Calculating the propagation delay of coaxial cable



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Your source for quality GNSS Networking Solutions and Design Services! Page 1 of 5 Calculating the propagation delay of coaxial cable The delay of a cable or velocity factor is determined by the dielectric constant of the cable. The velocity factor is the speed at which an RF signal travels through a material compared to the speed the same signal travels through a vacuum. The velocity of propagation is inversely proportional to the dielectric constant. Lowering the constant increases the velocity. Generally, the higher the velocity factor, the lower the loss through a coaxial cable. Said another way, Velocity of Propagation (VP) or velocity factor (VF) is a parameter that characterizes the speed at which an electrical signal (e.g. radio) passes through a medium. Expressed as a number between 0 and 1 (or a percentage), it is the ratio of a signal's transmission speed to the speed of light in vacuum. Thus, transmission in a vacuum would have a VP of 1 (100%). VP equals the reciprocal of the square root of the dielectric constant of the material through which the signal passes. Here are a few definitions: c = speed of light in vacuum = speed RF travels So if the speed of light in a vacuum is 300,000,000 meters per second then it takes 1.016 ns to go 1ft. = %c (speed of light in a vacuum) = Velocity Factor or Velocity of Propagation Velocity = 100 εε ε = (ε 0 ε г ) Where: ε = Dielectric constant of the insulator. The dielectric constant is often quoted as the relative dielectric constant ε r referred to the dielectric constant of free space ε 0 = 1 ε = ε r ε 0. When the insulator is a mixture of different dielectric materials (e.g., polyethylene foam is a mixture of polyethylene and air), then the term effective dielectric constant ε eff is often used. Below is a table of common dielectric materials and their characteristics. Further down is another table of common coaxial types and their delays based on my calculations. Dielectric Material (ns/ft) Velocity Time Delay Propagation Propagation Time Delay Speed Velocity (formula needs single value) ns/ft of light in free space (% of c) (% of c) Worst case Solid Polyethylene (PE) 1.54 65.9 65.9 1.016E-09 Solid Teflon (ST) 1.46 69.4 69.4 Foam Polyethylene (FE) 1.27 80 80 1.2700E-09 Air Space Polyethylene (ASP) 1.15-1.21 84-88 84

Your source for quality GNSS Networking Solutions and Design Services! Page 2 of 5 Air Space Teflon (AST) 1.13-1.20 85-90 85 1.1953E-09 Foam Polystyrene (FS) 1.12 91 91 1.1165E-09 Type (/U) MIL-W- 17 Z0(Ω) Dielectric Capacitance O.D. Type (pf/ft) (in.) db/100 ft @400 MHz RG-4 50 PE 30.8 0.226 11.7 1,900 Braid RG-5 52.5 PE 28.5 0.332 7 3,000 Braid RG-5A/B 50 PE 30.8 0.328 6.5 3,000 Braid RG-6 /2-RG6 76 PE 20 0.332 7.4 2,700 Braid RG-6A /2-RG6 75 PE 20.6 0.332 6.5 2,700 Braid RG-8 52 PE 29.6 0.405 6 4,000 Braid RG-8A 52 PE 29.6 0.405 6 5,000 Braid RG-9 51 PE 30.2 0.42 5.9 4,000 Braid RG-9A 51 PE 30.2 0.42 6.1 4,000 Braid RG-9B 50 PE 30.8 0.42 6.1 5,000 Braid RG-10 52 PE 29.6 0.463 6 4,000 Braid RG-10A 52 PE 29.6 0.463 6 5,000 Braid RG-11 /6-RG11 75 PE 20.6 0.405 5.7 4,000 Braid RG-11A /6-RG11 75 PE 20.6 0.405 5.2 5,000 Braid RG-12 /6-RG12 75 PE 20.6 0.463 5.7 4,000 Braid RG-12A /6-RG12 75 PE 20.6 0.463 5.2 5,000 Braid RG-17A 52 PE 29.6 0.87 2.8 11,000 Braid RG-22 RG22 95 PE 16.3 0.405 10.5 1,000 Braid RG-22A/B RG22 95 PE 16.3 0.42 10.5 1,000 Braid /16- RG-23/A RG23 125 PE 12 0.65 5.2 3,000 Braid /16- RG-24/A RG24 125 PE 12 0.708 5.2 3,000 Braid /24- RG-34 RG34 71 PE 21.7 0.625 5.3 5,200 Braid /24- RG-34A RG34 75 PE 20.6 0.63 5.3 6,500 Braid RG-35 RG35 71 PE 21.7 0.928 2.8 10,000 Braid RG-35A/B RG35 75 PE 20.6 0.928 2.8 10,000 Braid RG-55B 53.5 PE 28.8 0.2 11.7 1,900 Braid RG-58 RG58 53.5 PE 28.8 0.195 11.7 1,900 Braid Vmax (rms) Shield Time Delay (ns/ft)

Your source for quality GNSS Networking Solutions and Design Services! Page 3 of 5 RG-58A RG58 52 PE 29.6 0.195 13.2 1,900 Braid RG-58B 53.5 PE 28.8 0.195 14 1,900 Braid RG-58C RG58 50 PE 30.8 0.195 14 1,900 Braid /29- RG-59/A RG59 73 PE 21.1 0.242 10.5 2,300 Braid /29- RG-59B RG59 75 PE 20.6 0.242 9 2,300 Braid /30- RG-62/A/B RG62 93 ASP 13.5 0.242 8 750 Braid /31- RG-63/A/B RG63 125 ASP 10 0.405 5.5 1,000 Braid /34-16 RG-65/A RG65 950 ASP 44 0.405 @5MHz 1,000 Braid /90- RG-71/A/B RG71 93 ASP 13.5 0.245 8 750 Braid /31- RG-79/A/B RG79 125 ASP 10 0.436 5.5 1,000 Braid RG-83 35 PE 44 0.405 9 2,000 Braid 0.7 RG-88 48 PE 50 0.515 @1MHz 10,000 Braid /45-2.8 RG-108/A RG108 78 PE 19.7 0.235 @10MHz 1,000 Braid RG-111/A RG111 95 PE 16.3 0.478 10.5 1,000 Braid /47- RG-114/A RG114 185 ASP 6.5 0.405 8.5 1,000 Braid /52- RG-119 RG119 50 ST 29.4 0.465 3.8 6,000 Braid /52- RG-120 RG120 50 ST 29.4 0.523 3.8 6,000 Braid /54- RG-122 RG122 50 PE 30.8 0.16 18 1,900 Braid /56- RG-130 RG130 95 PE 17 0.625 8.8 3,000 Braid /56- RG-131 RG131 95 PE 17 0.683 8.8 3,000 Braid /100- RG-133/A RG133 95 PE 16.3 0.405 5.7 4,000 Braid RG-141/A 50 ST 29.4 0.19 9 1,900 Braid /60- RG-142/A/B RG142 50 ST 29.4 0.195 9 1,900 Braid /62- RG-144 RG144 75 ST 19.5 0.41 4.5 5,000 Braid RG-164 RG164 75 ST 20.6 0.87 2.8 10,000 Braid /65- RG-165 RG165 50 ST 29.4 0.41 5 5,000 Braid /65- RG-166 RG166 50 ST 29.4 0.46 5 5,000 Braid RG-174 50 PE 30.5 0.11 14.7 Braid /67- RG-177 RG177 50 PE 30.8 0.895 2.8 11,000 Braid /93- RG-178/A/B RG178 50 ST 29.4 0.072 29 1,000 Braid /94- RG-179 RG179 70 ST 20.9 0.1 21 1,200 Braid /94- RG-179A/B RG179 75 ST 19.5 0.1 21 1,200 Braid

Your source for quality GNSS Networking Solutions and Design Services! Page 4 of 5 RG-180 RG-180A/B RG-210 RG-211/A RG-212 RG-213 RG-214 RG-215 RG-216 RG-217 RG-218 RG-219 RG-223 RG-302 RG-303 RG-304 RG-307/A RG-316 RG-391 RG-392 RG-393 RG-400 RG-401 RG-402 RG-403 RG-405 /95- RG180 93 ST 15.4 0.14 17 1,500 Braid /95- RG180 95 ST 15.4 0.14 17 1,500 Braid /97- RG210 93 ASP 13.5 0.242 8 750 Braid /72- RG211 50 ST 29.4 0.73 2.3 7,000 Braid /73- RG212 50 PE 29.4 0.332 6.5 3,000 Braid /74- RG213 50 PE 30.8 0.405 5.5 5,000 Braid /75- Dbl RG214 50 PE 30.8 0.425 5.5 5,000 Braid /74- RG215 50 PE 30.8 0.463 5.5 5,000 Braid /77- RG216 75 PE 20.6 0.425 5.2 5,000 Braid /78- RG217 50 PE 30.8 0.545 4.3 7,000 Braid /79- RG218 50 PE 30.8 0.87 2.5 11,000 Braid /79- RG219 50 PE 30.8 0.928 2.5 11,000 Braid /84- Dbl RG223 50 PE 19.8 0.211 8.8 1,900 Braid /110- RG302 75 ST 19.5 0.201 8 2,300 Braid /111- RG303 50 ST 29.4 0.17 9 1,900 Braid /112- RG304 50 ST 29.4 0.28 6 3,000 Braid /116- RG307 75 80 16.9 0.27 7.5 1,000 Braid /113- RG316 50 ST 29.4 0.102 20 1,200 Braid /126- RG391 72 23 0.405 15 5,000 Braid /126- RG392 72 23 0.475 15 5,000 Braid /127- RG393 50 ST 29.4 0.39 5 5,000 Braid /128- RG400 50 ST 29.4 0.195 9.6 1,900 Braid /129- RG401 50 ST 29.4 0.25 4.6 3,000 R /130- RG402 50 ST 29.4 0.141 7.2 2,500 R /131- RG403 50 ST 29.4 0.116 29 2,500 Braid /133- RG405 50 ST 29.4 0.086 13 1,500 R 9914 (Belden) 50 26 0.405 10 ------ (Disclaimer this is an amalgam of data from several sources I looked up on the web and massaged a little to say what I wanted. If you care if I copied your data then let me know will

Your source for quality GNSS Networking Solutions and Design Services! Page 5 of 5 be happy to take it down give you credit or whatever you like e.g. the coaxial chart came from RF cafe I added the delay calculations per foot column. )