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History of Kraków
First indications of the existence of Krakow approximately stem from the 7th century. In the next following centuries the tribe of Vistulans (Wislanie) populated Krakow, after they centuries ago in the as "Lesser Poland" or Malopolska known region had settled down. From the year 965 stems the first document from Krakow, as Abraham ben Jacob of Cordova, a Jewish merchant, in his book referred to the trading center of Krakow.
In 1000, the Diocese of Krakow was founded and in 1038 declared capital of the Piast dynasty. The Wawel castle and several churches were built in the 11th century and thus the town rapidly grew. 1241 the Mongols invaded the city and burned down Krakow without exception. 1138 Krakow became the seat of the senior prince. 1257 Kraków was awarded its town charter and a city map was drawn up, which remained until today. This one included the arrangement of the checkerboard street configuration with a centrally located market. On the market following the seat of the city government was built. From the historical trading functions until today only the Cloth Halls remained. But on the market not only trade agreements were closed but also courtly and urban festivities celebrated. Furthermore, the urban center served for executions. The defensive walls were built, which surrounded the city and linked it to the Wawel. In the south of Wawel Castle in 1335 the city of Kazimierz was created. By Royal command it was surrounded by defense walls and the churches of St. Catherine, of Corpus Christi and the "Na Skalce" were built. End of the 15th century, Jews settled the later Cracow district. 1364 the Cracow Academy of King Kazimierz Wielki was founded, the famous Polish Jagellonen-University.
With the last king of Jagellonian dynasty, Krakow flourished. The Wawel castle was rebuilt in Renaissance style, the well known Zygmunt chapel was built and the Cloth Halls as well as the patrician houses have been restored. During the reign of King Sigismund III. Vasa the baroque style received introduction in Krakow. The Baroque University Church of St. Anne and the Church of Saints Peter and Paul were built in this period. In 1607 Warsaw was declared headquarters of the King, but Krakow retained its title of the Royal capital. Furthermore, it remained the place of coronations and funerals. Middle of the 17th century, the city was devastated by the Swedes, what at the beginning of the 18th century was produced again.
After the first partition of Poland, Krakow became a frontier town. Austria declared the settlement Podgorze separated city. After the second division in 1794, began the Polish national uprising. After its decline and the third partition of Poland the town fell to the Austrians, which on Wawel Hill caused numerous devastations and adapted buildings to the wishes and needs of the Army. 1809 Cracow was affiliated to the Grand Duchy of Warsaw. After the defeat of Napoleon, Krakow in the Vienna Convention of 1815 was declared Free City of Kraków. Then the remains of folk hero Tadeusz Kosciuszko and of Prince Jozef Poniatowski were brought back to the city. 1820-1823 on the rise of St. Bronislava a hill in honor of the leader of the popular uprising was built. Instead of the city walls, which were largely destroyed, they laid out supporting beams. 1846 Krakow lost its independence and the Austrians erected again on the Wawel barracks and they surrounded the Wawel with fortification complexes. However, Austria but has proved less tyrannical and so the city enjoyed a certain degree of growing cultural and political freedom. 1918 Krakow became the independence back.
Before the outbreak of the Second World War, in Krakow lived about 260,000 inhabitants, of which 65,000 belonged to the Jewish religion. During the war, also Krakow became witness of German war crimes. The for the greater part Jewish district of Kazimierz was eradicated. The Jews from now on lived in ghettos where they either were deported from there to Auschwitz or immediately shot. In spite of the plundering of the Nazis, Krakow became no scene for military combat operations and thus the only large Polish town escaping this fate. Therefore, its old architecture still almost completely is intact.
After the surrender of Germany and the Polish liberation, hastened the Communist government to inspire the traditional life and the city with a large steel plant in Nowa Huta. But the intensive rebuilding of the economy and industry rather promoted an ecological disaster. Buildings that had survived the war undamaged were now devoured and destroyed by acid rain and toxic gases. Carbon dioxide emissions grew so powerful that this has remained a serious and grave problem of the city. After the fall of the Communists and the fall of the Iron Curtain Krakow has benefited greatly from tourism and has adapted itself to a large extent to the Western culture.
A lush garden, with shrubs and flowerbeds pruned in very many artistic shapes, surrounds the palace. Quite obviously; the art of topiary has been in existence in Orchha for centuries. The Mahal was built in honor of the ‘Nightingale of Orchha’, Rai Praveen, and the second floor is resplendent with scenes of Nritya Mudra, the poses and postures of Indian dance.
Rai Praveen was as well identified for her charming beauty as for her poetry and music. The paramour of Indrajit Singh, in whose court she performed, her fame inevitably spread far and wide and finally reached the Imperial Court of Akbar. The Mughal emperor was smitten by her, and he arrogantly summoned her to his durbar. Indrajit Singh, Rai Parveen’s paramour, was too weak-kneed a ruler to defy the Imperial summons. Touched by her loyalty, Akbar decided to restore her to Orchha with both her dignity and that of her kingdom intact. The palace is now a fitting memorial to this lady.
The Orchha Fort complex, which houses a large number of ancient monuments consisting of the fort, palaces, temple and other edifices, is located in the Orchha town in the Indian state of Madhya Pradesh. The fort and other structures within it were built by the Bundela Rajputs starting from early 16th century by King Rudra Pratap Singh of the Orchha State and others who followed him.
The fort complex, which is accessed from an arched causeway, leads to a large gateway. This is followed by a large quadrangular open yard surrounded by palaces. These are Raja Mahal or Raja Mandir, Sheesh Mahal, Jahangir Mahal, a temple, gardens and pavilions. The battlements of the fort have ornamentation. Notable architectural features in the fort complex are projected balconies, open flat areas and decorated latticed windows.
LOCATION
The fort complex is located in the Tikamgarh district of Madhya Pradesh in the erstwhile state of Orchha. The fort complex is within an island formed by the confluence of the Betwa River and Jamni River in Orchha town. Approach to the complex from the eastern part of the market in the town is through a multiple arched bridge with 14 arches built in granite stones.
Orchha town is approximately 80 kilometres away from Tikamgarh town, which is the district headquarters of the district of the same name. Jhansi town is 15 kilometres away. Orchha is a railway station of the Central Railway on the Jhansi-Manikpur section.
HISTORY
The fort was built following the founding of the Orchha State in 1501 AD by Rudra Pratap Singh (r. 1501–1531), a Bundela rajput. The palaces and temples within the fort complex were built over a period of time by successive Maharajas of the Orchha State. Of these, the Raja Mandir or Raja Mahal was built by Madhukar Shah who ruled from 1554 to 1591. Jahangir Mahal and Sawan Bhadon Mahal were built during the reign of Vir Singh Deo (r. 1605–1627). The features of "pepper pots and domes" seen in the fort complex are believed to have inspired Lutyens in the architecture of the structures which he built in New Delhi.
MONUMENTS
The fort complex, accessed from an arched causeway, leads to a large gateway followed by a large quadrangular open space which is surrounded by palaces such as Raja Mahal or Raja Mandir, Sheesh Mahal, Jahangir Mahal, a temple, gardens and pavilions. The fort walls have battlements, which have ornamentation. Notable architectural features seen in the fort complex consist of projected balconies, open flat areas and decorated latticed windows.
RAJA MAHAL
The Raja Mahal (King’s Palace), where the kings and the queens had resided till it was abandoned in 1783, was built in the early part of 16th century. Its exterior is simple without any embellishments but the interior chambers of the palace are elaborately royal in its architectural design, decorated with murals of social and religious themes of gods, mythical animals and people. In the upper floor of the palace there are traces of mirrors in the ceilings and walls. Its windows, arcaded passages and layout plan are designed in such a way that the "sunlight and shadow create areas of different moods and temperatures throughout the day". The interior walls of the Mahal have murals of Lord Vishnu. The Mahal has several secret passages.
A part of this Mahal was converted into a temple and named Rama Raja Temple in honour of the god Rama. There is legend associated with naming it as a temple. According to a local legend, the temple was built following Rani Ganeshkuwari, the queen getting a "dream visitation" by Lord Rama directing her to build a temple for Him; while Madhukar Shah was a devotee of Krishna, his wife's dedication was to Rama. Following this a new temple known as the Chaturbuj Temple was approved to be built, and the queen went to Ayodhya to obtain an image of Lord Rama that was to be enshrined in her new temple. When she came back from Ayodhya with the image of Rama, initially she kept the idol in her palace as the Chaturbuj Temple was still under construction. She was, however, unaware of an injunction that the image to be deified in a temple could not be kept in a palace. Once the temple construction was completed and the idol of the lord had to be moved for installation at the Chatrubhuj Temple, it refused to be shifted from the palace. Hence, instead of the Chaturbhuj Temple, the Rama's idol remained in the palace where as the Chaturbhuj Temple remained without an idol in its sanctum. As Rama was worshipped in the palace, part of the palace was converted into the Rama Raja Temple; it is the only shrine in the country where Rama is worshipped as a King. The temple is guarded by a police force and the deity, Lord Rama, is considered as the king and is given a gun salute of honour every day.
SHEESH MAHAL
Sheesh Mahal is flanked on either side by the Raja Mahal and the Jahangir Mahal. This has royal accommodation, which was built for king Udait Singh. It has now been converted into a hotel. The interior of this edifice consists of a huge impressive hall with high ceiling, which is the dining hall. Its recent colour scheme renovations are an eyesore. But staying in two of its royal suites on the upper floor, which provide scenic views of the town, gives the guest a feeling of royalty.
JAHANGIR MAHAL
Jahangir Mahal is a palace that was exclusively built by Bir Singh Deo in 1605 to humor the Mughal emperor Jahangir who was a guest of the Maharaja for one night only. The palace is built in four levels with elegant architectural features of both Muslim and Rajput architecture. Its layout is a symmetrical square built in the inner courtyard of the fort and has eight large domes. It has a plethora of rooms with arcaded openings, projecting platforms and windows with lattice design work. The roof above top floor of this Mahal is accessed through a steep stairway. It provides picture perfect views of the temples and the Betwa River outside the fort complex. The palace also houses a small archaeological museum.
The entrance gate from this palace, which was earlier the main gate and which has carved ornamentation, leads to the royal baths and then to an elegant small dwelling unit built within a garden in typical Mughal architectural style; this had been built exclusively for Rai Parveen, the female escort of the Raja Indramani (1672 – 76); her large-size portrait in a revealing and seductive attire adorns hall in this Mahal. She was a poet and musician. The building is a double storied structure built with bricks, rising to the height of the trees in the well tended garden called Anand Mahal. The garden is laid out with octagonal flower beds and has good network of water supply. There are niches in the Mahal which permit natural light to the main hall and smaller rooms.
It is said that Emperor Akbar (r. 1556 – 1605) who was enamored by Parveen's beauty had taken her to his palace in Agra to be his courtesan. But Parveen, who wanted to get out of the situation, composed a gazal or a couplet which stated her status as an already used woman not fit for an emperor, which enabled her to get release from Akbar's court and return to Orchha.
PHOOL BAGH
Phool Bagh is an elegantly laid out garden in the fort complex which has a line of water fountains that terminates in a "palace-pavilion" which has eight pillars. Below this garden is an underground structure which was used by the royalty as a cool summer retreat. This cooling system consists of water ventilation system that is linked to an underground palace with "Chandan Katora", which is in the shape of a bowl from where fountains of droplets trickle through the roof creating rainfall.
WIKIPEDIA
Bury St Edmunds Cathedral for most of its existence was simply the parish church of St James until the foundation of the new diocese of St Edmundsbury in 1914 when it was raised to cathedral status, one of the many new dioceses formed in the early 20th century that elevated existing parish churches to diocesan rank rather than purpose building a new cathedral. Many of these 'parish church cathedrals' sit slightly awkwardly with their new status, lacking in the scale and grandeur that befits such a title, but of all of them Bury St Edmunds has been adapted to its new role the most successfully, with in my opinion the most beautiful results.
The medieval church consisted of the present nave, built in 1503-51 under master mason John Wastell, with an earlier chancel that was entirely rebuilt in 1711 and again in 1870. Originally it would have seemed a fairly minor building at the entrance to the monastic precinct, overshadowed by the enormous abbey church that once stood immediately behind it. The absence of this magnificent church since the Dissolution and the scant remains of this vast edifice always sully my visits here with a sense of grievous loss, had history been kinder it would have served as the cathedral here instead and likely be celebrated as one of the grandest in the country.
The church never had a tower of its own since the adjacent Norman tower of the Abbey gateway served the role of a detached campanile perfectly. It is an impressive piece of Romanesque architecture and one of the best preserved 12th century towers in the country.
Upon being raised to cathedral status in 1914 the building underwent no immediate structural changes but plans were made to consider how best to transform a fairly ordinary church into a worthy cathedral. This task was appointed to architect Stephen Dykes Bower and work began in 1959 to extend the building dramatically. Between 1963-1970 the entire Victorian chancel was demolished and replaced with a much grander vision of a lofty new choir and shallow transepts, remarkably all executed in traditional Gothic style in order to harmonize with the medieval nave. It is incredible to think that this was done in the 1960s, a period in which church and cathedral buildings were otherwise constructed in the most self consciously modern forms ever seen, with delicate neo-medieval masonry in place of brick and concrete.
The new crossing of transepts and choir however remained crowned by the stump of a tower for the remainder of the century as funds were not available to finish Dykes Bower's complete vision of a lantern tower over the crossing: this was only realised at the beginning of the 21st century, aided by a legacy left in the architect's will and some subtle design changes under his successor as architect Hugh Matthews. The transformation from church to cathedral was finally completed in 2005 with most satisfactory results. A stunning fan-vault was installed within the new tower in 2010, an exquisite finishing touch.
Whilst it isn't a large building by cathedral standards its newer parts do much to give it the shape and dignity of one. This is especially apparent within, where the cruciform eastern limb draws the eye. The interior is enlivened by much colour, with the ceilings of Dykes Bower's choir and transepts adorned with rich displays of stencilling, whilst the nave ceiling (a Victorian replacement for the medieval one) was redecorated in similarly lively colours in the 1980s which helps to unify the old and new parts of the church.
Few fittings or features remain from the medieval period, most of the furnishings being Victorian or more recent, but one window in the south aisle retains a rich display of early 16th century stained glass, very much Renaissance in style. The remaining glass is nearly all Victorian, some of the windows in the new choir having been transferred from the previous chancel.
St Edmundsbury Cathedral is not filled with the monuments and fittings that make other great churches so rewarding to linger in but it is a real architectural delight and cannot fail to uplift the spirit.
You lived, But have you ever thought of the evidence for your life? You left nothing ,but better than the pains you give to the others...
By Moxkyr
A few months ago I read a post about this ancient monument, I was unaware of its existence.
I logged into my Google Maps and recorded it as one of my desired places to visit.
Today Thursday 15th November 2018 Scotland basked in a beautiful Autumn sunshine, my favoured shooting conditions, I packed my Nikon and drove the 25 miles to the site.
Historic Environment Scotland maintain the monument , thankfully they have done a magnificent job, I truly believe it is important to preserve history for the generations to come.
I had a magnificent two hours recording my experience, I never fail to feel overwhelmed by the wealth of history that surrounds Aberdeen and the shire.
Thank's to Historic Environment Scotland for their detailed information on this site.
Ancient Monument - Kinkell Church - Inverurie Aberdeen Scotland.
Kinkell Church, built in the 1200s, is a classic medieval Highland church: simply designed and rectangular in shape. But the liturgical features installed in the 1520s are anything but plain. The stone sacrament house in the north of the church is an especially fine fixture.
Kinkell was refitted for Presbyterian worship following the Protestant Reformation of 1560, and declared redundant in 1771. Much of the building was dismantled and building materials recycled for use in a new kirk.
KINKELL CHURCH
• Kinkell Church, dedicated to St Michael, consist of the remains of a simple rectangular medieval parish church, of which only the N, W and part of the E
wall are upstanding.
The church was partly remodelled, perhaps on more than one occasion,
including in the early 16th century, when an elaborately carved Sacrament
House was built into the E end of the N wall.
Within the church is the monument of Gilbert de Greenlaw, killed at the battle
of Harlaw in 1411; the stone was re-used for a Forbes burial in 1592
CHARACTER OF THE MONUMENT
The church appears to have come on record in the early 13th century. Kinkell
was a mother church, or plebanus, and had dependent chapels at Dyce,
Drumblade, Kemnay, Kinnellar, Kintore and Skene.
This connection, which
was of long standing, may have arisen if Kinkell’s origins was that of an ecclesiastical foundation, rather like a minster, with an extensive parochia.
This would push back its origins considerably.
From the 14th century, certain revenues of the church evidently pertained to the Knights Hospitallers, although it is also recorded as an independent parsonage during the 14th century.
Any connection with the Hospitallers came to an end in 1420, when the church
and its annexes were erected into a prebend of Aberdeen Cathedral.
From a date and a set of initials on the sacrament house, it is apparent that in 1524 Alexander Galloway, rector of Kinkell and canon of Aberdeen Cathedral,
paid for the splendid sacrament house built into the E end of the N wall.
He appears to have been paying for further work the following year as a carved stone panel depicting the crucifixion, dated 1525, and with Alexander’s initials (three times), is built into the N wall (only a bronze replica survives; the original
was removed to Aberdeen Museum in 1934 and subsequently lost).
The church was abandoned in 1771 when the parish was amalgamated with
Keithhall. It was partially demolished to provide building materials for the new
parish church.
Archaeological Overview
There have been no recorded archaeological investigations at Kinkell.
The archaeological potential of the monument is extremely high and any excavation is very like to come across human remains, and perhaps also earlier church
buildings on the site.
Artistic/Architectural Overview
The church is fragmentary and devoid of features apart for the sacrament
house, the crucifixion panel and a single jamb of what must have been a large,
traceried E window. The simple oblong plan of the church suggests that the
basic form of the church dates from the early 13th century, with much late
medieval remodelling.
2/3
• The sacrament house is a particularly fine, and unique, example of this type of
medieval church fixture. It was an aumbry, or wall cupboard, designed to
reserve the host in appropriate reverential surroundings.
• The sacrament house at Kinkell shares several features with others found in
the NE, associated with Galloway, but is unique due to its cross shape. The
aumbry is flanked by two buttresses with crocketed finials. Between these is a
panel, which although badly defaced, appears to have been ornamented with a
monstrance supported by two angels (a very common motif found on other
sacrament houses associated with Alexander Galloway). Above this panel is a
corbelled and battlemented cornice, and above this is an oblong panel, which
probably contained a crucifixion scene, but is now empty. Flanking the
pinnacles are two panels, each filled with scrolls, which are of different forms
although the inscriptions on the scrolls were meant to be read as one and
state: ‘Here is preserved that body which was born of a virgin’.
• The crucifixion panel has a representation of St Michael, the archangel (to
whom the church was dedicated) to the right of the crucified, the Virgin on the
left and under her a priest, perhaps representing Galloway himself as donor,
standing beside an altar on which are Galloway’s initials.
• The sacrament house and the Crucifixion panel appear to have been part of a
liturgical revival in the diocese of Aberdeen during the early decade on the 16th
century. Alexander Galloway appear to have been a central figure in the move
to ensure parish churches had the fittings for the proper worship of God, and in
particular devotion to the Blessed Sacrament. He erected several sacrament
houses in churches he was involved in; Kinkell and its dependents at Dyce and
Kintore, and at King College, Aberdeen and may have been influential in the
decision of his colleagues, Alexander Spittal of Auchindoir and Alexander Lyon
of Turiff, to erect those in their respective churches. Galloway also donated a
font to Kinkell, which now is now in St John’s Episcopal Church, Aberdeen.
• The construction of the sacrament house may have been part of a wider
reorganisation of the chancel area of the church, and it is tempting to suggest
that the great E window may have been a part of this re-organisation, although
details of this moulding may be more consistent with a 14th or 15th century
date.
Social Overview
• The church is currently used as a recreational attraction. It receives little other
community use.
Spiritual Overview
• As a parish church in use for some six centuries, the site has the potential to
inform our understanding of medieval Christianity, the aspirations of the
rectors, vicars and ministers who served the church and the congregations
who worshipped in it.
• The burial ground was in use until fairly recently, and may still be in use for
occasional burials. People still visit family graves and memorials.
Aesthetic Overview
• The church and burial ground are located in the haughs of the River Don,
amongst arable farmland which adds to the appreciation of this monument.
The church has been pointed with a hard cement mortar that give the walls the impression of crazy paving.
The sacrament house, the replica crucifixion panel,
3/3 the window jamb are fine architectural details which are aesthetically very striking, and provide some idea of the glories of this once very fine church.
• The graveslab of Gilbert de Greenlaw, killed at the Battle of Harlaw, which would originally have been a ledger slab, is a particularly detailed carving of an armed knight.
What are the major gaps in understanding of the property?
• Do further historical sources or references survive.
• Nothing is known about the archaeology and earlier history of this site.
The church is an example, although much ruined, of a church which was remodelled in the 16th century.
The sacrament house is a particularly fine example of this type of church
furnishing, and the only example which takes the form of a cross.
Sacrament houses are physical manifestation of an important aspect of late medieval
Christianity; the veneration and adoration of the Body of Christ in the form of the consecrated host.
The church is closely associated with Canon Alexander Galloway, who encouraged a liturgical revival in the diocese in the early 16th century.
The site has high archaeological potential, but as a place of burial over centuries so the scope for research-led invasive excavation is not high.
Associated Properties
St Fergus’, Dyce, Auchindoir Church, St Machars Cathedral, Kintore Church,
Survival for Existence is becoming so difficult due to harsh climate/weather.
Many flowers get wilted in no time.. very few stand tall.
"She softened gradually, melting in the light of the sun, all the while thinking, O, this is what it's like to be a planet & suddenly it was over & the universe expanded by one." quote by storypeople
A glimpse of the fabulous Kackar Mountain region of Northeast Turkey...
Photographed during a steep pass from one valley system to the other one, Çeymakçur valley...
Encountered a microclimate harboring a tremendous variety of Kackars flora...
A Türker Şengül Artwork (c)2005
2019-01-29: H.E. Mr. Aziz Rabbah, Minister of Energy, Mines and Sustainable Development, Kingdom of Morocco addressing the audience during the conference of CIF's 10 year of existence in Ouarzazate, Morocco.
The Lovech camp was of the more brutal camps that existed in Bulgaria during the communist regime and was the last and harshest of the major Communist labour camps. Many people were beaten or worked to death quarrying rocks. Most Bulgarians were unaware of its existence, but it had a reputation among those who had incurred the state's displeasure as a place from where one might never emerge alive...To this date no-one has been brought to trial over the atrocities that happened here or indeed at the other camps that existed in Bulgaria during this time.
Neuchâtel, Rue de l'écluse, 1976. Line 3 (motor car 72 from the early 1920s) climbs the steep gradient in its last weeks of existence. Trailers were put aside between morning and lunchtime peak hours
Detail of a window in the north aisle by Clayton & Bell, c1890 on themes from the Old Testament (I didn't photograph any of the Victorian windows on the south side owing to excess sunlight and temporary displays obscuring parts of them).
Bury St Edmunds Cathedral for most of its existence was simply the parish church of St James until the foundation of the new diocese of St Edmundsbury in 1914 when it was raised to cathedral status, one of the many new dioceses formed in the early 20th century that elevated existing parish churches to diocesan rank rather than purpose building a new cathedral. Many of these 'parish church cathedrals' sit slightly awkwardly with their new status, lacking in the scale and grandeur that befits such a title, but of all of them Bury St Edmunds has been adapted to its new role the most successfully, with in my opinion the most beautiful results.
The medieval church consisted of the present nave, built in 1503-51 under master mason John Wastell, with an earlier chancel that was entirely rebuilt in 1711 and again in 1870. Originally it would have seemed a fairly minor building at the entrance to the monastic precinct, overshadowed by the enormous abbey church that once stood immediately behind it. The absence of this magnificent church since the Dissolution and the scant remains of this vast edifice always sully my visits here with a sense of grievous loss, had history been kinder it would have served as the cathedral here instead and likely be celebrated as one of the grandest in the country.
The church never had a tower of its own since the adjacent Norman tower of the Abbey gateway served the role of a detached campanile perfectly. It is an impressive piece of Romanesque architecture and one of the best preserved 12th century towers in the country.
Upon being raised to cathedral status in 1914 the building underwent no immediate structural changes but plans were made to consider how best to transform a fairly ordinary church into a worthy cathedral. This task was appointed to architect Stephen Dykes Bower and work began in 1959 to extend the building dramatically. Between 1963-1970 the entire Victorian chancel was demolished and replaced with a much grander vision of a lofty new choir and shallow transepts, remarkably all executed in traditional Gothic style in order to harmonize with the medieval nave. It is incredible to think that this was done in the 1960s, a period in which church and cathedral buildings were otherwise constructed in the most self consciously modern forms ever seen, with delicate neo-medieval masonry in place of brick and concrete.
The new crossing of transepts and choir however remained crowned by the stump of a tower for the remainder of the century as funds were not available to finish Dykes Bower's complete vision of a lantern tower over the crossing: this was only realised at the beginning of the 21st century, aided by a legacy left in the architect's will and some subtle design changes under his successor as architect Hugh Matthews. The transformation from church to cathedral was finally completed in 2005 with most satisfactory results. A stunning fan-vault was installed within the new tower in 2010, an exquisite finishing touch.
Whilst it isn't a large building by cathedral standards its newer parts do much to give it the shape and dignity of one. This is especially apparent within, where the cruciform eastern limb draws the eye. The interior is enlivened by much colour, with the ceilings of Dykes Bower's choir and transepts adorned with rich displays of stencilling, whilst the nave ceiling (a Victorian replacement for the medieval one) was redecorated in similarly lively colours in the 1980s which helps to unify the old and new parts of the church.
Few fittings or features remain from the medieval period, most of the furnishings being Victorian or more recent, but one window in the south aisle retains a rich display of early 16th century stained glass, very much Renaissance in style. The remaining glass is nearly all Victorian, some of the windows in the new choir having been transferred from the previous chancel.
St Edmundsbury Cathedral is not filled with the monuments and fittings that make other great churches so rewarding to linger in but it is a real architectural delight and cannot fail to uplift the spirit.
Wasps are parasitic creatures; certainly a pest to humans. They do however play an important role in the ecosystem of an environment.
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This is a super macro shot of a wasp that was still completely alive. I used a little probe get him from where he was sitting to a little paper box I made on the spot, and he sat quite still in there while I got my macro setup ready to take the shot. After the first shot however, he started to move, making my job much much harder. After probably ten minutes of poking it back into place, it finally was still long enough for this shot. Not exactly the world's sharpest photograph, indeed I suspect it was probably ever so slightly out of focus, but given the numerous variables that my very inexpensive setup has, I think it came out rather well.
The macro reproduction of my 50mm 1.4 reversed onto my 70-300mm F/4-5.6 @300mm Is right about 6:1. This means I'm thoroughly, completely, and utterly insane. As a final note, if you attempt something like this, use a prime, and if that isn't possible, at least use something with a focus lock. It really was a pain having to hold on to the lens to prevent it from smashing my subject :p
----Edit----
Pretty in Pixels pointed out that due to focus breathing, the reproduction is closer to 4:1.
Wind .
Stone .
Water .
Existence .
A man try to run away .. A man can't escape from his existence .
Life
Experience
Once again My friend . .
Palermo is a city in Insular Italy, the capital of both the autonomous region of Sicily and the Province of Palermo. The city is noted for its history, culture, architecture and gastronomy, playing an important role throughout much of its existence; it is over 2,700 years old. Palermo is located in the northwest of the island of Sicily, right by the Gulf of Palermo in the Tyrrhenian Sea.The city was founded in 734 BC by the Phoenicians as Ziz. The present name is derived from the Greek Panoremus meaning 'always fit for landing in'. Palermo became part of the Roman Republic, the Roman Empire and eventually part of the Byzantine Empire, for over a thousand years. From 827 to 1071 it was under Arab rule during the Emirate of Sicily when it first became a capital. Following the Norman reconquest, Palermo became capital of a new kingdom (from 1130 to 1816), the Kingdom of Sicily. Eventually it would be united with the Kingdom of Naples to form the Two Sicilies until the Italian unification of 1860.The population of Palermo urban area is estimated by Eurostat to be 855,285, while its metropolitan area is the fifth most populated in Italy with around 1.2 million people. In the central area, the city has a population of around 650,000 people. The inhabitants are known as Palermitans or, poetically, panormiti. The languages spoken by its inhabitants are the Italian language and the Sicilian language, in its Palermitan variation.Palermo is Sicily's cultural, economic and touristic capital. It is a city rich in history, culture, art, music and food. Numerous tourists are attracted to the city for its good Mediterranean weather, its renowned gastronomy and restaurants, its Romanesque, Gothic and Baroque churches, palaces and buildings, and its nightlife and music. Palermo is the main Sicilian industrial and commercial center: the main industrial sectors include tourism, services, commerce and agriculture. Palermo currently has an international airport, and a significant underground economy. In fact, for cultural, artistic and economic reasons, Palermo was one of the largest cities in the Mediterranean and is now among the top tourist destinations in both Italy and Europe. The city is also going through careful redevelopment, preparing to become one of the major cities of the Euro-Mediterranean area.Roman Catholicism is highly important in Palermitan culture. The patron saint of the city is Saint Rosalia. Her feast day on July 15 is perhaps the biggest social event in the city. The area attracts significant numbers of tourists each year and is widely known for its colourful fruit, vegetable and fish market at the heart of Palermo, known as the Vucciria.
Palermo è un comune italiano di 654 987 abitanti, capoluogo della provincia di Palermo e della Regione Siciliana.È il quinto comune italiano per popolazione dopo Roma, Milano, Napoli e Torino e trentunesimo a livello europeo, nonché il principale centro urbano della Sicilia e dell'Italia insulare. L'area metropolitana di Palermo, che comprende il capoluogo ed altri 26 comuni, conta una popolazione di 1.041.314 abitanti.Estesa lungo l'omonimo golfo nel Mar Tirreno e adagiata sulla pianura della Conca d'Oro, così chiamata per via delle colorazioni tipiche degli agrumi che un tempo dominavano il paesaggio, è circondata completamente da una cinta muraria naturale: i monti di Palermo. Il tessuto urbano è diviso dal fiume Oreto che scorre nella sua omonima vallata.Fondata come città-porto dai Fenici intorno al 734 a.C., è stata sempre un nodo culturale e commerciale fra occidente e Asia, dunque uno strategico luogo di transito al centro del Mediterraneo. Possiede una storia millenaria che le ha regalato un notevole patrimonio artistico ed architettonico che spazia dai resti delle mura puniche per giungere a ville in stile liberty, passando dalle residenze in stile arabo-normanno, alle chiese barocche ed ai teatri neoclassici. Per ragioni culturali, artistiche ed economiche è stata tra le maggiori città del Mediterraneo ed oggi è fra le principali mete turistiche del mezzogiorno italiano e tra le maggiori mete crocieristiche.Fu capitale, dal 1160 al 1816, del Regno di Sicilia, e seconda città per importanza del Regno delle Due Sicilie fino al 1861. È sede dell'Assemblea regionale siciliana, dell'Università degli Studi e della principale arcidiocesi regionale.
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Jellyfish, also known sea jellies, are the medusa-phase of certain gelatinous members of the subphylum Medusozoa, which is a major part of the phylum Cnidaria.
Jellyfish are mainly free-swimming marine animals with umbrella-shaped bells and trailing tentacles, although a few are anchored to the seabed by stalks rather than being mobile. The bell can pulsate to provide propulsion for highly efficient locomotion. The tentacles are armed with stinging cells and may be used to capture prey and defend against predators. Jellyfish have a complex life cycle. The medusa is normally the sexual phase, which produces planula larvae; these then disperse widely and enter a sedentary polyp phase, before reaching sexual maturity.
Jellyfish are found all over the world, from surface waters to the deep sea. Scyphozoans (the "true jellyfish") are exclusively marine, but some hydrozoans with a similar appearance live in freshwater. Large, often colorful, jellyfish are common in coastal zones worldwide. The medusae of most species are fast-growing, and mature within a few months then die soon after breeding, but the polyp stage, attached to the seabed, may be much more long-lived. Jellyfish have been in existence for at least 500 million years, and possibly 700 million years or more, making them the oldest multi-organ animal group.
Jellyfish are eaten by humans in certain cultures. They are considered a delicacy in some Asian countries, where species in the Rhizostomeae order are pressed and salted to remove excess water. Australian researchers have described them as a "perfect food": sustainable and protein-rich but relatively low in food energy.
They are also used in research, where the green fluorescent protein used by some species to cause bioluminescence has been adapted as a fluorescent marker for genes inserted into other cells or organisms.
The stinging cells used by jellyfish to subdue their prey can injure humans. Thousands of swimmers worldwide are stung every year, with effects ranging from mild discomfort to serious injury or even death. When conditions are favourable, jellyfish can form vast swarms, which can be responsible for damage to fishing gear by filling fishing nets, and sometimes clog the cooling systems of power and desalination plants which draw their water from the sea.
Names
The name jellyfish, in use since 1796, has traditionally been applied to medusae and all similar animals including the comb jellies (ctenophores, another phylum). The term jellies or sea jellies is more recent, having been introduced by public aquaria in an effort to avoid use of the word "fish" with its modern connotation of an animal with a backbone, though shellfish, cuttlefish and starfish are not vertebrates either. In scientific literature, "jelly" and "jellyfish" have been used interchangeably. Many sources refer to only scyphozoans as "true jellyfish".
A group of jellyfish is called a "smack" or a "smuck".
Definition
The term jellyfish broadly corresponds to medusae, that is, a life-cycle stage in the Medusozoa. The American evolutionary biologist Paulyn Cartwright gives the following general definition:
Typically, medusozoan cnidarians have a pelagic, predatory jellyfish stage in their life cycle; staurozoans are the exceptions [as they are stalked].
The Merriam-Webster dictionary defines jellyfish as follows:
A free-swimming marine coelenterate that is the sexually reproducing form of a hydrozoan or scyphozoan and has a nearly transparent saucer-shaped body and extensible marginal tentacles studded with stinging cells.
Given that jellyfish is a common name, its mapping to biological groups is inexact. Some authorities have called the comb jellies and certain salps jellyfish, though other authorities state that neither of these are jellyfish, which they consider should be limited to certain groups within the medusozoa.
The non-medusozoan clades called jellyfish by some but not all authorities (both agreeing and disagreeing citations are given in each case) are indicated with on the following cladogram of the animal kingdom:
Jellyfish are not a clade, as they include most of the Medusozoa, barring some of the Hydrozoa. The medusozoan groups included by authorities are indicated on the following phylogenetic tree by the presence of citations. Names of included jellyfish, in English where possible, are shown in boldface; the presence of a named and cited example indicates that at least that species within its group has been called a jellyfish.
Taxonomy
The subphylum Medusozoa includes all cnidarians with a medusa stage in their life cycle. The basic cycle is egg, planula larva, polyp, medusa, with the medusa being the sexual stage. The polyp stage is sometimes secondarily lost. The subphylum include the major taxa, Scyphozoa (large jellyfish), Cubozoa (box jellyfish) and Hydrozoa (small jellyfish), and excludes Anthozoa (corals and sea anemones). This suggests that the medusa form evolved after the polyps. Medusozoans have tetramerous symmetry, with parts in fours or multiples of four.
The four major classes of medusozoan Cnidaria are:
Scyphozoa are sometimes called true jellyfish, though they are no more truly jellyfish than the others listed here. They have tetra-radial symmetry. Most have tentacles around the outer margin of the bowl-shaped bell, and long, oral arms around the mouth in the center of the subumbrella.
Cubozoa (box jellyfish) have a (rounded) box-shaped bell, and their velarium assists them to swim more quickly. Box jellyfish may be related more closely to scyphozoan jellyfish than either are to the Hydrozoa.
Hydrozoa medusae also have tetra-radial symmetry, nearly always have a velum (diaphragm used in swimming) attached just inside the bell margin, do not have oral arms, but a much smaller central stalk-like structure, the manubrium, with terminal mouth opening, and are distinguished by the absence of cells in the mesoglea. Hydrozoa show great diversity of lifestyle; some species maintain the polyp form for their entire life and do not form medusae at all (such as Hydra, which is hence not considered a jellyfish), and a few are entirely medusal and have no polyp form.
Staurozoa (stalked jellyfish) are characterized by a medusa form that is generally sessile, oriented upside down and with a stalk emerging from the apex of the "calyx" (bell), which attaches to the substrate. At least some Staurozoa also have a polyp form that alternates with the medusoid portion of the life cycle. Until recently, Staurozoa were classified within the Scyphozoa.
There are over 200 species of Scyphozoa, about 50 species of Staurozoa, about 50 species of Cubozoa, and the Hydrozoa includes about 1000–1500 species that produce medusae, but many more species that do not.
Fossil history
Since jellyfish have no hard parts, fossils are rare. The oldest unambiguous fossil of a free-swimming medusa is Burgessomedusa from the mid Cambrian Burgess Shale of Canada, which is likely either a stem group of box jellyfish (Cubozoa) or Acraspeda (the clade including Staurozoa, Cubozoa, and Scyphozoa). Other claimed records from the Cambrian of China and Utah in the United States are uncertain, and possibly represent ctenophores instead.
Anatomy
The main feature of a true jellyfish is the umbrella-shaped bell. This is a hollow structure consisting of a mass of transparent jelly-like matter known as mesoglea, which forms the hydrostatic skeleton of the animal. 95% or more of the mesogloea consists of water, but it also contains collagen and other fibrous proteins, as well as wandering amoebocytes which can engulf debris and bacteria. The mesogloea is bordered by the epidermis on the outside and the gastrodermis on the inside. The edge of the bell is often divided into rounded lobes known as lappets, which allow the bell to flex. In the gaps or niches between the lappets are dangling rudimentary sense organs known as rhopalia, and the margin of the bell often bears tentacles.
Anatomy of a scyphozoan jellyfish
On the underside of the bell is the manubrium, a stalk-like structure hanging down from the centre, with the mouth, which also functions as the anus, at its tip. There are often four oral arms connected to the manubrium, streaming away into the water below. The mouth opens into the gastrovascular cavity, where digestion takes place and nutrients are absorbed. This is subdivided by four thick septa into a central stomach and four gastric pockets. The four pairs of gonads are attached to the septa, and close to them four septal funnels open to the exterior, perhaps supplying good oxygenation to the gonads. Near the free edges of the septa, gastric filaments extend into the gastric cavity; these are armed with nematocysts and enzyme-producing cells and play a role in subduing and digesting the prey. In some scyphozoans, the gastric cavity is joined to radial canals which branch extensively and may join a marginal ring canal. Cilia in these canals circulate the fluid in a regular direction.
Discharge mechanism of a nematocyst
The box jellyfish is largely similar in structure. It has a squarish, box-like bell. A short pedalium or stalk hangs from each of the four lower corners. One or more long, slender tentacles are attached to each pedalium. The rim of the bell is folded inwards to form a shelf known as a velarium which restricts the bell's aperture and creates a powerful jet when the bell pulsates, allowing box jellyfish to swim faster than true jellyfish. Hydrozoans are also similar, usually with just four tentacles at the edge of the bell, although many hydrozoans are colonial and may not have a free-living medusal stage. In some species, a non-detachable bud known as a gonophore is formed that contains a gonad but is missing many other medusal features such as tentacles and rhopalia. Stalked jellyfish are attached to a solid surface by a basal disk, and resemble a polyp, the oral end of which has partially developed into a medusa with tentacle-bearing lobes and a central manubrium with four-sided mouth.
Most jellyfish do not have specialized systems for osmoregulation, respiration and circulation, and do not have a central nervous system. Nematocysts, which deliver the sting, are located mostly on the tentacles; true jellyfish also have them around the mouth and stomach. Jellyfish do not need a respiratory system because sufficient oxygen diffuses through the epidermis. They have limited control over their movement, but can navigate with the pulsations of the bell-like body; some species are active swimmers most of the time, while others largely drift. The rhopalia contain rudimentary sense organs which are able to detect light, water-borne vibrations, odour and orientation. A loose network of nerves called a "nerve net" is located in the epidermis. Although traditionally thought not to have a central nervous system, nerve net concentration and ganglion-like structures could be considered to constitute one in most species. A jellyfish detects stimuli, and transmits impulses both throughout the nerve net and around a circular nerve ring, to other nerve cells. The rhopalial ganglia contain pacemaker neurones which control swimming rate and direction.
In many species of jellyfish, the rhopalia include ocelli, light-sensitive organs able to tell light from dark. These are generally pigment spot ocelli, which have some of their cells pigmented. The rhopalia are suspended on stalks with heavy crystals at one end, acting like gyroscopes to orient the eyes skyward. Certain jellyfish look upward at the mangrove canopy while making a daily migration from mangrove swamps into the open lagoon, where they feed, and back again.
Box jellyfish have more advanced vision than the other groups. Each individual has 24 eyes, two of which are capable of seeing colour, and four parallel information processing areas that act in competition, supposedly making them one of the few kinds of animal to have a 360-degree view of its environment.
Box jellyfish eye
The study of jellyfish eye evolution is an intermediary to a better understanding of how visual systems evolved on Earth. Jellyfish exhibit immense variation in visual systems ranging from photoreceptive cell patches seen in simple photoreceptive systems to more derived complex eyes seen in box jellyfish. Major topics of jellyfish visual system research (with an emphasis on box jellyfish) include: the evolution of jellyfish vision from simple to complex visual systems), the eye morphology and molecular structures of box jellyfish (including comparisons to vertebrate eyes), and various uses of vision including task-guided behaviors and niche specialization.
Evolution
Experimental evidence for photosensitivity and photoreception in cnidarians antecedes the mid 1900s, and a rich body of research has since covered evolution of visual systems in jellyfish. Jellyfish visual systems range from simple photoreceptive cells to complex image-forming eyes. More ancestral visual systems incorporate extraocular vision (vision without eyes) that encompass numerous receptors dedicated to single-function behaviors. More derived visual systems comprise perception that is capable of multiple task-guided behaviors.
Although they lack a true brain, cnidarian jellyfish have a "ring" nervous system that plays a significant role in motor and sensory activity. This net of nerves is responsible for muscle contraction and movement and culminates the emergence of photosensitive structures. Across Cnidaria, there is large variation in the systems that underlie photosensitivity. Photosensitive structures range from non-specialized groups of cells, to more "conventional" eyes similar to those of vertebrates. The general evolutionary steps to develop complex vision include (from more ancestral to more derived states): non-directional photoreception, directional photoreception, low-resolution vision, and high-resolution vision. Increased habitat and task complexity has favored the high-resolution visual systems common in derived cnidarians such as box jellyfish.
Basal visual systems observed in various cnidarians exhibit photosensitivity representative of a single task or behavior. Extraocular photoreception (a form of non-directional photoreception), is the most basic form of light sensitivity and guides a variety of behaviors among cnidarians. It can function to regulate circadian rhythm (as seen in eyeless hydrozoans) and other light-guided behaviors responsive to the intensity and spectrum of light. Extraocular photoreception can function additionally in positive phototaxis (in planula larvae of hydrozoans), as well as in avoiding harmful amounts of UV radiation via negative phototaxis. Directional photoreception (the ability to perceive direction of incoming light) allows for more complex phototactic responses to light, and likely evolved by means of membrane stacking. The resulting behavioral responses can range from guided spawning events timed by moonlight to shadow responses for potential predator avoidance. Light-guided behaviors are observed in numerous scyphozoans including the common moon jelly, Aurelia aurita, which migrates in response to changes in ambient light and solar position even though they lack proper eyes.
The low-resolution visual system of box jellyfish is more derived than directional photoreception, and thus box jellyfish vision represents the most basic form of true vision in which multiple directional photoreceptors combine to create the first imaging and spatial resolution. This is different from the high-resolution vision that is observed in camera or compound eyes of vertebrates and cephalopods that rely on focusing optics. Critically, the visual systems of box jellyfish are responsible for guiding multiple tasks or behaviors in contrast to less derived visual systems in other jellyfish that guide single behavioral functions. These behaviors include phototaxis based on sunlight (positive) or shadows (negative), obstacle avoidance, and control of swim-pulse rate.
Box jellyfish possess "proper eyes" (similar to vertebrates) that allow them to inhabit environments that lesser derived medusae cannot. In fact, they are considered the only class in the clade Medusozoa that have behaviors necessitating spatial resolution and genuine vision. However, the lens in their eyes are more functionally similar to cup-eyes exhibited in low-resolution organisms, and have very little to no focusing capability. The lack of the ability to focus is due to the focal length exceeding the distance to the retina, thus generating unfocused images and limiting spatial resolution. The visual system is still sufficient for box jellyfish to produce an image to help with tasks such as object avoidance.
Utility as a model organism
Box jellyfish eyes are a visual system that is sophisticated in numerous ways. These intricacies include the considerable variation within the morphology of box jellyfishes' eyes (including their task/behavior specification), and the molecular makeup of their eyes including: photoreceptors, opsins, lenses, and synapses. The comparison of these attributes to more derived visual systems can allow for a further understanding of how the evolution of more derived visual systems may have occurred, and puts into perspective how box jellyfish can play the role as an evolutionary/developmental model for all visual systems.
Characteristics
Box jellyfish visual systems are both diverse and complex, comprising multiple photosystems. There is likely considerable variation in visual properties between species of box jellyfish given the significant inter-species morphological and physiological variation. Eyes tend to differ in size and shape, along with number of receptors (including opsins), and physiology across species of box jellyfish.
Box jellyfish have a series of intricate lensed eyes that are similar to those of more derived multicellular organisms such as vertebrates. Their 24 eyes fit into four different morphological categories. These categories consist of two large, morphologically different medial eyes (a lower and upper lensed eye) containing spherical lenses, a lateral pair of pigment slit eyes, and a lateral pair of pigment pit eyes. The eyes are situated on rhopalia (small sensory structures) which serve sensory functions of the box jellyfish and arise from the cavities of the exumbrella (the surface of the body) on the side of the bells of the jellyfish. The two large eyes are located on the mid-line of the club and are considered complex because they contain lenses. The four remaining eyes lie laterally on either side of each rhopalia and are considered simple. The simple eyes are observed as small invaginated cups of epithelium that have developed pigmentation. The larger of the complex eyes contains a cellular cornea created by a mono ciliated epithelium, cellular lens, homogenous capsule to the lens, vitreous body with prismatic elements, and a retina of pigmented cells. The smaller of the complex eyes is said to be slightly less complex given that it lacks a capsule but otherwise contains the same structure as the larger eye.
Box jellyfish have multiple photosystems that comprise different sets of eyes. Evidence includes immunocytochemical and molecular data that show photopigment differences among the different morphological eye types, and physiological experiments done on box jellyfish to suggest behavioral differences among photosystems. Each individual eye type constitutes photosystems that work collectively to control visually guided behaviors.
Box jellyfish eyes primarily use c-PRCs (ciliary photoreceptor cells) similar to that of vertebrate eyes. These cells undergo phototransduction cascades (process of light absorption by photoreceptors) that are triggered by c-opsins. Available opsin sequences suggest that there are two types of opsins possessed by all cnidarians including an ancient phylogenetic opsin, and a sister ciliary opsin to the c-opsins group. Box jellyfish could have both ciliary and cnidops (cnidarian opsins), which is something not previously believed to appear in the same retina. Nevertheless, it is not entirely evident whether cnidarians possess multiple opsins that are capable of having distinctive spectral sensitivities.
Comparison with other organisms
Comparative research on genetic and molecular makeup of box jellyfishes' eyes versus more derived eyes seen in vertebrates and cephalopods focuses on: lenses and crystallin composition, synapses, and Pax genes and their implied evidence for shared primordial (ancestral) genes in eye evolution.
Box jellyfish eyes are said to be an evolutionary/developmental model of all eyes based on their evolutionary recruitment of crystallins and Pax genes. Research done on box jellyfish including Tripedalia cystophora has suggested that they possess a single Pax gene, PaxB. PaxB functions by binding to crystallin promoters and activating them. PaxB in situ hybridization resulted in PaxB expression in the lens, retina, and statocysts. These results and the rejection of the prior hypothesis that Pax6 was an ancestral Pax gene in eyes has led to the conclusion that PaxB was a primordial gene in eye evolution, and that the eyes of all organisms likely share a common ancestor.
The lens structure of box jellyfish appears very similar to those of other organisms, but the crystallins are distinct in both function and appearance. Weak reactions were seen within the sera and there were very weak sequence similarities within the crystallins among vertebrate and invertebrate lenses. This is likely due to differences in lower molecular weight proteins and the subsequent lack of immunological reactions with antisera that other organisms' lenses exhibit.
All four of the visual systems of box jellyfish species investigated with detail (Carybdea marsupialis, Chiropsalmus quadrumanus, Tamoya haplonema and Tripedalia cystophora) have invaginated synapses, but only in the upper and lower lensed eyes. Different densities were found between the upper and lower lenses, and between species. Four types of chemical synapses have been discovered within the rhopalia which could help in understanding neural organization including: clear unidirectional, dense-core unidirectional, clear bidirectional, and clear and dense-core bidirectional. The synapses of the lensed eyes could be useful as markers to learn more about the neural circuit in box jellyfish retinal areas.
Evolution as a response to natural stimuli
The primary adaptive responses to environmental variation observed in box jellyfish eyes include pupillary constriction speeds in response to light environments, as well as photoreceptor tuning and lens adaptations to better respond to shifts between light environments and darkness. Interestingly, some box jellyfish species' eyes appear to have evolved more focused vision in response to their habitat.
Pupillary contraction appears to have evolved in response to variation in the light environment across ecological niches across three species of box jellyfish (Chironex fleckeri, Chiropsella bronzie, and Carukia barnesi). Behavioral studies suggest that faster pupil contraction rates allow for greater object avoidance, and in fact, species with more complex habitats exhibit faster rates. Ch. bronzie inhabit shallow beach fronts that have low visibility and very few obstacles, thus, faster pupil contraction in response to objects in their environment is not important. Ca. barnesi and Ch. fleckeri are found in more three-dimensionally complex environments like mangroves with an abundance of natural obstacles, where faster pupil contraction is more adaptive. Behavioral studies support the idea that faster pupillary contraction rates assist with obstacle avoidance as well as depth adjustments in response to differing light intensities.
Light/dark adaptation via pupillary light reflexes is an additional form of an evolutionary response to the light environment. This relates to the pupil's response to shifts between light intensity (generally from sunlight to darkness). In the process of light/dark adaptation, the upper and lower lens eyes of different box jellyfish species vary in specific function. The lower lens-eyes contain pigmented photoreceptors and long pigment cells with dark pigments that migrate on light/dark adaptation, while the upper-lens eyes play a concentrated role in light direction and phototaxis given that they face upward towards the water surface (towards the sun or moon). The upper lens of Ch. bronzie does not exhibit any considerable optical power while Tr. cystophora (a box jellyfish species that tends to live in mangroves) does. The ability to use light to visually guide behavior is not of as much importance to Ch. bronzie as it is to species in more obstacle-filled environments. Differences in visually guided behavior serve as evidence that species that share the same number and structure of eyes can exhibit differences in how they control behavior.
Largest and smallest
Jellyfish range from about one millimeter in bell height and diameter, to nearly 2 metres (6+1⁄2 ft) in bell height and diameter; the tentacles and mouth parts usually extend beyond this bell dimension.
The smallest jellyfish are the peculiar creeping jellyfish in the genera Staurocladia and Eleutheria, which have bell disks from 0.5 millimetres (1⁄32 in) to a few millimeters in diameter, with short tentacles that extend out beyond this, which these jellyfish use to move across the surface of seaweed or the bottoms of rocky pools; many of these tiny creeping jellyfish cannot be seen in the field without a hand lens or microscope. They can reproduce asexually by fission (splitting in half). Other very small jellyfish, which have bells about one millimeter, are the hydromedusae of many species that have just been released from their parent polyps; some of these live only a few minutes before shedding their gametes in the plankton and then dying, while others will grow in the plankton for weeks or months. The hydromedusae Cladonema radiatum and Cladonema californicum are also very small, living for months, yet never growing beyond a few mm in bell height and diameter.
The lion's mane jellyfish, Cyanea capillata, was long-cited as the largest jellyfish, and arguably the longest animal in the world, with fine, thread-like tentacles that may extend up to 36.5 m (119 ft 9 in) long (though most are nowhere near that large). They have a moderately painful, but rarely fatal, sting. The increasingly common giant Nomura's jellyfish, Nemopilema nomurai, found in some, but not all years in the waters of Japan, Korea and China in summer and autumn is another candidate for "largest jellyfish", in terms of diameter and weight, since the largest Nomura's jellyfish in late autumn can reach 2 m (6 ft 7 in) in bell (body) diameter and about 200 kg (440 lb) in weight, with average specimens frequently reaching 0.9 m (2 ft 11 in) in bell diameter and about 150 kg (330 lb) in weight. The large bell mass of the giant Nomura's jellyfish can dwarf a diver and is nearly always much greater than the Lion's Mane, whose bell diameter can reach 1 m (3 ft 3 in).
The rarely encountered deep-sea jellyfish Stygiomedusa gigantea is another candidate for "largest jellyfish", with its thick, massive bell up to 100 cm (3 ft 3 in) wide, and four thick, "strap-like" oral arms extending up to 6 m (19+1⁄2 ft) in length, very different from the typical fine, threadlike tentacles that rim the umbrella of more-typical-looking jellyfish, including the Lion's Mane.
Desmonema glaciale, which lives in the Antarctic region, can reach a very large size (several meters). Purple-striped jelly (Chrysaora colorata) can also be extremely long (up to 15 feet).
Life history and behavior
Life cycle
Jellyfish have a complex life cycle which includes both sexual and asexual phases, with the medusa being the sexual stage in most instances. Sperm fertilize eggs, which develop into larval planulae, become polyps, bud into ephyrae and then transform into adult medusae. In some species certain stages may be skipped.
Upon reaching adult size, jellyfish spawn regularly if there is a sufficient supply of food. In most species, spawning is controlled by light, with all individuals spawning at about the same time of day; in many instances this is at dawn or dusk. Jellyfish are usually either male or female (with occasional hermaphrodites). In most cases, adults release sperm and eggs into the surrounding water, where the unprotected eggs are fertilized and develop into larvae. In a few species, the sperm swim into the female's mouth, fertilizing the eggs within her body, where they remain during early development stages. In moon jellies, the eggs lodge in pits on the oral arms, which form a temporary brood chamber for the developing planula larvae.
The planula is a small larva covered with cilia. When sufficiently developed, it settles onto a firm surface and develops into a polyp. The polyp generally consists of a small stalk topped by a mouth that is ringed by upward-facing tentacles. The polyps resemble those of closely related anthozoans, such as sea anemones and corals. The jellyfish polyp may be sessile, living on the bottom, boat hulls or other substrates, or it may be free-floating or attached to tiny bits of free-living plankton or rarely, fish or other invertebrates. Polyps may be solitary or colonial. Most polyps are only millimetres in diameter and feed continuously. The polyp stage may last for years.
After an interval and stimulated by seasonal or hormonal changes, the polyp may begin reproducing asexually by budding and, in the Scyphozoa, is called a segmenting polyp, or a scyphistoma. Budding produces more scyphistomae and also ephyrae. Budding sites vary by species; from the tentacle bulbs, the manubrium (above the mouth), or the gonads of hydromedusae. In a process known as strobilation, the polyp's tentacles are reabsorbed and the body starts to narrow, forming transverse constrictions, in several places near the upper extremity of the polyp. These deepen as the constriction sites migrate down the body, and separate segments known as ephyra detach. These are free-swimming precursors of the adult medusa stage, which is the life stage that is typically identified as a jellyfish. The ephyrae, usually only a millimeter or two across initially, swim away from the polyp and grow. Limnomedusae polyps can asexually produce a creeping frustule larval form, which crawls away before developing into another polyp. A few species can produce new medusae by budding directly from the medusan stage. Some hydromedusae reproduce by fission.
Lifespan
Little is known of the life histories of many jellyfish as the places on the seabed where the benthic forms of those species live have not been found. However, an asexually reproducing strobila form can sometimes live for several years, producing new medusae (ephyra larvae) each year.
An unusual species, Turritopsis dohrnii, formerly classified as Turritopsis nutricula, might be effectively immortal because of its ability under certain circumstances to transform from medusa back to the polyp stage, thereby escaping the death that typically awaits medusae post-reproduction if they have not otherwise been eaten by some other organism. So far this reversal has been observed only in the laboratory.
Locomotion
Jellyfish locomotion is highly efficient. Muscles in the jellylike bell contract, setting up a start vortex and propelling the animal. When the contraction ends, the bell recoils elastically, creating a stop vortex with no extra energy input.
Using the moon jelly Aurelia aurita as an example, jellyfish have been shown to be the most energy-efficient swimmers of all animals. They move through the water by radially expanding and contracting their bell-shaped bodies to push water behind them. They pause between the contraction and expansion phases to create two vortex rings. Muscles are used for the contraction of the body, which creates the first vortex and pushes the animal forward, but the mesoglea is so elastic that the expansion is powered exclusively by relaxing the bell, which releases the energy stored from the contraction. Meanwhile, the second vortex ring starts to spin faster, sucking water into the bell and pushing against the centre of the body, giving a secondary and "free" boost forward. The mechanism, called passive energy recapture, only works in relatively small jellyfish moving at low speeds, allowing the animal to travel 30 percent farther on each swimming cycle. Jellyfish achieved a 48 percent lower cost of transport (food and oxygen intake versus energy spent in movement) than other animals in similar studies. One reason for this is that most of the gelatinous tissue of the bell is inactive, using no energy during swimming.
Ecology
Diet
Jellyfish are, like other cnidarians, generally carnivorous (or parasitic), feeding on planktonic organisms, crustaceans, small fish, fish eggs and larvae, and other jellyfish, ingesting food and voiding undigested waste through the mouth. They hunt passively using their tentacles as drift lines, or sink through the water with their tentacles spread widely; the tentacles, which contain nematocysts to stun or kill the prey, may then flex to help bring it to the mouth. Their swimming technique also helps them to capture prey; when their bell expands it sucks in water which brings more potential prey within reach of the tentacles.
A few species such as Aglaura hemistoma are omnivorous, feeding on microplankton which is a mixture of zooplankton and phytoplankton (microscopic plants) such as dinoflagellates. Others harbour mutualistic algae (Zooxanthellae) in their tissues; the spotted jellyfish (Mastigias papua) is typical of these, deriving part of its nutrition from the products of photosynthesis, and part from captured zooplankton. The upside-down jellyfish (Cassiopea andromeda) also has a symbiotic relationship with microalgae, but captures tiny animals to supplement their diet. This is done by releasing tiny balls of living cells composed of mesoglea. These use cilia to drive them through water and stinging cells which stun the prey. The blobs also seems to have digestive capabilities.
Predation
Other species of jellyfish are among the most common and important jellyfish predators. Sea anemones may eat jellyfish that drift into their range. Other predators include tunas, sharks, swordfish, sea turtles and penguins. Jellyfish washed up on the beach are consumed by foxes, other terrestrial mammals and birds. In general however, few animals prey on jellyfish; they can broadly be considered to be top predators in the food chain. Once jellyfish have become dominant in an ecosystem, for example through overfishing which removes predators of jellyfish larvae, there may be no obvious way for the previous balance to be restored: they eat fish eggs and juvenile fish, and compete with fish for food, preventing fish stocks from recovering.
Symbiosis
Some small fish are immune to the stings of the jellyfish and live among the tentacles, serving as bait in a fish trap; they are safe from potential predators and are able to share the fish caught by the jellyfish. The cannonball jellyfish has a symbiotic relationship with ten different species of fish, and with the longnose spider crab, which lives inside the bell, sharing the jellyfish's food and nibbling its tissues.
Main article: Jellyfish bloom
Jellyfish form large masses or blooms in certain environmental conditions of ocean currents, nutrients, sunshine, temperature, season, prey availability, reduced predation and oxygen concentration. Currents collect jellyfish together, especially in years with unusually high populations. Jellyfish can detect marine currents and swim against the current to congregate in blooms. Jellyfish are better able to survive in nutrient-rich, oxygen-poor water than competitors, and thus can feast on plankton without competition. Jellyfish may also benefit from saltier waters, as saltier waters contain more iodine, which is necessary for polyps to turn into jellyfish. Rising sea temperatures caused by climate change may also contribute to jellyfish blooms, because many species of jellyfish are able to survive in warmer waters. Increased nutrients from agricultural or urban runoff with nutrients including nitrogen and phosphorus compounds increase the growth of phytoplankton, causing eutrophication and algal blooms. When the phytoplankton die, they may create dead zones, so-called because they are hypoxic (low in oxygen). This in turn kills fish and other animals, but not jellyfish, allowing them to bloom. Jellyfish populations may be expanding globally as a result of land runoff and overfishing of their natural predators. Jellyfish are well placed to benefit from disturbance of marine ecosystems. They reproduce rapidly; they prey upon many species, while few species prey on them; and they feed via touch rather than visually, so they can feed effectively at night and in turbid waters. It may be difficult for fish stocks to re-establish themselves in marine ecosystems once they have become dominated by jellyfish, because jellyfish feed on plankton, which includes fish eggs and larvae.
As suspected at the turn of this century, jellyfish blooms are increasing in frequency. Between 2013 and 2020 the Mediterranean Science Commission monitored on a weekly basis the frequency of such outbreaks in coastal waters from Morocco to the Black Sea, revealing a relatively high frequency of these blooms nearly all year round, with peaks observed from March to July and often again in the autumn. The blooms are caused by different jellyfish species, depending on their localisation within the Basin: one observes a clear dominance of Pelagia noctiluca and Velella velella outbreaks in the western Mediterranean, of Rhizostoma pulmo and Rhopilema nomadica outbreaks in the eastern Mediterranean, and of Aurelia aurita and Mnemiopsis leidyi outbreaks in the Black Sea.
Some jellyfish populations that have shown clear increases in the past few decades are invasive species, newly arrived from other habitats: examples include the Black Sea, Caspian Sea, Baltic Sea, central and eastern Mediterranean, Hawaii, and tropical and subtropical parts of the West Atlantic (including the Caribbean, Gulf of Mexico and Brazil).
Jellyfish blooms can have significant impact on community structure. Some carnivorous jellyfish species prey on zooplankton while others graze on primary producers. Reductions in zooplankton and ichthyoplankton due to a jellyfish bloom can ripple through the trophic levels. High-density jellyfish populations can outcompete other predators and reduce fish recruitment. Increased grazing on primary producers by jellyfish can also interrupt energy transfer to higher trophic levels.
During blooms, jellyfish significantly alter the nutrient availability in their environment. Blooms require large amounts of available organic nutrients in the water column to grow, limiting availability for other organisms. Some jellyfish have a symbiotic relationship with single-celled dinoflagellates, allowing them to assimilate inorganic carbon, phosphorus, and nitrogen creating competition for phytoplankton. Their large biomass makes them an important source of dissolved and particulate organic matter for microbial communities through excretion, mucus production, and decomposition. The microbes break down the organic matter into inorganic ammonium and phosphate. However, the low carbon availability shifts the process from production to respiration creating low oxygen areas making the dissolved inorganic nitrogen and phosphorus largely unavailable for primary production.
These blooms have very real impacts on industries. Jellyfish can outcompete fish by utilizing open niches in over-fished fisheries. Catch of jellyfish can strain fishing gear and lead to expenses relating to damaged gear. Power plants have been shut down due to jellyfish blocking the flow of cooling water. Blooms have also been harmful for tourism, causing a rise in stings and sometimes the closure of beaches.
Jellyfish form a component of jelly-falls, events where gelatinous zooplankton fall to the seafloor, providing food for the benthic organisms there. In temperate and subpolar regions, jelly-falls usually follow immediately after a bloom.
Habitats
Most jellyfish are marine animals, although a few hydromedusae inhabit freshwater. The best known freshwater example is the cosmopolitan hydrozoan jellyfish, Craspedacusta sowerbii. It is less than an inch (2.5 cm) in diameter, colorless and does not sting. Some jellyfish populations have become restricted to coastal saltwater lakes, such as Jellyfish Lake in Palau. Jellyfish Lake is a marine lake where millions of golden jellyfish (Mastigias spp.) migrate horizontally across the lake daily.
Although most jellyfish live well off the ocean floor and form part of the plankton, a few species are closely associated with the bottom for much of their lives and can be considered benthic. The upside-down jellyfish in the genus Cassiopea typically lie on the bottom of shallow lagoons where they sometimes pulsate gently with their umbrella top facing down. Even some deep-sea species of hydromedusae and scyphomedusae are usually collected on or near the bottom. All of the stauromedusae are found attached to either seaweed or rocky or other firm material on the bottom.
Some species explicitly adapt to tidal flux. In Roscoe Bay, jellyfish ride the current at ebb tide until they hit a gravel bar, and then descend below the current. They remain in still waters until the tide rises, ascending and allowing it to sweep them back into the bay. They also actively avoid fresh water from mountain snowmelt, diving until they find enough salt.
Parasites
Jellyfish are hosts to a wide variety of parasitic organisms. They act as intermediate hosts of endoparasitic helminths, with the infection being transferred to the definitive host fish after predation. Some digenean trematodes, especially species in the family Lepocreadiidae, use jellyfish as their second intermediate hosts. Fish become infected by the trematodes when they feed on infected jellyfish.
Relation to humans
Jellyfish have long been eaten in some parts of the world. Fisheries have begun harvesting the American cannonball jellyfish, Stomolophus meleagris, along the southern Atlantic coast of the United States and in the Gulf of Mexico for export to Asia.
Jellyfish are also harvested for their collagen, which is being investigated for use in a variety of applications including the treatment of rheumatoid arthritis.
Aquaculture and fisheries of other species often suffer severe losses – and so losses of productivity – due to jellyfish.
Products
Main article: Jellyfish as food
In some countries, including China, Japan, and Korea, jellyfish are a delicacy. The jellyfish is dried to prevent spoiling. Only some 12 species of scyphozoan jellyfish belonging to the order Rhizostomeae are harvested for food, mostly in southeast Asia. Rhizostomes, especially Rhopilema esculentum in China (海蜇 hǎizhé, 'sea stingers') and Stomolophus meleagris (cannonball jellyfish) in the United States, are favored because of their larger and more rigid bodies and because their toxins are harmless to humans.
Traditional processing methods, carried out by a jellyfish master, involve a 20- to 40-day multi-phase procedure in which, after removing the gonads and mucous membranes, the umbrella and oral arms are treated with a mixture of table salt and alum, and compressed. Processing makes the jellyfish drier and more acidic, producing a crisp texture. Jellyfish prepared this way retain 7–10% of their original weight, and the processed product consists of approximately 94% water and 6% protein. Freshly processed jellyfish has a white, creamy color and turns yellow or brown during prolonged storage.
In China, processed jellyfish are desalted by soaking in water overnight and eaten cooked or raw. The dish is often served shredded with a dressing of oil, soy sauce, vinegar and sugar, or as a salad with vegetables. In Japan, cured jellyfish are rinsed, cut into strips and served with vinegar as an appetizer. Desalted, ready-to-eat products are also available.
Biotechnology
The hydromedusa Aequorea victoria was the source of green fluorescent protein, studied for its role in bioluminescence and later for use as a marker in genetic engineering.
Pliny the Elder reported in his Natural History that the slime of the jellyfish "Pulmo marinus" produced light when rubbed on a walking stick.
In 1961, Osamu Shimomura extracted green fluorescent protein (GFP) and another bioluminescent protein, called aequorin, from the large and abundant hydromedusa Aequorea victoria, while studying photoproteins that cause bioluminescence in this species. Three decades later, Douglas Prasher sequenced and cloned the gene for GFP. Martin Chalfie figured out how to use GFP as a fluorescent marker of genes inserted into other cells or organisms. Roger Tsien later chemically manipulated GFP to produce other fluorescent colors to use as markers. In 2008, Shimomura, Chalfie and Tsien won the Nobel Prize in Chemistry for their work with GFP. Man-made GFP became widely used as a fluorescent tag to show which cells or tissues express specific genes. The genetic engineering technique fuses the gene of interest to the GFP gene. The fused DNA is then put into a cell, to generate either a cell line or (via IVF techniques) an entire animal bearing the gene. In the cell or animal, the artificial gene turns on in the same tissues and the same time as the normal gene, making a fusion of the normal protein with GFP attached to the end, illuminating the animal or cell reveals what tissues express that protein—or at what stage of development. The fluorescence shows where the gene is expressed.
Aquarium display
Jellyfish are displayed in many public aquariums. Often the tank's background is blue and the animals are illuminated by side light, increasing the contrast between the animal and the background. In natural conditions, many jellies are so transparent that they are nearly invisible. Jellyfish are not adapted to closed spaces. They depend on currents to transport them from place to place. Professional exhibits as in the Monterey Bay Aquarium feature precise water flows, typically in circular tanks to avoid trapping specimens in corners. The outflow is spread out over a large surface area and the inflow enters as a sheet of water in front of the outflow, so the jellyfish do not get sucked into it. As of 2009, jellyfish were becoming popular in home aquariums, where they require similar equipment.
Stings
Jellyfish are armed with nematocysts, a type of specialized stinging cell. Contact with a jellyfish tentacle can trigger millions of nematocysts to pierce the skin and inject venom, but only some species' venom causes an adverse reaction in humans. In a study published in Communications Biology, researchers found a jellyfish species called Cassiopea xamachana which when triggered will release tiny balls of cells that swim around the jellyfish stinging everything in their path. Researchers described these as "self-propelling microscopic grenades" and named them cassiosomes.
The effects of stings range from mild discomfort to extreme pain and death. Most jellyfish stings are not deadly, but stings of some box jellyfish (Irukandji jellyfish), such as the sea wasp, can be deadly. Stings may cause anaphylaxis (a form of shock), which can be fatal. Jellyfish kill 20 to 40 people a year in the Philippines alone. In 2006 the Spanish Red Cross treated 19,000 stung swimmers along the Costa Brava.
Vinegar (3–10% aqueous acetic acid) may help with box jellyfish stings but not the stings of the Portuguese man o' war. Clearing the area of jelly and tentacles reduces nematocyst firing. Scraping the affected skin, such as with the edge of a credit card, may remove remaining nematocysts. Once the skin has been cleaned of nematocysts, hydrocortisone cream applied locally reduces pain and inflammation. Antihistamines may help to control itching. Immunobased antivenins are used for serious box jellyfish stings.
In Elba Island and Corsica dittrichia viscosa is now used by residents and tourists to heal stings from jellyfish, bees and wasps pressing fresh leaves on the skin with quick results.
Mechanical issues
Jellyfish in large quantities can fill and split fishing nets and crush captured fish. They can clog cooling equipment, having disabled power stations in several countries; jellyfish caused a cascading blackout in the Philippines in 1999, as well as damaging the Diablo Canyon Power Plant in California in 2008. They can also stop desalination plants and ships' engines.
This photograph was taken at 11:10am on Wednesday 4th May 2016 off Sooke River Road in the grounds of Sooke Potholes Provincial Park, a free to visit seven hectare provincial park on Vancouver Island, British Columbia, Canada.
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Nikon D800 160mm 1/125s f/2.8 iso100 RAW (14Bit) Hand held with Nikkor VR vibration reduction on. Nikon back focus button enabled. AF-C Continuous point focus with 3-D tracking. Manual exposure. Matrix metering. Auto white balance.Nikon AF Fine Tune on (+5)
Nikkor AF-S 70-200mm f/2.8G ED IF VRII. Jessops 77mm UV filter. Nikon MB-D12 battery grip. Two Nikon EN-EL15 batteries. Nikon DK-17M 1.2x Magnifying Eyepiece. Nikon DK-19 soft rubber eyecup. Digi-Chip 64GB Class 10 UHS-1 SDXC card. Lowepro Transporter camera strap. Lowepro Vertex 200 AW Photo/ 15.4" Notebook Backpack camera bag.
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RAW (TIFF) FILE SIZE: 103.00MB
PROCESSED (JPeg) SIZE: 23.45MB
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PROCESSING POWER:
Nikon D800 Firmware versions A 1.10 B 1.10 L 2.009 (Lens distortion control version 2)
HP 110-352na Desktop PC with AMD Quad-Core A6-5200 APU processor. AMD Radeon HD8400 graphics. 8 GB DDR3 Memory with 1TB SATA storage. 64-bit Windows 10. Verbatim USB 2.0 1TB desktop hard drive. WD My Passport Ultra 1tb USB3 Portable hard drive. Nikon ViewNX2 Version 2.10.3 64bit. Adobe photoshop Elements 8 Version 8.0 64bit.
The first written evidence of the existence of the Herst settlement appears in William the Conqueror's Domesday Book which reports that one of William's closest supporters granted tenancy of the manor at Herst to a man named ‘Wilbert'. By the end of the twelfth century, the family at the manor house at Herst had considerable status. Written accounts mention a lady called Idonea de Herst, who married a Norman nobleman named Ingelram de Monceux. Around this time, the manor began to be called the “Herst of the Monceux”, a name that eventually became Herstmonceux.
A descendant of the Monceux family, Roger Fiennes, was ultimately responsible for the construction of Herstmonceux Castle in the County of Sussex. Sir Roger was appointed Treasurer of the Household of Henry VI of England and needed a house fitting a man of his position, so construction of the castle on the site of the old manor house began in 1441. It was this position as treasurer which enabled him to afford the £3,800 construction of the original castle. The result is not a defensive structure, but a palatial residence in a self-consciously archaising castle style.
In 1541, Sir Thomas Fiennes, Lord Dacre, was tried for murder and robbery of the King's deer after his poaching exploits on a neighboring estate resulted in the death of a gamekeeper. He was convicted and hanged as a commoner, and the Herstmonceux estate was temporarily confiscated by Henry VIII of England, but was restored to the Fiennes family during the reign of one of Henry's children.
The profligacy of the 15th Baron Dacre, heir to the Fiennes family, forced him to sell in 1708 to George Naylor, a lawyer of Lincoln’s Inn in London. Naylor’s grandson followed the architect Samuel Wyatt’s advice to reduce the Castle to a picturesque ruin by demolishing the interior. Thomas Lennard, 16th Baron Dacre, was sufficiently exercised as to commission James Lamberts of Lewes to record the building. The castle was dismantled in 1777 leaving the exterior walls standing and remained a ruin until the early 20th century.
'The proof of the existence of God is not outside you; it is inside you.' - His Holiness Younus AlGohar
What do Monks do?
The simple existence of a monk is succinctly defined in the order’s motto: Ora et Labora (“Pray and Work”).
The monks of Conception Abbey celebrate Mass daily. They eat together – often in silence – and they gather five times each day for the Liturgy of the Hours, services of prayer and Scripture reading. Individual “holy reading” or lectio divina – consisting of Scripture, theology and spiritual writings – is also a scheduled part of daily life.
As administrators and members of the faculty of Conception Seminary College, the Conception monks provide spiritual, character and academic formation for young men considering a priestly vocation. Through the Abbey Center for Prayer and Ministry the monks welcome guests to the Abbey and offer a wide array of retreats, tours and youth programs.
They provide pastoral care in hospitals, religious houses and parishes in Missouri, Iowa, Kansas, Nebraska and Wyoming.
The monks also tend the grounds of the abbey, care for 960 acres of farmland and orchards, work in development and finance and in the Abbey’s Printery House. They are historians, writers, scholars, teachers, musicians and artisans.
For more information visit www.conceptionabbey.org
Wonder is what sets us apart from other life forms. No other species wonders about the meaning of existence or the complexity of the universe or themselves.
~ Herbert W. Boyer
Jake Pitts & Andy Biersack Black Veil Brides, live at the Best Buy Theater NYC 11.23.14
Check out the gallery on Music Existence: musicexistence.com/blog/2014/11/25/gallery-black-veil-bri...
The Continental Gunboat Philadelphia, built--and sunk--in 1776, is the oldest American man-of-war in existence. Constructed in barely two months, the gunboat Philadelphia fought with the Continental squadron that continuously frustrated British efforts to isolate New England by occupying central New York. Benedict Arnold's successful delaying action on Lake Champlain was a pivotal moment that helped ensure victory at Saratoga in 1777 and decisive French intervention on the American side. The Philadelphia sank on October 11, 1776, when a 24-pound shot from British forces hit the boat and caused rapid flooding. It rested on the bottom of the lake until 1935 when it was recovered with much of its equipment intact and came to the Museum in 1964, complete with the 24-pound ball that sent the gunboat to the bottom.
The National Museum of American History (NMAH), administered by the Smithsonian Institute, collects, preserves and displays American heritage in the areas of social, political, cultural, scientific and military history. The museum, which first opened in 1964 as the Museum of History and Technology, is located on the National Mall in one of the last structures designed by McKim, Mead & White. It was renamed in 1980, and closed for a 2-year, $85 million renovation by Skidmore, Owings & Merrill LLP from 2006 to 2008.
The Smithsonian Institution, an educational and research institute and associated museum complex, administered and funded by the government of the United States and by funds from its endowment, contributions, and profits from its shops and its magazines, was established in 1846. Although concentrated in Washington DC, its collection of over 136 million items is spread through 19 museums, a zoo, and nine research centers from New York to Panama.
My stars are blurred, pool of dreams fogged...twisted and twirled...
a toss, a silent toss..
and the ripples rise..
don't you see, time has been wasted on dreams broken by a pebble..a single pebble.
you've revealed your game without even knowing it.
Another mascara combo pack for marketplace.
When I released all my makeups at Kozmetika, I forgot to make a fatpack poster for the marketplace. Duh me >.<
This is a Tractor, Grader and Truck Storage Yard on 49th Street in Clearwater, Florida. I also saw a few Boats in the Yard, so took this Photo. I took this Photograph in February 1996 after my Employer had just transferred me to Florida. Unfortunately, the yard was all fenced in, so there is some distraction from the existence of the cyclone fence.
There were two signs on the Cyclone Fence (vertically adjacent to one another). The top sign: Sterling Equipment Co., Antique Restoration Yard, 813-573-9633 with two pictures of tractors. The bottom sign: S & E Contractors Inc., Truck Storage Yard, 813-535-7629, 11125 49th ST NO., Clearwater,Florida 34622 and an SE LOGO with a Hook/Pulley lifting the e nestled in the bottom of the S.
Disclaimer: I took these two photo on February 1996 with my Minolta Maxxim 5000 SLR using Print Film, when I was just learning photograph; so the Photo is very soft & grainy. I scanned the Color 35 mm Film Negative and used Photoshop Elements to correct the exposure to generate this Digital Image.