes shorter more dense and then you hear the GLITCH

I will extract that segment and slow the dense orbital period down in another experiment
orbital period become shorter only becuase its accelerating at incredible speeds and becomes indistinguishable

a spin-down, a rapid spin-up. with a rapid spin up the periods become shorter and shorter as its accelerating

Here is What maybe occuring when it does Glitch
(I am having some difficulty on the settings from Stereo to Quadrophonic or 5.1 surround) The speaker configuration on my computer which im using headphone. I believe that These settings or better settings may infact improve the visual of the pulsar
Something here that needs to map out better for better visual display of the pulsar
For the video I used Quadrophonic. When in stereo it produces a square instead.
the SNDpeek app runs whatever desktop sound plays in which case the audacity app

Found Actual Pulsar audio files here: https://www.jb.man.ac.uk/research/pulsar/Education/Sounds/sounds.html

And Finding similarities with pulsar audio with my Fast radio burst audio

The conservation of angular momentum** explains why ice skaters start to spin faster when they suddenly draw their arms inward, or why divers or gymnasts who decrease their moment of inertia by going into the tuck position start to flip or twist at a faster rate.

I believe with a Pulsar As it starts to spin faster. The pulsar would also decrease in diameter. The pulsars Size. wouldnt the pulsar become heavier and smaller? (will ask the a.i) No, a pulsar does not become heavier as it spins faster. While faster rotation can influence the shape of a pulsar and its magnetic field, it doesn’t directly change its mass. The mass of a pulsar is determined by the amount of matter it contains, not its spin rate

The arecibo is five times more sensitive than the VLA. I dont know if that still holds true today with most instruments. But this audio file of the FRB is really good audio of the pulsar. When Listening to other Pulsar Audio. We dont hear the spinning up faster of Pulsars. I wonder if will have a chance to hear those events. But I think my audio may entail just that.

I think current pulsar audio is to faint to do much spectroscopy with. unlike the Arecibo. I think the sensitivity was better than most instruments they are using to detect them.

Lightsmall-optimised

when the pulsar is spinning up the periods become shorter and shorter and it becomes indistiguishably periods incredibly short and dense

did some pulsar spectral


And found this intresting part in the FRB. This is the second time im seeing a small object moving quickly like this. (The object appears to be moving in a S shape pattern. It Goes Up and then Down and up again. the wavelength is also moving up and Down. The object moves in and out (Forward and Backward) like a Yo-yo movement, perhaps striking something with speed. When it approaches us closer the object appears bigger. But At this point it is also producing High Flux. Its possibly bursting light in sequences of 3) -possibly due to high flux scattering

I seen a short few seconds where I see a circular object closed in on whatever is pulsating like a yoyo

slowed it down, shows other animated effects

within the 1hr long audio data. the areas where there is low noise. These are where I am finding the good audio dynamics from to do the above FRB videos.. These areas produce very clean visible wavelengths… I have to try getting the rest of the audio that clean..


These are low flux regions the black areas.

This audio is something… requires technical experince to make
Oscilloscope visuals . I have no clue how to generate those kinds of cool animations.
So its rather surprising that im finding animations in a FRB..

Slowed down the Yo yo effect found in previous video. Looks like its travelling in a figure 8. Rotated the camera so it is following behind the FRB
first time seeing a more distinctive rotation patterns. very telling…

the screen resolution is a bit choppy after processing on youtube. but on my computer it looks more visible. you will need to full screen this to see the small dot further away.,

the wavelegth

this is coolest thing ever. dont know what it is.

its circulraizing 3 times and then shoots out does a turn and comes back to do three circulizations and shoots off does it over and over. at the start its orbit is different pattern.


The Cam Direction is the angle which I rotated to view it. seems to fit the direction observed
working on my MS paint “star/flash” picture. this one looks better.
this is pretty much the oribtal path im seeing. I havnt seen anything this good yet and its found within a segment of the 1 Hour long FRB file located here

The only other thing I know that behaves similar like this either something that orbits around something or something similar like hardron collider… A hardron collider is a particle accelerator

The flux measurements and the centroid measurements are critical. The dB is incredibly important. I learned in Audacity that the dB is responsible for three-dimensional depth. So, I turned it all the way up, and in the SDR application, I manually calibrated the Lissajous size. That’s also important. The video should not appear three-dimensional, but I was able to identify soon enough that the burst effect and something else appearing beside it are causing rotations. This also suggests that flashes of light with high flux must be what is producing the high Jansky and high flux. I don’t see any flux when it is appearing further away.

when this object is in the distance its only doing 0.1 or 0.5 Flux.. and when it comes close its producing a lot of flux. when it produces a lot of flux jansky when it does 3 orbit passes. that is seen in the wavelegth. none of the flux is seen in the wavelength when its moving away. near the end of the video when its orbiting there seems to be brief flux burst emissions from the moving objects. not sure whats happening there that is disturbing the orbit of this object. its also strangely appearing seen moving the opposite direction. The flux is seen moving higher here too. reminds me the movie Planet of the apes 2001 chimpanzees. Mark jumps in his ship flies off try save monkey, https://www.youtube.com/watch?v=h5SwvfcTUx0

10:37 to 10:50 in my orbit frb Vid is where I see these kinds of orbit distortion effects. Appears like its jumping in and out different directions different spots.

highly unusual orbit..

When you look at the object when it is further away. the waveform is much cleaner more distinct. but when the object is close the flux is huge. and the light emission is very scattered. and the waveform is not clear or distinct. it will not be a distinct looking sound wave but messy. or noise looking

intresting to note when the waveform as the object is moving up and down. when the waveform is level or straight horizontal. see a small impulse of flux during that crossover from high to low waveform. when its moving back down and the waveform is straight horizontal shows a 0.0 to 0.2 quickly and then back to 0.0 as it heads toward bottom. small flux crossover

Im really surprised to see such a distinct orbit pattern..

I thought for a long time It was a spinning pulsar.
but the rotations are doing a dam orbit
this would totally explain why I would hear for example 1 set of pulses or 3 set of pulses or other sets of pulses.
It really has something to do with what might be a unusual orbit. and white it orbits its flashing these sets of pulses.

whats the chances of a smaller star swinging around a bigger one.

these objects appear partically accelerated magnetism

revised orbit path

looks similar to the hadron collider

Working on a Vela pulsar audio file last night and I was able to do near perfect count of how many pulses in a Vela pulsar.
at the bottom of the spectral lined up to about 682 pulsar spins
Used quick audacity feature processed the pulsar pulses quickly the pulse count located at the bottom under the spectral light

From 1 to 682 pulses of light

Doing this spectral was suprised Audcaity only crashed 3 times. happens often when trying to process these complex files…

This is what the original file they use. I dont know if they do any other further processing of the spectral stuff. from what I gather. I dont believe they do anything other than sonify and plot it.

in the original data you dont see any pulses producing the pulse train light curve. dont see the spectral pulses
they write that this vela pulsar
This pulsar lies near the centre of the Vela supernova remnant, which is the debris of the explosion of a massive star about 10,000 years ago. The pulsar (a so-called neutron star) is the collapsed core of this star, rotating with a period of 89 milliseconds or about 11 times a second.

will look into the paper about this or do some math.. well… meta A.I has to do some math. I aint doing it. tss

  • Total pulses: 682
  • Rate: 11 pulses/second
  • Time: 682 pulses á 11 pulses/second = * 62 seconds vela pulsar

Meta AI says

The Vela Pulsar, PSR J0835-4510, rotates approximately 11 times per second. This translates to a rotation period of about 89.33 milliseconds, making it one of the fastest-rotating pulsars observable from Earth. To break it down further:

  • Rotation Period: 89.33 milliseconds
  • Rotations per Second: 11
  • Rotations per Minute: 660

I see 682 with a couple that might not be lined up correctly but certainly not 660 pulses.

This rapid rotation, combined with its strong magnetic field, enables the Vela Pulsar to emit intense beams of electromagnetic radiation, making it visible across various wavelengths, including radio, optical, X-ray, and gamma rays š.

will have to have a looky look at their paper data.
PSR B0835-45 vela pulsar

I process files myself so can visibly see those pulses better. even so- it also helps for the count of each pulse too.handy tool to be able to count the pulses click of a button lol. it would be intresting to know how they count each pulses. they do so by hand? maybe A.I ? who knows..

this channel region has information in it. zoomed in you dont see much of anything, but thru processing was able to make more clear the pulses. I believe the bottom part of the spectral is just residual noise.

after reading where I gathered the mp3. files. I believe they updated the website who to credit the files. so havnt heard any email back doubt i will.. so i cant post about the pulsar audio publically. all this askin perwmission stuffs. need the greenlight
have to unlist all the pulsar stuff…
still good on the frb stuff thou, can share that stuff
ive sited the dude who sonfied the FRB files many times. maybe not with every frb edit. but i did do it to some them

really liked this video was very informative. talks alot about these kinds of periodicities in wavelengths.

I found it very intresting when she mentioned that she is looking for very clean very uniform pulses. thats exactly what i look for’

hopefully soon will get some sonifying idea of the calibratin they use to do them.

They specifically talk about “Wanting better machines to capture better”
think if they work on spectroscopy more they will find that its more of a software issue rather than hardware one. I beleive really great spectroscopy will also require lots Gpu to process the files…
they would have to develope software for large resolution spectroscopy.

Another concept idea I had would be to cut out all the 682 pulses individually and turn them into images. 682 images.. and slap them together in a animation.
that way can export a video of the pictures. in its alignment of the pulses
video of the pulsar.
currently feels more like a pulsar animation reel. like old video camera reels.
any software capable of turning images from a digital reel for spectroscopy would be very nice.
if such a software was possible to be able to automatically plot the frame per pulse. and also give the user the tool to perhaps slide each image width if any errors in the wavelength frame.

This tool would be helpful in more detailed pulses. more anaylizing of the pulses.

pulsars make for exellent object for spectroscopy for this sort of expirement. If they can expirement and get more out of the spectroscopy and see great detail of these objects.

i will do some googling around if any application for this kinda reel app.

im sure if there are aliens out there they too would say “These pulsars are exellent spectroscopy honing’ spectral skills”. other types of objects are bit more complex becuase a lot of other things are occuring in those wavelengths. pulsars are more simpilar to understand

If another alien is out there that are 100 years more advanced than us. they already have more advanced spectroscopy. Im sure in our 100 years will find a exoplanet that is truly habitable.
if we came this far. then others are much further ahead than us. and that means were probably already detected by their spectral advancements.

anyway. whole new ballgame when pulses are more recognizable to do pulse count.
I tried doing a pulse count by hand with the FRB stuff but it is just way to many pulses. This new technique should really help

maybe it is 682 rotations. can see some spin downs in certain pulses that were brightest pulses. most pulses do look the same.
could be the pulsar glitches…

really need to get some info about glitches when it comes to pulse trains…

this pulse happens to be very bright and similar like the other pulses. Some of the pulses middle appears upwards in the centre of the pulse.
Up down down, Big down. Then Up, down, up down up down

seeing steep decays and fast rises. slow decays.

closer look at the bright flashes. the pulse to the right is doing the opposite rotation. its doing a axis rotation. might be the other pulses are more horizontal axis pulses the majority of them

kinda have a idea of the wavelengths we looking for

Been thinking about the pulse train lately.

did this video while back.. It has a very strong feedback
this audio sounds more like perhaps what this object sounds like in space
its in this one particular spot in the FRB that it is occuring these 3 tone pulses.
which we see in the upper video of this object rotating around something three times.

1,2,3
1,2,3
1,2,3
1,2,3
1,2,3
one two three

The phrase “one two three” spoken with increasing tones refers to the pattern of rising pitch used in some languages (like Mandarin Chinese) or in musical contexts. In a language like Mandarin, the number “three” would be pronounced with a rising tone, also known as the “third tone”. In music, this could refer to playing the notes corresponding to the numbers on a musical scale with an ascending pitch

AI Overview
Is there a limit to how many times you can gravity assist a …
The described orbital path involves a repeating cycle of movement: starting from a point, moving outward, then returning to the starting point, effectively tracing a path resembling a “loop”. This pattern could be a simplified representation of various orbital mechanics phenomena, but without more context it’s difficult to determine the specific type of orbit.
Elaboration:
The description “1, 2, 3 then it shoots outwards and comes back does 1, 2, 3 and shoots outwards and repeats this orbit path” is a simplified way to describe a cyclical motion. Here’s a breakdown of what that could mean in different contexts:
Planetary Orbit:
In a simplified planetary orbit, the “1, 2, 3” could represent a segment of the orbit, while “shoots outwards” signifies a point of increased velocity or distance from the central body. The “comes back” would then be the object returning to its starting point due to gravity and orbital mechanics.
Pendulum or Oscillating System:
This description could also apply to a pendulum or a system that oscillates back and forth. The “1, 2, 3” could be a description of the pendulum’s position or a point in its cycle. The “shoots outwards” would represent the pendulum swinging away from its center point, and the return would be gravity pulling it back.
Other Oscillatory Systems:
Many other physical systems exhibit similar oscillatory behavior, like a spring-mass system or a vibrating string. The “1, 2, 3” could represent a position in the cycle of oscillation, and the “shoots outwards” would represent the movement away from the equilibrium point.
Simplified Model:
It’s important to remember that this is a highly simplified description. Real orbits and oscillatory systems are governed by complex physical laws and are often more elliptical or complex in their paths.
In summary, the phrase describes a cyclical motion, where an object moves away from a point and then returns to it, repeating this pattern. The specific context of “1, 2, 3” and “shoots outwards” would depend on the physical system being described

the object itself appears to be very thin. and perhaps its spinning as well. It has some flight dynamics as its doing its orbital paths where the suface plane tilts differently. But when the object its being shot out from the 3rd orbit, its appears vertical. as it is orbiting it looks like it does horizontal plane
rather than vertical plane when it is being shot out

the only other object I know that is thin like this is a solar sail

its doing a figure 8 pattern of 1,2,3s

hmmm intresting

Is there a limit to how many times you can gravity assist a space craft with one planet before it stops increasing its velocity?

There’s an upper limit to the amount of times you can use gravity assists to accelerate without having to burn a lot of fuel to get another one. If you hit the escape velocity out of the solar system, you’d have to slow down at some point to loop back and get another encounter with anything in that solar system. The amount of fuel you’d need to slow down to get another encounter could be better used to burn during the gravity assist that slingshots you into an escape trajectory to get a faster escape trajectory in the first place.

personally had a hard time understanding how these worked until I tried doing a few in Kerbal Space Program. You eventually learn that what you’re basically doing is creeping up behind the planet’s orbit, and stealing some velocity from it. I highly recommend it if you have an interest in space navigation.

Usually this extra velocity will send you on a new, enlongated orbit that still intersects at the same point, so in theory yes you could continue to get more assists by carefully adjusting your speed to catch the planet on future rotations. You’d probably burn more fuel than you saved though, unless you are able to line things up juuuuust right so that you catch the same planet multiple times (NASA has the kind of smarty-pants scientists who can pull that sort of thing off). It’s much easier to plan shots that angle you out at another planet so you catch it and do the same thing again.

Also another fun thing people are often unaware of: You can use a gravity assist to slow down as well as speed up. Instead of passing just “behind” the planet, you can pass just in “front” of it to bleed off some of your velocity and end up in a lower orbit. In Kerbal I often use this trick on my mars missions, slinging in front of the moon a couple times to slow for earth rentry without burning extra fuel.

HERE WE GO found something!

this picture is similar to what I have been trying to explain

With The A.i I can do all sorts of things. Find the answers I need looking. Its fascinating. I could never do this myself having to go through a Library.. lol

like to thank Reddit also for this discovery ty ty and google ty ty ty
little bit of a eurika moment. cus this is def some heavy stuff. aint nobody gunna believe this

this is why i keep sort of a blog where I can inform my small audience :wink: lol
I did write before the orbital paths but without knowing it has something to do with “FREE RETURN TRAJECTORY”

I was actually reading some robert zubrin today, But All this is very new to me. All new to me with flight path trajectories, gravity assist stuff. Even recently with some online web talks about

Orbital accelerator

Made the video Brighter, with sharpening feature. And was able to add Motion Detection. It make a square box around the object to track its orbit.

Side project with Black Hole Spectrals I did in 2018

This audio was done by astronomers. I rendered the audio file better for spectral.

What you hear is wooshing sounds which is Two Black holes merging.

And so the Sound is very similar to the Fast Radio Burst Sounds I pointed out before with Carl Sagan talking about the Figure Skater doing a tuck rotations. In figure skating, “tucking” and “rotations”

I understand now that Pulsars, black hole mergers, any two bodies coming together is producing these similar sounds. and producing the specta of it when its rotating as well

And this is something I am seeing in this Fast radio burst phenomenon as well. similar characteristics like the Black hole merger.

Very Very Similar characteristics in my FRB Audio compared to black Hole merger sounds. Same Similar Wooshing Sounds.

I totally reminded myself today that I did the Black Hole merger spectral in 2018. And I was reminded today in a zoom meeting the participants were talking about Black Holes. And They were mentioning about the Black Hole Chirp Sound. And I remember I had done the spectral of it and another black hole audio.

So It occured to me that that Black hole merger audio I did also has the Similar Wooshing sounds as what I found in the Fast radio burst phenomenon

also found this intresting read here.

Animation_showing_X-ray_emission_from_pulsar_and_star_s_ring_pillars

The pulsar plunges into the Be star’s ring twice during its 3.4-year elliptical orbit; but the plunges are only a few months apart, just before and after ‘periastron’, the point when the two objects in orbit are closest to each other. It is during the plunges that X-rays and gamma rays are emitted, and XMM-Newton detects the X-rays.

characteristics in the pulsar wind," said co-author Andrii Neronov. “As the two objects draw closer together, sparks begin to fly.”

They rotate so fast that their equatorial region bulges and they become flattened spheres

The pulsar is the Red sphere in the gif animation