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Greensboro, NC - 2/25/10
A Face to Face "social practice" event, The Soapbox Salon: Lee Walton's Search for the Most Average Bowlers
Please help Average Betty win a Tasty Award by voting here and look for Average Betty in these categories: #4 Best Comedy Series, #5 Best Home Chef in a Series, and #8 Best Female Host in a Series.
Click here to cast your vote and please, tell a friend: www.surveymonkey.com/s/viewerschoice2011
The Paparazzi Bots is a series of five autonomous robots each standing at the height of the average human. Comprised of multiple microprocessors, cameras, sensors, code and robotic actuators on a custom-built rolling platform, they move at the speed of a walking human, avoiding walls and obstacles while using sensors to move toward humans. They seek one thing, which is to capture photos of people and to make these images available to the press and the world wide web as a statement of culture's obsession with the “celebrity image” and especially our own images. The flash autonomously goes off, capturing people’s photos and elevating them to “celebrity” in a kind of momentary anointing by the robots. The robots also become celebrities through their association to the “famous people” at the exhibition that are captured by the Paparazzi Bots.
Each autonomous robot can make the decision to take the photos of particular people, while ignoring other humans in the exhibition, based on things such as, whether or not the viewers are smiling or the shape of their smile. When the robots identify a person or group they will automatically adjust their focus and use a series of bright flashes to record that moment.
Surveillance technologies straddle a delicate balance that we have in contemporary culture, where we are all photographed without our knowledge by cell phones, hidden cameras and sometimes “celebritized”. This is a kind of modern baptism with the camera flash and the spectacle of being the focus of the camera becoming a kind of techno anointing.
This work explores ideas surrounding the shifting territories of self and machine and how machines can manipulate the other (us) in a grand co-evolutionary dance of emerging robot-human relations.
The recent emergence of social networks and their ability to connect people through software prompts via the world wide web is a prime example of the co-evolution of humans and their intelligent machines. The fact that the software prompts exploit our social needs for connectivity and social space is so easily exploited in this new critical juncture in our emerging machine human relations.
This camera can track your head and be set to take a photo if you smile mildly, medium-smile or pull-a-muscle smile. When set to smile mode, they do seem to prefer even smiles rather than crooked smiles so here the machine is making determinations about issues of "beauty". I have considered holding a robot beauty contest as an addition to this work.
By Ken Rinaldo.
Special Thanks to Shirley Madill curator who invited these works to Toronto for Nuit Blanche
Special Thanks to Amy Youngs the midwife to the birth of these robots.
Thanks to the Dynasty Foundation, Russia and Dmitry Bulatov Curator, for funding this robot Commission.
Thanks to Malcolm Levy who invited the production of three more Paparazzi Bots for the Vancouver Olympics in 2010
Thanks to the College of Arts and Humanities for further funding of this project.
ENGLISH:
Average milk yield of about 7'000l per year.
ESPAÑOL:
La producción de leche promedio de alrededor 7'000l por año.
DEUTSCH:
Durchschnittliche Milchleistung von ca. 7'000l pro Jahr.
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More 1/87 cattle or models and dioramas in
Your average WashTec at a Total petrol station but an unusual sight because it's located at a (massive) car dealership. They have they own car wash too. The car dealership exists since 50 years or so and had a petrol station from the beggining but a car wash since 1996. Probably a Wesumat because the chassis wash unit seems to be from Wesumat.
The Moon is Earth's only natural satellite. It orbits at an average distance of 384,400 km (238,900 mi), about 30 times the diameter of Earth. Over time Earth's gravity has caused tidal locking, causing the same side of the Moon to always face Earth. Because of this, the lunar day and the lunar month are the same length, at 29.5 Earth days. The Moon's gravitational pull – and to a lesser extent, the Sun's – are the main drivers of Earth's tides.
In geophysical terms the Moon is a planetary-mass object or satellite planet. Its mass is 1.2% that of the Earth, and its diameter is 3,474 km (2,159 mi), roughly one-quarter of Earth's (about as wide as Australia.) Within the Solar System, it is the largest and most massive satellite in relation to its parent planet, the fifth largest and most massive moon overall, and larger and more massive than all known dwarf planets. Its surface gravity is about one sixth of Earth's, about half of that of Mars, and the second highest among all Solar System moons, after Jupiter's moon Io. The body of the Moon is differentiated and terrestrial, with no significant hydrosphere, atmosphere, or magnetic field. It formed 4.51 billion years ago, not long after Earth's formation, out of the debris from a giant impact between Earth and a hypothesized Mars-sized body called Theia.
The lunar surface is covered in lunar dust and marked by mountains, impact craters, their ejecta, ray-like streaks and, mostly on the near side of the Moon, by dark maria ("seas"), which are plains of cooled magma. These maria were formed when molten lava flowed into ancient impact basins. The Moon is, beside when passing through Earth's shadow during a lunar eclipse, always illuminated by the Sun, but from Earth the visible illumination shifts during its orbit, producing the lunar phases. The Moon is the brightest celestial object in Earth's night sky. This is mainly due to its large angular diameter, while the reflectance of the lunar surface is comparable to that of asphalt. The apparent size is nearly the same as that of the Sun, allowing it to cover the Sun almost completely during a total solar eclipse. From Earth about 59% of the lunar surface is visible over time due to cyclical shifts in perspective (libration), making parts of the far side of the Moon visible.
For humans the Moon has been an important source of inspiration and knowledge, having been crucial to cosmography, mythology, religion, art, time keeping, natural science, and spaceflight. On September 13, 1959, the first human-made object to reach an extraterrestrial body arrived on the Moon, the Soviet Union's Luna 2 impactor. In 1966, the Moon became the first extraterrestrial body where soft landings and orbital insertions were achieved. On July 20, 1969, humans for the first time landed on the Moon and any extraterrestrial body, at Mare Tranquillitatis with the lander Eagle of the United States' Apollo 11 mission. Five more crews were sent between then and 1972, each with two men landing on the surface. The longest stay was 75 hours by the Apollo 17 crew. Since then, exploration of the Moon has continued robotically with crewed missions being planned to return beginning in the late 2020s.
The origin of the Moon is usually explained by a Mars-sized body striking the Earth, creating a debris ring that eventually collected into a single natural satellite, the Moon, but there are a number of variations on this giant-impact hypothesis, as well as alternative explanations, and research continues into how the Moon came to be formed. Other proposed scenarios include captured body, fission, formed together (condensation theory, synestia), planetesimal collisions (formed from asteroid-like bodies), and collision theories.
The standard giant-impact hypothesis suggests that a Mars-sized body, called Theia, impacted the proto-Earth, creating a large debris ring around Earth, which then accreted to form the Moon. This collision also resulted in the 23.5° tilted axis of the Earth, thus causing the seasons. The Moon's oxygen isotopic ratios seem to be essentially identical to Earth's. Oxygen isotopic ratios, which may be measured very precisely, yield a unique and distinct signature for each Solar System body. If Theia had been a separate protoplanet, it probably would have had a different oxygen isotopic signature than proto-Earth, as would the ejected mixed material. Also, the Moon's titanium isotope ratio (50Ti/47Ti) appears so close to the Earth's (within 4 parts per million) that little if any of the colliding body's mass could likely have been part of the Moon.
"One of the challenges to the longstanding theory of the collision, is that a Mars-sized impacting body, whose composition likely would have differed substantially from that of Earth, likely would have left Earth and the moon with different chemical compositions, which they are not."
Some theories have been stated that presume the proto-Earth had no large moons early in the formation of the Solar System, 4.425 billion years ago, Earth being basically rock and lava. Theia, an early protoplanet the size of Mars, hit Earth in such a way that it ejected a considerable amount of material away from Earth. Some proportion of these ejecta escaped into space, but the rest consolidated into a single spherical body in orbit about Earth, creating the Moon.
The hypothesis requires a collision between a proto-Earth about 90% of the diameter of present Earth, and another body the diameter of Mars (half of the terrestrial diameter and a tenth of its mass). The latter has sometimes been referred to as Theia, the name of the mother of Selene, the Moon goddess in Greek mythology. This size ratio is needed in order for the resulting system to have sufficient angular momentum to match the current orbital configuration. Such an impact would have put enough material into orbit around Earth to have eventually accumulated to form the Moon.
Computer simulations show a need for a glancing blow, which causes a portion of the collider to form a long arm of material that then shears off. The asymmetrical shape of the Earth following the collision then causes this material to settle into an orbit around the main mass. The energy involved in this collision is impressive: possibly trillions of tonnes of material would have been vaporized and melted. In parts of the Earth, the temperature would have risen to 10,000 °C (18,000 °F).
The Moon's relatively small iron core (compared to other rocky planets and moons in the Solar System) is explained by Theia's core mostly merging into that of Earth. The lack of volatiles in the lunar samples is also explained in part by the energy of the collision. The energy liberated during the reaccretion of material in orbit around Earth would have been sufficient to melt a large portion of the Moon, leading to the generation of a magma ocean.
The newly formed Moon orbited at about one-tenth the distance that it does today, and spiraled outward because of tidal friction transferring angular momentum from the rotations of both bodies to the Moon's orbital motion. Along the way, the Moon's rotation became tidally locked to Earth, so that one side of the Moon continually faces toward Earth. Also, the Moon would have collided with and incorporated any small preexisting satellites of Earth, which would have shared the Earth's composition, including isotopic abundances. The geology of the Moon has since been more independent of the Earth.
A 2012 study on the depletion of zinc isotopes on the Moon found evidence for volatile depletion consistent with the giant-impact origin for Earth and the Moon. In 2013, a study was released that indicated that water in lunar magma is indistinguishable from that in carbonaceous chondrites and nearly the same as that of Earth in isotopic composition.
Although the giant-impact hypothesis explains many aspects of the Earth–Moon system, there are still a few unresolved problems, such as the Moon's volatile elements not being as depleted as expected from such an energetic impact.
Another issue is lunar and Earth isotope comparisons. In 2001, the most precise measurement yet of the isotopic signatures of Moon rocks was published. Surprisingly, the Apollo lunar samples carried an isotopic signature identical to Earth rocks, but different from other Solar System bodies. Because most of the material that went into orbit to form the Moon was thought to come from Theia, this observation was unexpected. In 2007, researchers from Caltech showed that the likelihood of Theia having an identical isotopic signature as the Earth is very small (less than 1 percent chance). Published in 2012, an analysis of titanium isotopes in Apollo lunar samples showed that the Moon has the same composition as Earth, which conflicts with the Moon forming far from Earth's orbit.
To help resolve these problems, a theory published in 2012 posits that two bodies—each five times the size of Mars—collided, then recollided, forming a large disc of mixed debris that eventually formed Earth and the Moon.
The Moon is traditionally thought to have coalesced from the debris ejected by a giant impact onto the early Earth. However, such models struggle to explain the similar isotopic compositions of Earth and lunar rocks at the same time as the system's angular momentum, and the details of potential impact scenarios are hotly debated. Above a high resolution threshold for simulations, a study published in 2022 finds that giant impacts can immediately place a satellite with similar mass and iron content to the Moon into orbit far outside Earth's Roche limit. Even satellites that initially pass within the Roche limit can reliably and predictably survive, by being partially stripped and then torqued onto wider, stable orbits. Furthermore, the outer layers of these directly formed satellites are molten over cooler interiors and are composed of around 60% proto-Earth material. This could alleviate the tension between the Moon's Earth-like isotopic composition and the different signature expected for the impactor. Immediate formation opens up new options for the Moon's early orbit and evolution, including the possibility of a highly tilted orbit to explain the lunar inclination, and offers a simpler, single-stage scenario for the origin of the Moon.
In 2004, Russian astrophysicist Nikolai Gorkavyi proposed a novel model titled the multiple large asteroid impacts model, which found support from a notable group of Russian astronomers in 2013 and later, in 2017, by planetary researchers at Weizmann Institute of Science in Rehovot, Israel. In general terms, the main idea of the model suggests that the Moon was formed as a result of a violent rain of large asteroids (1–100 km) that repeatedly hammered the fledgling Earth over millions of years. Such a series of smaller impacts, which were likely more common in the early Solar System, could blast enough rocky Earth debris into orbit to form a protosatellite disk which later forms into a small moonlet. As repeated impacts created more balls of debris, the moonlets could merge over time into one large moon.
In 2018 researchers at Harvard and the UC Davis developed computer models demonstrating that one possible outcome of a planetary collision is that it creates a synestia, a mass of vaporized rock and metal which forms a biconcave disc extending beyond the lunar orbit. The synestia will eventually shrink and cool to accrete the satellite and reform the impacted planet.
This hypothesis states that the Moon was captured by the Earth. This model was popular until the 1980s, and some points in its favor are the Moon's size, orbit, and tidal locking.
One problem is understanding the capture mechanism. A close encounter of two planetary bodies typically results in either collision or altered trajectories. For this hypothesis to work, there might have been a large atmosphere around the primitive Earth, which would slow the movement of the Moon by aerobraking before it could escape. That hypothesis may also explain the irregular satellite orbits of Jupiter and Saturn. However, this hypothesis does not adequately explain the essentially identical oxygen isotope ratios of the two bodies.
This is the now discredited hypothesis that an ancient, rapidly spinning Earth expelled a piece of its mass. This was first proposed by George Darwin (son of the famous biologist Charles Darwin) in 1879 and retained some popularity until Apollo. The Austrian geologist Otto Ampferer in 1925 also suggested the emerging of the Moon as cause for continental drift.
It was proposed that the Pacific Ocean represented the scar of this event. Today it is known that the oceanic crust that makes up this ocean basin is relatively young, about 200 million years old or less, whereas the Moon is much older. The Moon does not consist of oceanic crust but of mantle material, which originated inside the proto-Earth in the Precambrian.
The hypothesis of accretion suggests that the Earth and the Moon formed together as a double system from the primordial accretion disk of the Solar System or even a black hole. The problem with this hypothesis is that it does not explain the angular momentum of the Earth-Moon system or why the Moon has a relatively small iron core compared to the Earth (25% of its radius compared to 50% for the Earth).
Dutch scientists Rob de Meijer and Wim van Westrenen suggested in 2010 that the Moon may have formed from a nuclear explosion caused by the centrifugal force of an earlier, spinning proto-Earth. The centrifugal force would have concentrated heavy elements such as thorium and uranium on the equatorial plane and at the boundary between the Earth's outer core and mantle. If the concentrations of these radioactive elements were high enough, this could have led to a nuclear chain reaction that became supercritical, causing a nuclear explosion ejecting the Moon into orbit. This natural nuclear fission reactor has been observed on Earth at a much smaller scale.
In 2011, it was theorized that a second moon existed 4.5 billion years ago, and later had an impact with the Moon, as a part of the accretion process in the formation of the Moon.
One hypothesis, presented only as a possibility, was that the Earth captured the Moon from Venus.
Uranium–lead dating of Apollo 14 zircon fragments shows the age of the Moon to be about 4.51 billion years.
A team of researchers of the Miniature Radio Frequency (Mini-RF) instrument on NASA's Lunar Reconnaissance Orbiter (LRO) spacecraft concluded that the Moon's subsurface may be richer in metals, like iron and titanium, more than scientists had believed.
In July 2020 scientists report that the Moon formed 4.425 ±0.025 bya, about 85 million years later than thought, and that it hosted an ocean of magma for substantially longer than previously thought (for ~200 million years).
On 1 November 2023, scientists reported that, according to computer simulations, remnants of a protoplanet, named Theia, could be inside the Earth, left over from a collision with the Earth in ancient times, and afterwards becoming the Moon.
Greensboro, NC - 2/25/10
A Face to Face "social practice" event, The Soapbox Salon: Lee Walton's Search for the Most Average Bowlers
Greensboro, NC - 2/25/10
A Face to Face "social practice" event, The Soapbox Salon: Lee Walton's Search for the Most Average Bowlers
Greensboro, NC - 2/25/10
A Face to Face "social practice" event, The Soapbox Salon: Lee Walton's Search for the Most Average Bowlers
Greensboro, NC - 2/25/10
A Face to Face "social practice" event, The Soapbox Salon: Lee Walton's Search for the Most Average Bowlers
Greensboro, NC - 2/25/10
A Face to Face "social practice" event, The Soapbox Salon: Lee Walton's Search for the Most Average Bowlers
The treats arrived a little early for Average Betty this month! Flip to page 67 of the October MacLife Magazine and you'll see Betty in the latest MacGourmet Deluxe advertisement for Mariner Software. It's an honor for Betty to represent MacGourmet Deluxe and appear in such a well-respected publication. Thanks, Mariner Software! Betty loves you!
Greensboro, NC - 2/25/10
A Face to Face "social practice" event, The Soapbox Salon: Lee Walton's Search for the Most Average Bowlers
The Bundi Palace is situated on the hillside adjacent to the Taragarh Fort and is notable for its lavish traditional murals and frescoes. The Chitrashala (picture gallery) of the palace is open to the general public.
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Bundi is a city with 104,457 101,000 inhabitants (2011) in the Hadoti region of Rajasthan state in northwest India. It is of particular architectural note for its ornate forts, palaces, and stepwell reservoirs known as baoris. It is the administrative headquarters of Bundi District.
GEOGRAPHY
The town of Bundi is situated 35 km from Kota and 210 km from Jaipur. It is located at 25.44°N 75.64°E and an average elevation of 268 metres. The city lies near a narrow gorge, and is surrounded on three sides by hills of the Aravalli Range. A substantial wall with four gateways encircles the city. The town of Indragarh and nearby places are famous for the renowned temples of Bijasan Mata and Kamleshwar. The Indargarh step well is considered as one of the most attractive places in the Bundi district, especially during the rainy season.
DEMOGRAPHICS
In the 2001 Indian census, Bundi had a population of 88,312. Males constitute 53% of the population and females 47%. Bundi has an average literacy rate of 67%, higher than the national average of 59.5%; with male literacy of 75% and female literacy of 57%. 14% of the population is under 6 years of age. In the 2011 Indian census Bundi has a population of 104,457 people.
HISTORY
In ancient times, the area around Bundi was apparently inhabited by various local tribes. Bundi and the eponymous princely state are said to derive their names from a former Meena tribe man called Bunda Meena. Bundi was previously called “Bunda-Ka-Nal", Nal meaning “narrow ways”. Later the region was governed by Rao Deva Hada, who took over Bundi from Jaita Meena in 1342, and established a princely state Bundi, renaming the surrounding area called Hadoti, the land of great Hada Rajputs.
MUGHAL ERA
Rao Surjan (1554–85) given Ranthambore Fort to Akbar in 1533. He was subsequently rewarded by Akbar with additional territory which expanded his kingdom. Both he and his successors entered the service of the Mughals and became one of their closest allies. From this time the rulers of Bundi bore the title of "Rao Raja".
One of the most notable rulers was Rao Ratan Singh Hada (1607–31) who saw service during the reign of the Emperor Jahangir. When Mughal Prince Khurram rebelled against his father, and gained the support of 22 Rajput princes, Rattan Singh stayed loyal to Jahangir. He defeated Prince Khurram at the battle of Burhanpur during which two of his sons were badly wounded. As a reward for his service Jahangir gave Ratan Singh many honours. With his 14 year old son Madho Singh having proven himself during the suppression of the rebellion as a courageous warrior Ratan Singh carved out of Bundi in 1580 sufficient land to create for Madho Singh the independent principality of Kota. Part of Kota was later used to create the separate Jhalawar State in 1838. Despite the loss of land to the new kingdom Ratan Singh retained sufficient territory and revenues to begin construction of the Garh palace.
Rao Chhattra Sal (1632–58) built the temple of Keshavarao at Patan and Chattra Mahal at Bundi. He saw service with the Mughal forces in the Deccan and was trusted by Dara Shikoh with governorship of Delhi, a rare privilege for a Rajput. He remained loyal to Shah Jahan and Dara Shikoh during the rebellion of Aurangzeb despite many temptations and died fighting at the head of his troops at the battle of Samurgarh in 1658 along with his youngest son Bharat Singh. Rao Bhao Singh (1658–78) the eldest son of Chhattar Sal succeeded his father to the throne of Bundi. When after the defeat of Dara Shikoh and his imprisonment of Shah Jahan, Aurangzeb became the Mughul emperor he dispatched troop under the command of Atmaram Gaur and Barh Singh Bundela to conquer Bundi. When they failed Aurangzeb made peace with Bhao Singh. Bhao Singh became sufficiently reconciled to Aurangzeb that he fought for him against Shivaji and at one time served as governor of Aurangabad. When his own son died during his lifetime he adopted Kishan Singh, the son of his brother Bhim Singh. When Kishan Singh too died early his 15 year old son Anirudh Singh (1682 to 1696) succeeded Bhao Singh on the throne.
Anirudh Singh served Aurangzeb in the Deccan and in the northwest under Prince Muazzam where he died. He was succeed by his eldest son Budha Singh, whose service to Muazzam (later Emperor Bahadur Shah I) in the war of succession to the Mughul throne saw the Bundi become dominate over Kota those ruler had backed the losing side.
During the reign of Rao Budh Singh (1696 to 1735) despite him being married to the sister of Jai Singh II of Jaipur, a bitter feud broke out between Bundi and the Kachwaha rulers of Amber (later called Jaipur) which led to him being expelled from his kingdom by surprise attack by the Kachwaha forces in 1702. He regained and lost his kingdom four times before he died in exile while Jaipur and Kota annexed large portion of his territory. It wasn’t until 1739 before the Bundi rulers were able to regain control of their kingdom after enlisting the aid of the Maratha general Malhar Rao Holkar who kept the estate of Patan for his services.
Relations became uneasy with Mewar after Prince Ajit Singh the heir to the Bundi throne killed Rana Ari Singh of Udaipur during the annual Aheria (Bundi’s ritual spring hunt) in 1773. Through claimed to be an accident Mewar historical records consider that it was an assassination which removed an unpopular ruler.
According to an ancient prophecy made by a dying sati it was said that if the rulers of Bundi and Mewar should ever meet at the event one of the two would die. According to legend, over the centuries such a meeting took place four times and on each occasion one of the rulers was killed by the other. Mewar sources indicate that there was only one other occasion when a Mewar ruler died when in 1531 Maharana Ratan Singh II of Mewar, accompanied Prince Surajmal of Bundi on a hunt. The two men despised each other. During the hunt the Maharana attacked Prince Surajmal which ended with both dying within minutes of each other.
BRITISH ERA
In 1804 Rao Raja Bishan Singh (1773–1821) gave valuable assistance to Colonel Monson in his disastrous retreat before Holkar, in revenge for which the Maratha Empire and Pindaris continually ravaged his state and forced the kingdom to pay tribute up to 1817 This led to Bishan Singh signing a subsidiary alliance with the British East India Company on 10 February 1818, which bought him under its protection. Bishan Singh was responsible for the creation of the pleasure palace of Sukh Niwas on the outskirts of Bundi.
Bishan Singh when dying of cholera entrusted James Tod with guardianship of his 11-year old son, Ram Singh. Maharao Raja Ram Singh (1821–89) grew up to be a much respected ruler who initiated economic and administrative reforms as well as establishing schools for the teaching of Sanskrit. On the throne for 68 years he was described as a grand specimen of the Rajput gentleman and "the most conservative prince in conservative Rajputana." His rule was popular and beneficial; and though during the mutiny of 1857 his attitude was equivocal, he continued to enjoy the confidence of the British, being created G.C.S.I. and a counsellor of the empire in 1877 and C.I.E. in 1878. He was succeeded by his adopted son Raghubir Singh (1889–1927), who was made a K.C.S.I. in 1897 and a G.C.I.E. in 1901. His reign was blighted by two disastrous famines which despite his best attempts to alleviated saw the population of his kingdom reduced from some 258,000 to 171,000 by 1901 due to death and immigration. Raghubir Singh supported the British during the World War I.[citation needed]
Maharao Bahadur Singh (1945–77) also supported the British and served in the Burma campaign where he earned the Military Cross for his gallantry before succeeding to the throne. He was a guest at the 1947 wedding of Princess Elizabeth and Philip, Duke of Edinburgh.
ACCESSION TO INDIA
At the time of the partition of India in 1947, the British abandoned their suzerainty over the princely states, which were left to decide whether to remain independent or to accede to the newly independent Dominion of India or to Pakistan. The ruler of the state of Bundi decided to accede to India, which later became the Union of India. This brought the internal affairs of Bundi under the control of Delhi.
RULERS
The hereditary rulers of Bundi used the title ‘Rao’ before being granted the prefix ‘Raja’ by the Mughals. A Raja is a ruler of exalted rank but inferior to Maharana or Maharawal.
- Rao Deva (1343 to 1342).
- Rao Napuji.
- Rao Hamuli (1384 to 1400).
- Rao Birsingh (1400 to 1415).
- Rao Biru (1415 to 1470).
- Rao Bandu (1470 to 1491).
- Rao Narayan Das (1491 to 1527).
- Rao Suraj Mal (1527 to 1531).
- Rao Surtan Singh (1531 to 1544).
- Rao Raja Surjan Singh (1544 to 1585).
- Rao Raja Bhoj Singh (1585 to 1608).
- Rao Raja Ratan Singh (1608 to 1632).
- Rao Raja Chhattar Sal Singh (1632 to 1658).
- Rao Raja Bhao Singh (1658 to1682).
- Rao Raja Anirudh Singh (1682 to 1696).
- Rao Raja Budh Singh (b. ... - d. 1739) (1696 to 1735).
- Rao Raja Dalel Singh (b. 1729 - d. 1804) (1735 to 1749).
- Rao Raja Umaid Singh (1749 to 1770) and again (1773 to 1804).
- Rao Raja Ajit Singh (b. ... - d. 1773) (1770 to 1773).
- Rao Raja Bishen Singh (b. ... - d. 1821) (1804 to 14 May 1821).
- Maharao Raja Ram Singh Sahib Bahadur (b. 1811 - d. 1889) (1821 to 28 Mar 1889).
- Colonel HH Maharao Raja Shri Sir Raghubir Singh Sahib Bahadur (b. 1869 - d. 1927) (12 April 1889 to 28 Jul 1927).
- Major HH Maharao Raja Shri Sir Iishwari Singh Bahadur (b. 1893 - d. 1945) (8 Aug 1927 to 3 Apr 1945).
- Col. HH Maharao Raja Shri Bahadur Singh Bahadur (1945 to 1977).
- HH Maharao Raja Ranjit Singh (b. 1920 - d. 1977) (1977 to 07-01-2010).
COAT OF ARMS
Bundi’s coat of arms is a shield depicting Garuda, the mount of Vishnu, flanked by winged griffins. The shield is flanked by bulls representing dharma or righteousness; it is crowned by a warrior emerging from flames, signifying the creation-legend of the ruling Chauhan clan, which was supposedly created from fire.
TOURIST ATTRACTIONS
- The Taragarh Fort, or 'Star Fort' is the most impressive of the city's structures. It was constructed in AD 1354 upon the top of steep hillside overlooking the city. The largest of its battlements is the 16th century bastion known as the Bhim Burj, on which was once mounted a particularly large cannon called Garbh Gunjam, or 'Thunder from the Womb'. The fort is a popular tourist viewpoint of the city below. The fort contains three tanks which never dry up. The technique with which they were built has been long since lost but the tanks survive as a testament to the advanced methods of construction and engineering in medieval India.
- The Bundi Palace is situated on the hillside adjacent to the Taragarh Fort and is notable for its lavish traditional murals and frescoes. The Chitrashala (picture gallery) of the palace is open to the general public.
- The largest of Bundi's baoris or stepwells is the intricately carved Raniji ki Baori. Some 46 m deep, it was built in 1699 by Rani Nathavatji. The steps built into the sides of the water-well made water accessible even when at a very low level. The baori is one of the largest examples of its kind in Rajasthan.
- The Nawal Sagar is a large square-shaped artificial lake in the centre of Bundi containing many small islets. A temple dedicated to Varuna, the vedic god of water, stands half-submerged in the middle of the lake. the lake feeds the numerous bavdis in the old city by creating an artificial water table.
- The Nagar Sagar twin step wells are identical step wells crafted in pristine masonry on either side of the main spine of Bundi town. The kunds (pools) are currently full of waste from the ancient vegetable market in the vicinity.
- The Dabhai Kund also known as the jail kund, is the largest of the kunds in Bundi. Though slightly overgrown, it is well worth a visit for the spectacular carvings on the numerous steps leading down to the water level.
THE STEPWELLS
There are over 50 stepwells in Bundi, of which only a handful have been maintained. They used to be the only source of water for the town until a piped water system was introduced. After that these stepwells were abandoned and the monuments fell into disrepair. Most of the former stepwells inside the town have become garbage dumps, and are slipping out of the public consciousness.
FESTIVALS
Festivals of Bundi
1. Kajali Teej
2. The Gangaur Festival
3. Bundi Festival - started by Rajmata Sahiba Daulat Kanwar Of Dugari & Shri Madhukarji Gupta which was inaugurated by Shreeji Arvin singhji Mewar & Kunwar Shivam Singh Dugari in !998.
WIKIPEDIA
Greensboro, NC - 2/25/10
A Face to Face "social practice" event, The Soapbox Salon: Lee Walton's Search for the Most Average Bowlers
DAY 2 Of Legends Of Brands Hatch Superprix And it was time to see who could Brave the Grand Prix Circuit and Take Home Victory in The First Few Races held Thought Saturday.
After A Very Busy Day Yesterday with Qualifying it will be Interesting to see Which Drivers from each Support Race can take home Victory and The Win for their Respective Teams.
Classic Formula Ford With Historic Formula 3-(Race 1 Results)
Classic Formula Fords And Historic Formula 3 were up and After an Exciting Race and Qualifying Yesterday Lets See who Emerged in the First Race As The Winner.
In First Place and Taking Victory was (Cam Jackson) in his Winkelmann WDF2 with A Lap Time Of 1:52.141 and an Average Speed of 76.65mph.
An Amazing Drive from Cameron Jackson Showing the Speed and Commitment It takes to Race A Classic Formula Ford around the Grand Prix Loupe. Awesome Work Cam.
In Second Place was (Henry Chart) in his Van Diemen RF81 with A Lap Time Of 1:52.396 And An Average Speed of 75.86mph.
A Super Drive and A Really Good Battle with Cam Henry. Well Done
In Third Place was (Ben Tinkler) in his Van Diemen RF80 with a Lap Time of 1:57.181 And an Average Speed of 73.80mph.
A Fantastic Drive by Ben and a well Controlled Drive to take Third Place. Brilliant Work.
Fantastic Work to Cam, Henry And Ben for putting on one Hell of a Race and showing the Power of the Formula Ford Engine.
Looking forward to seeing more Race action from Thease Guys and the Rest of The Formula Ford And Historic Formula 3 Racing Drivers Tomorrow.
A Big Congratulations to all Three Drivers on First Second and Third.
HGPCA Historic Pre 66 Grand Prix Cars-(Race 1 Results)
Historic Pre 66 Grand Prix cars were Up Next and Featuring some very Big Names of Cars Racing such as Maserati Ferrari and Cooper.
Lets see what Happened and Who Managed to take Victory in the Pre 66 Grand Prix Cars Race.
In First Place and Taking Victory was (John Spiers) In His Maserati 250F with A Lap Time of 1:50.306 and An Average Speed of 77.84mph.
A Storming Drive From John to take The victory and Really showed Off just how Capable and Powerful Thease Pre 66 Grand Prix Cars can be. A Fantastic Victory John.
In Second Place was (Rod Jolly) in His Lister Jaguar Monza with A Lap Time of 1:51.705 and An Average Speed of 77.50mph.
Pushing His Jaguar to the Limit and Nearly Taking Victory Away from John on a Couple of Corners. Amazing Drive.
In Third Place was (Eddie McGuire) In His Scarab with A Lap Time of 1:52.196 and An Average Speed of 75.64mph.
A Well and Truly Earned Third Place for Eddie After Fighting Hard with Others Drivers for the Spot and Taking Third Place. A Very Committed Drive Eddie.
A Fantastic Result for The First Race for Pre 66 Grand Prix Cars and Three very Talented Drivers in John, Rod And Eddie. Good Luck to All Other Drivers Racing and Lets See What Tomorrow Brings for You. Hopefully A Podium Finish.
HSCC / FJHRA Silverline Historic Formula Junior-(Race 1 Results)
It Was Time For HSCC And Historic Formula Junior To Take to the Track and See who Could Take Victory in their Respective Race.
With Junior Drivers Involved Anything Is Possible. Lets See who put the Pedal to the Metal and Made History in This One.
In First Place was (Chris Goodwin In His Lotus 22 with A Lap Time of 1:42.576 And an Average Speed of 65.29mph.
A Spirited Drive from Chris has allowed him to take The Victory. Congratulations Chris and an Amazing Drive from Pole Position. Keep up The Fantastic Performance And Commitment.
In Second Place was (Richard Wilson) in his Brabham BT6 with A Lap Time of 1:45.325 And An Average Speed of 65.02mph.
Another Triumphen Drive from Richard to Take Second Place Well Done Richard.
In Third Place was (Adrian Russel) in His Lotus 22 with A Lap Time of 1:45.853 And An Average Speed of 64.94mph.
Very Well Driven Adrian and a Close Finish with Richard for Second Place in the Process. That was One Incredible Charge.
Another Fantastic Race from The Historic Formula Junior Racing Drivers. Each One showing the Skill and Commitment To Taming Thease Little Beasts.
Congratulations to Chris, Richard and Adrian And Good Luck to all Other Drivers Work Hard And Keep Pushing for That All Important Victory.
HSCC Classic Formula 3 -(Race 2 Results)
Historic Formula 3 was about to Take on the Might of The Brands Hatch GP Loop Featuring Cars from the Classic Formula 3 Era Such as The March 783 The Chevron B43 and The Royal RP27.
Thease Machines May Look Docile but When Racing they put on a Huge Display of Both Power and Speed to Rival even that of their Formula 1 Counterparts of the Era.
Let's See How The Race went and Who was Able To take Victory and Stand on the Top Step of the Podium.
In First Place was (Andy Smith) In his March 783 with A Lap Time of 1:42.113 and An Average Speed of 82.64mph.
Very Fast and Very Consistent Driving from Andy to Take Victory and End Up on the Top Step of the Podium. Congratulations Andy Well Deserved.
In Second Place was (Murray Shepherd) in His Van Diemen RF82 with A Lap Time of 1:44.583 And an Average Speed of 81.75mph.
Another Fantastic Drive from Murray to keep The Pace up and Defend Second Place from the Others Drivers All Fighting to take it away. Well Done Murray.
In Third Place was (Ben Tilley) In His March 743 with A Lap Time of 1:43.571 And an Average Speed of 81.75mph.
Matching The Speed of Murray and Still Keeping Him on His Toes in order to Try and Take that Second Place Away from Him.
A Very Well Driven Race from Ben and Keep Working towards that Second Place Finnish. Outstanding Drive.
Classic Formula 3 Has Shown us Three Capable Drivers who Battled it out and Came out Victorious in the Race. Andy Murray and Ben will have to Keep Working Hard to Defend Their Respective Places.
Could anyone Else Take those Victories from them? Only Time will Tell.
HSCC Historic Formula Ford 2000
Its Time for Historic Formula Ford 2000 and To see who Can Take The Victory in This Race. With Cars that Are capable of Nearly 100mph Around The Grand Prix Circuit it will be Interesting to see who is Brave Enough to Push Their Ford to its Limits.
In First Place was (Graham Fennymore) in His Reynard SF81 with A Lap Time of 1:35.793 And an Average Speed of 89.99mph. A Fierce Drive with Speedy Reactions to Claim the Victory. Incredible Work Graham.
In Second Place was (Ian Pearson) in His Royal RP30 with A Lap Time of 1:36.029 And an Average Speed of 89.74mph.
Another Super Drive From Ian with Speeds and Performance Very Close to Graham. Both Drivers Pushing Hard and Not giving an Inch Thought the Race.
In Third Place was (Andrew Storer) in his Reynard SF79 with A Lap Time of 1:37.187 and An Average Speed of 88.64mph.
Awesome Work from Andrew Despite Finishing Second in the Previous Race. Keep Pushing Hard.
A Fantastic Day for The Formula Ford 2000 and An Excellent Set of Victories for Graham Ian and Andrew.
Well Done to all other Drivers who Took Part as well Work Hard and Always Keep Pushing to Your Limits And Beyond.
HSCC Thundersports -(Race Results)
Finally it was the turn of the Thundersports High Powered Machinery Versus The Grand Prix Loop. With Close Qualifying from Yesterday.
Lets find out who the Final Three Drivers are for Saturday who took too The Podium.
In First Place was (James Claridge) in his Chevron B23 with A Lap Time of 1:31.148 and An Average Speed of 84.64mph.
A Fantastic Job from James in a Machine that is so fast And Yet Looked so At Home on the Race Track with Him Behind the Wheel.
Congratulations James A Fine Job Indeed.
In Second Place was (Mark Richardson) in His Lola T290 with A Lap Time of 1:30.458 and An Average Speed of 84.62mph.
Another Drive by A True Racing Driver and Even Eric Broadly would Have been Proud To see that One. Fantastic Work Mark.
In Third Place was (Robert Shaw) in His Chevron B19 with A Lap Time of 1:33.032 And an Average Speed of 82.62mph.
Very Well Done from Robert Who Defended Third Place Like his Life Depended on it.
A Wonderful Way to End Saturday at The Superprix Of Brands Hatch with Many New and Rising Talents Still Left to show what they can do Come Sundays FINALE.
Congratulations to all of the Race Winners and Good Luck to Those still fighting for that all Important Podium Spot.
See You All on Sunday.
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Meerkats are born with hair but not full coats and with their eyes closed. They will live in the wild up to 10 years. However, in captivity they can live to be 15 years of age. Although they are relatively healthy animals, they are unfortunately prone to bovine tuberculosis and have been known to get rabies. When they are adults at about one year of age they will weigh around 2 pounds (750 - 820 grams) and stand an average of 12 inches high (30 centimeters). When they are on all four of their feet their height is only 6 inches (15 centimeters). Like all mongooses, they are agile hunters; however, they differ considerably from most of their other relatives. Unlike the typical mongoose of which there are around 35 types, Meerkats live in communities and depend on one another for survival. There are three other types of sociable mongooses, the Banded, the Kousi Mansi and the Dwarf mongooses. They also live in groups, but are not usually found in the Kalahari desert. While most mongooses are nocturnal, Meerkats hunt during the day. They live at night in burrows, which are complex tunnel systems consisting of mounds, access holes, and tunnels which lead to numerous sleeping chambers. A Meerkat community is called a mob or gang, and can number up to 40. There is always a dominate alpha male and dominate alpha female in each gang. The Meerkats larger mongoose relatives typically live alone or in pairs. These intelligent animals are extremely communicative and posses a large vocabulary. They flourish in their environment and are not endangered.
Meerkats live in southern part of Africa which is dominated by the Kalahari desert - The Kalahari spreads over the countries of South Africa, Namibia, Angola, Botswana, and Zimbabwe. The Kalahari desert has little rainfall and an arid climate with open plains. It spreads across the Southern part of Africa covering over one million square miles and is 10 times the size of Great Britain. The land is covered by a porous or soft sand that in many places is bright orange in color. The temperature in the summer months of October to April can reach 115 (f) or around 40 (c) which can give a sand temperature of 158 (f) or 70(c). In this harsh environment the difference between being in the sun and shade can be up to 86 (f) or 30 (c). The winter months from May to September are very different from the summer, you will see highs around 70 (f) or 22 (c) during the short days and lows at night down to 14 (f) or -10 (c). Winter is the dry season.
The average rainfall is 12 inches (300 millimeters) which comes between January and April. This is towards the end of the summer. There is little surface water but there is quite a bit of moisture below the sand. Generally, the broad plains of the Kalahari are covered with a thin coat of different types of grass and thorn scrub. When it rains during the summer, which is rare, the desert transforms into a lush carpet of plants, grasses, and flowers.
The Kalahari consists of both soft and compacted sands, ranging in color from bright orange to white. Meerkats like the soft sand when digging for food as it lessons the energy requirements in this harsh environment. However, they prefer compact sand to build their burrows which would collapse in softer sands. There could be any number of reasons Meerkats flourish in this environment, though all relate to competition for food and predators. One could speculate that the Meerkat may be a weaker type of mongoose that would find competing for food with other mongooses a tremendous hardship or that their coats would stand out making them easy prey for others. What is known is that Meerkats have specially adapted to the Kalahari, which is described later. The Yellow and the Slender mongooses also live in the Kalahari but generally live in harmony with the Meerkats. This is primarily because they each have a different diet and are not in competition for food. Unfortunately the Yellow mongoose will sometimes eat a Meerkat pup (baby), so meerkats will keep their distance from Yellows when there are pups around. Many other animals have also adapted over time in order to survive in this harsh environment, making the Kalahari a remarkable and interesting place. Even within this barren and harsh environment, animals and plant life flourish.
Animals in the Kalahari have a 40% lower metabolic rate then their counterparts in other parts of the world. This adaptation allows animals to survive with less food and water. Of course,the Kalahari's intense heat puts animals at risk of overheating, making the ability to efficiently regulate body temperature a necessity. Body size is key, the smaller the animal the faster the loss and gain of body heat. The "mouse-to-elephant curve" measures this relationship. The general idea is as follows, a gerbil has a 50 times higher metabolic rate than a elephant (per gram of bodyweight); therefore, the amount of energy from food that the gerbil needs to maintain its body temperature is greater than the elephants, making the need for food gathering almost constant. The Meerkat looses 5% of its body weight over night making the search for food very important every day. Can you imagine losing 5% of your body weight over night ? They can also get their fluid requirements from what they eat, so water sources while not a neccessity are helpful.
by: Lester Levy Jr
Meerkats.net
Meerkat characteristics - Meerkats at adulthood will grow to a standing height of 12 inches (30 centimeters) and weigh around 2 lbs. (750-820 grams). A pregnant female will weigh around 2.8 lb. (1.1 kilos). Their legs are short and their bodies are long and thin. Their tails are also long and thin with a dark tip. The reason for the dark tip is to identify other gang members while foraging for food. Meerkats forage for food with their tails in an upright position enabling them to easily identify their fellow gang members. Meerkats reach sexual maturity at 10 months and adulthood at 11 months. Both males and females share similar physical traits such as short hair and gray or tan markings. The markings on their backs are unique and no two are the same. They have dark brown or black bands around their eyes. Their ears are tipped with black or dark brown. They have dark bands on their sides and back. Their faces and throat are predominately a shade of white. There are four digits on each foot with very sharp non-retractile claws which are curved. They use their claws to dig their burrows. Meerkats also have the unique ability to close their ears, this is to keep dirt out while they burrow, which they do quite often.
Meerkats fur ranges in color from silver to orange to brown. Much of this depends on the subspecies as well as the sand color in which they live.Even in close proximity in the Kalahari you will find Meerkats with tanish fur in the dried out riverbeds and orange fur in the dunes above. Their coats have a great ability to act as both an insulation to keep heat in and an exhaust system to prevent them from overheating in the harsh climate. In the winter they will spread their hair out so to create a heat insulation effect much like a wet suit. Their stomach acts as a sort of solar panel during the winter months. Under a thin layer of stomach hair is a patch of dark skin which collects heat from the winter sun in order to provide warmth on cool days.
Meerkats vision is outstanding. They have a dark band around their eyes, which reduces any glare from the sun. As a result, Meerkats have the ability to see a predatory bird as they look directly into the sun. A Meerkat removes sand from its eyes by blinking. Between the eye and eye lid there is a white membrane called the nictitating membrane. This membrane acts as a windshield wiper and removes sand from their eyes with every blink. However, their ability to see things close up is not as good. Furthermore, they seem to have a problem with depth perception, not being able to focus within 20 feet (6 meters) of themselves. Often they will bob their head up and down trying to get the perspective right. As a result of this nearsightedness, they will often miss food directly in front of them. They often depend on their sense of smell to find food.
babies eating scorpion
meerkat.org
Meerkat cuisine .- Agile Meerkats always forage for their food in groups but catch and eat their food alone as their diet usually consist of small portions. As they search for their food they spread apart from one another on the desert floor. This distance between foraging Meerkats averages from 6 feet (2 meters) to 45 feet (15 meters), but can extend to 150 feet (50meters). The distance often depends on the availability of food. Generally Meerkats stay at their burrow one or two nights, so there line of foraging is usually from one burrow system to the next. During the winter when there is no grass and food is sparse they have been seen being as far as 150 feet (50 meters) apart. In the late summer when desert grass may reach three feet high and food is abundant they will forage about 6 feet (2 meters) apart. Meerkats frequently communicate with each other while they are looking for food in order to warn of possible dangers in the area or hear a distress call if one gets lost. Usually there is a Meerkat acting as a sentry watching for danger as the others look for food. This is usually the one that is the best fed at the time, there is no evidence that either sex has a predominance for sentry duty. If trouble arises, an alarm is sounded by the sentry and the gang will band together in a mob ( a mob is when Meerkats band together to fight) to assess what the danger is, and take appropriate defense actions. Meerkats will sometimes collect food for their pups and babysitters back at the den. The young pups as they learn to search for food will follow the adults to help supplement their diet. Current studies show that the pup that gives the loudest begging call gets the most food from the adults.
Most of the Meerkats food is found underground and their specially adapted bodies are perfect for this. Their front claws are curved and act as shovels. They often have to dig their own body weight in dirt just to get a small insect. Foraging for a Meerkat means digging here and there and occasionally finding a tasty morsel on the surface then moving forward with the gang on the endless search for food. A typical Meerkats diet consists of worms, crickets, grasshoppers, small rodents, lizards, small snakes, birds, eggs, fruit, and ant larvae (which they especially love). Insects are a particularly good source of nutrition for the Meerkats because they reproduce rapidly and supply an almost constant food source. I have even had the rare chance to see a Meerkat find a Kalahari truffle which is rare and very expensive in stores. He seemed to enjoy it immensely. Meerkats also love to eat poisonous scorpions which are plentiful. They do this by quickly biting off their stingers and then consuming the rest. Meerkats appear to be resistant to many deadly venom's which greatly increases the variety of their diet. A Meerkat will often drag any poisonous prey such as a scorpion or millipede across the sand before eating it. They do this to remove the chemical defenses of their soon to be meal. They will make use of a water source if one is nearby but Meerkats have developed the ability to get all their liquid requirements from their diet. In the summer, the Meerkats must work harder to get their food because the insects have burrowed deeper in the sand in order to be closer to moisture. The rain brings the insects back to the surface, which means feast to the Meerkat.
The Meerkat home - As mentioned previously, the Meerkats live in underground burrows which consist of entrance holes, tunnels, and sleeping chambers. There may be up to 70 different entrances to the burrow system which may also serve as an exit if the Meerkat is inside the burrow system. They are territorial and maintain an area of about one to three square miles. Their territorial expansion depends on the size of the gang, as well as, the abundance of food and water in the area. Meerkats mark their territory with the use of their anal gland or saliva from their cheek. This marking is done by the alpha male of the gang. They will protect their boundaries ferociously against other gangs. They have from 6 to 15 dens in their territory and will move dens every day or two. The breeding burrow ,which is where the offspring are born, is an exception to the frequent moves. Meerkats will stay at a breeding burrow for about three weeks. It is at this time that the young are able leave the burrow and start to learn to forage for food with the adults. In addition to this, the parasite loads become heavy in the burrow and fill with ticks, fleas and other undesirables after three weeks. Breeding burrows differ from other burrows in that they will have higher mounds of sand around the entrance holes. This is a result of the continual renovation of the tunnels and sleeping chambers necessary for the longer stays. The mounds of dirt around the entrances can reach up to three feet high. When breeding is successful Meerkats often return to the same breeding burrows to have there young. As the Meerkats rotate burrows, the insect population of each abandoned burrow has the opportunity to multiply. Furthermore, the burrow system itself needs to regenerate while the feces left behind becomes food for other animals and the parasite load decreases. When dens are not being used, snakes and ground squirrels often find them to be convenient residences. Mixed everywhere in the Meerkat territory are bolt holes. A bolt hole is a small system of entrances and tunnels between burrows. These bolt holes give Meerkats a place to take cover if danger arises if they are out foraging.
The strategic reasoning behind such an elaborate construction of multiple entrances, is to provide many alternative exits if a dangerous intruder should invade their home. Likewise they have multiple entrances in the burrow if the danger is from the outside. They sleep in groups, cuddled up or on top of each other for warmth as they are particularly sensitive to the cold. In the summer they tend to space out when they sleep. Their sleeping chambers are usually 6 to 8 feet under ground. This keeps the temperature in the sleeping chamber at a more constant level, cooler in the summer and warmer in the winter. There are several sleeping chambers in the den but they will only use one at a time, in the breeding burrows there will be more sleeping chambers. They will move sleeping chamber because of build up of contaminates. What may seem odd to you is, Meerkats will urinate in their dens. This could be for several reasons first it may aid in a marking system to one another. Second Meerkats don't survive well alone so to go outside at night to go to the bathroom is not a prudent thing. In captivity though Meerkats can be trained to go to the bathroom in a litter box. There are certain beetles that share their den that they don't eat. These insects will eat their deification. Above the tunnel system, there is usually a dirt mound resulting from all of their excavation. This higher vantage point serves as a lookout point for the small Meerkats. From this outpost of sorts, they can survey the terrain for predators. This done in the the morning before they leave the burrow for foraging and in the evening before they go to bed.
Other animals, such as squirrels or the yellow mongoose, sometimes share the Meerkats burrow. Because these animals do not compete with the Meerkats for food, they are allowed to share the den. When pup are born they will keep the yellow mongoose away because they will eat a Meerkat pup. Predators, such as cobras, are not welcome houseguests. Meerkats will purposely harass a cobra in the open so to discourage it from entering the den.
Meerkats sometimes move their territories when food becomes to sparse or when another gang of Meerkats forces them from their previous den. Often territories overlap one another and a stronger Meerkat gang will overtake a weaker gangs burrow system. This forces the weaker gang to take the loss and try to expand in another direction, or wait tell they are stronger and retake the lost burrow system.
Family standing on home
meerkat.org
babies feeding
meerkat.org
Mating and reproduction - Meerkats try, but do not usually mate for life. Mating in the gang is suppose to be reserved for the alpha male and alpha female, but things happen to change this. First the alpha male might die or be overthrown by another male from inside their gang or another gang. Or the alpha female might mate with a male from a wondering male from another gang while out foraging for food, the alpha male never knowing. What they won't do is mate with another direct family member. When the dominate female is ready to breed she will chase away all the other beta families that can bear children, this will be females at 10 months and older. The temporary outcast will follow the gang until the alpha female has had her pups (babies) and regains her strength. This is done because she wants only her offspring in the gang and another beta female might try and displace her during her weakened time of giving birth. The trailing females often get impregnated from males from other gangs they encounter. Often they will abort these births. If the do give birth they will attempt to sneak them in with the pups of the alpha female. The alpha female will if she notices kill and eat the beta females babies. The beta female have about a 20% chance of getting the young snack in with the alphas females pups. A interesting note, if the alpha female pup die, no other meerkat will eat them. A few days after the birth of the alphas pups, the once outlasted females will rejoin the gang and help with the giving milk to the new pups if they are able. It was once observed that a beta female killed the alpha females pups just after birth and replace them with her pups a few days later, the alpha female not knowing the difference. They can breed every two months but tend to successfully breed two to three times a year depending on food availability. There was one gang observed breeding four times in a year. The gestational period is 70 days resulting in a litter of usually five to six. The pregnant female will increase her body weigh approximately 40% gestation (see - Meerkats are a type of mongoose). The babies, called pups, are born with sparse fur and eyes closed. For the first two weeks they stay in the sleeping chamber and drink their mothers or milk producing females. The third week they will venture outside and stay around the burrow system with a babysitter. . During this period when the alpha female is not feeding the young, babysitters will watch the pups while the alpha female goes out to feed, fortifying her supply of milk and her strength. She will do less sentry duty at this time and never babysitting. From week 4 to week 6 the pups will forage with their elders getting nourishment from both milk and insects. At 6 weeks to 16 weeks they will find their own food as well as be supplemented by the elders, and no longer getting milk. Studies show that the pups that make the loudest begging calls get fed the most from the elders. After sixteen weeks they are on there own to find there food Each pup will be taken on by a adult Meerkat which will act as a mentor, who will take the responsibility to teach the pup necessary skills for foraging for food as well as responding to danger. Male Meerkats tend to mentor male pups and female Meerkats tend to mentor the female pups. Many of skills Meerkats have are taught by the mentors rather then being instinctual.
Meerkats reach sexual maturity at 10 months, and reach adulthood at 11 months. After 10 months a Meerkat may venture out of the gang looking for breeding opportunities. They may also leave to form new gangs or join other gangs. They also may stay with their original gang for up to three years before venturing out. They also may leave in groups of two or three. It takes a brave Meerkat to leave the gang because the road out if filled with many dangers for the sole are small group.
Typical day of a Meerkat - Meerkats are extremely social animals. Observing Meerkats is a wonderful experience. They love grooming one another, wrestling and playing with one other. They have avid curiosities and can make a toy of almost anything. Even with all this play, Meerkats do not ignore the need for security. One Meerkat always seems to be a sentry and stands guard to keep the gang safe.
There typical day consist of, they wake up early in the morning as the first rays of sun stretch across the Kalahari. The first to come out of the burrow is usually the last one in from the preceding night. This Meerkat surveys the area to make sure the coast is clear after that the others start to rise one by one from several entrances. They start by soaking up the sun to warm up there bodies from the nights sleep by facing the sun and using their stomachs as solar panels.. One may observe some digging around the entrances, this seems to be more like exercise to warm their bodies up. Then the young start to scurry around play and grooming one another, as the elders spend time grooming sunning. Once hunger starts to set in, the search for food is on. The alpha male sets the direction for the day and decide weather or not to move towards another burrow system.. Scurrying hear and there and digging here and there, but always one is on sentry. As the day goes on and the heat sets in they will stop for a rest. These rest periods are longer during the summers but so are the days. As the day cools they are off again in the afternoon in search of food. Just before sunset they will arrive at the den for the night. At this time they will commence on repairs of the den as well as well deserved grooming and giving one another affection which is really marking one another with the anal gland or cheek saliva. As the sun falls, they descend one by one into the burrow for sleep all huddled together. Lastly, they don't like the rain and will stay in their burrow and not forage for food until the rain stops.
Interestingly enough Meerkats seem to identify one another my smell rather than sight. That is why the are constantly marking one another. For instance if a Meerkat gets separated for some time and try to rejoin the gang, the gang will think it is a intruder and get in a mobbing defense stance ( mobbing is when they huddle together so to look bigger and present aggressive behavior) until they smell what they think is the unknown Meerkat. Once the sent is recognized everything is fine.
Two babies playing - by -Alain Degre
A sentry in a tree
by:Alain Degre
Meerkats social structure - To survive, Meerkats must live in groups for protection, as the desert presents many challenges. Each Meerkat has an important, role to perform. It was first thought Meerkats had well defined roles in their gang from being a sentry to baby sitting to foraging for food for the young. Recent studies have disprove this and actually show that hormonal changes in Meerkats influence their behavior. Also the conditions around the burrow system effect their responsibilities. When food and water is abundant more time is spent being sentries, renovating the burrow systems, relaxing and caring for the young. Some things are instinctual while others are taught to the pups by the elders. For example raising young is a learned behavior for Meerkats. If a pup is separated at birth and kept as a pet, and the pup gets pregnant. She will not know how to raise her young or teach them how to forage for food. Meerkat roles vary:
alpha male - Dominate male of the gang, has breeding rights to the alpha female. The dominate male is not necessarily decided by the largest male in the gang.
alpha female - Dominate female of the gang, all betas are subservient to her. Only one that is suppose to breed in the gang.
beta male - Subservient males will leave the gang by 3 years in search of better breeding opportunities. They are 10 months or older
beta female - Subservient females will support the alpha Meerkats. They will be driven temporally from the gang by the alpha female when she is ready to get pregnant. They will leave the gang by 3 years in search of better breeding opportunities. At 10 months or older they are at sexual maturity.
pups - Meerkat babies, 10 months or younger.
babysitter - Stays with the pups while the gang is out foraging for food. Different gang members take the responsibility different days, this is not domiated by males of females. Generally though the least hungry Meerkat will do the babysitting. The alpha female never baby-sits. This duty is for Meerkats 6 months or older.
sentry - Watches over the gang to spot danger. It is either done standing on the ground or climbing a tree or bush. Known to climb up to 30 feet in a tree to do sentry duty. This duty is not dominated by males or female. There is a sentry on watch both at the burrow system as well as when the gang is foraging for food. During times of less available food less sentry duty is done when searching for food.
excavating - Necessary to renovate burrow systems. Often Meerkats will get one behind another and work together to move sand out of the burrow system. Like how firemen would hand buckets of water to one another to put out a fire in the old days.
mentoring - A elder Meerkat will take on the responsibility of teach a pup the do's and do don'ts of being a Meerkat. This includes how to raise young, how to forage for food, and what dangers lurk about.
grooming - Meerkats like to groom one another, and in fact have a natural reflex to groom when the area where there back and tail meet is stimulated. They will remove ticks and fleas from one anther and actually eat them, though these parasites are not a normal part of the diet
play fighting - Often done by the young in the morning and to a lesser degree in the evening. Adults will also play fight. This teaches the young to fight as well puts a dominance order to the gang.
Beta males and famales often leave the gang by three years to live with different gangs or join together to form different gangs in order to increase their chances to breed. Meerkats that embark on this journey alone or in groups of two or three face great danger, as Meerkats are most vulnerable when they few in number. Sometimes Meerkats will ally themselves with one another and takeover another gang, and getting rid of the competitive alpha male and perhaps the alpha female.
The size and makeup of the meerkat community determines what duties each will have. There is usually a dominate male and female in the community although there also seems to be a second in command. I have seen a case where the alpha female was killed and the alpha male did not seem to know what to do. He had not taken on another alpha female because that would mean a female from the outside. It was felt he would at some point leave the gang in search of throwing out another alpha male from a rival gang. The alpha male is responsible for marking the territory, some of the foraging trips turn into more of scouting trips so the alpha male can mark the outer boundaries of the territory. These tend to be days of more movement and less foraging for food.
Fights happen between rival Meerkat gangs. It generally happens for two reasons. One is territory conflict. When one gang encroaches on another gangs territory. Once the two gangs come in contact with one another they group up together and fluff their fur out and jump up and down to make themselves appear bigger, also making allot of noise. This is called mobbing. Each gang is assessing the others strength. Sometimes they separating and go opposite directions other times a ferocious fight breaks out. Meerkats will kill rival gang members if they can. Also during a fight 2 or 3 Meerkats may jump on a rival biting and scratching him. It will look like a big pile of dust. During or directly after attacks, the dominant male will take a few minutes to asses the situation and decide weather there was a victory or his gang members have fled, in this case he will retreat himself. The other case happens when roaming Meerkats either solo or in small groups are looking for better breeding possibilities try to join other gangs. Mobbing occurs and they may be or may not be successful at joining the gang..
#How did the Meerkat evolve
How did the Meerkat evolve - According to Sean Doolan, they evolved from the southern tip of Africa or the Cape of Good Hope,where a type of extinct Meerkat, called the Suricata Suricatta major, has been found . The extinct Meerkat was similar to the banded mongoose. The current theory is that the Meerkat evolved from the banded mongoose. As the weather climate changed in the region, so did the Meerkats ability to survive in drier conditions.
Why the meerkat stands - Meerkats walk and run on all four, there head is only six inches above ground in this state. When they stand, their total height is 12 inches, providing them with a much better vantage point to see danger. In order to attain an even better vantage point, they will also climb trees and bushes. Their vision is good but depth perception does not appear to be as strong. They bob their head up and down to get distance measurement when objects or close. this gives them different focal points.When facing a threat, they will stand, arch their bodies and erect their tails in an attempt to appear bigger.
What threatens Meerkats? - The threats to a meerkat come from sky, land and weather. In the sky, the Martial Eagle, with a wing span of six feet, can easily prey on adults, while other smaller birds of prey prefer to snatch the young. When the winged predator is seen the alarm goes out and all sprint for nearby bolt holes. If they are not near any bolt holes the will lie on the ground and depend on camouflage They also may take cover in thorny bushes where the birds dare not venture. On the ground, the jackal and other wild cats are the Meerkats primary foe; however, when banded together, Meerkats have the ability to chase away a jackal. Badgers can also be a threat, as their burrowing can penetrate the Meerkats den making them more vulnerable prey. As mentioned previously, the cobra sometimes threatens meerkat young. Meerkats will mob a cobra relentlessly if it tries to enter their burrow. They are agile enough to avoid a snakes strike. They even have the ability to kill a cobra. If they come across one while our foraging they will temporarily mob it and once the situation is under control move on. A puff header snake will also eat Meerkat pups. I have read about a sighting in which a group of Banded mongooses actually climbed a tree to rescue one of their family members from a eagle. Both the Banded mongoose and the meerkat have similar social habits.
Meerkats are also threatened by other competitive gangs as mentioned above. The sentry's alarm will sound if another gang of Meerkats is encroaching upon marked territory. The fights are fierce but sometimes fatal as submission is the goal. The winners, usually the larger of the groups, take or keep the burrow system in question. One interesting note after the fight and Meerkats try and rejoin there gang small fight break out because they have difficulty recognizing each other by sight. The Meerkat rejoining their gang may smell like the rival gang. After the conflict, the winners will hug and congratulate each other with human-like gestures, this is rely remarking each other.. Often non-dominant Meerkats defect from the losing group to the winner's side.
The summer rains also threaten the Meerkats. When rain approaches, the sentry sends the alarm off. As there are often newborns during this time, they must make sure the are on high ground so to avoid a flooding of the burrow system. The alpha female will transport the young one by one to the higher ground burrow. At night they may get stuck in a flooding burrow system.
The most famous of all Meerkats - There are two famous Meerkats that should be mentioned One is Timone, who was featured in the Lion King. Timone, the cartoon character, is based on the real-life Meerkat Timone who which is domesticated resides outside of Palm Springs, California at the only private refuge for Meerkats in existence. For more information, visit www.meerkats.com. You can actually go and visit Timone and hand feed other Meerkats there. I did and it was a terrific experience.
The second is Ziziphus of the Lazuli gang. She is a wild Meerkat and lives in the Kalahari and has been the subject of numerous documentaries and films. One of her more prominent projects is Walking With Meerkats which is a National Geographic documtory filmed in 2000.
Meerkat communication - Meerkats constantly communicate with one another in three different ways: scent, sound, and body language. There have over 20 different sounds that have been recorded which have different meanings. These calls can be broken down into six different groups: lost calls, alarm calls, leading the group calls, pup feeding calls, guarding calls, and foraging calls. For example, while out looking for food, they are are constantly communicating in what sounds like a kind of growling. It helps them to keep track of one another's location since they forage up to 15 feet (5 meters) apart. When the young are learning how to forage, they are very loud and can be heard up to a hundred yards away. If they become separated from the adults, the volume of their cries increases so that an adult will come to get them. They have numerous sounds that are used when grooming and playing
When on guard duty, there is an entirely different assortment of sounds employed. These sounds are constant and communicate to everyone else what is happening during the watch. When everything is fine, the sentry emits mellow tones. When a predator is spotted at a distance, a beeping sound is given, almost like a yellow alert. If the predator gets closer, the sound differentiates depending on the type of predator. The martial eagle tends to get the most frantic alarm even from great distance. Meerkats allow some predators to get very close before they sound the red alert (up to 100 feet from the den).
One last interesting point, sound can be broken up into one, two, three, and even four syllable calls.
How the seasons effect Meerkats -
In the Savanna desert, temperatures can vary greatly. Remember, Meerkats live on southern hemisphere as opposed to the United States and Europe which are on the northern hemisphere. South of the equator and the seasons are opposite of those in the northern hemisphere. The Kalahari summer is considered the wet season, . The summer months October to April temperature can reach 115 (f) or around 40 (c) which can give a sand temperature of 158 (f) or 70(c). In this harsh environment the difference between being in the sun and shade can be up to 86 (f) or 30 (c). The winter months from May to September are very different from the summer, you will see highs around 70 (f) or 22 (c) during the short days and lows at night down below freezing to 14 (f) or -10 (c). Winter is the dry season. Because of these dramatic temperature changes, their feeding habits change accordingly
In the wet season or summer, Meerkats get up early in order to avoid looking for food in the heat. As the day gets warmer, they look for food in shaded areas. At mid-day they return to their den or find a nice, shaded spot for a mid-day nap. If they nap outside, they will lie on their belly with legs stretched out and often throw cooler sand on their back. They will pant during the summer this aids in reducing their body temperature. The yellow mongoose shares this behavior. They wake for a late afternoon feeding which ends at sunset. This season is a virtual feast for Meerkats, as the rain brings out an abundance of food and vegetation especially towards the end of summer from January to April. Grasses on the dunes can reach heights of over three feet tall! Meerkats will eat to their hearts content and their little bellies stick out.
In the dry season or winter, they wait until it warms up a little (9 a.m.) to go and look for food. No mid-day naps at this time. They stay out all day and get back around 4:30 p.m. Meerkats then remain in their den to avoid the rapid and severe temperature change night brings. Food is not as abundant during this time and foraging for food is more difficult. They have to do allot more digging and cover more territory to find adequate nutrition. They will also eat ants, ant eggs, millipedes, and small beetles which are less appealing to them than their summer favorites of lizards, insect larvae, and scorpions.
Meerkats like most other living creatures change their behavior patterns as conditions change. As one reads about the charertistics of any animal you must know whether the animal was observed in captivity or in the wild. Unfortunately most of what has been written about Meerkats has been in captivity, because of the remote habitat where they live makes it hard reach. Therefor it is interesting to understand how their behavior changes when confined to zoos.
The gang will find many differences in captivity. For example food will be abundant and the normal procurement of food such as digging is not necessary. Also space is significantly limited. So the Meerkats will not migrate from burrow to burrow, but stay in one burrow system. They also are not able to forage for food keeping them within meters of there burrow system for their whole lives. Predators are non existent in captivity so there alert systems are dulled. In captivity one will find Meerkats living longer and bigger. Meerkats do fine in captivity, in fact for the Meerkat which spends most of its time looking for food in the wild, this is probably a vacation. In captivity Meerkats are known to mate up to twice a year while in the wild they only mate once a year. Their cuisine is quite different to. In captivity the keepers may feed mice, worms and other sorted insects locally available. A Scorpion, a Meerkat delight would never be seen. Meerkats that don't get along with the gang will be separated and put in another habitat.
Would Meerkats make good pets? - The answer to this question is no, not really. In the United States, you need special permits to keep these animals. The government mandates strict specification for Meerkats enclosures as well as their climate. Meerkats will think your family is their gang and the are the alpha. When you have guest to your home they will get aggressive towards them. A host of other animals would make more appropriate pets! I have run into many people in southern part of Africa that keep Meerkats as pets and say they can be friendly. They are terrific pets though if you have a scorpion infestation problem.
The average yoga exercise mat has to do with three to four millimeters thick. While various kinds of yoga exercise don't require a change in the density of your floor covering, there are advantages to having particular dimensions. Density of Different Yoga Mats Yoga floor coverings differ in...
The Paparazzi Bots is a series of five autonomous robots each standing at the height of the average human. Comprised of multiple microprocessors, cameras, sensors, code and robotic actuators on a custom-built rolling platform, they move at the speed of a walking human, avoiding walls and obstacles while using sensors to move toward humans. They seek one thing, which is to capture photos of people and to make these images available to the press and the world wide web as a statement of culture's obsession with the “celebrity image” and especially our own images. The flash autonomously goes off, capturing people’s photos and elevating them to “celebrity” in a kind of momentary anointing by the robots. The robots also become celebrities through their association to the “famous people” at the exhibition that are captured by the Paparazzi Bots.
Each autonomous robot can make the decision to take the photos of particular people, while ignoring other humans in the exhibition, based on things such as, whether or not the viewers are smiling or the shape of their smile. When the robots identify a person or group they will automatically adjust their focus and use a series of bright flashes to record that moment.
Surveillance technologies straddle a delicate balance that we have in contemporary culture, where we are all photographed without our knowledge by cell phones, hidden cameras and sometimes “celebritized”. This is a kind of modern baptism with the camera flash and the spectacle of being the focus of the camera becoming a kind of techno anointing.
This work explores ideas surrounding the shifting territories of self and machine and how machines can manipulate the other (us) in a grand co-evolutionary dance of emerging robot-human relations.
The recent emergence of social networks and their ability to connect people through software prompts via the world wide web is a prime example of the co-evolution of humans and their intelligent machines. The fact that the software prompts exploit our social needs for connectivity and social space is so easily exploited in this new critical juncture in our emerging machine human relations.
This camera can track your head and be set to take a photo if you smile mildly, medium-smile or pull-a-muscle smile. When set to smile mode, they do seem to prefer even smiles rather than crooked smiles so here the machine is making determinations about issues of "beauty". I have considered holding a robot beauty contest as an addition to this work.
By Ken Rinaldo.
Special Thanks to Shirley Madill curator who invited these works to Toronto for Nuit Blanche
Special Thanks to Amy Youngs the midwife to the birth of these robots.
Thanks to the Dynasty Foundation, Russia and Dmitry Bulatov Curator, for funding this robot Commission.
Thanks to Malcolm Levy who invited the production of three more Paparazzi Bots for the Vancouver Olympics in 2010
Thanks to the College of Arts and Humanities for further funding of this project.
This is a stack of four one-minute exposures of the Hapuna Prince Beach Resort, making for a total of four minutes of effective open shutter time spread out over about eight minutes of actual time.
The subject doesn't really lend itself to long duration exposure. I was mostly curious to see if I could average out some of the motion of the clouds as well as the water. I think I would need to use more exposures spread out over more time. The clouds just weren't moving that fast.
The funny thing is, the winter surf was quite good, and there were easily a hundred people in the water with boogie boards. Only one stood still long enough to show up. Sort of.
Bear with me as I get used to using this filter. I don't think I've found a good subject yet. I'm still working out the technique.
Greensboro, NC - 2/25/10
A Face to Face "social practice" event, The Soapbox Salon: Lee Walton's Search for the Most Average Bowlers
The graph above looks at the how viewing figures might correlate against the average growth across Facebook and Twitter for contestants.
See our infographic for more social media
analysis and insight. Stay tuned
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Three year average (mean).
Three years ago now I made a little Processing script to average sets of photos, and a few weeks before that I started a photo-a-day project, where I was careful to get as close to the same angle as possible.
This image is the result of finding the mean (sum of all values / number of items) of the whole three years of photos.
For a little more about this: www.alexjacque.com/project/average
Average Betty does for home n' cooking what punk did for rock n' roll: she cuts the length and cranks the volume! But you don't need a mohawk to enjoy Average Betty's culinary creations. Check out www.averagebetty.com for recipes and more.
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