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Friday, September 1, 2023

Cruise missile

From Wikipedia, the free encyclopedia
A BGM-109 Tomahawk flying in November 2002

A cruise missile is a guided missile used against terrestrial or naval targets, that remains in the atmosphere and flies the major portion of its flight path at an approximately constant speed. Cruise missiles are designed to deliver a large warhead over long distances with high precision. Modern cruise missiles are capable of traveling at high subsonic, supersonic, or hypersonic speeds, are self-navigating, and are able to fly on a non-ballistic, extremely low-altitude trajectory.

History

A Fieseler Fi-103, the German V-1 flying bomb

The idea of an "aerial torpedo" was shown in the British 1909 film The Airship Destroyer in which flying torpedoes controlled wirelessly are used to bring down airships bombing London.

In 1916, the American aviator Lawrence Sperry built and patented an "aerial torpedo", the Hewitt-Sperry Automatic Airplane, a small biplane carrying a TNT charge, a Sperry autopilot and barometric altitude control. Inspired by the experiments, the United States Army developed a similar flying bomb called the Kettering Bug. Germany had also flown trials with remote-controlled aerial gliders (Torpedogleiter) built by Siemens-Schuckert beginning in 1916.

In the Interwar Period, Britain's Royal Aircraft Establishment developed the Larynx (Long Range Gun with Lynx Engine), which underwent a few flight tests in the 1920s.

In the Soviet Union, Sergei Korolev headed the GIRD-06 cruise missile project from 1932 to 1939, which used a rocket-powered boost-glide bomb design. The 06/III (RP-216) and 06/IV (RP-212) contained gyroscopic guidance systems. The vehicle was designed to boost to 28 km altitude and glide a distance of 280 km, but test flights in 1934 and 1936 only reached an altitude of 500 meters.

In 1944, during World War II, Germany deployed the first operational cruise missiles. The V-1, often called a flying bomb, contained a gyroscope guidance system and was propelled by a simple pulsejet engine, the sound of which gave it the nickname of "buzz bomb" or "doodlebug". Accuracy was sufficient only for use against very large targets (the general area of a city), while the range of 250 km was significantly lower than that of a bomber carrying the same payload. The main advantages were speed (although not sufficient to outperform contemporary propeller-driven interceptors) and expandability. The production cost of a V-1 was only a small fraction of that of a V-2 supersonic ballistic missile with a similar-sized warhead. Unlike the V-2, the initial deployments of the V-1 required stationary launch ramps which were susceptible to bombardment. Nazi Germany, in 1943, also developed the Mistel composite aircraft program, which can be seen as a rudimentary air-launched cruise missile, where a piloted fighter-type aircraft was mounted atop an unpiloted bomber-sized aircraft that was packed with explosives to be released while approaching the target. Bomber-launched variants of the V-1 saw limited operational service near the end of the war, with the pioneering V-1's design reverse-engineered by the Americans as the Republic-Ford JB-2 cruise missile.

Immediately after the war, the United States Air Force had 21 different guided missile projects, including would-be cruise missiles. All but four were cancelled by 1948: the Air Materiel Command Banshee, the SM-62 Snark, the SM-64 Navaho, and the MGM-1 Matador. The Banshee design was similar to Operation Aphrodite; like Aphrodite, it failed, and was canceled in April 1949. Concurrently, the US Navy's Operation Bumblebee, was conducted at Topsail Island, North Carolina, from c. 1 June 1946, to 28 July 1948. Bumblebee produced proof-of-concept technologies that influenced the US military's other missile projects.

During the Cold War, both the United States and the Soviet Union experimented further with the concept, of deploying early cruise missiles from land, submarines, and aircraft. The main outcome of the United States Navy submarine missile project was the SSM-N-8 Regulus missile, based upon the V-1.

The United States Air Force's first operational surface-to-surface missile was the winged, mobile, nuclear-capable MGM-1 Matador, also similar in concept to the V-1. Deployment overseas began in 1954, first to West Germany and later to the Republic of China and South Korea. On 7 November 1956, the U.S. Air Force deployed Matador units in West Germany, whose missiles were capable of striking targets in the Warsaw Pact, from their fixed day-to-day sites to unannounced dispersed launch locations. This alert was in response to the crisis posed by the Soviet attack on Hungary which suppressed the Hungarian Revolution of 1956.

Between 1957 and 1961 the United States followed an ambitious and well-funded program to develop a nuclear-powered cruise missile, Supersonic Low Altitude Missile (SLAM). It was designed to fly below the enemy's radar at speeds above Mach 3 and carry hydrogen bombs that it would drop along its path over enemy territory. Although the concept was proven sound and the 500-megawatt engine finished a successful test run in 1961, no airworthy device was ever completed. The project was finally abandoned in favor of ICBM development.

While ballistic missiles were the preferred weapons for land targets, heavy nuclear and conventional weapon tipped cruise missiles were seen by the USSR as a primary weapon to destroy United States naval carrier battle groups. Large submarines (for example, Echo and Oscar classes) were developed to carry these weapons and shadow United States battle groups at sea, and large bombers (for example, Backfire, Bear, and Blackjack models) were equipped with the weapons in their air-launched cruise missile (ALCM) configuration.

Categories

Cruise missiles can be categorized by size, speed (subsonic or supersonic), range, and whether launched from land, air, surface ship, or submarine. Often versions of the same missile are produced for different launch platforms; sometimes air- and submarine-launched versions are a little lighter and smaller than land- and ship-launched versions.

Guidance systems can vary across missiles. Some missiles can be fitted with any of a variety of navigation systems (Inertial navigation, TERCOM, or satellite navigation). Larger cruise missiles can carry either a conventional or a nuclear warhead, while smaller ones carry only conventional warheads.

Hypersonic

A hypersonic cruise missile travels at least five times the speed of sound (Mach 5).

Supersonic

BrahMos shown at IMDS 2007.

These missiles travel faster than the speed of sound, usually using ramjet engines. The range is typically 100–500 km, but can be greater. Guidance systems vary.

Examples:

Intercontinental-range supersonic

Long-range subsonic

India's Nirbhay missiles mounted on a truck-based launcher

The United States, Russia, North Korea, India, Iran, South Korea, Israel, France, China and Pakistan have developed several long-range subsonic cruise missiles. These missiles have a range of over 1,000 kilometres (620 mi) and fly at about 800 kilometres per hour (500 mph). They typically have a launch weight of about 1,500 kilograms (3,300 lb) and can carry either a conventional or a nuclear warhead. Earlier versions of these missiles used inertial navigation; later versions use much more accurate TERCOM and DSMAC systems. Most recent versions can use satellite navigation.

Examples:

Medium-range subsonic

Storm Shadow (France/UK)
A Pakistani Babur cruise missile launcher

These missiles are about the same size and weight and fly at similar speeds to the above category. Guidance systems vary.

Examples:

Short-range subsonic

These are subsonic missiles that weigh around 500 kilograms (1,102 lb) and have a range of up to 300 km (190 mi).

A Naval Strike Missile of the Norwegian Navy

Examples:

Hsiung Feng II Anti-Ship Missile Display in Chengkungling
Hsiung Feng II
Sea Killer export variant Italy
  • Otomat (180 km) France/Italy France / Italy
Otomat Mk2 E / Teseo Mk2/E Italy 360 km new turbofan

Deployment

AGM-129 ACM being secured on a B-52H bomber

The most common mission for cruise missiles is to attack relatively high-value targets such as ships, command bunkers, bridges and dams. Modern guidance systems permit accurate attacks.

As of 2001, the BGM-109 Tomahawk missile model has become a significant part of the United States naval arsenal. It gives ships and submarines a somewhat accurate, long-range, conventional land attack weapon. Each costs about US$1.99 million. Both the Tomahawk and the AGM-86 were used extensively during Operation Desert Storm. On 7 April 2017, during the Syrian Civil War, U.S. warships fired more than 50 cruise missiles into a Syrian residential areas in retaliation for a Syrian attack against a rebel stronghold.

The United States Air Force (USAF) deploys an air-launched cruise missile, the AGM-86 ALCM. The Boeing B-52 Stratofortress is the exclusive delivery vehicle for the AGM-86 and AGM-129 ACM. Both missile types are configurable for either conventional or nuclear warheads.

The USAF adopted the AGM-86 for its bomber fleet while AGM-109 was adapted to launch from trucks and ships and adopted by the USAF and Navy. The truck-launched versions, and also the Pershing II and SS-20 Intermediate Range Ballistic Missiles, were later destroyed under the bilateral INF (Intermediate-Range Nuclear Forces) treaty with the USSR.

The British Royal Navy (RN) also operates cruise missiles, specifically the U.S.-made Tomahawk, used by the RN's nuclear submarine fleet. UK conventional warhead versions were first fired in combat by the RN in 1999, during the Kosovo War (the United States fired cruise missiles in 1991). The Royal Air Force uses the Storm Shadow cruise missile on its Typhoon and previously its Tornado GR4 aircraft. It is also used by France, where it is known as SCALP EG, and carried by the Armée de l'Air's Mirage 2000 and Rafale aircraft.

The Indian Army's BrahMos supersonic cruise missiles mounted on Mobile Autonomous Launchers (MAL)

India and Russia have jointly developed the supersonic cruise missile BrahMos. There are three versions of the Brahmos: ship/land-launched, air-launched, and sub-launched. The ship/land-launched version was operational as of late 2007. The Brahmos have the capability to attack targets on land. Russia also continues to operate other cruise missiles: the SS-N-12 Sandbox, SS-N-19 Shipwreck, SS-N-22 Sunburn and SS-N-25 Switchblade. Germany and Spain operate the Taurus missile while Pakistan has made the Babur missile Both the People's Republic of China and the Republic of China (Taiwan) have designed several cruise missile variants, such as the well-known C-802, some of which are capable of carrying biological, chemical, nuclear, and conventional warheads.

Nuclear warhead versions

China

China has CJ-10 land attack cruise missile which is capable of carrying a nuclear warhead. Additionally, China appears to have tested a hypersonic cruise missile in August 2021, a claim it denies.

France

The French Force de Frappe nuclear forces include both land and sea-based bombers with Air-Sol Moyenne Portée (ASMP) high-speed medium-range nuclear cruise missiles. Two models are in use, ASMP and a newer ASMP-Ameliorer Plus (ASMP-A), which was developed in 1999. An estimated 40 to 50 were produced.

India

India in 2017 successfully flight-tested its indigenous Nirbhay ('Fearless') land-attack cruise missile, which can deliver nuclear warheads to a strike range of 1,000 km. Nirbhay had been flight-tested successfully.

Israel

The Israel Defense Forces reportedly deploy the medium-range air-launched Popeye Turbo ALCM and the Popeye Turbo SLCM medium-long range cruise missile with nuclear warheads on Dolphin class submarines.

Pakistan

Pakistan currently has four cruise missile systems: the air-launched Ra'ad and its enhanced version Ra'ad II; the ground and underwater launched Babur; ship-launched Harbah missile and surface launched Zarb missile. Both, Ra'ad and Babur, can carry nuclear warheads between 10 and 25 kt, and deliver them to targets at a range of up to 300 km (190 mi) and 450 km (280 mi) respectively. Babur has been in service with the Pakistan Army since 2010.

Russia

Export variant of the Kalibr missile

Russia has Kh-55SM cruise missiles, with a range similar to the United States' AGM-129 range of 3000 km, but are able to carry a more powerful warhead of 200 kt. They are equipped with a TERCOM system which allows them to cruise at an altitude lower than 110 meters at subsonic speeds while obtaining a CEP accuracy of 15 meters with an inertial navigation system. They are air-launched from either Tupolev Tu-95s, Tupolev Tu-22Ms, or Tupolev Tu-160s, each able to carry 16 for the Tu-95, 12 for the Tu-160, and 4 for the Tu-22M. A stealth version of the missile, the Kh-101 is in development. It has similar qualities as the Kh-55, except that its range has been extended to 5,000 km, is equipped with a 1,000 kg conventional warhead, and has stealth features which reduce its probability of intercept.

After the collapse of the Soviet Union, the most recent cruise missile developed was the Kalibr missile which entered production in the early 1990s and was officially inducted into the Russian arsenal in 1994. However, it only saw its combat debut on 7 October 2015, in Syria as a part of the Russian military campaign in Syria. The missile has been used 14 more times in combat operations in Syria since its debut.

In the late 1950s and early 1960s, the Soviet Union was attempting to develop cruise missiles. In this short time frame, the Soviet Union was working on nearly ten different types of cruise missiles. However, due to resources, most of the initial types of cruise missiles developed by the Soviet Union were Sea-Launched Cruise Missiles or Submarine-Launched Cruise Missiles (SLCMs). The SS-N-1 cruise missile was developed to have different configurations to be fired from a submarine or a ship. However, as time progressed, the Soviet Union began to work on air-launched cruise missiles as well (ALCM). These ACLM missiles were typically delivered via bombers designated as "Blinders" or "Backfire". The missiles in this configuration were called the AS-1, and AS-2 with eventual new variants with more development time. The main purpose of Soviet-based cruise missiles was to have defense and offensive mechanisms against enemy ships; in other words, most of the Soviet cruise missiles were anti-ship missiles. In the 1980s the Soviet Union had developed an arsenal of cruise missiles nearing 600 platforms which consisted of land, sea, and air delivery systems.

United States

An AGM-129 ACM of the United States Air Force

The United States has deployed nine nuclear cruise missiles at one time or another.

Efficiency in modern warfare

Currently, cruise missiles are among the most expensive of single-use weapons, up to several million dollars apiece. One consequence of this is that its users face difficult choices in target allocation, to avoid expending the missiles on targets of low value. For instance, during the 2001 strikes on Afghanistan the United States attacked targets of very low monetary value with cruise missiles, which led many to question the efficiency of the weapon. However, proponents of the cruise missile counter that the weapon can not be blamed for poor target selection, and the same argument applies to other types of UAVs: they are cheaper than human pilots when total training and infrastructure costs are taken into account, not to mention the risk of loss of personnel. As demonstrated in Libya in 2011 and prior conflicts, cruise missiles are much more difficult to detect and intercept than other aerial assets (reduced radar cross-section, infrared and visual signature due to smaller size), suiting them to attacks against static air defense systems.

Broadband universal service

Broadband universal service, also known as "universal service obligation" (USO) or "universal broadband service", refers to government efforts to ensure all citizens have access to the internet. Universal voice service obligations have been expanded to include broadband service obligations in Switzerland, Finland, Spain and the UK.

Universal service obligations are required because of the technical limitations of data transport in traditional telephone lines, particularly for connections located miles away from exchanges. FTTH deployment is increasingly a component of meeting universal service obligations, for example, the United Arab Emirates has not introduced a USO as all premises in the country have access to FTTH and are thus capable of very high connection speeds.

Switzerland was the first country in the world to provide broadband universal service in January 2008, followed by Spain and Finland each guaranteeing 1 Mbit/s. The UK followed by announcing a universal service obligation of 10 Mbit/s in 2020 for every home in Britain. Taiwan started broadband universal service in 2007. The USA has proposed measures that would make broadband available to all citizens, but under pressure from telecommunications companies, has not implemented them.

Background

The term universal service was introduced in the early twentieth century. In many countries, such as the UK, United States, and Taiwan, voice telephony services have had subsidies for rural or poor customers.

Although broadband has a technical meaning, in public policy discussions it means Internet access at higher rates than obsolete dial-up Internet access.

Broadband overview

Faster and more widely available broadband is considered an important opportunity to improve education, communication, and public participation in civic affairs. U.S. President Barack Obama mentioned: "one key to strengthening education, entrepreneurship, and innovation in communities… is to harness the full power of the Internet, and that means faster and more widely available broadband." (Obama, 2009) The government claimed widespread broadband access is critical for global competitiveness, economic development, national security, public safety, job creation, civic engagement, etc.

Digital divide

One of the main goals to have universal broadband service is to narrow the digital divide ("digital split"). Digital divide refers to "the differing amount of information between those who have access to the Internet (specially broadband access) and those who do not have access. The term became popular among concerned parties, such as scholars, policy makers, and advocacy groups, in the late 1990s." Digital divide is not just about the access to the Internet, but the quality of connection, and the related service availability.

Implementation

Switzerland

Switzerland was the first country in the world to provide broadband universal service with download/upload 600/100 kbit/s dataspeed to its citizens in January 2008,

Finland

In 2009, the Finnish Ministry of Transport and Communications announced a decree which required a 1Mb Internet connection to be included in universal service mandates in 2010. Therefore, Finland became the first country in the world to establish broadband universal service, albeit at a basic speed, as a general right of citizens.

Spain

Spain guarantees 1 Mbit/s.

United Kingdom

In 2009, the UK announced a universal service commitment of 2 Mbit/s in 2012 for every home in Britain. In 2015, the UK announced a universal service obligation of 10 Mbit/s in 2020 for every home in Britain; however it was slow to implement the legislation, ultimately it came into force from 26 December 2022 requiring all new homes to be built with a minimum 1 Gigabit connection while funding was provided to suppliers for expanding existing coverage.

Botswana

Botswana Telecommunications Corporation (BTC) intends to deliver high Internet speed up to 50 Mbit/s. It will be piloted in Gaborone, Francistown, Maun and would later be rolled out to other parts of the country by 2020.

Canada

In 2016, Canada announced a universal service obligation of 50 Mbit/s by 2021.

Belgium

Belgium has a universal service obligation of 1000 Mbit/s for 50% of the population by 2020.

Sweden

Sweden has set a target of 100 Mbit/s for 95% of its population by 2020, and a USO of 1000 Mbit/s to 98% of the population (100 Mbit/s to the next 1.9% and 30 Mbit/s to the final 0.1%) by 2025.

Taiwan

In 2012, the National Communications Commission (NCC) set up the goal to offer Internet access services with a speed of 12 Mbit/s to every village in Taiwan to shorten the digital divide between urban and rural areas. This universal service mandate was supported by the Telecommunication Universal Service Fund. More than fifty remote villages which did not have broadband service are able to access broadband.

In March 2018, the main technologies of broadband access network were ADSL and FTTH in Taiwan. The household coverage rate of ADSL, whose downlink connection speed is from 2 to 8 Mbit/s, was approximately 98%, and around 97% in remote areas. Meanwhile, the coverage rate of FTTH of which speed is above 100 Mbit/s was upwards of 90%, and 63% or so in remote areas.

In order to promote the development of broadband infrastructure and emerging applications, the Taiwanese government is implementing the "Digital Nation and Innovative Economic Development Plan (2017-2025)" (DIGI+ program) which increase the household coverage rate of Gigabit broadband to 90% by 2020. Under this plan, the National Communications Commission is implementing "the infrastructure of broadband access plan for remote areas" and bundling with telecommunications universal service mechanism to increase the broadband coverage rate of 100 Mbit/s or above to 70% in remote areas.

Japan

In Japan, based on the Telecommunications Business Law Article 7, telecommunications carriers that provide universal service must endeavor to provide that service in an appropriate, fair, and stable manner. These services include subscriber line access, public telephone service and emergency calls service. The Ministry of Internal Affairs and Communications (MIC) is in charge of the Universal Service Fund in Japan.

United States

Based on a survey conducted by the United States Census Bureau in 2009 (N=50,000, unit: household), people with high incomes, those who are younger, more highly educated, Asians and Whites, and the employed, have higher rates of broadband use at home. People with low incomes, minorities, seniors, the less-educated, and the non-employed tend to have lower rates of broadband use at home. Besides, there are rural/urban differences as well. People in rural areas are less likely to adopt the Internet.

NTIA2010
NTIA2010

According to NTIA (2011), almost one-third of American households still lack a broadband connection. "The rates for White (68%) and Asian non-Hispanics (69%) exceed those for Black non-Hispanics (50%) and Hispanics (45%) by 18 percentage points or more. Rural America lags behind urban areas by ten percentage points (60% versus 70%)."

Obama launched a policy campaign to counter nineteen state laws, which are currently preventing cities from investing in broadband Internet. According to U.S. News, the predicted effects of broadband investment is that it will increase Internet speeds and access, and give cities a competitive advantage. A research study done by the NTIA (National Telecommunications and Information Administration), showed that building new broadband infrastructure in communities increased broadband availability by around 2% more than cities that didn’t build new broadband infrastructures. Investing in broadband is also predicted to lead to an, "Increased economic output of as much as $21 billion annually," according to NTIA.

In order to "get people connected for basic communications that opens the door to economic and civic participation in cyberspace," it is essential to provide basic broadband connectivity at an affordable prices. For years, the U.S. has endeavored to ensure its residents are connected to essential telecommunications. Following a 2008 release of broadband statistics by the Organisation for Economic Co-operation and Development (OECD) which suggested that the U.S. may be lagging in broadband, Congress passed the American Recovery and Reinvestment Act of 2009 (ARRA) requiring that the FCC draft a National Broadband Plan, and the FCC's efforts to ensure hard-to-serve areas and demographics are reached by communications technologies have focused on broadband. As U.S. President Obama mentioned, "this isn't just about faster Internet or fewer dropped calls. It's about connecting every part of America to the digital age. It’s about a rural community in Iowa or Alabama where farmers and small business owners will be able to sell their products all over the world. It’s about a firefighter who can download the design of a burning building onto a handheld device; a student who can take classes with a digital textbook; or a patient who can have face-to-face video chats with her doctor." –President Obama, State of the Union Address, January 25, 2011.

NTIA (2010) also pointed out, "universal access to and adoption of 21st Century broadband for all citizens is a top priority for the Obama Administration. Widespread access is critical to America’s future as the world’s economic leader because of its impact on increasing our productivity, global competitiveness, and improving Americans’ quality of life – through economic growth and development, job creation, national security, telemedicine, distance learning, public safety, civic engagement, and telework."

Necessity of broadband

According to NTIA (2010), the major reason for people not having high speed Internet use at home is "don’t need/not interested" (37.8%), and the second one is "too expensive" (26.3%). Some therefore argue the government should not be paying for a service people do not want.

NTIA2010

Government intervention

Some people argue that universal service policies may not be the best way to increase broadband penetration. If the regulators could increase incentives to ensure operators offer such services, the market instead of government mandates might lead to universally available broadband service. Maybe there are other steps can be taken to design the service and tariff packages without subsidies to ensure broadband penetration.

Funding system

One of the biggest concerns regarding universal broadband service is "how to use the universal service funding efficiently and effectively." How could the regulator ensure the cost proposed by the operators is true and reasonable? In the National Broadband Plan, the FCC planned to eliminate the rate-of-return regulation in the Universal Service Fund (USF). This may result in the uncertainty of profits to ILECs and decrease their incentives to provide broadband universal service.

In the United States, the notion of universal service was initially advocated by Theodore Vail, the vice president of AT&T, who proposed a policy based on "one system, one policy, universal service." Universal service mainly refers to "Government policies to promote the affordability of telephone service and access to the network."

Universal service advocates say ubiquitous communications infrastructures can enhance national unity and equality of opportunity. Therefore, it could be a way to express "liberal egalitarianism." The Telecommunications Act of 1996 required the U.S. Federal Communications Commission (FCC) to promote all citizens be able to access advanced telecommunication services at a reasonable price. These services mainly included voice telephony services, both the fixed lines and wireless phones.

The goals of universal Service, as mandated by the 1996 Act, were to:

  • Promote the availability of quality services at just, reasonable and affordable rates for all consumers
  • Increase nationwide access to advanced telecommunications services
  • Advance the availability of such services to all consumers, including those in low income, rural, insular, and high cost areas at rates that are reasonably comparable to those charged in urban areas
  • Increase access to telecommunications and advanced services in schools, libraries and rural health care facilities
  • Provide equitable and non-discriminatory contributions from all providers of telecommunications services to the fund supporting universal service programs

In 2010, the Federal-State Joint Board on Universal Service agreed that universal service programs need to support broadband service.

In February 2011, President Obama announced the Wireless Innovation and Infrastructure Initiative.

National Broadband Plan

In the US, the broadband universal service concept is rooted in the universal service mandate in Telecommunications Act of 1996. Arguments regarding the National Broadband Plan are also related to broadband universal service debates.

The US National Broadband Plan was released by the FCC in March 2010. The agency started the process of creating this plan in April 2009. After holding thirty-six public workshops and streamed online, with more than 10,000 people and 700 parties participated, 23,000 comments were generated. The FCC filed about 13,000 pages and held nine public hearings to refine and clarify the plan and proposed it in 2010.

The plan mentions many potential policies. For example, the federal government intended to make 500 MHz of spectrum available to promote wireless broadband. It proposed the "Connect America Fund (CAF) to support the provision of affordable broadband and voice with at least 4 Mbit/s actual download speeds and shift up to $15.5 billion over the next decade from the existing Universal Service Fund (USF) program to support broadband".

National Broadband Map

The National Broadband Map was created by the NTIA and FCC. It was launched on February 17, 2011. It is a searchable database of information on high-speed Internet access. Although the map was in an early stage of development and contained errors, by entering specific addresses, users can acquire information on how connected their communities are. On the website of the National Broadband Map, broadband providers are listed in order of their maximum speed advertised.

Universal Service Fund Reforms and Connect America Fund

On April 21, 2010, the US FCC launched a notice of inquiry (NOI) and notice of proposed rulemaking (NPRM) for what it called the "once-in-a-generation transformation" of the Universal Service Fund (USF).

According to the National Broadband Plan, the FCC planned to make 4 megabits per second download speeds and 1 Mbit/s upload speed available to all Americans by 2020. To support this, two funds will be created: the Connect America Fund (CAF) and the Mobility Fund. The CAF will replace high cost programs in the USF but will only provide funds to areas where there is no private operator willing to provide broadband service for a lack of profitability. The Mobility Fund will mainly focus on the wireless Internet access.

There are three stages in the plan. The first stage aims to set up the overall policymaking apparatus. In this stage, the Universal Service Fund transforms from telephone service support to broadband service support. The Connect American Fund and the Mobility Fund will be created in the first stage. In the second stage, scheduled for 2012–2016, these two new funds will distribute the funds they have collected. Broadband services will be taxed to support the funds. In the third stage, scheduled in 2017–2020, the USF will be discontinued.

In February 2011, the FCC adopted an NPRM and Further Notice of Proposed Rulemaking (FNPRM) to ask for comments on reforming the Universal Service Fund and the Commission’s intercarrier compensation (ICC). The FCC planned workshops to discuss the reforms. The first workshop was held on February 17, 2011. The second workshop was held on April 27, 2011 and the main theme was related to the implementation of a Phase I of the Connect America Fund (CAF), including the costs and capabilities of broadband technologies and the use of the funds in Phase I of the CAF.

On October 27, 2011, the FCC adopted its "Connect America Fund & Intercarrier Compensation Reform Order" which established a $4.5 billion Connect America Fund to expand broadband access to seven million unserved rural Americans, replacing the Universal Service Fund's high-cost support and explicitly endorsing broadband as a universal service. The Connect America Fund also includes $500 million for mobile broadband, of which $100 million is set aside for mobile broadband on tribal lands.

On November 9, 2011, the Connect-to-Compete program was announced. Businesses and non-profit groups will work together to provide broadband access for low-income people in the United States. 35 million households, about one-third of the total, many of them poor, do not have the service. Persons without broadband have a harder time finding jobs using the Internet.

By Summer 2012, homes in which children qualify for the federal school lunch program will become eligible for $9.95 broadband service. Also as part of the program, Microsoft will also sell PCs with Office Suite for $250.

State efforts

In Massachusetts, an ARRA grant was supplemented with state funds in 2010 for the Massachusetts Broadband Institute to extend broadband access to the entire state.

COVID-19

As a result of the COVID-19 pandemic, access to broadband Internet became important for work, education and other purposes when people had to shelter in place. But 28 percent of Americans either could not get it or could not afford it. The number was 23 percent in cities.

Inequality (mathematics)

From Wikipedia, the free encyclopedia https://en.wikipedia.org/wiki/Inequality...