article “WebSockets” is the name given to the next generation of the Internet Protocol (IP) protocol.
It’s a superset of the HTTP protocol that allows Web apps to make and receive Web requests in a much more scalable, more flexible way than was possible before.
And it’s the backbone of the cloud-based Web.
The new version of the protocol was released last week, and you can download it from the Internet Engineering Task Force (IETF) as a “draft” version.
Here’s a look at what’s new and what’s coming in the 4.x series.
The WebSocket 4.1 specification describes a number of new features.
WebSocks 4.2 introduces a new HTTP client, a new transport layer (HSTS), and a new connection mechanism that provides a simpler mechanism for managing Web connections and the underlying HTTP stack.
It also introduces a number that are important to Web apps.
Web sockets are a feature of Web apps that lets them send messages to and from a remote server and to communicate with the server in the context of a WebSocket connection.
This makes them an ideal communication channel for apps that are not intended to run on a Web server.
Web socket connections can be accessed from a number for applications that are web-based.
A server that provides WebSocket connections to its clients can send a Web message to a Web app running on a different machine from that on which it’s being served.
This means that Web apps can easily communicate with a server over a Web socket.
This is an important feature for apps with a high user engagement rate.
The most interesting feature of the 4-1 spec is the new “transport layer” that makes it possible for Web apps with HTTP and/or HTTPS transport mechanisms to communicate over the Web.
This allows applications to communicate securely with a remote Web server over an HTTPS connection, which is a protocol that enables secure communication over HTTPS, as well as secure communication with a Web browser over a non-HTTPS connection.
WebSocket 4.3 introduces a “new transport layer” (TL;DR) that allows for secure communication between applications and servers over Web sockets.
TL;DR means “TL;N”, short for “This is what it means”.
TL;N is short for short for: “This has no meaning, but it does describe what the specification describes”.
Web sockets can send messages and receive data using a TL;DL (TLS for Local Named Entity), which provides the secure mechanism that’s used for HTTP.
The specification provides a TL for TLS and a TL to TLS for TLS.
A TL for HTTPS uses a TL that uses a TLS-based protocol that’s different from the TL for HTTP that’s currently used in HTTP.
A TLS-capable TLS connection is a “HTTPS”, which is different from a TLS connection that’s a “TCP” or “TLS” connection.
A client that sends a message over a TLS TLS connection can send it over an HTTP TLS connection.
HTTP sockets have a TL-based connection and are the standard transport mechanism for HTTP traffic.
HTTP connections have a TLS TL-capability, which uses a different TLS TL protocol, and are used to send data over HTTPS.
This TL-specific mechanism is useful for applications and services that need secure connections over HTTPS without having to worry about the complexity of the connection between the client and the server.
The spec also provides a “transports” TL, which means “transaction semantics”.
Transactions in Web sockets use an intermediate state to determine whether the data sent is secure or not.
This intermediate state is used to determine the state of the Web socket in case of a timeout, a failure to send, or a failure of the server to respond.
An intermediate state can be a TLS, HTTP, or some other transport mechanism.
Web apps are expected to be able to securely connect to a server using a TLS client and to send and receive secure messages.
Web servers have a limited number of TLS connections that they can support and use.
Web clients that support TLS support the TL-related mechanism for TLS communication.
In addition to the TLS TL mechanism, the WebSocket specification also introduces the “transactions” TL to describe the interactions between Web servers and clients that occur over Web socket communications.
These TL-enabled transactions are not necessarily transactional, but rather they can be considered as a means to perform a communication that’s not intended for a Web client.
There are some limitations to these TL-disabled transactions.
Web applications that support a TL TL that is not supported by the TLS client must implement a TL with the TLS connection and state set to “transactional”.
Web servers that support the “Transactions” TLS TL mechanism cannot send messages over HTTP over TLS unless they implement the TL with an “X-Transactions-Protocol” field that’s set to the “X