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Development of an environmental prediction capability will require incorpo-ration of additional components of the Earth System beyond the physical climate system. The core elements and expertise needed in this regard include atmospheric general circu-lation models, ocean circulation models, land surface models, interactive vegetation models, marine ecosystem models, atmospheric chemistry models, global carbon cycle models, assimilation techniques for atmosphere-ocean-land, population dynamics, crop models, and infectious disease models, to name a few. The challenge now is to bring these core elements together within a common infrastructure and with a central focus on sub-seasonal to decadal prediction of the Earth System in the broadest sense. Further-more, the prospect of Earth System prediction has unique policy relevance at both the national and international levels.
Antonio J. Busalacchi is President of the University Corporation for Atmospheric Re-search (UCAR) in Boulder, Colorado. Prior to his appointment at UCAR, he was the Glenn L. Martin Institute Professor, Director of the Earth System Science Interdisciplinary Center (ESSIC), and Professor in the Department of Atmospheric and Oceanic Science at the University of Maryland. He received his Ph.D. in oceanography from Florida State University in 1982 and began his professional career that year at the NASA/Goddard Space Flight Center. He has studied tropical ocean circulation and its role in the coupled climate system. His research on climate variability and predictability has sup-ported a range of international and national research programs dealing with global change and climate, particularly as affected by the oceans. He previously served as a UCAR Board of Trustees member. Among his awards and honors, in 1991, Busalacchi was the recipient of the Arthur S. Flemming Award. In 1999, he was awarded the NASA/Goddard Excellence in Outreach Award and the Presidential Rank Meritorious Executive Award. He is a Fellow of the American Meteorological Society (AMS), the American Geophysical Union (AGU), and the American Association for the Advancement of Science (AAAS). In 2006, he was the AMS Walter Orr Roberts Interdisciplinary Science Lecturer and in 2016, he was elected as a Member of the National Academy of Engineering.
A 2005 map and 2009 guidebook declare the capability of hiking straight from Van Campens Glen into the Watergate Recreation Area via a bridge over Van Campens Brook across from one of the Watergate ponds.
More than a decade later, the bridge is gone. I used some other bridge to exit up to Old Mine Road, walked under the power line, and found this old entrance to the Watergate.
History of the area: nynjctbotany.org/njaptofc/watergte.html I definitely need to go back and find Bozo's grave...
Sheffield Park Garden is an informal landscape garden five miles east of Haywards Heath, in East Sussex, England. It was originally laid out in the 18th century by Capability Brown, and further developed in the early years of the 20th century's by its then owner, Arthur Gilstrap Soames. It is now owned by the National Trust.
History[edit]
The gardens originally formed part of the estate of the adjacent Sheffield Park House, a gothic country house, which is still in private ownership. It was also firstly owned by the West Family and later by the Soames family until in 1925 the estate was sold by Arthur Granville Soames, who had inherited it from his childless uncle, Arthur Gilstrap Soames.
Sheffield Park as an estate is mentioned in the Domesday Book. In August 1538, Thomas Howard, 3rd Duke of Norfolk, entertained Henry VIII here. By 1700, the Deer Park had been partially formalised by Lord De La Warr who planted avenues of trees radiating from the house and cleared areas to establish lawns. In the late 1700s, James Wyatt remodelled the house in the fashionable Gothic style and Capability Brown was commissioned to landscape the garden. The original four lakes form the centrepiece. Humphry Repton followed Brown in 1789–1790. In 1796, the estate was sold to John Holroyd, created Baron Sheffield in 1781. It is particularly noted for its plantings of trees selected for autumn colour, including many Black Tupelos.
Rhododendron in Sheffield Park Garden
By 1885, an arboretum was being established, consisting of both exotic and native trees. After Arthur Gilstrap Soames purchased the estate in 1910, he continued large-scale planting. During World War II the house and garden became the headquarters for a Canadian armoured division, and Nissen huts were sited in the garden and woods. The estate was split up and sold in lots in 1953. The National Trust purchased approximately 40 ha in 1954, now up to 80 ha with subsequent additions. It is home to the National Collection of Ghent azaleas.
In 1876 the third Earl of Sheffield laid out a cricket pitch. It was used on 12 May 1884 for the first cricket match between England and Australia.[1] The Australian team won by an innings and 6 runs
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U.S. Air Force Master Sgt. Elizabeth Sailer (middle), 169th Civil Engineer Squadron, works with fellow engineers Senior Master Sgt. Matthew Novak (right), HQ Pacific Air Forces, Joint Base Hickam, Hawaii, and Tech. Sgt. Adam Ballash, 36th Civil Engineer Squadron, Anderson Air Force Base, Guam, to perform a soil test using a Clegg hammer during an Expedient and Expeditionary Airfield Damage Repair (E-ADR) Joint Capability Technology Demonstration at McEntire Joint National Guard Base, South Carolina, April 22, 2021. The demonstration simulates the rapid repair of a battle damaged runway. (U.S. Air National Guard photo by Lt. Col. Jim St.Clair, 169th Fighter Wing Public Affairs)
Development of an environmental prediction capability will require incorpo-ration of additional components of the Earth System beyond the physical climate system. The core elements and expertise needed in this regard include atmospheric general circu-lation models, ocean circulation models, land surface models, interactive vegetation models, marine ecosystem models, atmospheric chemistry models, global carbon cycle models, assimilation techniques for atmosphere-ocean-land, population dynamics, crop models, and infectious disease models, to name a few. The challenge now is to bring these core elements together within a common infrastructure and with a central focus on sub-seasonal to decadal prediction of the Earth System in the broadest sense. Further-more, the prospect of Earth System prediction has unique policy relevance at both the national and international levels.
Antonio J. Busalacchi is President of the University Corporation for Atmospheric Re-search (UCAR) in Boulder, Colorado. Prior to his appointment at UCAR, he was the Glenn L. Martin Institute Professor, Director of the Earth System Science Interdisciplinary Center (ESSIC), and Professor in the Department of Atmospheric and Oceanic Science at the University of Maryland. He received his Ph.D. in oceanography from Florida State University in 1982 and began his professional career that year at the NASA/Goddard Space Flight Center. He has studied tropical ocean circulation and its role in the coupled climate system. His research on climate variability and predictability has sup-ported a range of international and national research programs dealing with global change and climate, particularly as affected by the oceans. He previously served as a UCAR Board of Trustees member. Among his awards and honors, in 1991, Busalacchi was the recipient of the Arthur S. Flemming Award. In 1999, he was awarded the NASA/Goddard Excellence in Outreach Award and the Presidential Rank Meritorious Executive Award. He is a Fellow of the American Meteorological Society (AMS), the American Geophysical Union (AGU), and the American Association for the Advancement of Science (AAAS). In 2006, he was the AMS Walter Orr Roberts Interdisciplinary Science Lecturer and in 2016, he was elected as a Member of the National Academy of Engineering.
Incredibly rare shots of a wolverine were taken by photographer Sam Hobson on the Sony RX10 III, which features an extended 600mm super-telephoto zoom lens and silent shutter capability, to ensure the endangered animal was not disturbed
Croome Court was transformed in the second half of the 18th-century, the house refaced and the grounds landscaped to satisfy the Palladian vision of Robert Adam and Lancelot "Capability" Brown.
Since that time Croome has been many things, including the wartime home of RAF Defford and radar research and, later, of the Hare Krishna movement.
SANDF Capability demonstration at the Rand Easter Show – Helicopters inserted and Parabatt Team to secure the Landing Zone then secure a casualty and extracted using the Hot Extraction method, while Rooivalk Attack Helicopter provided Top Cover
Photos: Lourens Badenhorst
Testing the cameras infra red capability under various white balance conditions. Then processing in PS using auto levels to check the results
Development of an environmental prediction capability will require incorpo-ration of additional components of the Earth System beyond the physical climate system. The core elements and expertise needed in this regard include atmospheric general circu-lation models, ocean circulation models, land surface models, interactive vegetation models, marine ecosystem models, atmospheric chemistry models, global carbon cycle models, assimilation techniques for atmosphere-ocean-land, population dynamics, crop models, and infectious disease models, to name a few. The challenge now is to bring these core elements together within a common infrastructure and with a central focus on sub-seasonal to decadal prediction of the Earth System in the broadest sense. Further-more, the prospect of Earth System prediction has unique policy relevance at both the national and international levels.
Antonio J. Busalacchi is President of the University Corporation for Atmospheric Re-search (UCAR) in Boulder, Colorado. Prior to his appointment at UCAR, he was the Glenn L. Martin Institute Professor, Director of the Earth System Science Interdisciplinary Center (ESSIC), and Professor in the Department of Atmospheric and Oceanic Science at the University of Maryland. He received his Ph.D. in oceanography from Florida State University in 1982 and began his professional career that year at the NASA/Goddard Space Flight Center. He has studied tropical ocean circulation and its role in the coupled climate system. His research on climate variability and predictability has sup-ported a range of international and national research programs dealing with global change and climate, particularly as affected by the oceans. He previously served as a UCAR Board of Trustees member. Among his awards and honors, in 1991, Busalacchi was the recipient of the Arthur S. Flemming Award. In 1999, he was awarded the NASA/Goddard Excellence in Outreach Award and the Presidential Rank Meritorious Executive Award. He is a Fellow of the American Meteorological Society (AMS), the American Geophysical Union (AGU), and the American Association for the Advancement of Science (AAAS). In 2006, he was the AMS Walter Orr Roberts Interdisciplinary Science Lecturer and in 2016, he was elected as a Member of the National Academy of Engineering.
Negative Capability part I is an exhibition of visual and written responses to the University of Winchester’s Magdalen Hill Archaeological Research Project (MHARP), one of the most extensive excavations to date of a medieval leper hospital, almshouse and cemetery complex. The artists observed the excavation team at work, witnessing their process then displaying the results in the gallery and inviting writers to respond.
Incredibly rare shots of a wolverine were taken by photographer Sam Hobson on the Sony RX10 III, which features an extended 600mm super-telephoto zoom lens and silent shutter capability, to ensure the endangered animal was not disturbed
Col. Matthew Tedesco, Training and Doctrine Command Capability Manager for Global Ballistic Missile Defense, U.S. Army Space and Missile Defense Command/Army Forces Strategic Command Future Warfare Center, retires from the military June 5, 2019, at the Von Braun III auditorium on Redstone Arsenal, Alabama. Tedesco retires with 28 years of service.
Development of an environmental prediction capability will require incorpo-ration of additional components of the Earth System beyond the physical climate system. The core elements and expertise needed in this regard include atmospheric general circu-lation models, ocean circulation models, land surface models, interactive vegetation models, marine ecosystem models, atmospheric chemistry models, global carbon cycle models, assimilation techniques for atmosphere-ocean-land, population dynamics, crop models, and infectious disease models, to name a few. The challenge now is to bring these core elements together within a common infrastructure and with a central focus on sub-seasonal to decadal prediction of the Earth System in the broadest sense. Further-more, the prospect of Earth System prediction has unique policy relevance at both the national and international levels.
Antonio J. Busalacchi is President of the University Corporation for Atmospheric Re-search (UCAR) in Boulder, Colorado. Prior to his appointment at UCAR, he was the Glenn L. Martin Institute Professor, Director of the Earth System Science Interdisciplinary Center (ESSIC), and Professor in the Department of Atmospheric and Oceanic Science at the University of Maryland. He received his Ph.D. in oceanography from Florida State University in 1982 and began his professional career that year at the NASA/Goddard Space Flight Center. He has studied tropical ocean circulation and its role in the coupled climate system. His research on climate variability and predictability has sup-ported a range of international and national research programs dealing with global change and climate, particularly as affected by the oceans. He previously served as a UCAR Board of Trustees member. Among his awards and honors, in 1991, Busalacchi was the recipient of the Arthur S. Flemming Award. In 1999, he was awarded the NASA/Goddard Excellence in Outreach Award and the Presidential Rank Meritorious Executive Award. He is a Fellow of the American Meteorological Society (AMS), the American Geophysical Union (AGU), and the American Association for the Advancement of Science (AAAS). In 2006, he was the AMS Walter Orr Roberts Interdisciplinary Science Lecturer and in 2016, he was elected as a Member of the National Academy of Engineering.
Compton Verney's Chapel was built in 1772 by Lancelot 'Capability' Brown to replace the medieval church that stood by the lake nearby. It has not been used for services since the Verney family left in 1921.
Inside the rectangular room has plaster decoration influenced by Robert Adam's work. The main items of interest are the Verney monuments including a large centrally placed tomb with effigies of Sir Richard & wife by Nicholas Stone c1630. However given the long term disuse of the building most of the monuments have been boxed in for protection. They will remain hidden until funding is found to restore and re-open the chapel as part of the visitor attraction here,
The 16th century glass once contained here was sold in the 1920s and is now in New York. Nobody seems to know what's become of the brasses. They may still be there under all the clutter that the building's mothballed state has generated.
Compton Verney House stands in a beautiful setting overlooking a lake. The grounds were landscaped by Capability Brown who also built the chapel.
The House itself is largely the work of Robert Adam, who in the 1760s who added extra ranges to an existing west range of 1714,
From the early 20th century the house passed through various owners, and after requisitioning in World War II was never lived in again, and thus remained in a state of disuse, slowly falling apart, until rescued and converted into a highly successful art gallery in the 1990s.
www.comptonverney.org.uk/?page=home
The house is now almost fully restored and in use. The chapel however remains closed and awaits proper restoration.
Col. Matthew Tedesco, Training and Doctrine Command Capability Manager for Global Ballistic Missile Defense, U.S. Army Space and Missile Defense Command/Army Forces Strategic Command Future Warfare Center, retires from the military June 5, 2019, at the Von Braun III auditorium on Redstone Arsenal, Alabama. Tedesco retires with 28 years of service.
U.S. Air Force Master Sgt. Elizabeth Sailer (left), 169th Civil Engineer Squadron, works with fellow engineer Senior Master Sgt. Matthew Novak, HQ Pacific Air Forces, Joint Base Hickam, Hawaii, to perform a soil test using a Clegg hammer during an Expedient and Expeditionary Airfield Damage Repair (E-ADR) Joint Capability Technology Demonstration at McEntire Joint National Guard Base, South Carolina, April 22, 2021. The demonstration simulates the rapid repair of a battle damaged runway. (U.S. Air National Guard photo by Lt. Col. Jim St.Clair, 169th Fighter Wing Public Affairs)
Harrier GR9 VTOL 02/ZD321. The harrier is famous for its vertical take-off and landing capability by thrust vectoring. Photographed at the Leuchars Air show on 11 Septmber 2010.
Col. Matthew Tedesco, Training and Doctrine Command Capability Manager for Global Ballistic Missile Defense, U.S. Army Space and Missile Defense Command/Army Forces Strategic Command Future Warfare Center, retires from the military June 5, 2019, at the Von Braun III auditorium on Redstone Arsenal, Alabama. Tedesco retires with 28 years of service.
The Parkland - designed by 'Capability' Brown - includes a pretty lake, restructured from the river Cam and a 'natural' landscape style of large trees and vast grassy areas.
Audley End, Essex, England
For avionics and aerospace systems, Vishay's DLA 15005 is the industry's first wet tantalum capacitor approved to Defense Logistics Agency (DLA) drawing 15005 to combine a reverse voltage of 1.5 V at +85 ºC with improved vibration (sine: 50 g; random: 27.7 g) capability and thermal shock of 300 cycles.
Development of an environmental prediction capability will require incorpo-ration of additional components of the Earth System beyond the physical climate system. The core elements and expertise needed in this regard include atmospheric general circu-lation models, ocean circulation models, land surface models, interactive vegetation models, marine ecosystem models, atmospheric chemistry models, global carbon cycle models, assimilation techniques for atmosphere-ocean-land, population dynamics, crop models, and infectious disease models, to name a few. The challenge now is to bring these core elements together within a common infrastructure and with a central focus on sub-seasonal to decadal prediction of the Earth System in the broadest sense. Further-more, the prospect of Earth System prediction has unique policy relevance at both the national and international levels.
Antonio J. Busalacchi is President of the University Corporation for Atmospheric Re-search (UCAR) in Boulder, Colorado. Prior to his appointment at UCAR, he was the Glenn L. Martin Institute Professor, Director of the Earth System Science Interdisciplinary Center (ESSIC), and Professor in the Department of Atmospheric and Oceanic Science at the University of Maryland. He received his Ph.D. in oceanography from Florida State University in 1982 and began his professional career that year at the NASA/Goddard Space Flight Center. He has studied tropical ocean circulation and its role in the coupled climate system. His research on climate variability and predictability has sup-ported a range of international and national research programs dealing with global change and climate, particularly as affected by the oceans. He previously served as a UCAR Board of Trustees member. Among his awards and honors, in 1991, Busalacchi was the recipient of the Arthur S. Flemming Award. In 1999, he was awarded the NASA/Goddard Excellence in Outreach Award and the Presidential Rank Meritorious Executive Award. He is a Fellow of the American Meteorological Society (AMS), the American Geophysical Union (AGU), and the American Association for the Advancement of Science (AAAS). In 2006, he was the AMS Walter Orr Roberts Interdisciplinary Science Lecturer and in 2016, he was elected as a Member of the National Academy of Engineering.
Development of an environmental prediction capability will require incorpo-ration of additional components of the Earth System beyond the physical climate system. The core elements and expertise needed in this regard include atmospheric general circu-lation models, ocean circulation models, land surface models, interactive vegetation models, marine ecosystem models, atmospheric chemistry models, global carbon cycle models, assimilation techniques for atmosphere-ocean-land, population dynamics, crop models, and infectious disease models, to name a few. The challenge now is to bring these core elements together within a common infrastructure and with a central focus on sub-seasonal to decadal prediction of the Earth System in the broadest sense. Further-more, the prospect of Earth System prediction has unique policy relevance at both the national and international levels.
Antonio J. Busalacchi is President of the University Corporation for Atmospheric Re-search (UCAR) in Boulder, Colorado. Prior to his appointment at UCAR, he was the Glenn L. Martin Institute Professor, Director of the Earth System Science Interdisciplinary Center (ESSIC), and Professor in the Department of Atmospheric and Oceanic Science at the University of Maryland. He received his Ph.D. in oceanography from Florida State University in 1982 and began his professional career that year at the NASA/Goddard Space Flight Center. He has studied tropical ocean circulation and its role in the coupled climate system. His research on climate variability and predictability has sup-ported a range of international and national research programs dealing with global change and climate, particularly as affected by the oceans. He previously served as a UCAR Board of Trustees member. Among his awards and honors, in 1991, Busalacchi was the recipient of the Arthur S. Flemming Award. In 1999, he was awarded the NASA/Goddard Excellence in Outreach Award and the Presidential Rank Meritorious Executive Award. He is a Fellow of the American Meteorological Society (AMS), the American Geophysical Union (AGU), and the American Association for the Advancement of Science (AAAS). In 2006, he was the AMS Walter Orr Roberts Interdisciplinary Science Lecturer and in 2016, he was elected as a Member of the National Academy of Engineering.
SANDF Capability demonstration at the Rand Easter Show – Helicopters inserted and Parabatt Team to secure the Landing Zone then secure a casualty and extracted using the Hot Extraction method, while Rooivalk Attack Helicopter provided Top Cover
Photos: Lourens Badenhorst
Incredibly rare shots of a wolverine were taken by photographer Sam Hobson on the Sony RX10 III, which features an extended 600mm super-telephoto zoom lens and silent shutter capability, to ensure the endangered animal was not disturbed
Virginia National Guard Soldiers assigned to Norfolk-based 1st Battalion, 111th Field Artillery Regiment, 116th Infantry Brigade Combat Team unload and fire smoke rounds on a M109 towed howitzer July 19, 2019, during eXportable Combat Training Capability Rotation 19-4 at Fort Pickett, Virginia. Read more about XCTC at go.usa.gov/xyPx6. (U.S. Army National Guard photo by Spc. Lauren Sam)
U.S. Air Force Master Sgt. Elizabeth Sailer (left), 169th Civil Engineer Squadron, works with fellow engineer Senior Master Sgt. Matthew Novak, HQ Pacific Air Forces, Joint Base Hickam, Hawaii, to perform a soil test using a Clegg hammer during an Expedient and Expeditionary Airfield Damage Repair (E-ADR) Joint Capability Technology Demonstration at McEntire Joint National Guard Base, South Carolina, April 22, 2021. The demonstration simulates the rapid repair of a battle damaged runway. (U.S. Air National Guard photo by Lt. Col. Jim St.Clair, 169th Fighter Wing Public Affairs)
This is standard AA Ni-Cd rechargeable battery charged with high voltage ~130V
Capability of this batter is very small at this voltage, It can supply power for small light bulb (5-10W) but only for 2-5s
President Cyril Ramaphosa responding to questions by Members of the National Assembly and updating members of the legislature on South Africa’s year-long chairing of the BRICS group of countries, combating crime in communities and how government is building the capability of the state in line with the Economic Reconstruction and Recovery Plan. [GCIS]
President Cyril Ramaphosa responding to questions by Members of the National Assembly and updating members of the legislature on South Africa’s year-long chairing of the BRICS group of countries, combating crime in communities and how government is building the capability of the state in line with the Economic Reconstruction and Recovery Plan. [GCIS]
A charming visit to this imposing Jacobean mansion, not far from Cambridge. Shame that English Heritage do not allow photography in the main house, but you get the idea.
Landscaping by Capability Brown.
The Mark 41 Vertical Launching System (Mk 41 VLS) is a shipborne missile canister launching system which provides a rapid-fire launch capability against hostile threats. The Vertical Launch System (VLS) concept was derived from work on the Aegis Combat System.
The Mk 41 is capable of firing the following missiles: RIM-66 Standard, RIM-67 Standard, RIM-161 Standard Missile 3, RIM-174 Standard ERAM, Tomahawk, RUM-139 VL-ASROC, RIM-7 Sea Sparrow, and RIM-162 ESSM. The missiles are pre-loaded into "canisters", which are then loaded into the individual "cells" of the launcher. The ESSM is loaded in a quad-pack with 4 missiles in one Mk 25 canister. Launcher cells are fitted to ships in 8 cell (2 rows of 4) modules that share a common uptake hatch (exhaust system) sited between the two rows. Mk 41 VLS adopts modular design concept, which result in different versions that vary in size and weight due to different "canisters" in various modules. The height (missile length) of the launcher comes in three sizes: 209 inches (5.3 m) for the self-defense version, 266 inches (6.8 m) for the tactical version, and 303 inches (7.7 m) for the strike version. The empty weight for an 8-cell module is 26,800 pounds for the self-defense version, 29,800 pounds for the tactical version, and 32,000 pounds for the strike version. Originally, one module would consist of five cells and a collapsible crane for assisting with replenishment at sea, but replenishment of large missiles at sea was later seen as impractical and dangerous, and modules with the cranes fell out of use.
(Text Wikipedia)
U.S. Air Force Master Sgt. Daniel Jennings (right) and Senior Airman David Poynter, 169th Civil Engineer Squadron heavy equipment operators, place poured concrete into a repaired section of runway during an Expedient and Expeditionary Airfield Damage Repair (E-ADR) Joint Capability Technology Demonstration at McEntire Joint National Guard Base, South Carolina, April 22, 2021. The demonstration simulates the rapid repair of a battle damaged runway. (U.S. Air National Guard photo by Lt. Col. Jim St.Clair, 169th Fighter Wing Public Affairs)
Soldiers and Airmen from the South Carolina National Guard’s Joint Incident Site Communications Capability (JISCC) team supported Southern Exposure 15 by providing voice and data capabilities to the Federal Emergency Management Agency Mission Control Center in Florence, South Carolina, July 20-23, 2015. Southern Exposure 15 was a full-scale interagency exercise designed to address the local, state, and federal response to a nuclear power plant incident involving a radiological material release.