|
|
Thread Tools | Display Modes |
#101
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
"BradGuth" wrote in message ... I've never used "55 million years ago" (this only proves how totally bogus you really are). No, only that I knew that you stated a time that was not very long ago, and in that thread someone had mentioned that particular number. In case you didn't notice it WAS a question about something that I was not positive about since most of what you type I ignore. Amazing, you're still pretending that the Newtonian law of gravity doesn't apply? Strange leap to gravity, Guthie. Dissembling again? Precession ring a bell? Come on Brad. Please explain why Venus does not have precession. It's a simple, two sentence, at the most, answer. So, you can't do this gravity thing unless it relates to sustaining your faith-based mainstream status quo. Why am I not surprised. So, still not willing to answer. I'll take that as a "you don't know", and I was correct in my original summation of your knowledge regarding precession. So, next... Sirius AB: Right Ascension and Declination: 6h45m8.871s, -16°42'57.99" (epoch 2000.0) Distance from Sol: 8.601 light-years (2.637 parsecs) Standard error in distance: 0.4149% Source for distance: Hipparcos Celestial (X,Y,Z) coordinates in ly: -1.612, 8.078, -2.474 Galactic (X,Y,Z) coordinates in ly: -5.745, -6.275, -1.262 Proper motion: 1.328 arcsec/yr (204.3° from north) Radial Velocity: -9.4 km/sec Source for proper motion and radial velocity: Gliese Galactic (U,V,W) velocity components in km/s: 15.34, 1.109, -11.29 Now, what do you make of this information? You see, part of the answer to my second request of you is in the above information. Your choice to ignore the hint I gave you in another thread regarding Venus is noted and I'm sure, being the Guthie that you are, you will make the choice to ignore this information, too. Tsk, tsk. Dense as dense can be, you're a Guthie! |
#102
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
On Nov 13, 10:21*pm, "Nightcrawler" wrote:
"BradGuth" wrote in ... I've never used "55 million years ago" (this only proves how totally bogus you really are). No, only that I knew that you stated a time that was not very long ago, and in that thread someone had mentioned that particular number. *In case you didn't notice it WAS a question about something that I was not positive about since most of what you type I ignore. Amazing, you're still pretending that the Newtonian law of gravity doesn't apply? Strange leap to gravity, Guthie. *Dissembling again? Precession ring a bell? *Come on Brad. *Please explain why Venus does not have precession. *It's a simple, two sentence, at the most, answer. So, you can't do this gravity thing unless it relates to sustaining your faith-based mainstream status quo. *Why am I not surprised. So, still not willing to answer. *I'll take that as a "you don't know", and I was correct in my original summation of your knowledge regarding precession. *So, next... Sirius AB: Right Ascension and Declination: 6h45m8.871s, -16°42'57.99" (epoch 2000..0) Distance from Sol: 8.601 light-years (2.637 parsecs) Standard error in distance: 0.4149% Source for distance: Hipparcos Celestial (X,Y,Z) coordinates in ly: -1.612, 8.078, -2.474 Galactic (X,Y,Z) coordinates in ly: -5.745, -6.275, -1.262 Proper motion: 1.328 arcsec/yr (204.3° from north) Radial Velocity: -9.4 km/sec Source for proper motion and radial velocity: Gliese Galactic (U,V,W) velocity components in km/s: 15.34, 1.109, -11.29 Now, what do you make of this information? *You see, part of the answer to my second request of you is in the above information. Your choice to ignore the hint I gave you in another thread regarding Venus is noted and I'm sure, being the Guthie that you are, you will make the choice to ignore this information, too. Tsk, tsk. *Dense as dense can be, you're a Guthie! We're now closing in on Sirius at 9.4 km/sec? That's impressive, in that only a couple of years ago it was 7.6 km/ sec. If not orbital mechanics and that pesky Newtonian thing, what's going on? ~ BG |
#103
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
On Nov 13, 10:21*pm, "Nightcrawler" wrote:
"BradGuth" wrote in ... I've never used "55 million years ago" (this only proves how totally bogus you really are). No, only that I knew that you stated a time that was not very long ago, and in that thread someone had mentioned that particular number. *In case you didn't notice it WAS a question about something that I was not positive about since most of what you type I ignore. Amazing, you're still pretending that the Newtonian law of gravity doesn't apply? Strange leap to gravity, Guthie. *Dissembling again? Precession ring a bell? *Come on Brad. *Please explain why Venus does not have precession. *It's a simple, two sentence, at the most, answer. So, you can't do this gravity thing unless it relates to sustaining your faith-based mainstream status quo. *Why am I not surprised. So, still not willing to answer. *I'll take that as a "you don't know", and I was correct in my original summation of your knowledge regarding precession. *So, next... Sirius AB: Right Ascension and Declination: 6h45m8.871s, -16°42'57.99" (epoch 2000..0) Distance from Sol: 8.601 light-years (2.637 parsecs) Standard error in distance: 0.4149% Source for distance: Hipparcos Celestial (X,Y,Z) coordinates in ly: -1.612, 8.078, -2.474 Galactic (X,Y,Z) coordinates in ly: -5.745, -6.275, -1.262 Proper motion: 1.328 arcsec/yr (204.3° from north) Radial Velocity: -9.4 km/sec Source for proper motion and radial velocity: Gliese Galactic (U,V,W) velocity components in km/s: 15.34, 1.109, -11.29 Now, what do you make of this information? *You see, part of the answer to my second request of you is in the above information. Your choice to ignore the hint I gave you in another thread regarding Venus is noted and I'm sure, being the Guthie that you are, you will make the choice to ignore this information, too. Tsk, tsk. *Dense as dense can be, you're a Guthie! We're now closing in on Sirius at 9.4 km/sec? That's actually impressive, in that only a few years ago the Radial Velocity was still reported as -7.6 km/sec, and now it's up to -9.4 km/ s. If not orbital mechanics and that pesky Newtonian thing of gravity, what's going on? (why this increase in our radial velocity with respect to Sirius?) ~ BG |
#104
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
"BradGuth" wrote in message ... We're now closing in on Sirius at 9.4 km/sec? That's actually impressive, in that only a few years ago the Radial Velocity was still reported as -7.6 km/sec, and now it's up to -9.4 km/ s. If not orbital mechanics and that pesky Newtonian thing of gravity, what's going on? (why this increase in our radial velocity with respect to Sirius?) That number is not current. It was the information that I wanted you to look at, the coordinates provided, and the motion of each axis relative to Sol. See below Information provided by: http://www.stellar-database.com/fields.html /quote: Celestial (X,Y,Z) coordinates in ly: The coordinates of this star in space, relative to our own sun, in units of light-years. The first ("x") coordinate points toward the Equinox Point. The second ("y") coordinate points toward a spot in the sky at 0 declination and at a right angle to the Equinox Point. The third ("z") coordinate points toward the celestial north pole, at a declination of +90 degrees. Our sun represents the point [0, 0, 0] in this coordinate system. These coordinates are used to find the distance between any two stars, instead of just their distance from our own sun. Note that these coordinates represent the position of the star as it was in the "epoch" given for its right ascension and declination; centuries from now, most stars will have moved enough that these coordinates will have changed noticeably. Note also that spatial coordinates will be no more accurate than the distance measurement to the star. Galactic (X,Y,Z) coordinates in ly: Similar to Celestial coordinates, but pointing along a set of axes that's not quite so geocentric. The first ("x") coordinate points directly toward the center of our galaxy (which, in the Earth's night sky, is at a right ascension of 17h42m4s and a declination of -28°55'). The second ("y") coordinate points along the galactic plane in the direction of galactic rotation, at right angles to the "x" axis. The third ("z") coordinate points straight out of the plane of the galaxy, parallel to the galactic north pole, at right angles to both the "x" and "y" axes. As with Celestial coordinates, our sun represents the point [0, 0, 0] in this coordinate system. Galactic (U,V,W) velocity components in km/s: How fast the entire star system is changing its first, second, and third spatial coordinates, in kilometers per second; i.e., how fast the stellar system is moving, and in what direction, relative to our own sun. Since it takes 9 455 000 million kilometers to span one light-year, a star with a velocity vector of (-1, 0, 0) would take 9 455 000 million seconds (about 300 000 years) to change its spatial coordinates from [5.5, 3.8, -2.3] to [4.5, 3.8, -2.3]. By definition, the sun's velocity vector is (0, 0, 0). Note that the sun is in motion relative to the "local standard of rest" within our own galaxy. To get a star's galactic-relative velocity, you have to add the sun's local-standard-of-rest-relative velocity of (10.4, 14.8, 7.3) to what's listed here for that star. This is usually only important if you want to guess at how a given star is orbiting the center of the galaxy, which is not a subject for this text. Note also that the velocity vector will be no more accurate than the distance measurement to the star. /quote Regardless, with a closure rate of 7.6 k/sec (closest known number I know; July 2009), and a distance of 8.5 ly, a fly-by won't happen for about 1.24 trillion years. Of course both stars, and the Earth, will be toast by then. Note: Radial velocity is not a heading. It is the apparent line of sight velocity of an object. That's why I want you to LOOK at the other coordinate numbers and try to figure some things out from there. |
#105
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
On Nov 14, 12:34*pm, "Nightcrawler" wrote:
"BradGuth" wrote in ... We're now closing in on Sirius at 9.4 km/sec? That's actually impressive, in that only a few years ago the Radial Velocity was still reported as -7.6 km/sec, and now it's up to -9.4 km/ s. If not orbital mechanics and that pesky Newtonian thing of gravity, what's going on? (why this increase in our radial velocity with respect to Sirius?) That number is not current. *It was the information that I wanted you to look at, the coordinates provided, and the motion of each axis relative to Sol. *See below Information provided by:http://www.stellar-database.com/fields.html /quote: Celestial (X,Y,Z) coordinates in ly: The coordinates of this star in space, relative to our own sun, in units of light-years. *The first ("x") coordinate points toward the Equinox Point. *The second ("y") coordinate points toward a spot in the sky at 0 declination and at a right angle to the Equinox Point. *The third ("z") coordinate points toward the celestial north pole, at a declination of +90 degrees. *Our sun represents the point [0, 0, 0] in this coordinate system. *These coordinates are used to find the distance between any two stars, instead of just their distance from our own sun. Note that these coordinates represent the position of the star as it was in the "epoch" given for its right ascension and declination; centuries from now, most stars will have moved enough that these coordinates will have changed noticeably. *Note also that spatial coordinates will be no more accurate than the distance measurement to the star. Galactic (X,Y,Z) coordinates in ly: Similar to Celestial coordinates, but pointing along a set of axes that's not quite so geocentric. *The first ("x") coordinate points directly toward the center of our galaxy (which, in the Earth's night sky, is at a right ascension of 17h42m4s and a declination of -28°55'). *The second ("y") coordinate points along the galactic plane in the direction of galactic rotation, at right angles to the "x" axis. The third ("z") coordinate points straight out of the plane of the galaxy, parallel to the galactic north pole, at right angles to both the "x" and "y" axes. *As with Celestial coordinates, our sun represents the point [0, 0, 0] in this coordinate system. Galactic (U,V,W) velocity components in km/s: How fast the entire star system is changing its first, second, and third spatial coordinates, in kilometers per second; i.e., how fast the stellar system is moving, and in what direction, relative to our own sun. Since it takes 9 455 000 million kilometers to span one light-year, a star with a velocity vector of (-1, 0, 0) would take 9 455 000 million seconds (about 300 000 years) to change its spatial coordinates from [5.5, 3.8, -2.3] to [4.5, 3.8, -2.3]. *By definition, the sun's velocity vector is (0, 0, 0). Note that the sun is in motion relative to the "local standard of rest" within our own galaxy. *To get a star's galactic-relative velocity, you have to add the sun's local-standard-of-rest-relative velocity of (10.4, 14.8, 7.3) to what's listed here for that star. *This is usually only important if you want to guess at how a given star is orbiting the center of the galaxy, which is not a subject for this text. *Note also that the velocity vector will be no more accurate than the distance measurement to the star. /quote Regardless, with a closure rate of 7.6 k/sec (closest known number I know; July 2009), and a distance of 8.5 ly, a fly-by won't happen for about 1.24 trillion years. *Of course both stars, and the Earth, *will be toast by then. Note: Radial velocity is not a heading. *It is the apparent line of sight velocity of an object. *That's why I want you to LOOK at the other coordinate numbers and try to figure some things out from there. I want to run this in a good simulator, and that's still what I want. btw, your math is funny. ~ BG |
#106
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
On Nov 14, 12:34*pm, "Nightcrawler" wrote:
"BradGuth" wrote in ... We're now closing in on Sirius at 9.4 km/sec? That's actually impressive, in that only a few years ago the Radial Velocity was still reported as -7.6 km/sec, and now it's up to -9.4 km/ s. If not orbital mechanics and that pesky Newtonian thing of gravity, what's going on? (why this increase in our radial velocity with respect to Sirius?) That number is not current. *It was the information that I wanted you to look at, the coordinates provided, and the motion of each axis relative to Sol. *See below Information provided by:http://www.stellar-database.com/fields.html /quote: Celestial (X,Y,Z) coordinates in ly: The coordinates of this star in space, relative to our own sun, in units of light-years. *The first ("x") coordinate points toward the Equinox Point. *The second ("y") coordinate points toward a spot in the sky at 0 declination and at a right angle to the Equinox Point. *The third ("z") coordinate points toward the celestial north pole, at a declination of +90 degrees. *Our sun represents the point [0, 0, 0] in this coordinate system. *These coordinates are used to find the distance between any two stars, instead of just their distance from our own sun. Note that these coordinates represent the position of the star as it was in the "epoch" given for its right ascension and declination; centuries from now, most stars will have moved enough that these coordinates will have changed noticeably. *Note also that spatial coordinates will be no more accurate than the distance measurement to the star. Galactic (X,Y,Z) coordinates in ly: Similar to Celestial coordinates, but pointing along a set of axes that's not quite so geocentric. *The first ("x") coordinate points directly toward the center of our galaxy (which, in the Earth's night sky, is at a right ascension of 17h42m4s and a declination of -28°55'). *The second ("y") coordinate points along the galactic plane in the direction of galactic rotation, at right angles to the "x" axis. The third ("z") coordinate points straight out of the plane of the galaxy, parallel to the galactic north pole, at right angles to both the "x" and "y" axes. *As with Celestial coordinates, our sun represents the point [0, 0, 0] in this coordinate system. Galactic (U,V,W) velocity components in km/s: How fast the entire star system is changing its first, second, and third spatial coordinates, in kilometers per second; i.e., how fast the stellar system is moving, and in what direction, relative to our own sun. Since it takes 9 455 000 million kilometers to span one light-year, a star with a velocity vector of (-1, 0, 0) would take 9 455 000 million seconds (about 300 000 years) to change its spatial coordinates from [5.5, 3.8, -2.3] to [4.5, 3.8, -2.3]. *By definition, the sun's velocity vector is (0, 0, 0). Note that the sun is in motion relative to the "local standard of rest" within our own galaxy. *To get a star's galactic-relative velocity, you have to add the sun's local-standard-of-rest-relative velocity of (10.4, 14.8, 7.3) to what's listed here for that star. *This is usually only important if you want to guess at how a given star is orbiting the center of the galaxy, which is not a subject for this text. *Note also that the velocity vector will be no more accurate than the distance measurement to the star. /quote Regardless, with a closure rate of 7.6 k/sec (closest known number I know; July 2009), and a distance of 8.5 ly, a fly-by won't happen for about 1.24 trillion years. *Of course both stars, and the Earth, *will be toast by then. Note: Radial velocity is not a heading. *It is the apparent line of sight velocity of an object. *That's why I want you to LOOK at the other coordinate numbers and try to figure some things out from there. Are you still suggesting that the Newtonian law of gravity doesn't apply to stars? If so, why are merging or even passing nearby galaxies morphing one another, and from such great distances of 2r or even twice their diameter (4r)? I simply want to run this local stellar relationship in a good simulator, and that's still pretty much what I want to see in a full 3D interactive format. I believe our elliptical trek is that of a 10:1 or tighter elliptical. According to this most recent data, Sirius is going to become nearby within 275,000 years at -9.4 km/s. However, our radial velocity that has us closing in on Sirius seems to be speeding up, as though we’ve turned that elliptical corner and we’re headed into the near straightaway. As of just a few years ago it was reported as –7.6, then became updated as -9.1 and now it’s –9.4 km/sec. http://www.stellar-database.com/Scri...tar.exe?ID=600 When will this radial velocity reach -100 km/sec? Btw, your funny math of "a fly-by won't happen for about 1.24 trillion years" is every bit as stupendous as perhaps God intended. ~ BG |
#107
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
"BradGuth" wrote in message ... Btw, your funny math of "a fly-by won't happen for about 1.24 trillion years" is every bit as stupendous as perhaps God intended. Bwahahaha, you are such a clown. That number is speculative since the orbital mechanics will likely change by the time such an event might occur, and I left out the fact that the "fly by" would not be close, but rather a possible intercept of two common axis points. That's why I told you to look at the coordinates involved. You obviously don't follow things that well. You always fall for the key things, traps, I lay for you. The first was closure rate, the second was the "fly by" number. You latched onto the first and couldn't figure out how the second factored in. You still don't get it. You see radial velocity and think that it is the direction, and speed, that the two systems are approaching each other. Let me posit some straight information: Sirius and the Sun do not orbit each other. Sirius is not headed in a straight line toward the Sun. It has a “proper motion” component in a direction perpendicular to our line of sight. Its current radial velocity in the line of sight of -7.6 km/sec will moderate over time. Sirius is currently 8.6 light-years distant. According to my calculation Sirius will reach a minimum distance of 7.8 light-years around the year AD 60000. If I were you I'd worry more about the Gliese 710 star system. There, that is the straight dope, and without any toying, take it as you will. Oh, and you might be able to toy around with this: http://members.nova.org/~sol/chview/index.html I cannot say what MAY be done with the program, but you might have fun. |
#108
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
On Nov 15, 10:35*am, "Nightcrawler" wrote:
"BradGuth" wrote in ... Btw, your funny math of "a fly-by won't happen for about 1.24 trillion years" is every bit as stupendous as perhaps God intended. Bwahahaha, you are such a clown. *That number is speculative since the orbital mechanics will likely change by the time such an event might occur, and I left out the fact that the "fly by" would not be close, but rather a possible intercept of two common axis points. Yes my good man of brown-nosed clown status, it's called an elliptical trek that's continually changing and for the moment only getting faster and faster as we close that gap and start to round into the corner, as we either orbit Sirius or that of our mutual barycenter. That's why I told you to look at the coordinates involved. You obviously don't follow things that well. *You always fall for the key things, traps, I lay for you. *The first was closure rate, the second was the "fly by" number. *You latched onto the first and couldn't figure out how the second factored in. You still don't get it. *You see radial velocity and think that it is the direction, and speed, that the two systems are approaching each other. *Let me posit some straight information: You also still don't get it. I want to see this running in a fully interactive 3D animated simulation, along with all the bells and whistles to that variables can be applied or revised. Sirius and the Sun do not orbit each other. *Sirius is not headed in a straight line toward the Sun. That's true because, we're the ones moving along with our sun that's headed back towards Sirius that used to be worth 12.5 Ms (not to mention the original molecular cloud of 1.25e7 Ms). *It has a “proper motion” component in a direction perpendicular to our line of sight. *Its current radial velocity in the line of sight of -7.6 km/sec will moderate over time. Sirius is currently 8.6 light-years distant. *According to my calculation Sirius will reach a minimum distance of 7.8 light-years around the year AD 60000. *If I were you I'd worry more about the Gliese 710 star system. I say it could be closer to one LY, because as we all know, nothing runs in any straight line (not even photons), and otherwise everything is in an elliptical or distorted version of that orbit path around something. There, that is the straight dope, and without any toying, take it as you will. Your purely subjective interpretation is noted, as representing absolutely nothing new, revised or ever at risk. In other words, you are perfectly failsafe mainstream status quo because you wouldn't dare think for yourself, much less outside the box. Oh, and you might be able to toy around with this: http://members.nova.org/~sol/chview/index.html I cannot say what MAY be done with the program, but you might have fun. I realize it means everything to yourself, but having fun isn't what I'm looking for, but thanks anyway. btws, Are you saying that Sirius(B) created no Oort cloud? Are you saying that when Sirius(B) went nova, that our solar system and the environment of Earth was entirely unaffected? ~ BG |
#109
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
"BradGuth" wrote in message ... Yes my good man of brown-nosed clown status, it's called an elliptical trek that's continually changing and for the moment only getting faster and faster as we close that gap and start to round into the corner, as we either orbit Sirius or that of our mutual barycenter. The don't orbit each other. That being said, the rest of your points are crap, and will not be addressed. crap snipped I realize it means everything to yourself, but having fun isn't what I'm looking for, but thanks anyway. Gee, a little creativity might make it work, but applying science is not your strong point, is it? btws, Are you saying that Sirius(B) created no Oort cloud? I made zero reference to "Oort cloud". Sol resides in one. The origins of this Oort cloud are probably of the stellar remnants left behind from the super nova that Sol formed in. Are you saying that when Sirius(B) went nova, that our solar system and the environment of Earth was entirely unaffected? There might have been some influence. Nothing in the geological record indicates anything of note. What do you make of the Z axis of Sirius? |
#110
|
|||
|
|||
Sirius and us, Newtonian inseparable / FAS & Brad Guth
On Nov 15, 11:52*am, "Nightcrawler" wrote:
"BradGuth" wrote in ... Yes my good man of brown-nosed clown status, it's called an elliptical trek that's continually changing and for the moment only getting faster and faster as we close that gap and start to round into the corner, as we either orbit Sirius or that of our mutual barycenter. The don't orbit each other. *That being said, the rest of your points are crap, and will not be addressed. Are you suggesting that our sun was never in the past 300+ MBP attracted towards the Sirius star system? (because oddly we seem to be going that way, again) crap snipped I realize it means everything to yourself, but having fun isn't what I'm looking for, but thanks anyway. Gee, a little creativity might make it work, but applying science is not your strong point, is it? That's odd, because I've only mentioned those pesky laws of physics and best available science that obviously takes a little deductive interpreting here and there, whereas with you it seems nothing matters if it revises anything. I take it you worked for GW Bush and company. btws, *Are you saying that Sirius(B) created no Oort cloud? I made zero reference to "Oort cloud". *Sol resides in one. *The origins of this Oort cloud are probably of the stellar remnants left behind from the super nova that Sol formed in. How very correct, and those Sirius Oort clouds are exactly or best swag located where? Sirius B did its nearby nova thing at roughly 6 Ms, and perhaps not even as long ago or as far away as published in your mainstream bible that can't ever be revised. Are you saying that when Sirius(B) went nova, that our solar system and the environment of Earth was entirely unaffected? There might have been some influence. *Nothing in the geological record indicates anything of note. Much of the "geological record" had been reset as of the last ice-age, not to mention after having been impacted by our Selene/moon, or do you have some other notions as to how that absolutely enormous lunar south pole crater materialized?. btw, what would happen to the relatively thin crust of Earth if merely a near miss from a 7.5e22 kg rock at 2r took place? (at 1 km/s I got a land/crust tidal morph estimate of roughly 128 meters) What do you make of the Z axis of Sirius? The Z axis is relative to those elliptical XY components, all of which are on the move. However, what's really important is what the XYZ of Sol is doing. Unlike yourself, I still sort of believe in the weak force of gravity (6.7e-11 N), even though other forces are so much stronger. ~ BG |
Thread Tools | |
Display Modes | |
|
|
Similar Threads | ||||
Thread | Thread Starter | Forum | Replies | Last Post |
Brad Guth is...... | OM | History | 0 | December 26th 03 11:34 PM |