Martinique is an insular region of France located in the Lesser Antilles of the West Indies in the eastern Caribbean Sea, with a land area of 1,128 square kilometres and a population of 376,480 inhabitants as of January 2016. Like Guadeloupe, it is an overseas region of France, consisting of a single overseas department. One of the Windward Islands, it is directly north of Saint Lucia, southeast of Greater Antilles, northwest of Barbados, south of Dominica; as with the other overseas departments, Martinique is one of the eighteen regions of France and an integral part of the French Republic. As part of France, Martinique is part of the European Union, its currency is the euro; the official language is French, the entire population speaks Antillean Creole. Christopher Columbus landed on 15 June 1502, after a 21-day trade wind passage, his fastest ocean voyage, he spent three days there refilling his water casks and washing laundry. The island was called "Jouanacaëra-Matinino", which came from a mythical island described by the Taínos of Hispaniola.
According to historian Sydney Daney, the island was called "Jouanacaëra" by the Caribs, which means "the island of iguanas". When Columbus landed on the island in 1502, he christened the island as Martinica; the island is called "Madinina" by the locals. The island was occupied first by Arawaks by Caribs; the Carib people had migrated from the mainland to the islands about 1201 CE, according to carbon dating of artifacts. They were displaced and assimilated by the Taino, who were resident on the island in the 1490s. Martinique was charted by Columbus in 1493. On 15 September 1635, Pierre Belain d'Esnambuc, French governor of the island of St. Kitts, landed in the harbor of St. Pierre with 150 French settlers after being driven off St. Kitts by the English. D'Esnambuc claimed Martinique for the French King Louis XIII and the French "Compagnie des Îles de l'Amérique", established the first European settlement at Fort Saint-Pierre. D'Esnambuc died in 1636, leaving the company and Martinique in the hands of his nephew, Jacques Dyel du Parquet, who in 1637, became governor of the island.
In 1636, the indigenous Caribs rose against the settlers to drive them off the island in the first of many skirmishes. The French repelled the natives and forced them to retreat to the eastern part of the island, on the Caravelle Peninsula in the region known as the Capesterre; when the Carib revolted against French rule in 1658, the Governor Charles Houël du Petit Pré retaliated with war against them. Many were killed; some Carib had fled to St. Vincent, where the French agreed to leave them at peace; because there were few Catholic priests in the French Antilles, many of the earliest French settlers were Huguenots who sought greater religious freedom than what they could experience in mainland France. They became quite prosperous. Although edicts from King Louis XIV's court came to the islands to suppress the Protestant "heretics", these were ignored by island authorities until Louis XIV's Edict of Revocation in 1685. From September 1686 to early 1688, the French crown used Martinique as a threat and a dumping ground for mainland Huguenots who refused to reconvert to Catholicism.
Over 1,000 Huguenots were transported to Martinique during this period under miserable and crowded ship conditions that caused many of them to die en route. Those that survived the trip were distributed to the island planters as Engagés under the system of serf peonage that prevailed in the French Antilles at the time; as many of the planters on Martinique were themselves Huguenot, who were sharing in the suffering under the harsh strictures of the Revocation, they began plotting to emigrate from Martinique with many of their arrived brethren. Many of them were encouraged by their Catholic brethren who looked forward to the departure of the heretics and seizing their property for themselves. By 1688, nearly all of Martinique's French Protestant population had escaped to the British American colonies or Protestant countries back home; the policy decimated the population of Martinique and the rest of the French Antilles and set back their colonization by decades, causing the French king to relax his policies in the islands yet leaving the islands susceptible to British occupation over the next century.
Under Governor of the Antilles Charles de Courbon, comte de Blénac, Martinique served as a home port for French pirates including Captain Crapeau, Etienne de Montauban, Mathurin Desmarestz. In years pirate Bartholomew Roberts styled his jolly roger as a black flag depicting a pirate standing on two skulls labeled "ABH" and "AMH" for "A Barbadian's Head" and "A Martinican's Head", after Governors of those two islands sent warships to capture Roberts. Martinique was occupied several times by the British including once during the Seven Years' War and twice during the Napoleonic Wars. Excepting a period from 1802–1809 following signing of the Treaty of Amiens, Britain controlled the island for most of the time from 1794–1815, when it was traded back to France at the conclusion of the Napoleonic Wars. Martinique has remained a French possession since then; as sugar prices declined in the early 1800s, the planter class lost political influence. In 1848, Victor Schoelcher persuaded the French government to end slavery in the French W
Telecommunication is the transmission of signs, messages, writings and sounds or information of any nature by wire, optical or other electromagnetic systems. Telecommunication occurs when the exchange of information between communication participants includes the use of technology, it is transmitted either electrically over physical media, such as cables, or via electromagnetic radiation. Such transmission paths are divided into communication channels which afford the advantages of multiplexing. Since the Latin term communicatio is considered the social process of information exchange, the term telecommunications is used in its plural form because it involves many different technologies. Early means of communicating over a distance included visual signals, such as beacons, smoke signals, semaphore telegraphs, signal flags, optical heliographs. Other examples of pre-modern long-distance communication included audio messages such as coded drumbeats, lung-blown horns, loud whistles. 20th- and 21st-century technologies for long-distance communication involve electrical and electromagnetic technologies, such as telegraph and teleprinter, radio, microwave transmission, fiber optics, communications satellites.
A revolution in wireless communication began in the first decade of the 20th century with the pioneering developments in radio communications by Guglielmo Marconi, who won the Nobel Prize in Physics in 1909, other notable pioneering inventors and developers in the field of electrical and electronic telecommunications. These included Charles Wheatstone and Samuel Morse, Alexander Graham Bell, Edwin Armstrong and Lee de Forest, as well as Vladimir K. Zworykin, John Logie Baird and Philo Farnsworth; the word telecommunication is a compound of the Greek prefix tele, meaning distant, far off, or afar, the Latin communicare, meaning to share. Its modern use is adapted from the French, because its written use was recorded in 1904 by the French engineer and novelist Édouard Estaunié. Communication was first used as an English word in the late 14th century, it comes from Old French comunicacion, from Latin communicationem, noun of action from past participle stem of communicare "to share, divide out.
Homing pigeons have been used throughout history by different cultures. Pigeon post had Persian roots, was used by the Romans to aid their military. Frontinus said; the Greeks conveyed the names of the victors at the Olympic Games to various cities using homing pigeons. In the early 19th century, the Dutch government used the system in Sumatra, and in 1849, Paul Julius Reuter started a pigeon service to fly stock prices between Aachen and Brussels, a service that operated for a year until the gap in the telegraph link was closed. In the Middle Ages, chains of beacons were used on hilltops as a means of relaying a signal. Beacon chains suffered the drawback that they could only pass a single bit of information, so the meaning of the message such as "the enemy has been sighted" had to be agreed upon in advance. One notable instance of their use was during the Spanish Armada, when a beacon chain relayed a signal from Plymouth to London. In 1792, Claude Chappe, a French engineer, built the first fixed visual telegraphy system between Lille and Paris.
However semaphore suffered from the need for skilled operators and expensive towers at intervals of ten to thirty kilometres. As a result of competition from the electrical telegraph, the last commercial line was abandoned in 1880. On 25 July 1837 the first commercial electrical telegraph was demonstrated by English inventor Sir William Fothergill Cooke, English scientist Sir Charles Wheatstone. Both inventors viewed their device as "an improvement to the electromagnetic telegraph" not as a new device. Samuel Morse independently developed a version of the electrical telegraph that he unsuccessfully demonstrated on 2 September 1837, his code was an important advance over Wheatstone's signaling method. The first transatlantic telegraph cable was completed on 27 July 1866, allowing transatlantic telecommunication for the first time; the conventional telephone was invented independently by Alexander Bell and Elisha Gray in 1876. Antonio Meucci invented the first device that allowed the electrical transmission of voice over a line in 1849.
However Meucci's device was of little practical value because it relied upon the electrophonic effect and thus required users to place the receiver in their mouth to "hear" what was being said. The first commercial telephone services were set-up in 1878 and 1879 on both sides of the Atlantic in the cities of New Haven and London. Starting in 1894, Italian inventor Guglielmo Marconi began developing a wireless communication using the newly discovered phenomenon of radio waves, showing by 1901 that they could be transmitted across the Atlantic Ocean; this was the start of wireless telegraphy by radio. Voice and music had little early success. World War I accelerated the development of radio for military communications. After the war, commercial radio AM broadcasting began in the 1920s and became an important mass medium for entertainment and news. World War II again accelerated development of radio for the wartime purposes of aircraft and land communication, radio navigation and radar. Development of stereo FM broadcasting of radio
Super high frequency
Super high frequency is the ITU designation for radio frequencies in the range between 3 and 30 gigahertz. This band of frequencies is known as the centimetre band or centimetre wave as the wavelengths range from one to ten centimetres; these frequencies fall within the microwave band, so radio waves with these frequencies are called microwaves. The small wavelength of microwaves allows them to be directed in narrow beams by aperture antennas such as parabolic dishes and horn antennas, so they are used for point-to-point communication and data links and for radar; this frequency range is used for most radar transmitters, wireless LANs, satellite communication, microwave radio relay links, numerous short range terrestrial data links. They are used for heating in industrial microwave heating, medical diathermy, microwave hyperthermy to treat cancer, to cook food in microwave ovens. Frequencies in the SHF range are referred to by their IEEE radar band designations: S, C, X, Ku, K, or Ka band, or by similar NATO or EU designations.
Microwaves propagate by line of sight. Although in some cases they can penetrate building walls enough for useful reception, unobstructed rights of way cleared to the first Fresnel zone are required. Wavelengths are small enough at microwave frequencies that the antenna can be much larger than a wavelength, allowing directional antennas to be built which can produce narrow beams. Therefore, they are used in point-to-point terrestrial communications links, limited by the visual horizon to 30–40 miles; such high gain antennas allow frequency reuse by nearby transmitters. The wavelength of SHF waves allows strong reflections from metal objects the size of automobiles and ships, other vehicles. Thus, the narrow beamwidths possible with high gain antennas and the low atmospheric attenuation as compared with higher frequencies make SHF the main frequencies used in radar. Attenuation and scattering by moisture in the atmosphere increase with frequency, limiting the use of high SHF frequencies for long range applications.
Small amounts of microwave energy are randomly scattered by water vapor molecules in the troposphere. This is used in troposcatter communications systems, operating at a few GHz, to communicate beyond the horizon. A powerful microwave beam is aimed just above the horizon. Distances of 300 km can be achieved; these are used for military communication. The wavelengths of SHF waves are small enough that they can be focused into narrow beams by high gain antennas from a half meter to five meters in diameter. Directive antennas at SHF frequencies are aperture antennas, such as parabolic antennas, dielectric lens and horn antennas. Large parabolic antennas can produce narrow beams of a few degrees or less, must be aimed with the aid of a boresight. For omnidirectional applications like wireless devices and cellphones, small dipoles or monopoles are used; the patch antenna is another type integrated into the skin of aircraft. Another type of antenna practical at microwave frequencies is the phased array, consisting of many dipoles or patch antennas on a flat surface, each fed through a phase shifter, which allows the array's beam to be steered electronically.
The short wavelength requires great mechanical rigidity in large antennas, to ensure that the radio waves arrive at the feed point in phase. At microwave frequencies, the types of cable used to conduct lower frequency radio waves, such as coaxial cable, have high power losses. Therefore, to transport microwaves between the transmitter or receiver and the antenna with low losses, a special type of metal pipe called waveguide must be used; because of the high cost and maintenance requirements of long waveguide runs, in many microwave antennas the output stage of the transmitter or the RF front end of the receiver is located at the antenna. SHF frequencies occupy a "sweet spot" in the radio spectrum, being exploited by many new radio services, they are the lowest frequency band where radio waves can be directed in narrow beams by conveniently sized antennas so they do not interfere with nearby transmitters on the same frequency, allowing frequency reuse. On the other hand, they are the highest frequencies which can be used for long distance terrestrial communication.
The high frequency gives microwave communication links a large information-carrying capacity. In recent decades many new solid state sources of microwave energy have been developed, microwave integrated circuits for the first time allow significant signal processing to be done at these frequencies. Sources of EHF energy are much more limited and in an earlier state of development. Knife-edge effect Microwave burn Tomislav Stimac, "Definition of frequency bands". IK1QFK Home Page. Inés Vidal Castiñeira, "Celeria: Wireless Access To Cable Networks"
Ultra high frequency
Ultra high frequency is the ITU designation for radio frequencies in the range between 300 megahertz and 3 gigahertz known as the decimetre band as the wavelengths range from one meter to one tenth of a meter. Radio waves with frequencies above the UHF band fall into the super-high frequency or microwave frequency range. Lower frequency signals fall into lower bands. UHF radio waves propagate by line of sight, they are used for television broadcasting, cell phones, satellite communication including GPS, personal radio services including Wi-Fi and Bluetooth, walkie-talkies, cordless phones, numerous other applications. The IEEE defines the UHF radar band as frequencies between 1 GHz. Two other IEEE radar bands overlap the ITU UHF band: the L band between 1 and 2 GHz and the S band between 2 and 4 GHz. Radio waves in the UHF band travel entirely by line-of-sight propagation and ground reflection. UHF radio waves are blocked by hills and cannot travel far beyond the horizon, but can penetrate foliage and buildings for indoor reception.
Since the wavelengths of UHF waves are comparable to the size of buildings, trees and other common objects and diffraction from these objects can cause fading due to multipath propagation in built-up urban areas. Atmospheric moisture reduces, or attenuates, the strength of UHF signals over long distances, the attenuation increases with frequency. UHF TV signals are more degraded by moisture than lower bands, such as VHF TV signals. Since UHF transmission is limited by the visual horizon to 30–40 miles and to shorter distances by local terrain, it allows the same frequency channels to be reused by other users in neighboring geographic areas. Public safety, business communications and personal radio services such as GMRS, PMR446, UHF CB are found on UHF frequencies as well as IEEE 802.11 wireless LANs. The adopted GSM and UMTS cellular networks use UHF cellular frequencies. Radio repeaters are used to retransmit UHF signals when a distance greater than the line of sight is required; when conditions are right, UHF radio waves can travel long distances by tropospheric ducting as the atmosphere warms and cools throughout the day.
The length of an antenna is related to the length of the radio waves used. Due to the short wavelengths, UHF antennas are conveniently short. UHF wavelengths are short enough that efficient transmitting antennas are small enough to mount on handheld and mobile devices, so these frequencies are used for two way land mobile radio systems, such as walkie-talkies, two way radios in vehicles, for portable wireless devices. Omnidirectional UHF antennas used on mobile devices are short whips, sleeve dipoles, rubber ducky antennas or the planar inverted F antenna used in cellphones. Higher gain omnidirectional UHF antennas can be made of collinear arrays of dipoles and are used for mobile base stations and cellular base station antennas; the short wavelengths allow high gain antennas to be conveniently small. High gain antennas for point-to-point communication links and UHF television reception are Yagi, log periodic, corner reflectors, or reflective array antennas. At the top end of the band slot antennas and parabolic dishes become practical.
For satellite communication and turnstile antennas are used since satellites employ circular polarization, not sensitive to the relative orientation of the transmitting and receiving antennas. For television broadcasting specialized vertical radiators that are modifications of the slot antenna or reflective array antenna are used: the slotted cylinder, zig-zag, panel antennas. UHF television broadcasting fulfilled the demand for additional over-the-air television channels in urban areas. Today, much of the bandwidth has been reallocated to land mobile, trunked radio and mobile telephone use. UHF channels are still used for digital television. UHF spectrum is used worldwide for land mobile radio systems for commercial, public safety, military purposes. Many personal radio services use frequencies allocated in the UHF band, although exact frequencies in use differ between countries. Major telecommunications providers have deployed voice and data cellular networks in UHF/VHF range; this allows mobile phones and mobile computing devices to be connected to the public switched telephone network and public Internet.
UHF radars are said to be effective at tracking stealth fighters, if not stealth bombers. UHF citizens band: 476–477 MHz Television broadcasting uses UHF channels between 503 and 694 MHz Fixed point-to-point Link 450.4875 - 451.5125 MHz Land mobile service 457.50625 - 459.9875 MHz Mobile satellite service: 406.0000 - 406.1000 MHz Segment and Service examples: Land mobile for private, Australian and Territory Government, Rail industry and Mobile-Satellite 430–450 MHz: Amateur radio 470–806 MHz: Terrestrial television 1452–1492 MHz: Digital Audio Broadcasting Many other frequency assignments for Canada and Mexico are similar to their US counterparts 380–399.9 MHz: Terrestrial Trunked Radio service for emergency use 430–440 MHz: Amateur ra
Telecommunications in Peru
Telecommunications in Peru include radio and television and mobile telephones, the Internet. The technical regulator of communications in Peru is the Presidency of the Minister Council, through the Organismo Supervisor de la Inversión Privada en Telecomunicaciones in English, Supervisory Agency for Private Investment in Telecommunications; the Ministry of Transport and Communications grants concessions, authorizations and licenses. The resale of telecommunication services is permitted as a regulated activity. Voice Over IP services are not expressly regulated, but may need a concession or a registry depending on the type of service provided. Carrier interconnection is interconnection fees are regulated; the Peruvian government maintains a Telecommunications Investment Fund to promote universal service within the country's most isolated regions, including rural areas and areas of social interest. Following the successful implementation of mobile number portability, the government requires fixed number portability be launched by July 2014.
All telecommunication services have been liberalized and are rendered under a free competition regime according to the Telecommunications Law. Under Peru's single concession regime all telecom services, including fixed-line, pay TV, Internet, are provided under unified concessions that cover the entire country. Privatization began in 1994 when the state-owned companies Compañía Peruana de Teléfonos S. A. and Entel Perú were auctioned to Telefónica de España. In December 1994, Entel Perú was merged into CPT. In 1995, CPT changed its name to Telefónica del Perú S. A.. Telefónica del Perú continues to dominate the market for basic telephone services; the operation of broadcasting companies is governed by the Law of Television. Spectrum is controlled by the Ministry of Transport and Communications. Radio stations: More than 2,000 radio stations, including a substantial number of indigenous language stations. Radios: 24 million. TV networks: 10 major TV networks of which only one, Television Nacional de Peru, is state-owned.
Television sets: 5.5 million. Pay television subscribers: 967,943. Broadcast television system: NTSC, NTSC broadcasts to be abandoned by 31 December 2017, simulcasting ISDB-Tb. Calling code: +51. International call prefix: 00 Fixed lines: 3.4 million lines in use. Fixed-line teledensity: about 12 per 100 persons. Mobile subscribers: 15.2 million unique subscribers. Mobile lines: 29.4 million, 29.6 million. Mobile teledensity: exceeds 100 telephones per 100 persons, spurred by competition among multiple providers. Domestic system: nationwide microwave radio relay system and a domestic satellite system with 12 earth stations, adequate for most requirements. International communication cables: South America-1 and Pan American submarine cables link to parts of Central and South America, the Caribbean, the US. International satellite earth stations: 2 Intelsat. Peru's fixed-line penetration is the third lowest in South America after Paraguay. Barriers include widespread poverty, expensive services, little meaningful competition, the geographical barriers imposed by the Andean mountains and Amazon jungles.
Under the name Movistar, Telefónica del Perú dominates the basic telephone market. América Móvil’s Claro occupies second place, while Americatel Peru is third with 1% of the market; the remaining companies have market shares below 0.3%. Mobile penetration is below the regional average with about one quarter of the population having no mobile phone at all, while others in urban areas, have multiple subscriptions. Telefónica, operating as Movistar, is the mobile leader. Vietnam's Viettel is expected to begin offering mobile services in the second half of 2014 and Virgin Mobile is expected to enter the market as a Mobile Virtual Network Operator. Top-level domain:.pe. Internet Service Providers: 158 providers. Internet hosts: 234,102 hosts. Internet users: 11.3 million users, 37th in the world. Fixed broadband: 1.4 million subscriptions, 49th in the world. Mobile broadband: 820,295 subscriptions, 77th in the world. Peru enjoyed a remarkably high dial-up Internet penetration rate, but broadband Internet penetration is more than two-thirds below the average for Latin America and Caribbean countries.
Barriers include widespread poverty, limited literacy, limited computer ownership and access, rugged topography and most significant, a lack of meaningful competition which has made broadband Internet access in Peru one of the slowest and most expensive in the region. In 2011 the OpenNet Initiative reported no evidence of Internet filtering in all areas for which it tests. There are no government restrictions on access to the Internet or credible reports that the government monitors e-mail or Internet chat rooms without appropriate legal authority. Individuals and groups engage including by e-mail; the chief impediment to Internet access is a lack of infrastructure. The constitution provides for freedom of speech and press, the government respects these rights. An independent press and a functioning democratic political system combine to promote freedom of speech and press. A number of journalists and media outlets
Television, sometimes shortened to tele or telly, is a telecommunication medium used for transmitting moving images in monochrome, or in color, in two or three dimensions and sound. The term can refer to a television set, a television program, or the medium of television transmission. Television is a mass medium for advertising and news. Television became available in crude experimental forms in the late 1920s, but it would still be several years before the new technology would be marketed to consumers. After World War II, an improved form of black-and-white TV broadcasting became popular in the United States and Britain, television sets became commonplace in homes and institutions. During the 1950s, television was the primary medium for influencing public opinion. In the mid-1960s, color broadcasting was introduced in most other developed countries; the availability of multiple types of archival storage media such as Betamax, VHS tape, local disks, DVDs, flash drives, high-definition Blu-ray Discs, cloud digital video recorders has enabled viewers to watch pre-recorded material—such as movies—at home on their own time schedule.
For many reasons the convenience of remote retrieval, the storage of television and video programming now occurs on the cloud. At the end of the first decade of the 2000s, digital television transmissions increased in popularity. Another development was the move from standard-definition television to high-definition television, which provides a resolution, higher. HDTV may be transmitted in various formats: 1080p, 720p. Since 2010, with the invention of smart television, Internet television has increased the availability of television programs and movies via the Internet through streaming video services such as Netflix, Amazon Video, iPlayer and Hulu. In 2013, 79 % of the world's households owned; the replacement of early bulky, high-voltage cathode ray tube screen displays with compact, energy-efficient, flat-panel alternative technologies such as LCDs, OLED displays, plasma displays was a hardware revolution that began with computer monitors in the late 1990s. Most TV sets sold in the 2000s were flat-panel LEDs.
Major manufacturers announced the discontinuation of CRT, DLP, fluorescent-backlit LCDs by the mid-2010s. In the near future, LEDs are expected to be replaced by OLEDs. Major manufacturers have announced that they will produce smart TVs in the mid-2010s. Smart TVs with integrated Internet and Web 2.0 functions became the dominant form of television by the late 2010s. Television signals were distributed only as terrestrial television using high-powered radio-frequency transmitters to broadcast the signal to individual television receivers. Alternatively television signals are distributed by coaxial cable or optical fiber, satellite systems and, since the 2000s via the Internet; until the early 2000s, these were transmitted as analog signals, but a transition to digital television is expected to be completed worldwide by the late 2010s. A standard television set is composed of multiple internal electronic circuits, including a tuner for receiving and decoding broadcast signals. A visual display device which lacks a tuner is called a video monitor rather than a television.
The word television comes from Ancient Greek τῆλε, meaning'far', Latin visio, meaning'sight'. The first documented usage of the term dates back to 1900, when the Russian scientist Constantin Perskyi used it in a paper that he presented in French at the 1st International Congress of Electricity, which ran from 18 to 25 August 1900 during the International World Fair in Paris; the Anglicised version of the term is first attested in 1907, when it was still "...a theoretical system to transmit moving images over telegraph or telephone wires". It was "...formed in English or borrowed from French télévision." In the 19th century and early 20th century, other "...proposals for the name of a then-hypothetical technology for sending pictures over distance were telephote and televista." The abbreviation "TV" is from 1948. The use of the term to mean "a television set" dates from 1941; the use of the term to mean "television as a medium" dates from 1927. The slang term "telly" is more common in the UK; the slang term "the tube" or the "boob tube" derives from the bulky cathode ray tube used on most TVs until the advent of flat-screen TVs.
Another slang term for the TV is "idiot box". In the 1940s and throughout the 1950s, during the early rapid growth of television programming and television-set ownership in the United States, another slang term became used in that period and continues to be used today to distinguish productions created for broadcast on television from films developed for presentation in movie theaters; the "small screen", as both a compound adjective and noun, became specific references to television, while the "big screen" was used to identify productions made for theatrical release. Facsimile transmission systems for still photographs pioneered methods of mechanical scanning of images in the early 19th century. Alexander Bain introduced the facsimile machine between 1843 and 1846. Frederick Bakewell demonstrated a working laboratory version in 1851. Willoughby Smith discovered the photoconductivity of the element selenium in 1873; as a 23-year-old German university student, Paul Julius Gottlieb Nipkow proposed and patented the Nipkow disk in 1884.
This was a spinning disk with a spiral pattern of holes in it, so each hole scanned a line of the image. Although he never built a working model
Guadeloupe is an insular region of France located in the Leeward Islands, part of the Lesser Antilles in the Caribbean. Administratively, it is an overseas region consisting of a single overseas department. With a land area of 1,628 square kilometres and an estimated population of 400,132 as of January 2015, it is the largest and most populous European Union territory in North America. Guadeloupe's main islands are Basse-Terre, Grande-Terre, Marie-Galante, La Désirade, the Îles des Saintes. Guadeloupe, like the other overseas departments, is an integral part of France; as a constituent territory of the European Union and the Eurozone, the euro is its official currency and any European Union citizen is free to settle and work there indefinitely. As an overseas department, however, it is not part of the Schengen Area; the official language is French, but Antillean Creole is spoken by the entire population except recent arrivals from metropolitan France. The island is called "Gwadada" by the locals.
The island was called "Karukera" by the Arawak people, who settled on there in the year 300. Christopher Columbus named the island Santa María de Guadalupe in 1493 after the Virgin Mary, venerated in the Spanish town of Guadalupe. Upon becoming a French colony, the Spanish name was retained though altered to French orthography and phonology. Archaeological evidence indicates that between 800 and 1000 AD drought led to a period with no habitation. Gradual resettlement occurred after 1000 AD. Christopher Columbus landed on the island in 1493. During the 17th century, the Caribs repelled Spanish settlers; the French Compagnie des Îles de l'Amérique delegated Charles Liènard de l'Olive and Jean du Plessis d'Ossonville to colonize one or any of the region's islands, Martinique, or Dominica. They settled in Guadeloupe in 1635, took possession of the island, wiped out many of the natives crushing them in 1641. Tobacco cultivation in the early 1600s was sustained by European laborers. In 1654 80% of the population of Guadeloupe was of European origin.
In the 1600s African slaves were brought in, by 1671 13%. Of the population was of European origin. Guadeloupe produced more sugar than all the British islands combined, worth about £6 million a year; the British captured Guadeloupe in 1759. Britain had seized Canada in the war, debate took place in both Britain and France as to, more valuable, Canada or Guadeloupe. Britain decided Canada, although expensive to maintain, was of greater strategic value and returned Guadeloupe to France in the Treaty of Paris. In 1790, following the French Revolution, monarchists refused to obey the new laws of equal rights for the free people of color and declared independence in 1791. In 1793, a slave rebellion broke out, which made the upper classes turn to the British and ask them to occupy the island. Britain seized Guadeloupe in April 1794. In December 1794, republican governor Victor Hugues used military force, helped by the slave population, to force the British to surrender. Hugues ended slavery, but in 1802, Napoleon I of France restored it, sending a force to recapture the island.
In 1810 the British again seized the island. In the Treaty of Paris of 1814, Sweden ceded Guadeloupe to France, giving rise to the Guadeloupe Fund; the Treaty of Vienna definitively acknowledged French control of Guadeloupe. In 1848, slavery was abolished. Slaves were replaced by indentured servants imported from India to work in the sugar fields. An earthquake in 1843 caused the La Soufrière volcano to erupt. Guadeloupe lost 12,000 of its 150,000 residents in the cholera epidemic of 1865–66. In 1925, after the trial of Henry Sidambarom French nationality and the vote was granted to Indian citizens. In 1946, the colony of Guadeloupe became an overseas department of France. In 2007 the island communes of Saint-Martin and Saint-Barthélemy were detached from Guadeloupe and became two separate French overseas collectivities with their own local administration. In January 2009, labour unions and others known as the Liyannaj Kont Pwofitasyon went on strike for more pay; the strike lasted 44 days. Tourism suffered during this time and affected the 2010 tourist season as well.
The 2009 French Caribbean general strikes exposed deep ethnic and class tensions and disparities within Guadeloupe. Guadeloupe is an archipelago of more than 12 islands, as well as islets and rocks situated where the northeastern Caribbean Sea meets the western Atlantic Ocean, it is in the Leeward Islands, in the northern part of the Lesser Antilles, an island arc a volcanic arc. Most of the inhabitants live on a pair of islands, Basse-Terre Island and Grande-Terre, which form a butterfly shape, viewed from above, the two wings of which are separated by a narrow sea channel, the Salée River. More than half of Guadeloupe's land surface is on Basse-Terre. Western Basse-Terre has a rough volcanic relief while eastern Grande-Terre features rolling hills and flat plains. La Grande Soufrière is the highest mountain peak in the Lesser Antilles, with an elevation of 1,467 metres; the adjacent islands of La Désirade, Les Saintes, Marie-Galante are under jurisdiction of Guadeloupe. The Lesser Antilles are at the outer edge of the Caribbean Plate.
Many of the islands were formed as a result of the subduction of oceanic crust of the Atlantic Plate under the Caribbean Plate in the Lesser Antilles subduction zone. This process is responsible for volcanic and earthquake activity in the region. Guadeloupe was formed from multiple volcanoes. There is an act