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In reply to the discussion: Parler's Internet host has its Internet addresses revoked [View all]csziggy
(34,139 posts)15. There is an internet protocol for using carrier pigeons to carry data!
Network Working Group D. Waitzman
Request for Comments: 1149 BBN STC
1 April 1990
A Standard for the Transmission of IP Datagrams on Avian Carriers
Status of this Memo
This memo describes an experimental method for the encapsulation of
IP datagrams in avian carriers. This specification is primarily
useful in Metropolitan Area Networks. This is an experimental, not
recommended standard. Distribution of this memo is unlimited.
Overview and Rational
Avian carriers can provide high delay, low throughput, and low
altitude service. The connection topology is limited to a single
point-to-point path for each carrier, used with standard carriers,
but many carriers can be used without significant interference with
each other, outside of early spring. This is because of the 3D ether
space available to the carriers, in contrast to the 1D ether used by
IEEE802.3. The carriers have an intrinsic collision avoidance
system, which increases availability. Unlike some network
technologies, such as packet radio, communication is not limited to
line-of-sight distance. Connection oriented service is available in
some cities, usually based upon a central hub topology.
Frame Format
The IP datagram is printed, on a small scroll of paper, in
hexadecimal, with each octet separated by whitestuff and blackstuff.
The scroll of paper is wrapped around one leg of the avian carrier.
A band of duct tape is used to secure the datagram's edges. The
bandwidth is limited to the leg length. The MTU is variable, and
paradoxically, generally increases with increased carrier age. A
typical MTU is 256 milligrams. Some datagram padding may be needed.
Upon receipt, the duct tape is removed and the paper copy of the
datagram is optically scanned into a electronically transmittable
form.
More: https://www.ietf.org/rfc/rfc1149.txt
Request for Comments: 1149 BBN STC
1 April 1990
A Standard for the Transmission of IP Datagrams on Avian Carriers
Status of this Memo
This memo describes an experimental method for the encapsulation of
IP datagrams in avian carriers. This specification is primarily
useful in Metropolitan Area Networks. This is an experimental, not
recommended standard. Distribution of this memo is unlimited.
Overview and Rational
Avian carriers can provide high delay, low throughput, and low
altitude service. The connection topology is limited to a single
point-to-point path for each carrier, used with standard carriers,
but many carriers can be used without significant interference with
each other, outside of early spring. This is because of the 3D ether
space available to the carriers, in contrast to the 1D ether used by
IEEE802.3. The carriers have an intrinsic collision avoidance
system, which increases availability. Unlike some network
technologies, such as packet radio, communication is not limited to
line-of-sight distance. Connection oriented service is available in
some cities, usually based upon a central hub topology.
Frame Format
The IP datagram is printed, on a small scroll of paper, in
hexadecimal, with each octet separated by whitestuff and blackstuff.
The scroll of paper is wrapped around one leg of the avian carrier.
A band of duct tape is used to secure the datagram's edges. The
bandwidth is limited to the leg length. The MTU is variable, and
paradoxically, generally increases with increased carrier age. A
typical MTU is 256 milligrams. Some datagram padding may be needed.
Upon receipt, the duct tape is removed and the paper copy of the
datagram is optically scanned into a electronically transmittable
form.
More: https://www.ietf.org/rfc/rfc1149.txt
And it has been tested:
Pigeon-powered Internet takes flight
One of the Internet's most obscure technologies has come to life: transmitting network information by carrier pigeon.
Stephen Shankland headshot
Stephen Shankland
Jan. 2, 2002 4:43 p.m. PT
One of the Internet's most obscure technologies came to life last weekend: transmitting network information by carrier pigeon.
In 1990, David Waitzman wrote RFC 1149, a tongue-in-cheek standard for using pigeons to transfer information using the Internet Protocol (IP). On Saturday, a group of Linux enthusiasts in Bergen, Norway, succeeded in exchanging some data using the Carrier Pigeon Internet Protocol (CPIP).
The group transmitted a "ping" command, among the most basic operations of the Internet, in which one computer sends a signal to another, which in turn signals that it is attached to the network. In the experiment, packets of network data were printed on paper then attached to pigeons' legs. Upon their arrival at the destination, the data was transferred to the computer using optical character recognition software.
The Bergen Linux Users Group had some assistance from the Vesta Brevdueforening carrier pigeon club and Alan Cox, a programmer at Linux leader Red Hat and top deputy of Linux founder Linus Torvalds.
The pigeon protocol didn't mean the fastest of networks, though. Taking an hour and 42 minutes to transfer a 64-byte packet of information makes the pigeon network about 5 trillion times slower than today's cutting-edge 40 gigabit-per-second optical fiber networks.
More: https://www.cnet.com/news/pigeon-powered-internet-takes-flight/
One of the Internet's most obscure technologies has come to life: transmitting network information by carrier pigeon.
Stephen Shankland headshot
Stephen Shankland
Jan. 2, 2002 4:43 p.m. PT
One of the Internet's most obscure technologies came to life last weekend: transmitting network information by carrier pigeon.
In 1990, David Waitzman wrote RFC 1149, a tongue-in-cheek standard for using pigeons to transfer information using the Internet Protocol (IP). On Saturday, a group of Linux enthusiasts in Bergen, Norway, succeeded in exchanging some data using the Carrier Pigeon Internet Protocol (CPIP).
The group transmitted a "ping" command, among the most basic operations of the Internet, in which one computer sends a signal to another, which in turn signals that it is attached to the network. In the experiment, packets of network data were printed on paper then attached to pigeons' legs. Upon their arrival at the destination, the data was transferred to the computer using optical character recognition software.
The Bergen Linux Users Group had some assistance from the Vesta Brevdueforening carrier pigeon club and Alan Cox, a programmer at Linux leader Red Hat and top deputy of Linux founder Linus Torvalds.
The pigeon protocol didn't mean the fastest of networks, though. Taking an hour and 42 minutes to transfer a 64-byte packet of information makes the pigeon network about 5 trillion times slower than today's cutting-edge 40 gigabit-per-second optical fiber networks.
More: https://www.cnet.com/news/pigeon-powered-internet-takes-flight/
Somewhere on the internet there are "blog" entries with pictures of the test. (Blog is in quotes because I don't think blogs were a thing back in 2002.
I think browsers would time out waiting for a page to load.
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