Wednesday, July 30, 2014

What is DNS?

The Domain Name System (DNS) provides visitors access to websites using domain names rather than IP addresses.

How does DNS work?

DNS translates human-speak (domain names) into computer-speak (IP addresses). Domain names are text-based names used to identify a website or Internet location. IP addresses are strings of numbers used by every computer connected to the Internet to identify a website's location and communicate with other computers and Web servers.
DNS translates the text-based website or location identifier a visitor enters to the number-based IP address of the associated website or Internet location. For example, coolexample.com is a domain name. 208.109.80.196 is an IP address associated with coolexample.com. DNS translates the domain name coolexample.com to the IP address 208.109.80.196.
Using DNS, we can enter easily-remembered text-based domain names and reach machine-readable Internet addresses.

How does DNS know which IP address to use?

Each domain name stores its DNS information in a zone file. Large collections of zone files for different domain names are stored on nameservers. Domain names point to nameservers to locate their zone files — to do this, a domain name must point to the nameserver holding its specific zone file.

How do I know which nameserver to use?

When you register a domain name with us, we automatically park the domain name and set its nameserver to our parking servers. If you activate the domain name or make changes to your website's hosting, your hosting company provides the nameserver names or IP addresses where your domain name's zone file is located. Use this information to update your domain name settings at your registrar. Once you've updated your nameservers or IP address, allow 24 to 48 hours for the new information to propagate through the Internet, and then visitors can reach your website using your domain name.

Tuesday, July 29, 2014

About Email

Stay connected with reliable email that says you mean business

Email is a critical part of your business. You need an address that says who you are and the flexibility to access it on the go. Microsoft Office 365 from Jootoor Domains gives you the power to manage your email anywhere, on any device.

Look like the pro you are

Show customers you mean business with memorable email addresses that look professional and promote your company. Create unlimited addresses – from yourname@ to sales@ or support@ – that are delivered directly to your primary inbox.

All your devices, all in sync

Your business moves fast. Make sure you always have your latest emails and appointments2 at your fingertips. Office 365 from Jootoor Domains keeps all your devices in sync and up to date, from your laptop to your smartphone, so you never miss a beat.

Stay in control wherever you are

Never miss a customer. Access your email, calendar and contacts anywhere, from any of your devices. Plus, create a shared online calendar so everyone on your team can stay in sync and on schedule.

Need help? Talk to a real person, 24/7

When you’re running a small business, you can’t afford downtime. Jootoor Domains helps keep your business running with award-winning support that’s available 24/7. Just pick up the phone to talk to one of our experts and get the answers you need to get back to business.


Web service

A Web service is a method of communication between two electronic devices over a network. It is a software function provided at a network address over the web with the service always on as in the concept of utility computing.
The W3C defines a Web service as:
a software system designed to support interoperable machine-to-machine interaction over a network. It has an interface described in a machine-processable format (specifically WSDL). Other systems interact with the Web service in a manner prescribed by its description using SOAP messages, typically conveyed using HTTP with an XML serialization in conjunction with other Web-related standards.
The W3C also states:
We can identify two major classes of Web services:
REST-compliant Web services, in which the primary purpose of the service is to manipulate XML representations of Web resources using a uniform set of stateless operations; and
Arbitrary Web services, in which the service may expose an arbitrary set of operations

Explanation

method of communication that allows two software systems to exchange this data over the internet. The software system that requests data is called a service requester, whereas the software system that would process the request and provide the data is called a service provider.
Different software might be built using different programming languages, and hence there is a need for a method of data exchange that doesn't depend upon a particular programming language. Most types of software can, however, interpret XML tags. Thus, web services can use XML files for data exchange.
Rules for communication between different systems need to be defined, such as:
  • How one system can request data from another system
  • Which specific parameters are needed in the data request
  • What would be the structure of the data produced. Normally, data is exchanged in XML files, and the structure of the XML file is validated against an .xsd file.
  • What error messages to display when a certain rule for communication is not observed, to make troubleshooting easier
All of these rules for communication are defined in a file called WSDL (Web Services Description Language), which has the extension .wsdl.
Web services architecture: the service provider sends a WSDL file to UDDI. The service requester contacts UDDI to find out who is the provider for the data it needs, and then it contacts the service provider using the SOAP protocol. The service provider validates the service request and sends structured data in an XML file, using the SOAP protocol. This XML file would be validated again by the service requester using an XSD file.
A directory called UDDI (Universal Description, Discovery and Integration) defines which software system should be contacted for which type of data. So when one software system needs one particular report/data, it would go to the UDDI and find out which other system it can contact for receiving that data. Once the software system finds out which other system it should contact, it would then contact that system using a special protocol called SOAP (Simple Object Access Protocol). The service provider system would first of all validate the data request by referring to the WSDL file, and then process the request and send the data under the SOAP protocol.

Web API

A web API is a development in web services where emphasis has been moving to simpler representational state transfer (REST) based communications. RESTful APIs do not require XML-based web service protocols (SOAP and WSDL) to support their interfaces.

Automated design methods

Automated tools can aid in the creation of a web service. For services using WSDL, it is possible to either automatically generate WSDL for existing classes (a bottom-up model) or to generate a class skeleton given existing WSDL (a top-down model).
  • A developer using a bottom-up model writes implementing classes first (in some programming language), and then uses a WSDL generating tool to expose methods from these classes as a web service. This is simpler to develop but may be harder to maintain if the original classes are subject to frequent change.
  • A developer using a top-down model writes the WSDL document first and then uses a code generating tool to produce the class skeleton, to be completed as necessary. This model is generally considered more difficult but can produce cleaner designs and is generally more resistant to change. As long as the message formats between sender and receiver do not change, changes in the sender and receiver themselves do not affect the web service. The technique is also referred to as contract first since the WSDL (or contract between sender and receiver) is the starting point.

Web services that use markup languages

There are a number of web services that use markup languages:
JSON-RPC
JSON-WSP
Web template
Web Services Description Language (WSDL) from the W3C
XML Interface for Network Services (XINS) provides a POX-style Web service specification format
Web Services Conversation Language (WSCL)
Web Services Flow Language (WSFL) (superseded by BPEL)
WS-MetadataExchange
Representational state transfer (REST) versus remote procedure call (RPC)
XML-RPC - XML - Remote Procedure Call

Criticisms

Critics of non-RESTful web services often complain that they are too complex and based upon large software vendors or integrators, rather than typical open source implementations.
There are also concerns about performance due to web services' use of XML as a message format and SOAP/HTTP in enveloping and transporting.

Regression Testing of Web service

Functional and non-functional web service testing is done with the help of WSDL parsing and regression testing is performed by identifying the changes made thereafter. Web service regression testing needs can be categorized in three different ways, namely, changes in WSDL, changes in code, and selective re-testing of web service operations. To capture the above, three intermediate forms of WSDL, namely, Difference WSDL (DWSDL), Unit WSDL (UWSDL), and Reduced WSDL (RWSDL), respectively can be used. These intermediate forms are then combined to form Combined WSDL (CWSDL) which is further used for regression testing of the web service. This will help in Automatic Web Service Change Management (AWSCM), by performing the selection of the relevant test cases to construct a reduced test suite from the old test suite.

Monday, July 28, 2014

Utility computing

Utility computing is a service provisioning model in which a service provider makes computing resources and infrastructure management available to the customer as needed, and charges them for specific usage rather than a flat rate. Like other types of on-demand computing (such as grid computing), the utility model seeks to maximize the efficient use of resources and/or minimize associated costs. is the packaging of computing resources, such as computation, storage and services, as a metered service. This model has the advantage of a low or no initial cost to acquire computer resources; instead, computational resources are essentially rented.
This repackaging of computing services became the foundation of the shift to "on demand" computing, software as a service and cloud computing models that further propagated the idea of computing, application and network as a service.
There was some initial skepticism about such a significant shift. However, the new model of computing caught on and eventually became mainstream.
IBM, HP and Microsoft were early leaders in the new field of Utility Computing with their business units and researchers working on the architecture, payment and development challenges of the new computing model. Google, Amazon and others started to take the lead in 2008, as they established their own utility services for computing, storage and applications.
Utility Computing can support grid computing which has the characteristic of very large computations or a sudden peaks in demand which are supported via a large number of computers.
"Utility computing" has usually envisioned some form of virtualization so that the amount of storage or computing power available is considerably larger than that of a single time-sharing computer. Multiple servers are used on the "back end" to make this possible. These might be a dedicated computer cluster specifically built for the purpose of being rented out, or even an under-utilized supercomputer. The technique of running a single calculation on multiple computers is known as distributed computing.
The term "grid computing" is often used to describe a particular form of distributed computing, where the supporting nodes are geographically distributed or cross administrative domains. To provide utility computing services, a company can "bundle" the resources of members of the public for sale, who might be paid with a portion of the revenue from clients.
One model, common among volunteer computing applications, is for a central server to dispense tasks to participating nodes, on the behest of approved end-users (in the commercial case, the paying customers). Another model, sometimes called the Virtual Organization (VO), is more decentralized, with organizations buying and selling computing resources as needed or as they go idle.
The definition of "utility computing" is sometimes extended to specialized tasks, such as web services.

Friday, July 25, 2014

DNS hosting service


DNS hosting service is a service that runs Domain Name System servers. Most, but not all, domain name registrars include DNS hosting service with registration. Free DNS hosting services also exist. Many third-party DNS hosting services provide Dynamic DNS.
DNS hosting service is optimal when the provider has multiple servers in various geographic locations that provide resilience and minimize latency for clients around the world. By operating DNS nodes closer to end users, DNS queries travel a much shorter distance, resulting in faster Web address resolution speed.
DNS can also be self-hosted by running DNS software on generic Internet hosting services.

Free DNS

A number of sites offer free DNS hosting, either for second level domains registered with registrars which do not offer free (or sufficiently flexible) DNS service, or as third level domains (selection.somedomain.com). These services generally also offer Dynamic DNS. Free DNS typically includes facilities to manage A, MX, CNAME, TXT and NS records of the domain zone. In many cases the free services can be upgraded with various premium services.
Free DNS service providers can also make money through sponsorship. The majority of modern free DNS services are sponsored by large providers of telecommunication services.

See also

Internet hosting service



An Internet hosting service is a service that runs Internet servers, allowing organizations and individuals to serve content to the Internet. There are various levels of service and various kinds of services offered.

A common kind of hosting is web hosting. Most hosting providers offer a combination of services; e-mail hosting, for example. DNS hosting service is usually bundled with domain name registration.

Generic, yet rather powerful, kinds of Internet hosting provide a server where the clients can run anything they want (including web servers and other servers) and have Internet connections with good upstream

Types

Full-featured hosting
Full-featured hosting services include:


  • Complex Managed Hosting, applies to both physical dedicated servers and virtual servers, with many companies choosing a hybrid (combination of physical and virtual) hosting solution. There are many similarities between standard and complex managed hosting but the key difference is the level of administrative and engineering support that the customer pays for – owing to both the increased size and complexity of the infrastructure deployment. The provider steps in to take over most of the management, including security, memory, storage and IT support. The service is primarily proactive in nature.
  • Dedicated hosting service, also called managed hosting service, where the hosting service provider owns and manages the machine, leasing full control to the client. Management of the server can include monitoring to ensure the server continues to work effectively, backup services, installation of security patches and various levels of technical support.
  • Virtual private server, in which virtualization technology is employed in order to allow multiple logical servers to run on a single physical server
  • Colocation facilities provide just the Internet connection, uninterruptible power and climate control, but let the client do his own system administration; the most expensive
  • Cloud hosting, which can also be termed time-share or on-demand hosting, in which the user only pays for the system time and space used, and capacity can be quickly scaled up or down as computing requirements change. bandwidth.

Bandwidth cost

Internet hosting services include the required Internet connection; they may charge a flat rate per month or charge per bandwidth used — a common payment plan is to sell a predetermined amount of bandwidth and charge for any 'overage' (Usage above the predetermined limit) the customer may incur on a per GB basis. The overage charge would be agreed upon at the start of the contract.

Patent dispute

Web hosting technology has been causing some controversy, as Web.com claims that it holds patent rights to some common hosting technologies, including the use of a web-based control panel to manage the hosting service, with its 19 patents. Hostopia, a large wholesale hosting provider, purchased a license to use that technology from web.com for 10% of Hostopia's retail revenues. In addition, Web.com sued go daddy as well for similar patent infringement.


Thursday, July 24, 2014

Email hosting service

An email hosting service is an Internet hosting service that operates email servers.
Email hosting services usually offer premium email at a cost as opposed to advertisement-supported free email or free webmail. Email hosting services thus differ from typical end-user email providers such as webmail sites. They cater mostly to demanding email users and Small and Mid Size (SME) businesses, while larger enterprises usually run their own email hosting service on their own equipment using software such as Microsoft Exchange or Postfix. Hosting providers can manage a user’s own domain name, including any email authentication scheme that the domain owner wishes to enforce in order to convey the meaning that using a specific domain name identifies and qualifies email senders.
Most email hosting providers offer advanced premium email solutions hosted on dedicated custom email platforms. The technology and offerings of different email hosting providers can therefore vary with different needs. Email offered by most webhosting companies is usually more basic standardized POP3 based email and webmail based on open source webmail applications like Horde, RoundCube or SquirrelMail. Almost all webhosting providers offer standard email hosting.
E-mail Webmaster Provider: www.go.jootoor.com

Webmail Services

Webmail (or web-based email) is any email client implemented as a web application accessed via a web browser. Examples of webmail software are Roundcube or SquirrelMail, examples of webmail providers include AOL Mail, Gmail, Outlook.com and Yahoo! Mail. Practically every webmail provider offers email access using a webmail client, and many of them also offer email access by a desktop email client using standard email protocols, while many internet service providers provide a webmail client as part of the email service included in their internet service package.
As with any web application, webmail's main advantage over the use of a desktop email client is the ability to send and receive email anywhere from a web browser. Its main disadvantage is the need to be connected to the internet while using it. There exist also other software tools to integrate parts of the webmail functionality into the OS (e.g. creating messages directly from third party applications via MAPI).

History

Early implementations

 In the early days of the web, in 1994 and 1995, several people were working on enabling email to be accessed via a web browser. In Europe, there were three implementations, Soren Vejrum's "WWW Mail", Luca Manunza's "WebMail", and Remy Wetzels' "WebMail", whereas in the United States, Matt Mankins wrote "Webex". Three of these early applications were perl scripts that included the full source code available for download. Remy Wetzels' version was a CGI program written in C on Unix.
Also in 1994, Bill Fitler, while at Lotus cc:Mail in Mountain View, California, began working on an implementation of web-based email as a CGI program written in C on Windows NT, and demonstrated it publicly at Lotusphere on January 24, 1995.
Soren Vejrum's "WWW Mail" was written when he was studying and working at the Copenhagen Business School in Denmark, and was released on February 28, 1995. Luca Manunza's "WebMail" was written while he was working at CRS4 in Sardinia, with the first source release on March 30, 1995. Remy Wetzels' "WebMail" was written while he was studying at the Eindhoven University of Technology in the Netherlands for the DSE and was released early January, 1995. In the United States, Matt Mankins, under the supervision of Dr. Burt Rosenberg at the University of Miami, released his "Webex" application source code in a post to comp.mail.misc on August 8, 1995, although it had been in use as the primary email application at the School of Architecture where Mankins worked for some months prior.
Meanwhile, Bill Fitler's webmail implementation was further developed as a commercial product which Lotus announced and released in the fall of 1995 as cc:Mail for the World Wide Web 1.0, thereby providing an alternative means of accessing a cc:Mail message store (the usual means being a cc:Mail desktop application that operated either via dialup or within the confines of a local area network).
Early commercialization of webmail was also achieved when "Webex"—with no relation to the web conferencing company—began to be sold by Mankins' company, DotShop, Inc., at the end of 1995. Within DotShop, "Webex" changed its name to "EMUmail", which would be sold to companies like UPS and Rackspace until its sale to Accurev in 2001. EMUmail was one of the first applications to feature a free version that included embedded advertising as well as a licensed version that did not. As Hotmail developed a foothold on the free email address market, EMUmail started MollyMail, a service to let one check their existing email from the web. After the Accurev acquisition, the EMUmail webmail line was killed in favor of the SMTP.com email delivery service which is still sold today.

Wednesday, July 23, 2014

What is an SSL Certificate

SSL Certificates are small data files that digitally bind a cryptographic key to an organisation’s details. When installed on a web server, it activates the padlock and the https protocol (over port 443) and allows secure connections from a web server to a browser. Typically, SSL is used to secure credit card transactions, data transfer and logins, and more recently is becoming the norm when securing browsing of social media sites. SSL Certificates bind together: 
  • A domain name, server name or hostname
  • An organisational identity (i.e. company name) and location 
An organisation needs to install the SSL Certificate onto its web server to initiate secure sessions with browsers. Depending on the type of SSL Certificate applied for, the organisation will need to go through differing levels of vetting. Once installed, it is possible to connect to the website over https://www.domain.com, as this tells the server to establish a secure connection with the browser. Once a secure connection is established, all web traffic between the web server and the web browser will be secure. Browsers tell visitors a website is SSL secure via several visible trust indicators:
Extended Validation (EV) SSL Certificates (such as Jootoor Domain ExtendedSSL):
SSL Green Bar
Standard SSL Certificates (such as GlobalSign DomainSSL and OrganizationSSL) display:
SSL Padlock
To view the details of an SSL Certificate, go to a secure site, click on the padlock and select “View Certificate”. All browsers are slightly different, but the certificate always contains the same information.
SSL Certificate Details
To view the actual contents of the certificate click the "Details" tab:
SSL Certificate general details
Click the "Certification Path" tab to see which Trusted Root Certificate has been used to issue the SSL Certificate:
SSL Certificate expanded details

Why is the Root Certificate important?

SSL Certificates need to be issued from a trusted Certification Authority's Root Certificate, and preferably by a 2048 bit Certificate that's widely distributed. The Root Certificate must be present on the end user's machine in order for the Certificate to be trusted. If it is not trusted the browser will present untrusted error messages to the end user. In the case of e-commerce, such error messages result in immediate lack of confidence in the website and organisations risk losing confidence and business from the majority of consumers.
Companies like Jootoor Domains are known as trusted Certification Authorities. This is because browser and operating system vendors such as Microsoft, Mozilla, Opera, Blackberry, Java, etc., trust that Jootoor Domains is a legitimate Certification Authority and that it can be relied on to issue trustworthy SSL Certificates. The more applications, devices and browsers the Certification Authority embeds its Root into, the better "recognition" the SSL Certificate can provide.
GlobalSign has, for over 15 years, been operating the GlobalSign Ready program for Root Certificate embedding. This program ensures its in-house engineers from America, Europe and Asia are in constant communication with the application, device and browser vendors to ensure the GlobalSign Root Certificate is present everywhere that may be used for SSL sessions.
Read more about Jootoor Domains Root Certificate compatibility and how it benefits your website security
SSL Certificate Details
 The Jootoor Domains Root Certificate is marked for a number of intended purposes. This makes it a very strong and flexible Root Certificate able to perform all Public Key Infrastructure (PKI) related activities:
  • Ensures the identity of a remote computer
  • Proves your identity to a remote computer
  • Ensures software came from software publisher
  • Protects software from alteration after publication
  • Protects e-mail messages
  • Allows data to be signed with the current time
  • Allows data on disk to be encrypted
  • Allows secure communication on the Internet
  • Permits all key usage policies
  • OCSP Signing
Jootoor Domain provides PKI applications, products and services for all the above security functions. Should your organisation have a specific PKI rollout or project, do not hesitate to contact us.

Dedicated Hosting IP

Buy Dedicated Hosting IP

A dedicated IP (Internet Protocol) is a unique Internet address dedicated exclusively to a single hosting account. Normally, several hosting accounts reside on a single server and share that server's IP address. Dedicated IP addresses are usually used for large SSL-encrypted secure websites and particularly large and/or traffic-heavy sites. Most shared hosting users have no particular need for a dedicated IP address.
However, a dedicated IP address for your hosting account enables you to:
  • View your website via its IP address.
  • Access your accounts by FTP or the Web when the domain name is otherwise inaccessible, such as during domain name propagation periods.
  • Ensure faster response during periods of high traffic load.
  • Set up SSL protection on your website.
NOTE: Our SSL certificates include a dedicated hosting IP, so you do not need to purchase a dedicated IP credit separately if you are adding a certificate to your site.

Dedicated hosting service India


dedicated hosting servicededicated server, or managed hosting service is a type of Internet hosting in which the client leases an entire server not shared with anyone else. This is more flexible than shared hosting, as organizations have full control over the server(s), including choice of operating systemhardware, etc. There is also another level of dedicated or managed hosting commonly referred to as complex managed hosting. Complex Managed Hosting applies to both physical dedicated servers, Hybrid server and virtual servers, with many companies choosing a hybrid (combination of physical and virtual) hosting solution. There are many similarities between standard and complex managed hosting but the key difference is the level of administrative and engineering support that the customer pays for – owing to both the increased size and complexity of the infrastructure deployment. The provider steps in to take over most of the management, including security, memory, storage and IT support. The service is primarily proactive in nature. Server administration can usually be provided by the hosting company as an add-on service. In some cases a dedicated server can offer less overhead and a larger return on investment. Dedicated servers are most often housed in data centers, similar to colocation facilities, providing redundant power sources and HVAC systems. In contrast to colocation, the server hardware is owned by the provider and in some cases they will provide support for your operating system or applications.
Using a dedicated hosting service offers the benefits of high performance, security, email stability, and control. Due to the relatively high price of dedicated hosting, it is mostly used by websites that receive a large volume of traffic.

Operating system support

Availability, price and employee familiarity often determines which operating systems are offered on dedicated servers. Variations of Linux and Unix (open sourceoperating systems) are often included at no charge to the customer. Commercial operating systems include Microsoft Windows Server, provided through a special program called Microsoft SPLA. Red Hat Enterprise is a commercial version of Linux offered to hosting providers on a monthly fee basis. The monthly fee provides OS updates through the Red Hat Network using an application called yum. Other operating systems are available from the open source community at no charge. These include CentOSFedora CoreDebian, and many other Linux distributions or BSD systems FreeBSDNetBSDOpenBSD.
Support for any of these operating systems typically depends on the level of management offered with a particular dedicated server plan. Operating system support may include updates to the core system in order to acquire the latest security fixes, patches, and system-wide vulnerability resolutions. Updates to core operating systems include kernel upgrades, service packs, application updates, and security patches that keep server secure and safe. Operating system updates and support relieves the burden of server management from the dedicated server owner.

Bandwidth and connectivity

Bandwidth refers to the data transfer rate or the amount of data that can be carried from one point to another in a given time period (usually a second) and is often represented in bits (of data) per second (bit/s). For example, visitors to your server, web site, or applications utilize bandwidth *Third – Total Transfer (measured in bytes transferred)
95th percentile method: line speed, billed on the 95th percentile, refers to the speed in which data flows from the server or device, measured every 5 minutes for the month, and dropping the top 5% of measurements that are highest, and basing the usage for the month on the next-highest measurement. This is similar to a median measurement, which can be thought of as a 50th percentile measurement (with 50% of measurements above, and 50% of measurements below), whereas this sets the cutoff at 95th percentile, with 5% of measurements above the value, and 95% of measurements below the value. This is also known as Burstable billing. Line speed is measured in bits per second (or kilobits per second, megabits per second or gigabits per second). Unmetered method: The second bandwidthmeasurement is unmetered service where providers cap or control the “top line” speed for a server. Top line speed in unmetered bandwidth is the total Mbit/s allocated to the server and configured on the switch level. For example, if you purchase 10 Mbit/s unmetered bandwidth, the top line speed would be 10 Mbit/s. 10 Mbit/s would result in the provider controlling the speed transfers take place while providing the ability for the dedicated server owner to not be charged with bandwidth overages. Unmetered bandwidth services usually incur an additional charge.
Total transfer method: Some providers will calculate the Total Transfer, which is the measurement of actual data leaving and arriving, measured in bytes. Although it is typically the sum of all traffic into and out of the server, some providers measure only outbound traffic (traffic from the server to the internet).
Bandwidth pooling: This is a key mechanism for hosting buyers to determine which provider is offering the right pricing mechanism of bandwidth pricing.[according to whom?] Most Dedicated Hosting providers bundle bandwidth pricing along with the monthly charge for the dedicated server. Let us illustrate this with the help of an example. An average $100 server from any of the common dedicated bandwidth providers would carry 2 TB of bandwidth. Suppose you purchased 10 servers then you would have the ability to consume 2 TB of bandwidth per server. However, let us assume that given your application architecture only 2 of these 10 servers are really web facing while the rest are used for storage, search, database or other internal functions then the provider that allows bandwidth pooling would let you consume overall 20 TB of bandwidth as incoming or outbound or both depending on their policy. The provider that does not offer bandwidth pooling would just let you use 4 TB of bandwidth, and the rest of the 16 TB of bandwidth would be practically unusable. This fact is commonly known by all hosting providers, and allows hosting providers to cut costs by offering an amount of bandwidth that frequently will not be used. This is known as overselling, and allows high bandwidth customers to use more than what a host might otherwise offer, because they know that this will be balanced out by those customers who use less than the maximum allowed.
One of the reasons for choosing to outsource dedicated servers is the availability of high powered networks from multiple providers. As dedicated server providers utilize massive amounts of bandwidth, they are able to secure lower volume based pricing to include a multi-provider blend of bandwidth. To achieve the same type of network without a multi-provider blend of bandwidth, a large investment in core routers, long term contracts, and expensive monthly bills would need to be in place. The expenses needed to develop a network without a multi-provider blend of bandwidth does not make sense economically for hosting providers.
Many dedicated server providers include a service level agreement based on network uptime. Some dedicated server hosting providers offer a 100% uptime guarantee on their network. By securing multiple vendors for connectivity and using redundant hardware, providers are able to guarantee higher uptimes; usually between 99-100% uptime if they are a higher quality provider. One aspect of higher quality providers is they are most likely to be multi-homed across multiple quality uplink providers, which in turn, provides significant redundancy in the event one goes down in addition to potentially improved routes to destinations.
Bandwidth consumption over the last several years has shifted from a per megabit usage model to a per gigabyte usage model. Bandwidth was traditionally measured in line speed access that included the ability to purchase needed megabits at a given monthly cost. As the shared hosting model developed, the trend towards gigabyte or total bytes transferred, replaced the megabit line speed model so dedicated server providers started offering per gigabyte.
Prominent players in the dedicated server market offer large amounts of bandwidth ranging from 500 gigabytes to 3000 gigabytes using the “overselling” model. It is not uncommon for major players to provide dedicated servers with 1Terabyte (TB) of bandwidth or higher. Usage models based on the byte level measurement usually include a given amount of bandwidth with each server and a price per gigabyte after a certain threshold has been reached. Expect to pay additional fees for bandwidth overage usage. For example, if a dedicated server has been given 3000 gigabytes of bandwidth per month and the customer uses 5000 gigabytes of bandwidth within the billing period, the additional 2000 gigabytes of bandwidth will be invoiced as bandwidth overage. Each provider has a different model for billing. No industry standards have been set yet.

Our dedicated server plans feature lightning-fast processors, up to 16 GB of RAM, 20 TB of bandwidth, and Intel Core i3/i5/i7 processors, all backed by the best service and support in the industry. With our team of experts, you don't have to worry about setup — we'll get your server up and running fast! Choose the plan that's right for you, then customize it to meet your unique needs with even more bandwidth, control panel options, backup plans, firewall protection and more. Questions? Call 80959 16888 to get started now.