omniomni/omni-engineering huggingface dataset:
List of Intel codenames. Intel has historically named integrated circuit (IC) development projects after geographical names of towns, rivers or mountains near the location of the Intel facility responsible for the IC. Many of these are in the American West, particularly in Oregon (where most of Intel's CPU projects are designed; see famous codenames). As Intel's development activities have expanded, this nomenclature has expanded to Israel and India, and some older codenames refer to celestial bodies.

The following table lists known Intel codenames along with a brief explanation of their meaning and their likely namesake, and the year of their earliest known public appearance. Most processors after a certain date were named after cities that could be found on a map of the United States. This was done for trademark considerations. Banias was the last of the non-US city names. Gesher was renamed to Sandy Bridge to comply with the new rule. Dothan is a city both in Israel and in Alabama.

See also

 List of Intel microprocessors

References

External links
 Intel ARK (Automated Relational Knowledgebase)
 The Register: Intel Penryn codename decoder
 Intel CPU Transition Roadmap 2008–2013
 Intel Desktop CPU Roadmap 2004–2011

 Codenames
Lists of computer terms
Lists of code names
Eagle III. Eagle III is an emergency air and ground medical transportation program, in partnership with Bellin Hospital, St. Vincent Hospital and County Rescue Services, all in Green Bay, Wisconsin.  Services are provided via ground ambulance and  helicopter to and from medical facilities or accident scenes. The Eagle III program has been in operation since 1997.

Eagle III utilizes the following transport vehicles:

American Eurocopter EC-135 helicopter and Specialized critical care ambulances

Aircraft are operated by Air Methods.

Objectives
The primary mission for Eagle III is emergency air medical services to include scene flights and transport of critically ill or injured patients to facilities with specialized or greater levels of care. In addition to this, Eagle III also provides air support to local law enforcement agencies upon request due to its prime location and ability to rapidly deploy aircraft. Eagle III also has flown support missions for the U.S. Secret Service during presidential visits.

Aircraft
Eagle III’s primary aircraft is a Eurocopter EC 135 (N877CR), operated by Air Methods.

In the past the Eagle III program has operated a Bell 407 (N407CR) which has been retired, and a Messerschmitt-Bölkow-Blohm Bo 105 (N202LF) which was lost in an accident on April 13, 2006.

References

External links
 Eagle III home page

Rescue agencies
Air ambulance services in the United States
Medical and health organizations based in Wisconsin
1997 establishments in Wisconsin
Peloton (supercomputer). The Peloton supercomputer purchase was a program at the Lawrence Livermore National Laboratory intended to provide tera-FLOP computing capability using commodity Scalable Units (SUs). The Peloton RFP defined the system configurations.

Appro was awarded the contract for Peloton which included the following machines:

All of the machines ran the CHAOS variant of Red Hat Enterprise Linux and the Moab resource management system. Under the project management of John Lee, the team at Synnex, Voltaire, Supermicro and other suppliers, the scientists were able to dramatically reduce the amount of time it took to go from starting the cluster build to actually having hardware at Livermore in production. In particular, it went from having four SUs on the floor on a Thursday, to bringing in two more SUs for the final cluster and by Saturday, having all of them wired up, burned in, and running Linpack.

The last Peloton clusters were retired in June 2012.

References 
 

Lawrence Livermore National Laboratory
Supercomputers
Canadian Land Surface Scheme. The Canadian Land Surface Scheme (CLASS) is a land surface parametrization scheme for use in large scale climate models. It is a state-of-the-art model, using physically based equations to simulate the energy and water balances of vegetation, snow and soil. CLASS is being developed in a research project led by D. Verseghy at the Canadian Atmospheric Environment Service.

See also 
 CCCma - CLASS is used in CGCM3.1

References

 D. L. Verseghy, "The Canadian Land Surface Scheme (CLASS): its history and future," Atmosphere-Ocean, vol. 38, no. 1, pp. 1-13, 2000. 
 D. L. Verseghy, "CLASS--A Canadian Land Surface Scheme for GCMS: I. Soil Model," International Journal of Climatology IJCLEU, vol. p 111-133, p. 44, 1991. 
 D. L. Verseghy, N. A. McFarlane, and M. Lazare, "CLASS-A Canadian land surface scheme for GCMS, II. Vegetation model and coupled runs," Int. J. Climatol., vol. 13, no. 4, pp. 347-370, 1993.

External links

 CLASS
 Land Surface Processes

Numerical climate and weather models
Hydrology models
Maurice Couette. Maurice Marie Alfred Couette (9 January 1858, Tours – 18 August 1943, Angers) was a French physicist known for his studies of fluidity.

Couette is best known for his contributions to rheology and the theory of fluid flow. He designed a concentric cylinder viscometer that he used to accurately measure the viscosity of fluids. The laminar flow observed in the gap between the two cylinders is known as Couette flow. He studied the boundary conditions of a fluid and showed that the "no slip" condition was satisfied for the fluids and wall materials tested.

Early life and career 
Couette was born in Tours, France, as the only child of Alfred Ernest Couette, a cloth merchant.

Finishing his education with the Frères des Écoles Chrétiennes he obtained a baccalauréat in humanities and in science, both in 1874, as well as bachelor's degrees in mathematics and physical science (delivered by the Faculté de Science in Poitiers) in 1877 and 1879 respectively. Following a short spell as a lecturer in Angers, he joined the 12th Artillery Regiment at Vincennes for one year of voluntary military service.

In 1881 he settled in Paris and enrolled in the Sorbonne, studying physical science in preparation for the , a French teaching diploma. Couette later taught in Arcueil and the École Sainte-Geneviève in Paris. At the Sorbonne he studied under Joseph Boussinesq and from 1887 onwards worked at the Physics Research Laboratory under Gabriel Lippmann( who would later receive the Nobel Prize in Physics).  Couette also took his doctoral degree on the friction of liquids ("Studies on the Friction of Liquids", Etude sur le frottement des liquides, Gauthiers-Villars 1890).

Soon afterwards he was given a professorship of physics at the Catholic University of Angers (now known as Université Catholique de l'Ouest) as well as other teaching commitments such as at the Free Faculty of Science, the School of Agriculture and several secondary schools in Angers.

Couette was a member of the French Physics Society and retired in 1933.

Accolades

Since 1993, the Prix Maurice Couette is awarded by the Groupe français de Rhéologie.

Personal life 
In 1886, Maurice Couette married Jeanne Jenny, who gave birth to eight children, five of whom reached adulthood.

External links

The GFR's Maurice Couette Prize
Information on the Maurice Couette Award (French)

French physicists
Rheologists
University of Paris alumni
Academic staff of the Catholic University of the West
French Roman Catholics
1858 births
1943 deaths
French fluid dynamicists
Scientists from Tours, France
Volumetric haptic display. A volumetric haptic display (VHD) is similar to a (visual) volumetric display, but informs touch instead of vision. A VHD projects a touch-based representation of a surface onto a 3D volumetric space. Users can feel the projected surface(s), usually with their hands. The display is otherwise not detectable, and offers no visual feedback. There are no known instances of a fully operational VHD at this time.

Technological implementation

The University of Bristol has developed a method for haptic feedback that could be integrated into a volumetric display. The system uses focused ultrasound to create a haptic object in mid air.

Feedback

The following feedback can be provided to the user:
Surface contact
Surface texture
Vibration
Motion-based/topological changes of surface

See also

Optacon (two-dimensional)
Refreshable Braille Display (two-dimensional).
Wired glove (partial 3D representation).

References

Belexes research project in the Centre for Music Technology at the University of Glasgow.
 "Researchers in Japan have developed a display that makes 3D objects solid enough to grasp."

Display technology
Haptic technology
Shader lamps. Shader lamps is a computer graphic technique used to change the appearance of physical objects. The still or moving objects are illuminated, using one or more video projectors, by static or animated texture or video stream. The method was invented at University of North Carolina at Chapel Hill by Ramesh Raskar, Greg Welch, Kok-lim Low and Deepak Bandyopadhyay in 1999  as a follow on to Spatial Augmented Reality  also invented at University of North Carolina at Chapel Hill in 1998 by Ramesh Raskar, Greg Welch and Henry Fuchs.

A 3D graphic rendering software is typically used to compute the deformation caused by the non perpendicular, non-planar or even complex projection surface.

Complex objects (or aggregation of multiple simple objects) create self shadows that must be compensated by using several projectors.

The objects are typically replaced by neutral color ones, the projection giving all its visual properties, thus the name shader lamps.

The technique can be used to create a sense of invisibility, by rendering transparency. The object is illuminated not by a replacement of its own visual properties, but by the corresponding visual surface placed behind the object as seen from an arbitrary viewing point.

See also
Projection augmented model
Projection mapping

External links 
Shaderlamps.com
Mitsubishi Electric Research Laboratories, Shader Lamps, Ramesh Raskar, Greg Welch, Kok-lim Low, Deepak Bandyopadhyay, June 2001 (PDF)
IEEE Computer Society January/February 2007 (Vol. 27, No. 1) pp. 90-96, The Digital Chameleon Principle: Computing Invisibility by Rendering Transparency Frank Nielsen, Sony Computer Science Laboratories

Computer graphics
Mitsubishi B2M. The Mitsubishi B2M was a Japanese carrier-based torpedo bomber of the 1920s and 1930s. It was built by Mitsubishi to a design by Blackburn Aircraft of Britain and was operated by the Imperial Japanese Navy.

Design and development
In 1927, the Japanese company Mitsubishi commissioned the British aircraft manufacturer Blackburn Aircraft to design an aircraft, which would be built under licence by Mitsubishi if successful, to enter a competition held by the Imperial Japanese Navy for a carrier-based reconnaissance and torpedo bomber to replace its B1M. Blackburn developed a design, the Blackburn T.7B, which was an enlarged development of their Ripon and was under development for Britain's Fleet Air Arm. The T.7B was a three-seat biplane of steel tube construction and with high aspect ratio wings fitted with Handley Page slats, powered by a 466 kW (625 hp) Hispano-Suiza 12Lbr engine.

The design was declared the winner of the competition with a prototype (referred to as the 3MR4) being ordered from Blackburn. This first flew on 28 December 1929 at Blackburn's factory at Brough, Yorkshire and was shipped to Japan in February 1930.

Three development prototypes were built by Mitsubishi in Japan before the aircraft was adopted as the Navy Type 89-1 Model 1 Carrier Attack Plane or Mitsubishi B2M1.

Operational history
The B2M1 entered service with the Imperial Japanese Navy in March 1932, serving aboard the carriers , , and . Modifications to improve maintainability resulted in the B2M2 or Navy Type 89-2 Carrier Attack Plane, which otherwise showed little improvement in performance over the B2M1. Production of both versions totaled 204 aircraft.

B2Ms were extensively used for high- and low-level bombing attacks against China at the start of the Second Sino-Japanese War in 1937.

Variants

Blackburn T.7B
Prototype aircraft built by Blackburn Aircraft.
Mitsubishi 3MR4
Three Japanese-built prototypes.
Mitsubishi B2M1
Initial production aircraft.
Mitsubishi B2M2
Improved production variant with reduced wingspan and modified tail.

Operators

Imperial Japanese Navy

Specifications (B2M1)

See also

References

External links

 Wings Palette - Profiles of B2M 

B2M
1930s Japanese bomber aircraft
Single-engined tractor aircraft
Biplanes
Carrier-based aircraft
Blackburn aircraft
1920s British bomber aircraft
Aircraft first flown in 1929
Aircraft with fixed conventional landing gear
Single-engined piston aircraft
Cleco (fastener). A cleco, also spelled generically cleko, is a temporary fastener developed by the Cleveland Pneumatic Tool Company.  Widely used in the manufacture and repair of aluminum-skinned aircraft, it is used to temporarily fasten sheets of material together, or to hold parts such as stiffeners, frames etc together, before they are permanently joined.

Operation 

Clecos are installed in holes drilled through the workpieces (usually holes intended for permanent fasteners installed later). They expand on the far side of the workpieces and then draw and clamp them together while maintaining the desired alignment and preventing distortion of the pieces. Clecos should fit snugly in their holes to prevent shifting of the workpieces and maintain the alignment of fastener holes which do not have Clecos in them. They are blind fasteners; so they can be installed in assemblies where the worker does not have access to the other side. If permanent fasteners are installed in Cleco holes, a Cleco will be removed when its hole is needed. If the workpieces are bonded or welded, then the Cleco holes may need to be filled later.

Fastener and tool

The basic type consists of a steel cylinder body, a plunger on the top, a spring, a pair of step-cut locks, and a spreader bar. A special type of pliers are used to push in the spring-loaded plunger. This pushes down on the step-cut locks, which pushes them away from the spreader bars and allows them to come together. This allows the user to slip the locking jaws through a hole made through multiple sheets of material. When the plunger is released the spring pulls the locking jaws back towards the spreader bar, which separates the two jaws. The material sheets are then squeezed in between the step-cut area and the steel cylinder. This keeps the holes in the separate sheets aligned.

Design variations

Cleco-type fasteners are also available with a threaded mechanism to draw the spreader bar up.  Clecos of this type take more time to install and remove, but can pull parts together more tightly than the spring-type Clecos.  They are commonly available with a wingnut for hand tightening, or with a simple hex nut so that they may be spaced more closely together.  In either case they will usually have a hexagonal body that may be better gripped to tighten or release the spreader bar.

Sizes and color-coding

Regardless of their form, they are typically color-coded for ready identification of their size.

References 

Fasteners
Inet. Inet was an electronic trading platform based on a system developed by Instinet in the 1970s that merged with Island ECN in 2002 and was subsequently acquired by NASDAQ in 2005.

Inet, like other electronic communication networks, was an order-pairing system that give brokerage firms the power to electronically track and match reciprocal buy and sell orders at the same limit price and lot size. An efficient and reliable system that reduced costs to both brokerage firms and investors and facilitate high speed pairings of buy and sell orders.

The Inet name continues to be used by Nasdaq for later trading platforms such as the Genium Inet trading platform.

Today the NASDAQ stock exchange system in New York is called "INET". INET uses a very fast middleware bus that is called Inet. The derivative exchange system Genium Inet uses the same middleware bus Inet. Genium Inet is the successor to the CLICK derivate exchange system. The main difference between INET and Genium Inet is that INET is a stock exchange system (that is not sold), and Genium Inet is a derivative system (that is sold to other exchanges by NASDAQ OMX).

History
Inet was formed after Island ECN was merged with Instinet in 2002. Island changed its name to Inet ATS, Inc. ("Inet") effective November 17, 2003. A high volume of trades were routed through Island, with over US$5 billion handled daily in 1999. Its headquarters were in 50 Broad Street, New York City.

After NASDAQ's acquisition of the Swedish OMX exchange group in 2007, it gained access to OMXs trading platform Genium it used this to create the next generation of Inet called the Genium Inet trading platform.

References

External links
 NASDAQ
 Quote.com

Nasdaq
Stock market
Former electronic trading platforms
2005 mergers and acquisitions
Nibble (disambiguation). A nibble (or nybble), in computing, is a four-bit unit of data.

Nibble, nibbles, nibbler, or nibblers may also refer to:

Print media
Nibble (magazine), a former publication for Apple II computer users
Nibbles, a 20th-century American comic written by Malcolm Hancock

Film and television
Nibbles (film), a 2004 Canadian animated short by Christopher Hinton
Nibbles (Tom and Jerry), also known as Tuffy, a cartoon mouse character in the Tom and Jerry series, and Jerry's younger cousin
Nibbler (Futurama), a fictional character from the animated television series

Computing and games
Bit nibbler, a computer program for copying floppy disks
Nibbler (video game), an arcade game
Nibbles (video game), a simple video game and variant of Snake
Nibblers (video game),  a mobile tile-matching puzzle video game about fishes

Other uses
Nibbles, various small items of finger food
Nibbler, or nibblers, a tool for cutting sheet metal with minimal distortion
Nibbles Woodaway, alternate name of the Big Blue Bug, the giant termite mascot of New England Pest Control

See also

 Nibble fish, or doctor fish
 Bite (disambiguation)
 Bit (disambiguation)
Goethals Medal. The Goethals Medal is a national award given annually by the Society of American Military Engineers (SAME) to a registered engineer who is also a member of SAME prior to nomination.  The nominated engineer must have made eminent and notable contributions in engineering, design, or construction in the past five years.

The award is named in honor of General George Washington Goethals, a civil engineer and United States Army officer best known for his work as Chief engineer on the Panama Canal and his service in WWI as Acting Quartermaster General.

Past award winners

 1956 Dr. David B. Steinman
 1957 Lt. Gen. Raymond A. Wheeler
 1958 Col. Walker L. Cisler
 1959 John W. Sibert, Jr.
 1960 Lt. Gen. Samuel D. Sturgis, Jr.
 1961 Brig. Gen. Thomas J. Hayes III
 1962 Lt. Col. E. Robert de Luccia
 1963 CoI. Ralph A. Tudor
 1964 John P. Davis
 1965 Edwin E. Abbott
 1966 Rear Adm. Robert R. Wooding
 1967 Capt. Albert Rhoades Marshall
 1968 Col. Jerome 0. Ackerman
 1969 Wendell W. Ralphe
 1970 Dr. Arsham Amirikian
 1971 Robert Y. Hudson
 1972 Dr. Michael Yachnis
 1973 Robert H. Hayes
 1974 Col. John E. Catlin, Jr.
 1975 James Polk Stafford, Jr.
 1976 Henry W. Holiday
 1977 Garland L. Watts
 1978 Arthur Casagrande
 1979 E. Montford Fucik
 1980 Robert J. Taylor
 1981 Michael A. Kolessar
 1982 Euclid C. Moore
 1983 George J. Zeiler
 1984 Dr. Alexander G. Tarics
 1985 Edward Cohen
 1986 William L. Stevens
 1987 Dr. Ralph J. Portier
 1988 Gary S. Gasperino
 1989 No winner
 1990 Karl Rocker, Jr.
 1991 William A. Keenan
 1992 Dr. Robert D. Wolff
 1993 Ralph B. Snowberger
 1994 Eugene J. Fasullo
 1995 Richard E. Carlson
 1996 John C. Gribar
 1997 Lt. Col. Wendell L Barnes, USA
 1998 Douglas F. Burke
 1999 James E. Tancreto
 2000 Robert J. Taylor
 2001 Robert M. Moore
 2002 Arthur H. Wu, Ph.D.
 2003 Dennis M. Firman, P.E., ACC/CEC
 2004 Ralph T. Kaneshiro, P.E.                  
 2005 Capt. Tracey J. Spielmann, P.E., USAF
 2006 Capt. Tracey J. Spielmann
 2007 Dominick M. Servedio
 2008 Ruben D. Cruz, Ph.D.
 2009 Lt. Col. Brian Files, P.E., PMP, USAF (Ret.)
 2010 Lt. Col. Monte S. Harner, USAF
 2011 Col. David E. Anderson, P.E., USA
 2012 Capt. Martin Smith, P.E., USN (Ret.)
 2013 CDR Matthew Beck, P.E., USCG
 2014 Joanie A. Campbell, P.E.
 2015 Cdr. Roland De Guzman, P.E., CEC, USN
 2016 Christine Garrett, P.E.
 2019 Melanie Kito, P.E.

See also

 List of engineering awards
 George Washington Goethals
 History of the Panama Canal
 Society of American Military Engineers

References

External links
Society of American Military Engineers official website
Goethals Medal information

Business and industry awards
Engineering awards
American awards
Bharati Vidyapeeth Institute of Technology. Bharati Vidyapeeth Institute of Technology (BVIT) is a polytechnic college in Navi Mumbai. It is located in CBD Belapur, but closer to Kharghar, being situated opposite to the Kharghar railway station. The educational institution is affiliated to MSBTE. It offers diploma courses of three years duration based on the semester pattern in various fields to students who have passed SSC or HSC.

References

External links
Bharati Vidyapeeth Institute of Technology (BVIT)

Education in Navi Mumbai
Engineering colleges in Mumbai
6J. 6J or 6-J can refer to:

IATA code for Solaseed Air (Ex Skynet Asia Airways)
6-j symbol
6J, a model of SEAT Ibiza
Hughes MH-6J, model of Hughes OH-6  Cayuse
AH-6J, a model of MD Helicopters MH-6 Little Bird
AS.6J, a model of Airspeed Envoy
6J, designator for Clatskanie School District
6J6, see List of caves in Western Australia
WS-6J, engine model in  Xian H-6
CA-6J, a model of  Buhl Airsedan
RE-6J, or Burlington Public School District; see Table of Colorado school districts
T-6J, one of the  North American T-6 Texan variants
6J, the production code for the 1983 Doctor Who serial The King's Demons

See also
J6 (disambiguation)
Switching. Switching may refer to:

Computing and technology
 Switching, functions performed by a switch:
 Electronic switching
 Packet switching, a digital networking communications methodology
 LAN switching, packet switching on Local Area Networks
 Telephone switching, the activity performed by a telephone exchange (telephone switching machine)
 Switching, a synonym for shunting in rail transport

Other uses
 Switching (ecology), a pattern of predation describing predators' selection of food based on its abundance
 Switching (film), a 2003 Danish interactive film
 Switching (pickleball), when doubles partners switch sides of their court
 Code-switching, of languages
 Immunoglobulin class switching, an immunological mechanism that changes the type of antibody produced by B cells
 Task switching (psychology), an experimental research paradigm used in cognitive psychology

See also 
 Switch (disambiguation)