Updated documentation

docs/manual/_sources/gettingstartedfast.rst.txt

@@ -16,7 +16,7 @@ over even extremely low-bandwidth Reticulum networks.
 
 These programs will let you get a feel for how Reticulum works. They have been designed
 to run well over networks based on LoRa or packet radio, but can also be used completely
-over local WiFi, wired ethernet, the Internet, or any combination.
+over local WiFi, wired Ethernet, the Internet, or any combination.
 
 As such, it is easy to get started experimenting, without having to set up any radio
 transceivers or infrastructure just to try it out. Launching the programs on separate
@@ -91,7 +91,7 @@ or use the interactive ``rnsconfig`` utility.
 
 When Reticulum is started for the first time, it will create a default
 configuration file, with one active interface. This default interface uses
-your existing ethernet and WiFi networks (if any), and only allows you to
+your existing Ethernet and WiFi networks (if any), and only allows you to
 communicate with other Reticulum peers within your local broadcast domains.
 
 To communicate further, you will have to add one or more interfaces. The default
@@ -106,7 +106,7 @@ Once Reticulum knows which interfaces it should use, it will automatically
 discover topography and configure transport of data to any destinations it
 knows about.
 
-In situations where you already have an established WiFi or ethernet network, and
+In situations where you already have an established WiFi or Ethernet network, and
 many devices that want to utilise the same external Reticulum network paths (for example over
 LoRa), it will often be sufficient to let one system act as a Reticulum gateway, by
 adding any external interfaces to the configuration of this system, and then enabling transport on it. Any
@@ -131,7 +131,7 @@ TCP connections reveal the IP address of both your instance and the server to an
 inspect the connection. Someone could use this information to determine your location or identity. Adversaries 
 inspecting your packets may be able to record packet metadata like time of transmission and packet size.
 Even though Reticulum encrypts traffic, TCP does not, so an adversary may be able to use
-packet inspection to learn that a system is running Reticulum, and what other IP adresses connect to it.
+packet inspection to learn that a system is running Reticulum, and what other IP addresses connect to it.
 Hosting a publicly reachable instance over TCP also requires a publicly reachable IP address,
 which most Internet connections don't offer anymore.
 
@@ -145,9 +145,9 @@ will also relay other I2P user's encrypted packets, which will use extra
 bandwidth and compute power, but also makes timing attacks and other forms of 
 deep-packet-inspection much more difficult.
 
-I2P also allows users to host globally available Reticulum instances from non-public IPs and behind firewalls and NAT.
+I2P also allows users to host globally available Reticulum instances from non-public IP's and behind firewalls and NAT.
 
-In general it is recommended to use an I2P node if you want to host a publically accessible
+In general it is recommended to use an I2P node if you want to host a publicly accessible
 instance, while preserving anonymity. If you care more about performance, and a slightly
 easier setup, use TCP.
 

docs/manual/_sources/hardware.rst.txt

@@ -52,7 +52,7 @@ the discussion to RNodes using *LoRa* modulation in common ISM bands.
 **Avoid Confusion!** RNodes can use LoRa as a *physical-layer modulation*, but it
 does not use, and has nothing to do with the *LoRaWAN* protocol and standard, commonly
 used for centrally controlled IoT devices. RNodes use *raw LoRa modulation*, without
-any additional protocol overhead. All high-level protocol funcionality is handled
+any additional protocol overhead. All high-level protocol functionality is handled
 directly by Reticulum.
 
 .. _rnode-creating:
@@ -205,8 +205,8 @@ get started with producing RNodes.
 WiFi-based Hardware
 ===================
 
-It is possible to use all kinds of both short- and long-range Wifi-based hardware
+It is possible to use all kinds of both short- and long-range WiFi-based hardware
-with Reticulum. Any kind of hardware that fully supports bridged ethernet over the
+with Reticulum. Any kind of hardware that fully supports bridged Ethernet over the
 WiFi interface will work with the :ref:`AutoInterface<interfaces-auto>` in Reticulum.
 Most devices will behave like this by default, or allow it via configuration options.
 

docs/manual/_sources/interfaces.rst.txt

@@ -98,13 +98,13 @@ and persistent I2P address that your Reticulum instance can be reached
 at.
 
 To use the I2P interface, you must have an I2P router running
-on your system. The easiest way to acheive this is to download and
+on your system. The easiest way to achieve this is to download and
 install the `latest release <https://github.com/PurpleI2P/i2pd/releases/latest>`_
 of the ``i2pd`` package. For more details about I2P, see the
 `geti2p.net website <https://geti2p.net/en/about/intro>`_.
 
 When an I2P router is running on your system, you can simply add
-an I2P interface to reticulum:
+an I2P interface to Reticulum:
 
 .. code::
 
@@ -270,7 +270,7 @@ with all other peers on a local area network.
 
 *Please Note!* Using broadcast UDP traffic has performance implications,
 especially on WiFi. If your goal is simply to enable easy communication
-with all peers in your local ethernet broadcast domain, the
+with all peers in your local Ethernet broadcast domain, the
 :ref:`Auto Interface<interfaces-auto>` performs better, and is even
 easier to use.
 
@@ -404,7 +404,7 @@ directly over a wire-pair, or for using devices such as data radios and lasers.
 Pipe Interface
 ==============
 
-Using this interface, reticulum can use any program as an interface via `stdin` and
+Using this interface, Reticulum can use any program as an interface via `stdin` and
 `stdout`. This can be used to easily create virtual interfaces, or to interface with
 custom hardware or other systems.
 
@@ -421,7 +421,7 @@ custom hardware or other systems.
     respawn_delay = 5
 
 Reticulum will write all packets to `stdin` of the ``command`` option, and will
-continously read and scan its `stdout` for Reticulum packets. If ``EOF`` is reached,
+continuously read and scan its `stdout` for Reticulum packets. If ``EOF`` is reached,
 Reticulum will try to respawn the program after waiting for ``respawn_interval`` seconds.
 
 .. _interfaces-kiss:

docs/manual/_sources/networks.rst.txt

@@ -9,7 +9,7 @@ Reticulum, which can often be easier than using traditional stacks, since you
 don't have to worry about coordinating addresses, subnets and routing for an
 entire network that you might not know how will evolve in the future. With
 Reticulum, you can simply add more segments to your network when it becomes
-necesarry, and Reticulum will handle the convergence of the entire network
+necessary, and Reticulum will handle the convergence of the entire network
 automatically.
 
 Concepts & Overview
@@ -18,13 +18,13 @@ Concepts & Overview
 There are important points that need to be kept in mind when building networks
 with Reticulum:
 
- * | In a Reticulum network, any node can autonomously generate as many adresses
+ * | In a Reticulum network, any node can autonomously generate as many addresses
      (called *destinations* in Reticulum terminology) as it needs, which become
      globally reachable to the rest of the network. There is no central point of
-     control over the adress space.
+     control over the address space.
 
  * | Reticulum was designed to handle both very small, and very large networks.
-     While the adress space can support billions of endpoints, Reticulum is
+     While the address space can support billions of endpoints, Reticulum is
      also very useful when just a few devices needs to communicate.
 
  * | Low-bandwidth networks, like LoRa and packet radio, can interoperate and
@@ -113,8 +113,8 @@ WiFi based radios for interconnecting the sites.
 
 At each site, a Raspberry Pi is installed to function as a gateway. A LoRa radio
 is connected to the Pi with a USB cable, and the WiFi radio is connected to the
-ethernet port of the Pi. At site B, two WiFi radios are needed to be able to reach
+Ethernet port of the Pi. At site B, two WiFi radios are needed to be able to reach
-both site A and site C, so an extra ethernet adapter is connected to the Pi in
+both site A and site C, so an extra Ethernet adapter is connected to the Pi in
 this location.
 
 Once the hardware has been installed, Reticulum is installed on all the Pis, and at

docs/manual/_sources/support.rst.txt

@@ -32,7 +32,7 @@ Provide Feedback
 ================
 All feedback on the usage, functioning and potential dysfunctioning of any and
 all components of the system is very valuable to the continued development and
-improvement of Reticulum. Absolutely no automated analytics, telemetly, error
+improvement of Reticulum. Absolutely no automated analytics, telemetry, error
 reporting or statistics is collected and reported by Reticulum under any
 circumstances, so we rely on old-fashioned human feedback.
 

docs/manual/_sources/understanding.rst.txt

@@ -70,7 +70,7 @@ guide the design of Reticulum:
 * **Hardware layer agnosticism**
     Reticulum must be fully hardware agnostic, and shall be useable over a wide range of
     physical networking layers, such as data radios, serial lines, modems, handheld transceivers,
-    wired ethernet, wifi, or anything else that can carry a digital data stream. Hardware made for
+    wired Ethernet, WiFi, or anything else that can carry a digital data stream. Hardware made for
     dedicated Reticulum use shall be as cheap as possible and use off-the-shelf components, so
     it can be easily modified and replicated by anyone interested in doing so.
 * **Very low bandwidth requirements**
@@ -109,7 +109,7 @@ Introduction & Basic Functionality
 
 Reticulum is a networking stack suited for high-latency, low-bandwidth links. Reticulum is at it’s
 core a *message oriented* system. It is suited for both local point-to-point or point-to-multipoint
-scenarios where alle nodes are within range of each other, as well as scenarios where packets need
+scenarios where all nodes are within range of each other, as well as scenarios where packets need
 to be transported over multiple hops in a complex network to reach the recipient.
 
 Reticulum does away with the idea of addresses and ports known from IP, TCP and UDP. Instead
@@ -121,14 +121,14 @@ All destinations in Reticulum are _represented_ as a 16 byte hash. This hash is
 SHA-256 hash of identifying characteristics of the destination. To users, the destination addresses
 will be displayed as 16 hexadecimal bytes, like this example: ``<13425ec15b621c1d928589718000d814>``.
 
-The truncation size of 16 bytes (128 bits) for destinations has been choosen as a reasonable tradeoff
+The truncation size of 16 bytes (128 bits) for destinations has been chosen as a reasonable trade-off
 between address space
-and packet overhead. The address space accomodated by this size can support many billions of
+and packet overhead. The address space accommodated by this size can support many billions of
 simultaneously active devices on the same network, while keeping packet overhead low, which is
 essential on low-bandwidth networks. In the very unlikely case that this address space nears
 congestion, a one-line code change can upgrade the Reticulum address space all the way up to 256
 bits, ensuring the Reticulum address space could potentially support galactic-scale networks.
-This is obviusly complete and ridiculous over-allocation, and as such, the current 128 bits should
+This is obviously complete and ridiculous over-allocation, and as such, the current 128 bits should
 be sufficient, even far into the future.
 
 By default Reticulum encrypts all data using elliptic curve cryptography. Any packet sent to a
@@ -163,7 +163,7 @@ destinations. Reticulum uses three different basic destination types, and one sp
     A *plain* destination type is unencrypted, and suited for traffic that should be broadcast to a
     number of users, or should be readable by anyone. Traffic to a *plain* destination is not encrypted.
     Generally, *plain* destinations can be used for broadcast information intended to be public.
-    Plain destinations are only reachable directly, and packets adressed to plain destinations are
+    Plain destinations are only reachable directly, and packets addressed to plain destinations are
     never transported over multiple hops in the network. To be transportable over multiple hops in Reticulum, information
     *must* be encrypted, since Reticulum uses the per-packet encryption to verify routing paths and
     keep them alive.
@@ -219,10 +219,10 @@ packet.
 
 In actual use of *single* destination naming, it is advisable not to use any uniquely identifying
 features in aspect naming. Aspect names should be general terms describing what kind of destination
-is represented. The uniquely identifying aspect is always acheived by the appending the public key,
+is represented. The uniquely identifying aspect is always achieved by the appending the public key,
-which expands the destination into a uniquely identifyable one. Reticulum does this automatically.
+which expands the destination into a uniquely identifiable one. Reticulum does this automatically.
 
-Any destination on a Reticulum network can be addressed and reached simply by knowning its
+Any destination on a Reticulum network can be addressed and reached simply by knowing its
 destination hash (and public key, but if the public key is not known, it can be requested from the
 network simply by knowing the destination hash). The use of app names and aspects makes it easy to
 structure Reticulum programs and makes it possible to filter what information and data your program
@@ -349,7 +349,7 @@ Node Types
 ----------
 
 Currently, Reticulum distinguishes between two types of network nodes. All nodes on a Reticulum network
-are *Reticulum Instances*, and some are alo *Transport Nodes*. If a system running Reticulum is fixed in
+are *Reticulum Instances*, and some are also *Transport Nodes*. If a system running Reticulum is fixed in
 one place, and is intended to be kept available most of the time, it is a good contender to be a *Transport Node*.
 
 Any Reticulum Instance can become a Transport Node by enabling it in the configuration.
@@ -485,13 +485,18 @@ For exchanges of larger amounts of data, or when longer sessions of bidirectiona
     the destination using a Reticulum Identity. This authentication is happening inside the encrypted
     link, and is only revealed to the verified destination, and no intermediaries.
 
-In a moment, we will discuss the details of how this methodology is implemented, but let’s first
+In a moment, we will discuss the details of how this methodology is
-recap what purposes this methodology serves. We first ensure that the node answering our request
+implemented, but let’s first recap what purposes this methodology serves. We
-is actually the one we want to communicate with, and not a malicious actor pretending to be so.
+first ensure that the node answering our request is actually the one we want to
-At the same time we establish an efficient encrypted channel. The setup of this is relatively cheap in
+communicate with, and not a malicious actor pretending to be so.  At the same
-terms of bandwidth, so it can be used just for a short exchange, and then recreated as needed, which will
+time we establish an efficient encrypted channel. The setup of this is
-also rotate encryption keys. The link can also be kept alive for longer periods of time, if this is
+relatively cheap in terms of bandwidth, so it can be used just for a short
-more suitable to the application. The procedure also inserts the *link id* , a hash calculated from the link request packet, into the memory of forwarding nodes, which means that the communicating nodes can thereafter reach each other simply by referring to this *link id*.
+exchange, and then recreated as needed, which will also rotate encryption keys.
+The link can also be kept alive for longer periods of time, if this is more
+suitable to the application. The procedure also inserts the *link id* , a hash
+calculated from the link request packet, into the memory of forwarding nodes,
+which means that the communicating nodes can thereafter reach each other simply
+by referring to this *link id*.
 
 The combined bandwidth cost of setting up a link is 3 packets totalling 265 bytes (more info in the
 :ref:`Binary Packet Format<understanding-packetformat>` section). The amount of bandwidth used on keeping
@@ -544,7 +549,7 @@ an arbitrary number of hops, where information will be exchanged between two nod
 * | By verifying this *link proof* packet, all nodes that originally transported the *link request*
     packet to the destination from the originator can now verify that the intended destination received
     the request and accepted it, and that the path they chose for forwarding the request was valid.
-    In sucessfully carrying out this verification, the transporting nodes marks the link as active.
+    In successfully carrying out this verification, the transporting nodes marks the link as active.
     An abstract bi-directional communication channel has now been established along a path in the network.
 
 * | When the source receives the *proof* , it will know unequivocally that a verified path has been

docs/manual/_sources/whatis.rst.txt

@@ -2,23 +2,38 @@
 What is Reticulum?
 ******************
 
-Reticulum is a cryptography-based networking stack for building wide-area networks with readily available hardware, that can continue to operate even with extremely low bandwidth and very high latency.
+Reticulum is a cryptography-based networking stack for building wide-area
+networks with readily available hardware, that can continue to operate even
+with extremely low bandwidth and very high latency.
 
-Reticulum allows you to build wide-area networks with off-the-shelf tools, and offers end-to-end encryption, autoconfiguring cryptographically backed multi-hop transport, efficient addressing, unforgeable packet acknowledgements and more.
+Reticulum allows you to build wide-area networks with off-the-shelf tools, and
+offers end-to-end encryption, autoconfiguring cryptographically backed
+multi-hop transport, efficient addressing, unforgeable packet acknowledgements
+and more.
 
-Reticulum is a complete networking stack, and does not need IP or higher layers, although it is easy to utilise IP (with TCP or UDP) as the underlying carrier for Reticulum. It is therefore trivial to tunnel Reticulum over the Internet or private IP networks. Reticulum is built directly on cryptographic principles, allowing resilience and stable functionality in open and trustless networks.
+Reticulum is a complete networking stack, and does not need IP or higher
+layers, although it is easy to utilise IP (with TCP or UDP) as the underlying
+carrier for Reticulum. It is therefore trivial to tunnel Reticulum over the
+Internet or private IP networks. Reticulum is built directly on cryptographic
+principles, allowing resilience and stable functionality in open and trustless
+networks.
 
-No kernel modules or drivers are required. Reticulum runs completely in userland, and can run on practically any system that runs Python 3. Reticulum runs well even on small single-board computers like the Pi Zero.
+No kernel modules or drivers are required. Reticulum runs completely in
+userland, and can run on practically any system that runs Python 3. Reticulum
+runs well even on small single-board computers like the Pi Zero.
 
 
 Current Status
 ==============
-Reticulum should currently be considered beta software. All core protocol features are implemented and functioning, but additions will probably occur as real-world use is explored. There will be bugs. The API and wire-format can be considered stable at the moment, but could change if absolutely warranted.
+Reticulum should currently be considered beta software. All core protocol
+features are implemented and functioning, but additions will probably occur as
+real-world use is explored. There will be bugs. The API and wire-format can be
+considered stable at the moment, but could change if absolutely warranted.
 
 
 What does Reticulum Offer?
 ==========================
-* Coordination-less globally unique adressing and identification
+* Coordination-less globally unique addressing and identification
 
 * Fully self-configuring multi-hop routing
 
@@ -26,7 +41,7 @@ What does Reticulum Offer?
 
 * Asymmetric encryption based on X25519, and Ed25519 signatures as a basis for all communication
 
-* Forward Secrecy by using ephemereal Elliptic Curve Diffie-Hellman keys on Curve25519
+* Forward Secrecy by using ephemeral Elliptic Curve Diffie-Hellman keys on Curve25519
 
 * Reticulum uses the `Fernet <https://github.com/fernet/spec/blob/master/Spec.md>`_ specification for on-the-wire / over-the-air encryption
 
@@ -77,7 +92,7 @@ Reticulum. It is possible to build it yourself, to transform a common LoRa
 development board into one, or it can be purchased as a complete transceiver.
 
 Reticulum can also be encapsulated over existing IP networks, so there's
-nothing stopping you from using it over wired ethernet or your local WiFi
+nothing stopping you from using it over wired Ethernet or your local WiFi
 network, where it'll work just as well. In fact, one of the strengths of
 Reticulum is how easily it allows you to connect different mediums into a
 self-configuring, resilient and encrypted mesh.
@@ -92,15 +107,15 @@ Interface Types and Devices
 ===========================
 Reticulum implements a range of generalised interface types that covers the communications hardware that Reticulum can run over. If your hardware is not supported, it's relatively simple to implement an interface class. Currently, Reticulum can use the following devices and communication mediums:
 
-* Any ethernet device
+* Any Ethernet device
 
   * WiFi devices
 
-  * Wired ethernet devices
+  * Wired Ethernet devices
 
   * Fibre-optic transceivers
 
-  * Data radios with ethernet ports
+  * Data radios with Ethernet ports
 
 * LoRa using `RNode <https://unsigned.io/rnode>`_
 
@@ -135,4 +150,9 @@ For a full list and more details, see the :ref:`Supported Interfaces<interfaces-
 
 Caveat Emptor
 ==============
-Reticulum is an experimental networking stack, and should be considered as such. While it has been built with cryptography best-practices very foremost in mind, it has not been externally security audited, and there could very well be privacy-breaking bugs. To be considered secure, Reticulum needs a thourough security review by independt cryptographers and security researchers. If you want to help out, or help sponsor an audit, please do get in touch.
+Reticulum is an experimental networking stack, and should be considered as
+such. While it has been built with cryptography best-practices very foremost in
+mind, it has not been externally security audited, and there could very well be
+privacy-breaking bugs. To be considered secure, Reticulum needs a thorough
+security review by independent cryptographers and security researchers. If you
+want to help out, or help sponsor an audit, please do get in touch.

docs/manual/gettingstartedfast.html

@@ -53,7 +53,7 @@ programs exist that allow basic communication and a range of other useful functi
 over even extremely low-bandwidth Reticulum networks.</p>
 <p>These programs will let you get a feel for how Reticulum works. They have been designed
 to run well over networks based on LoRa or packet radio, but can also be used completely
-over local WiFi, wired ethernet, the Internet, or any combination.</p>
+over local WiFi, wired Ethernet, the Internet, or any combination.</p>
 <p>As such, it is easy to get started experimenting, without having to set up any radio
 transceivers or infrastructure just to try it out. Launching the programs on separate
 devices connected to the same WiFi network is enough to get started, and physical
@@ -111,7 +111,7 @@ default is located at <code class="docutils literal notranslate"><span class="pr
 or use the interactive <code class="docutils literal notranslate"><span class="pre">rnsconfig</span></code> utility.</p>
 <p>When Reticulum is started for the first time, it will create a default
 configuration file, with one active interface. This default interface uses
-your existing ethernet and WiFi networks (if any), and only allows you to
+your existing Ethernet and WiFi networks (if any), and only allows you to
 communicate with other Reticulum peers within your local broadcast domains.</p>
 <p>To communicate further, you will have to add one or more interfaces. The default
 configuration includes a number of examples, ranging from using TCP over the
@@ -122,7 +122,7 @@ or other things you might be used to from other network types.</p>
 <p>Once Reticulum knows which interfaces it should use, it will automatically
 discover topography and configure transport of data to any destinations it
 knows about.</p>
-<p>In situations where you already have an established WiFi or ethernet network, and
+<p>In situations where you already have an established WiFi or Ethernet network, and
 many devices that want to utilise the same external Reticulum network paths (for example over
 LoRa), it will often be sufficient to let one system act as a Reticulum gateway, by
 adding any external interfaces to the configuration of this system, and then enabling transport on it. Any
@@ -144,7 +144,7 @@ however it also leaks more data about the server host.</p>
 inspect the connection. Someone could use this information to determine your location or identity. Adversaries
 inspecting your packets may be able to record packet metadata like time of transmission and packet size.
 Even though Reticulum encrypts traffic, TCP does not, so an adversary may be able to use
-packet inspection to learn that a system is running Reticulum, and what other IP adresses connect to it.
+packet inspection to learn that a system is running Reticulum, and what other IP addresses connect to it.
 Hosting a publicly reachable instance over TCP also requires a publicly reachable IP address,
 which most Internet connections don’t offer anymore.</p>
 <p>The <code class="docutils literal notranslate"><span class="pre">I2PInterface</span></code> routes messages through the <a class="reference external" href="https://geti2p.net/en/">Invisible Internet Protocol
@@ -155,8 +155,8 @@ hide both the sender and receiver Reticulum instance IP addresses. Running an I2
 will also relay other I2P user’s encrypted packets, which will use extra
 bandwidth and compute power, but also makes timing attacks and other forms of
 deep-packet-inspection much more difficult.</p>
-<p>I2P also allows users to host globally available Reticulum instances from non-public IPs and behind firewalls and NAT.</p>
+<p>I2P also allows users to host globally available Reticulum instances from non-public IP’s and behind firewalls and NAT.</p>
-<p>In general it is recommended to use an I2P node if you want to host a publically accessible
+<p>In general it is recommended to use an I2P node if you want to host a publicly accessible
 instance, while preserving anonymity. If you care more about performance, and a slightly
 easier setup, use TCP.</p>
 </div>

docs/manual/hardware.html

@@ -81,7 +81,7 @@ the discussion to RNodes using <em>LoRa</em> modulation in common ISM bands.</p>
 <p><strong>Avoid Confusion!</strong> RNodes can use LoRa as a <em>physical-layer modulation</em>, but it
 does not use, and has nothing to do with the <em>LoRaWAN</em> protocol and standard, commonly
 used for centrally controlled IoT devices. RNodes use <em>raw LoRa modulation</em>, without
-any additional protocol overhead. All high-level protocol funcionality is handled
+any additional protocol overhead. All high-level protocol functionality is handled
 directly by Reticulum.</p>
 <div class="section" id="creating-rnodes">
 <span id="rnode-creating"></span><h3>Creating RNodes<a class="headerlink" href="#creating-rnodes" title="Permalink to this headline">¶</a></h3>
@@ -204,8 +204,8 @@ get started with producing RNodes.</p>
 </div>
 <div class="section" id="wifi-based-hardware">
 <h2>WiFi-based Hardware<a class="headerlink" href="#wifi-based-hardware" title="Permalink to this headline">¶</a></h2>
-<p>It is possible to use all kinds of both short- and long-range Wifi-based hardware
+<p>It is possible to use all kinds of both short- and long-range WiFi-based hardware
-with Reticulum. Any kind of hardware that fully supports bridged ethernet over the
+with Reticulum. Any kind of hardware that fully supports bridged Ethernet over the
 WiFi interface will work with the <a class="reference internal" href="interfaces.html#interfaces-auto"><span class="std std-ref">AutoInterface</span></a> in Reticulum.
 Most devices will behave like this by default, or allow it via configuration options.</p>
 <p>This means that you can simply configure the physical links of the WiFi based devices,

docs/manual/interfaces.html

@@ -119,12 +119,12 @@ inbound traffic.</p>
 and persistent I2P address that your Reticulum instance can be reached
 at.</p>
 <p>To use the I2P interface, you must have an I2P router running
-on your system. The easiest way to acheive this is to download and
+on your system. The easiest way to achieve this is to download and
 install the <a class="reference external" href="https://github.com/PurpleI2P/i2pd/releases/latest">latest release</a>
 of the <code class="docutils literal notranslate"><span class="pre">i2pd</span></code> package. For more details about I2P, see the
 <a class="reference external" href="https://geti2p.net/en/about/intro">geti2p.net website</a>.</p>
 <p>When an I2P router is running on your system, you can simply add
-an I2P interface to reticulum:</p>
+an I2P interface to Reticulum:</p>
 <div class="highlight-default notranslate"><div class="highlight"><pre><span></span><span class="p">[[</span><span class="n">I2P</span><span class="p">]]</span>
   <span class="nb">type</span> <span class="o">=</span> <span class="n">I2PInterface</span>
   <span class="n">interface_enabled</span> <span class="o">=</span> <span class="n">yes</span>
@@ -260,7 +260,7 @@ over IP networks, so it can provide an easy way to enable connectivity
 with all other peers on a local area network.</p>
 <p><em>Please Note!</em> Using broadcast UDP traffic has performance implications,
 especially on WiFi. If your goal is simply to enable easy communication
-with all peers in your local ethernet broadcast domain, the
+with all peers in your local Ethernet broadcast domain, the
 <a class="reference internal" href="#interfaces-auto"><span class="std std-ref">Auto Interface</span></a> performs better, and is even
 easier to use.</p>
 <div class="highlight-default notranslate"><div class="highlight"><pre><span></span><span class="c1"># This example enables communication with other</span>
@@ -381,7 +381,7 @@ directly over a wire-pair, or for using devices such as data radios and lasers.<
 </div>
 <div class="section" id="pipe-interface">
 <span id="interfaces-pipe"></span><h2>Pipe Interface<a class="headerlink" href="#pipe-interface" title="Permalink to this headline">¶</a></h2>
-<p>Using this interface, reticulum can use any program as an interface via <cite>stdin</cite> and
+<p>Using this interface, Reticulum can use any program as an interface via <cite>stdin</cite> and
 <cite>stdout</cite>. This can be used to easily create virtual interfaces, or to interface with
 custom hardware or other systems.</p>
 <div class="highlight-default notranslate"><div class="highlight"><pre><span></span><span class="p">[[</span><span class="n">Pipe</span> <span class="n">Interface</span><span class="p">]]</span>
@@ -396,7 +396,7 @@ custom hardware or other systems.</p>
 </pre></div>
 </div>
 <p>Reticulum will write all packets to <cite>stdin</cite> of the <code class="docutils literal notranslate"><span class="pre">command</span></code> option, and will
-continously read and scan its <cite>stdout</cite> for Reticulum packets. If <code class="docutils literal notranslate"><span class="pre">EOF</span></code> is reached,
+continuously read and scan its <cite>stdout</cite> for Reticulum packets. If <code class="docutils literal notranslate"><span class="pre">EOF</span></code> is reached,
 Reticulum will try to respawn the program after waiting for <code class="docutils literal notranslate"><span class="pre">respawn_interval</span></code> seconds.</p>
 </div>
 <div class="section" id="kiss-interface">

docs/manual/networks.html

@@ -48,7 +48,7 @@ Reticulum, which can often be easier than using traditional stacks, since you
 don’t have to worry about coordinating addresses, subnets and routing for an
 entire network that you might not know how will evolve in the future. With
 Reticulum, you can simply add more segments to your network when it becomes
-necesarry, and Reticulum will handle the convergence of the entire network
+necessary, and Reticulum will handle the convergence of the entire network
 automatically.</p>
 <div class="section" id="concepts-overview">
 <h2>Concepts &amp; Overview<a class="headerlink" href="#concepts-overview" title="Permalink to this headline">¶</a></h2>
@@ -57,15 +57,15 @@ with Reticulum:</p>
 <blockquote>
 <div><ul>
 <li><div class="line-block">
-<div class="line">In a Reticulum network, any node can autonomously generate as many adresses
+<div class="line">In a Reticulum network, any node can autonomously generate as many addresses
 (called <em>destinations</em> in Reticulum terminology) as it needs, which become
 globally reachable to the rest of the network. There is no central point of
-control over the adress space.</div>
+control over the address space.</div>
 </div>
 </li>
 <li><div class="line-block">
 <div class="line">Reticulum was designed to handle both very small, and very large networks.
-While the adress space can support billions of endpoints, Reticulum is
+While the address space can support billions of endpoints, Reticulum is
 also very useful when just a few devices needs to communicate.</div>
 </div>
 </li>
@@ -163,8 +163,8 @@ need to use the Internet to interconnect the sites, but purchases four Point-to-
 WiFi based radios for interconnecting the sites.</p>
 <p>At each site, a Raspberry Pi is installed to function as a gateway. A LoRa radio
 is connected to the Pi with a USB cable, and the WiFi radio is connected to the
-ethernet port of the Pi. At site B, two WiFi radios are needed to be able to reach
+Ethernet port of the Pi. At site B, two WiFi radios are needed to be able to reach
-both site A and site C, so an extra ethernet adapter is connected to the Pi in
+both site A and site C, so an extra Ethernet adapter is connected to the Pi in
 this location.</p>
 <p>Once the hardware has been installed, Reticulum is installed on all the Pis, and at
 site A and C, one interface is added for the LoRa radio, as well as one for the WiFi

docs/manual/support.html

@@ -64,7 +64,7 @@ organisation? Make them a reality quickly by sponsoring their implementation.</p
 <h2>Provide Feedback<a class="headerlink" href="#provide-feedback" title="Permalink to this headline">¶</a></h2>
 <p>All feedback on the usage, functioning and potential dysfunctioning of any and
 all components of the system is very valuable to the continued development and
-improvement of Reticulum. Absolutely no automated analytics, telemetly, error
+improvement of Reticulum. Absolutely no automated analytics, telemetry, error
 reporting or statistics is collected and reported by Reticulum under any
 circumstances, so we rely on old-fashioned human feedback.</p>
 </div>

docs/manual/understanding.html

@@ -98,7 +98,7 @@ critical to ensuring the availability, security and transparency of the system.<
 <li><dl class="simple">
 <dt><strong>Hardware layer agnosticism</strong></dt><dd><p>Reticulum must be fully hardware agnostic, and shall be useable over a wide range of
 physical networking layers, such as data radios, serial lines, modems, handheld transceivers,
-wired ethernet, wifi, or anything else that can carry a digital data stream. Hardware made for
+wired Ethernet, WiFi, or anything else that can carry a digital data stream. Hardware made for
 dedicated Reticulum use shall be as cheap as possible and use off-the-shelf components, so
 it can be easily modified and replicated by anyone interested in doing so.</p>
 </dd>
@@ -159,7 +159,7 @@ needs to be purchased.</p>
 <span id="understanding-basicfunctionality"></span><h2>Introduction &amp; Basic Functionality<a class="headerlink" href="#introduction-basic-functionality" title="Permalink to this headline">¶</a></h2>
 <p>Reticulum is a networking stack suited for high-latency, low-bandwidth links. Reticulum is at it’s
 core a <em>message oriented</em> system. It is suited for both local point-to-point or point-to-multipoint
-scenarios where alle nodes are within range of each other, as well as scenarios where packets need
+scenarios where all nodes are within range of each other, as well as scenarios where packets need
 to be transported over multiple hops in a complex network to reach the recipient.</p>
 <p>Reticulum does away with the idea of addresses and ports known from IP, TCP and UDP. Instead
 Reticulum uses the singular concept of <em>destinations</em>. Any application using Reticulum as it’s
@@ -168,14 +168,14 @@ destinations it needs to send data to.</p>
 <p>All destinations in Reticulum are _represented_ as a 16 byte hash. This hash is derived from truncating a full
 SHA-256 hash of identifying characteristics of the destination. To users, the destination addresses
 will be displayed as 16 hexadecimal bytes, like this example: <code class="docutils literal notranslate"><span class="pre">&lt;13425ec15b621c1d928589718000d814&gt;</span></code>.</p>
-<p>The truncation size of 16 bytes (128 bits) for destinations has been choosen as a reasonable tradeoff
+<p>The truncation size of 16 bytes (128 bits) for destinations has been chosen as a reasonable trade-off
 between address space
-and packet overhead. The address space accomodated by this size can support many billions of
+and packet overhead. The address space accommodated by this size can support many billions of
 simultaneously active devices on the same network, while keeping packet overhead low, which is
 essential on low-bandwidth networks. In the very unlikely case that this address space nears
 congestion, a one-line code change can upgrade the Reticulum address space all the way up to 256
 bits, ensuring the Reticulum address space could potentially support galactic-scale networks.
-This is obviusly complete and ridiculous over-allocation, and as such, the current 128 bits should
+This is obviously complete and ridiculous over-allocation, and as such, the current 128 bits should
 be sufficient, even far into the future.</p>
 <p>By default Reticulum encrypts all data using elliptic curve cryptography. Any packet sent to a
 destination is encrypted with a derived ephemeral key. Reticulum can also set up an encrypted
@@ -205,7 +205,7 @@ only be readable by the creator of the destination, who holds the corresponding
 <dt><strong>Plain</strong></dt><dd><p>A <em>plain</em> destination type is unencrypted, and suited for traffic that should be broadcast to a
 number of users, or should be readable by anyone. Traffic to a <em>plain</em> destination is not encrypted.
 Generally, <em>plain</em> destinations can be used for broadcast information intended to be public.
-Plain destinations are only reachable directly, and packets adressed to plain destinations are
+Plain destinations are only reachable directly, and packets addressed to plain destinations are
 never transported over multiple hops in the network. To be transportable over multiple hops in Reticulum, information
 <em>must</em> be encrypted, since Reticulum uses the per-packet encryption to verify routing paths and
 keep them alive.</p>
@@ -261,9 +261,9 @@ addressable, because their public keys will differ.</p></li>
 </ul>
 <p>In actual use of <em>single</em> destination naming, it is advisable not to use any uniquely identifying
 features in aspect naming. Aspect names should be general terms describing what kind of destination
-is represented. The uniquely identifying aspect is always acheived by the appending the public key,
+is represented. The uniquely identifying aspect is always achieved by the appending the public key,
-which expands the destination into a uniquely identifyable one. Reticulum does this automatically.</p>
+which expands the destination into a uniquely identifiable one. Reticulum does this automatically.</p>
-<p>Any destination on a Reticulum network can be addressed and reached simply by knowning its
+<p>Any destination on a Reticulum network can be addressed and reached simply by knowing its
 destination hash (and public key, but if the public key is not known, it can be requested from the
 network simply by knowing the destination hash). The use of app names and aspects makes it easy to
 structure Reticulum programs and makes it possible to filter what information and data your program
@@ -373,7 +373,7 @@ know the most direct way to get a packet one hop closer to it’s destination.</
 <div class="section" id="node-types">
 <span id="understanding-nodetypes"></span><h3>Node Types<a class="headerlink" href="#node-types" title="Permalink to this headline">¶</a></h3>
 <p>Currently, Reticulum distinguishes between two types of network nodes. All nodes on a Reticulum network
-are <em>Reticulum Instances</em>, and some are alo <em>Transport Nodes</em>. If a system running Reticulum is fixed in
+are <em>Reticulum Instances</em>, and some are also <em>Transport Nodes</em>. If a system running Reticulum is fixed in
 one place, and is intended to be kept available most of the time, it is a good contender to be a <em>Transport Node</em>.</p>
 <p>Any Reticulum Instance can become a Transport Node by enabling it in the configuration.
 This distinction is made by the user configuring the node, and is used to determine what nodes on the
@@ -539,13 +539,18 @@ link, and is only revealed to the verified destination, and no intermediaries.</
 </div>
 </li>
 </ul>
-<p>In a moment, we will discuss the details of how this methodology is implemented, but let’s first
+<p>In a moment, we will discuss the details of how this methodology is
-recap what purposes this methodology serves. We first ensure that the node answering our request
+implemented, but let’s first recap what purposes this methodology serves. We
-is actually the one we want to communicate with, and not a malicious actor pretending to be so.
+first ensure that the node answering our request is actually the one we want to
-At the same time we establish an efficient encrypted channel. The setup of this is relatively cheap in
+communicate with, and not a malicious actor pretending to be so.  At the same
-terms of bandwidth, so it can be used just for a short exchange, and then recreated as needed, which will
+time we establish an efficient encrypted channel. The setup of this is
-also rotate encryption keys. The link can also be kept alive for longer periods of time, if this is
+relatively cheap in terms of bandwidth, so it can be used just for a short
-more suitable to the application. The procedure also inserts the <em>link id</em> , a hash calculated from the link request packet, into the memory of forwarding nodes, which means that the communicating nodes can thereafter reach each other simply by referring to this <em>link id</em>.</p>
+exchange, and then recreated as needed, which will also rotate encryption keys.
+The link can also be kept alive for longer periods of time, if this is more
+suitable to the application. The procedure also inserts the <em>link id</em> , a hash
+calculated from the link request packet, into the memory of forwarding nodes,
+which means that the communicating nodes can thereafter reach each other simply
+by referring to this <em>link id</em>.</p>
 <p>The combined bandwidth cost of setting up a link is 3 packets totalling 265 bytes (more info in the
 <a class="reference internal" href="#understanding-packetformat"><span class="std std-ref">Binary Packet Format</span></a> section). The amount of bandwidth used on keeping
 a link open is practically negligible, at 0.45 bits per second. Even on a slow 1200 bits per second packet
@@ -605,7 +610,7 @@ the addressed destination.</div>
 <div class="line">By verifying this <em>link proof</em> packet, all nodes that originally transported the <em>link request</em>
 packet to the destination from the originator can now verify that the intended destination received
 the request and accepted it, and that the path they chose for forwarding the request was valid.
-In sucessfully carrying out this verification, the transporting nodes marks the link as active.
+In successfully carrying out this verification, the transporting nodes marks the link as active.
 An abstract bi-directional communication channel has now been established along a path in the network.</div>
 </div>
 </li>

docs/manual/whatis.html

@@ -43,22 +43,37 @@
             
   <div class="section" id="what-is-reticulum">
 <h1>What is Reticulum?<a class="headerlink" href="#what-is-reticulum" title="Permalink to this headline">¶</a></h1>
-<p>Reticulum is a cryptography-based networking stack for building wide-area networks with readily available hardware, that can continue to operate even with extremely low bandwidth and very high latency.</p>
+<p>Reticulum is a cryptography-based networking stack for building wide-area
-<p>Reticulum allows you to build wide-area networks with off-the-shelf tools, and offers end-to-end encryption, autoconfiguring cryptographically backed multi-hop transport, efficient addressing, unforgeable packet acknowledgements and more.</p>
+networks with readily available hardware, that can continue to operate even
-<p>Reticulum is a complete networking stack, and does not need IP or higher layers, although it is easy to utilise IP (with TCP or UDP) as the underlying carrier for Reticulum. It is therefore trivial to tunnel Reticulum over the Internet or private IP networks. Reticulum is built directly on cryptographic principles, allowing resilience and stable functionality in open and trustless networks.</p>
+with extremely low bandwidth and very high latency.</p>
-<p>No kernel modules or drivers are required. Reticulum runs completely in userland, and can run on practically any system that runs Python 3. Reticulum runs well even on small single-board computers like the Pi Zero.</p>
+<p>Reticulum allows you to build wide-area networks with off-the-shelf tools, and
+offers end-to-end encryption, autoconfiguring cryptographically backed
+multi-hop transport, efficient addressing, unforgeable packet acknowledgements
+and more.</p>
+<p>Reticulum is a complete networking stack, and does not need IP or higher
+layers, although it is easy to utilise IP (with TCP or UDP) as the underlying
+carrier for Reticulum. It is therefore trivial to tunnel Reticulum over the
+Internet or private IP networks. Reticulum is built directly on cryptographic
+principles, allowing resilience and stable functionality in open and trustless
+networks.</p>
+<p>No kernel modules or drivers are required. Reticulum runs completely in
+userland, and can run on practically any system that runs Python 3. Reticulum
+runs well even on small single-board computers like the Pi Zero.</p>
 <div class="section" id="current-status">
 <h2>Current Status<a class="headerlink" href="#current-status" title="Permalink to this headline">¶</a></h2>
-<p>Reticulum should currently be considered beta software. All core protocol features are implemented and functioning, but additions will probably occur as real-world use is explored. There will be bugs. The API and wire-format can be considered stable at the moment, but could change if absolutely warranted.</p>
+<p>Reticulum should currently be considered beta software. All core protocol
+features are implemented and functioning, but additions will probably occur as
+real-world use is explored. There will be bugs. The API and wire-format can be
+considered stable at the moment, but could change if absolutely warranted.</p>
 </div>
 <div class="section" id="what-does-reticulum-offer">
 <h2>What does Reticulum Offer?<a class="headerlink" href="#what-does-reticulum-offer" title="Permalink to this headline">¶</a></h2>
 <ul class="simple">
-<li><p>Coordination-less globally unique adressing and identification</p></li>
+<li><p>Coordination-less globally unique addressing and identification</p></li>
 <li><p>Fully self-configuring multi-hop routing</p></li>
 <li><p>Complete initiator anonymity, communicate without revealing your identity</p></li>
 <li><p>Asymmetric encryption based on X25519, and Ed25519 signatures as a basis for all communication</p></li>
-<li><p>Forward Secrecy by using ephemereal Elliptic Curve Diffie-Hellman keys on Curve25519</p></li>
+<li><p>Forward Secrecy by using ephemeral Elliptic Curve Diffie-Hellman keys on Curve25519</p></li>
 <li><p>Reticulum uses the <a class="reference external" href="https://github.com/fernet/spec/blob/master/Spec.md">Fernet</a> specification for on-the-wire / over-the-air encryption</p>
 <ul>
 <li><p>All keys are ephemeral and derived from an ECDH key exchange on Curve25519</p></li>
@@ -99,7 +114,7 @@ has been designed as an example transceiver that is very suitable for
 Reticulum. It is possible to build it yourself, to transform a common LoRa
 development board into one, or it can be purchased as a complete transceiver.</p>
 <p>Reticulum can also be encapsulated over existing IP networks, so there’s
-nothing stopping you from using it over wired ethernet or your local WiFi
+nothing stopping you from using it over wired Ethernet or your local WiFi
 network, where it’ll work just as well. In fact, one of the strengths of
 Reticulum is how easily it allows you to connect different mediums into a
 self-configuring, resilient and encrypted mesh.</p>
@@ -113,12 +128,12 @@ network, and vice versa.</p>
 <h2>Interface Types and Devices<a class="headerlink" href="#interface-types-and-devices" title="Permalink to this headline">¶</a></h2>
 <p>Reticulum implements a range of generalised interface types that covers the communications hardware that Reticulum can run over. If your hardware is not supported, it’s relatively simple to implement an interface class. Currently, Reticulum can use the following devices and communication mediums:</p>
 <ul class="simple">
-<li><p>Any ethernet device</p>
+<li><p>Any Ethernet device</p>
 <ul>
 <li><p>WiFi devices</p></li>
-<li><p>Wired ethernet devices</p></li>
+<li><p>Wired Ethernet devices</p></li>
 <li><p>Fibre-optic transceivers</p></li>
-<li><p>Data radios with ethernet ports</p></li>
+<li><p>Data radios with Ethernet ports</p></li>
 </ul>
 </li>
 <li><p>LoRa using <a class="reference external" href="https://unsigned.io/rnode">RNode</a></p>
@@ -149,7 +164,12 @@ network, and vice versa.</p>
 </div>
 <div class="section" id="caveat-emptor">
 <h2>Caveat Emptor<a class="headerlink" href="#caveat-emptor" title="Permalink to this headline">¶</a></h2>
-<p>Reticulum is an experimental networking stack, and should be considered as such. While it has been built with cryptography best-practices very foremost in mind, it has not been externally security audited, and there could very well be privacy-breaking bugs. To be considered secure, Reticulum needs a thourough security review by independt cryptographers and security researchers. If you want to help out, or help sponsor an audit, please do get in touch.</p>
+<p>Reticulum is an experimental networking stack, and should be considered as
+such. While it has been built with cryptography best-practices very foremost in
+mind, it has not been externally security audited, and there could very well be
+privacy-breaking bugs. To be considered secure, Reticulum needs a thorough
+security review by independent cryptographers and security researchers. If you
+want to help out, or help sponsor an audit, please do get in touch.</p>
 </div>
 </div>