omniomni/omni-engineering huggingface dataset:
Michael E. Auer. Michael E. Auer (born 1948 in Weimar) is a German computer scientist and engineering educator and professor at the Carinthia University of Applied Sciences, Austria.

He is the head of the Center of Competence (CoC) Online Laboratories at Carinthia University of Applied Sciences and serves as President of the International Federation of Engineering Education Societies (IFEES) until 2018. In June 2006 Michael Auer was elected as President and CEO of the International Association of Online Engineering (IAOE). He is founder and chair of the annual International Conference Interactive Computer aided Learning (ICL) in Villach / Austria, chair of the steering committee of the annual International Conference Remote Engineering and Virtual Instrumentation (REV). Under his guidance international teams developed a Joint European Master Study Program Remote Engineering (EU project MARE) and a Joint European Bachelor Study Program Information Technology (EU project BIT2010). He is editor-in-chief of the International Journals of Online Engineering (iJOE), Emerging Technologies in Learning (iJET) and Interactive Mobile Technologies (iJIM). He also acts as an associated editor for Middle and Eastern Europe of the European Journal of Open and Distance Learning (EURODL).

Michael E. Auer received his Ing. degree (1971) and his Ph.D. degree (1975) with a thesis on "Design and Analysis of ECL Circuits" from Dresden University of Technology. From 1974-91 he was an assistant at the faculties Electrical Engineering and Informatics of this University. From 1991-95 he was with F+O Electronic Systems GmbH, Heidelberg (Head of software department). His research was related to high-speed digital circuits (ECL), real time and network programming, embedded systems, system- and network administration of heterogeneous networks, telelearning/teleteaching, remote working environments. In 1995 Michael Auer was appointed Professor of Electrical Engineering of the School of Electronics at Carinthia University of Applied Sciences, Villach, Austria and had also a teaching position at the University of Klagenfurt. He works as a visiting professor at the Universities of Amman (Jordan), Braşov (Romania), and Patras (Greece).

References

External links 
 Michael E. Auer's website at the CUAS
 Carinthia University of Applied Sciences, Austria
 International Association of Online Engineering
 International Federation of Engineering Education Societies

Academic staff of the University of Klagenfurt
German computer scientists
1948 births
Living people
Scientists from Weimar
Wild branch. In computer programming, a wild branch is a GOTO instruction where the target address is indeterminate, random or otherwise unintended. It is usually the result of a software bug causing the accidental corruption of a pointer or array index. It is "wild" in the sense that it cannot be predicted to behave consistently. In other words, a wild branch is a function pointer that is wild (dangling).

Detection of wild branches is frequently difficult; they are normally identified by erroneous results (where the unintended target address is nevertheless a valid instruction enabling the program to continue despite the error) or a hardware interrupt, which may change depending upon register contents. Debuggers and monitor programs such as Instruction set simulators can sometimes be used to determine the location of the original wild branch.

See also
 Dangling pointer

References

Control flow
Debugging
Tamagawa University. is a  Japanese university in Machida, Tokyo, Japan. The university consists of 16 departments in seven faculties (undergraduate), as well as seven programs leading to a master's degree and four programs leading to a doctorate degree. Part of the Tamagawa Gakuen campus, the school was founded by Japanese education reformer Kuniyoshi Obara.

Undergraduate colleges
 College of Humanities
 College of Agriculture
 College of Engineering
 College of Business Administration
 College of Education
 College of Arts
 College of Arts and Sciences

Graduate schools
 Graduate School of Humanities
 Graduate School of Agriculture
 Graduate School of Engineering
 Graduate School of Management
 Graduate School of Education
 Graduate School of Education (Teaching profession)
 Graduate School of Brain Sciences

Notable alumni
Masami Akita
Yuichiro Hata
Chen Kenichi 
Masaharu Morimoto
Shunmyō Masuno
Sayaka Murata
Hiroko Yakushimaru
Chiba Yudai
Inio Asano

References

External links
 Official website

Universities and colleges established in 1929
Private universities and colleges in Japan
Universities and colleges in Tokyo
Western Metropolitan Area University Association
Machida, Tokyo
1929 establishments in Japan
Kenjiro Okazaki. is a Japanese visual artist and robotics designer whose works span several genres, including painting, sculpture (reliefs and constructions), as well as landscape design and architecture.

Career
Many of Okazaki's visual works have been featured in public collections throughout Japan and in various exhibitions around the world. In 2002, Okazaki participated in the Venice Biennale as the director of the Japanese pavilion of the 8th International Architecture Exhibition. His recent works include a collaborative dance performance "I love my robots" with the choreographer Trisha Brown which premiered in early 2007.

He is active as a theoretician and critic and is the author or co-author of several books, including Renaissance: Condition of Experience (Chikuma, 2001), featuring his analysis of Filippo Brunelleschi; Ready for Painting! (Asahi Press, 2005), a dialogue with the artist Hisao Matsuura; and Articulation of Arts: technological analyses (FilmArt, 2007). He has also created picture books in collaboration with Japanese poets, including Little Lellolello with Kyong-Mi Park (Shogakukan Inc. 2004), and Popahpe Popipappu with Shuntaro Tanikawa (Crayon House, 2004).

Okazaki has also designed robots for studies into topics such as natural computing and perception.

References

Texts by Kenjiro Okazaki
A Place to Bury Names(about Isamu Noguchi and Shirai Seiichi)

LIVING BETWEEN DIVERSITY OF TIME(about OWN WORKS)

The lucid, unclouded fog―the movement of bright and swinging water particles.(about FUJIKO NAKAYA)

Abstract Art as Impact(HTML/PDF)

External links

Abstract Art as Impact:Exhibition official site

Japanese artists
1955 births
Living people
Hydroextractor. Hydroextractors are machines which are used in the textile processing industry. These are mainly centrifuges. The wet material is placed in the extractor, which has a wall of perforated metal, generally stainless steel. The internal drum rotates at high speed, thus throwing out the water contained in it. The use of the hydroextractor significantly reduces the energy required to dry any material. Hydroextractors usually work on centrifugal force creating a high gravitational force, enhancing water extraction. Hence the water is separated and the product is obtained in a dry form.

Centrifuges
Textile machinery
Dryers
Aichi Institute of Technology. is a private university in Toyota, Aichi, Japan. The predecessor of the school was founded in 1912, and it was chartered as a university in 1959. It was established with the aim of providing high-quality education in engineering and technology fields. The institute is known for its strong emphasis on practical skills development and industry collaboration.

Campuses 
AIT's main campus is located in the city of Toyota, Aichi Prefecture, which is known as a major centre of the automotive industry in Japan. The Motoyama campus and the Jiyugaoka campus in Nagoya are located in an urban setting and provide a conducive environment for learning and research. While the Motoyama campus is mainly dedicated to the graduate school, the Jiyugaoka campus is for undergraduate business administration students. The Institute has modern facilities, including well-equipped classrooms, laboratories and research centres such as the Seismic Resistance Experiment Center (SEIREX) and the Disaster Prevention Research Center (DPREC), and a library.

 Yakusa campus
 Motoyama campus
 Jiyugaoka campus

Academics 
The Aichi Institute of Technology offers undergraduate and graduate programs in various engineering and technology disciplines. The university's academic departments include:

 Department of Mechanical Engineering
 Department of Electrical and Electronic Engineering
 Department of Information Science
 Department of Architecture
 Department of Civil Engineering
 Department of Applied Chemistry
 Department of Business Administration

The institute focuses on practical and hands-on learning experiences, encouraging students to apply their knowledge to real-world problems. The curriculum is designed to provide a balance between theoretical knowledge and practical skills, ensuring that graduates are well-prepared for the industry. This is reflected in the employment rate of students in companies, which ranked 1st in all of Japan in 2023.

Research and Innovation 
The Aichi Institute of Technology is actively involved in research and innovation activities. It collaborates with industry partners and government agencies to address technological challenges and develop innovative solutions. The institute's research areas include automotive engineering, robotics, information technology, sustainable energy, and materials science.

Student Life 
Aichi Institute of Technology offers a vibrant student experience with various clubs, organisations and extra-curricular activities. Students can participate in sports clubs, cultural clubs, and academic societies that promote personal growth and a sense of community. There are 36 sports clubs and 33 cultural clubs on campus. The Institute also organises events and competitions that encourage creativity, teamwork and innovation.

See also 
List of universities in Japan

References

External links 
 

Universities and colleges established in 1912
Private universities and colleges in Japan
Engineering universities and colleges in Japan
Aichi Institute of Technology
1912 establishments in Japan
Toyota, Aichi
Hiroshima City University. is a public university at Hiroshima, Hiroshima, Japan, founded in 1994, educating both undergraduates and graduate students. HCU is especially distinctive for its Peace Studies program, in line with Hiroshima's status as an international city of peace.

Faculties and Graduate Schools

 Faculty / Graduate School of Information Sciences
 Department of Computer and Network Engineering
 Department of Intelligent Systems
 Department of Systems Engineering
 Department of Biomedical Information Sciences

 Faculty / Graduate School of International Studies
 Department of International Studies

 Faculty / Graduate School of Arts
 Department of Fine Arts
 Department of Painting
 Department of Sculpture
 Department of Design and Applied Arts

 Graduate School of Peace Studies

Hiroshima Peace Institute

The Hiroshima Peace Institute (HPI) was established on April 1, 1998, as a research institute affiliated with HCU, located in the city that experienced the first atomic bombing in human history.

References

External links
 Official website

Educational institutions established in 1994
Public universities in Japan
Universities and colleges in Hiroshima Prefecture
1994 establishments in Japan
Mathogo. The Mathogo (Acronym for Misil Anti-Tanque Hilo Guiado - ) is an Argentine first-generation wire-guided anti-tank missile.

Background 
The anti-tank missiles (ATGW, anti-tank guided weapons) evolved in the late 1950s from the portable anti-tank rockets (ATR) like the bazooka, which required the operator to be close to the target, to overcome the limitations of these.

History 
The Mathogo was developed by CITEFA (Instituto de Investigaciones Científicas y Técnicas de las FFAA - the Armed Forces Scientific and Technical Research Institute) in the 1970s to supplement and eventually replace the Argentine 105-mm recoilless rifles. In design it is similar to the Swedish BANTAM by Bofors - which is reported to have been bought in limited numbers for the Argentine Marine Corps - only slightly larger and with a pointed nose section with the first versions.  Some news report photo captions have even mistaken it for the BANTAM. Development was completed in the late 1970s and various reports have stated that it is no longer in production.

The Mathogo's warhead is capable of penetrating 400mm of rolled homogeneous armor.

The missile achieved operational status in 1978 and is in use by the Argentine Army.  The missile has been approved for launch from the Agusta A109 helicopter, although the missile's accuracy reportedly suffers when used in this role.

Variants 
 Mathogo 1
 Mathogo 2 - improved warhead and higher speed

Users 
 Argentine Army

See also 
 List of anti-tank guided missiles
Related development
 
 
Similar weapons

References

Notes

Bibliography 
 (AD) Zarzecki,Thomas. Arms Diffusion: The Spread of Military Innovations in the International System, Psychology Press, 2002.
 (ATW) Norris, John. Anti-tank weapons, London: Brasseys, 1996.
 (JALW) Lennox, Duncan. Jane's Air-Launched Weapons, Coulsdon: Jane's Information Group, 2000.
 (JIW) Hogg, Ian.  Jane's Infantry Weapons 1995-96, London: Jane's Publishing Company Ltd., 1995.
 (JWS) Jane's Weapons Systems 1988-89, London: Jane's Publishing Company Ltd., 1989.

Further reading 
  Cruces, Nestor J. 70 años para siete dias. Planeta, Espejo de la Argentina. Buenos Aires, 1993.  
 Zarzecki,Thomas W. Arms Diffusion: The Spread of Military Innovations in the International System. Psychology Press, Issues in globalization, 2002.

External links 
 CITEFA web site (also in English)
 SAORBATS picture of the missile in its transporter/launcher box
 SAORBATS (unofficial Argentine Army order of battle) Mathogo missile mentioned in the equipment list and its status (site visited 15:33, 22 December 2007 (UTC))

Anti-tank guided missiles of the Cold War
Guided missiles of Argentina
Military equipment introduced in the 1990s
Priyadarshini Engineering College. Priyadarshini Engineering College is an engineering college in Vaniyambadi, Tirupattur District, Tamil Nadu, India. Established in 1995, it is one of the oldest colleges in the region. It is operated by the Jai Barath Charitable Trust. The college has been approved by the All India Council for Technical Education in New Delhi, and is permanently affiliated to Anna University in Chennai.

In 2016, its Department of Computer Science and Engineering hosted "CynoSurE 16", a national-level technical symposium.

References

External links
Priyadarshini Engineering College Official website

Engineering colleges in Tamil Nadu
Colleges affiliated to Anna University
Universities and colleges in Vellore district
Educational institutions established in 1995
1995 establishments in Tamil Nadu
CITEFA MP-1000 Martin Pescador. The Martín Pescador MP-1000 was an Argentine air-to-surface missile developed by the CITEFA (Instituto de Investigaciones Científicas y Técnicas de las FFAA - Armed Forces Scientific and Technical Research Institute). The main user was the COAN (Comando Aviación Naval - Naval Aviation Command) of the Argentine Navy.

Development 
The first evaluations were carried out in 1975. Around sixty test missiles were fired in the span of two years. The Argentine Air Force withdrew from the project - claiming that it was not there to "sink ships" - and the Navy slowed it down, although there are photos that show that at least a dozen were deployed in the 1978 Beagle Conflict, mostly to be employed by the Navy's the Aermacchi MB-326. However, they were not used in the Falklands War, citing, among other things, the nature of British anti-aircraft defences. The missile was finally certified after firing from T-28 Trojan aircraft, and the first related shot was fired by Captain Rodolfo Castro Fox of the COAN.

The missile is guided remotely by the pilot; after visually identifying their target, the pilot must radio control the missile during its flight. To assist the pilot in viewing the missile, it has two coloured flares on its rear. The pilot must control the missile visually and compensate for any drift that may be made until it reaches its target. This guidance system is similar to the American AGM-12 Bullpup missile.

Though significant training is required to operate the missile and the aircraft at the same time, the guidance system itself is technically simple and can be integrated with a wide variety of aircraft. The weapon has been successfully used from the T-28 Trojans and Aermacchi MB-326s of the Argentine Navy, and from the FMA IA 58 Pucará of the Argentine Air Force. It can also be used from helicopters, for which a wire-guided was developed.

The system was withdrawn in the 1990s, and the remaining missiles were donated to CITEFA to contribute to the development of the improved CITEFA AS-25K.

Technical specifications
Type: Anti-ship missile
Manufacturer: CITEFA
Diameter: 22 cm (2 ft 5 in)
Length: 295 cm (86 in)
Wingspan: 73 cm (2 ft 5 in)
Total weight:  140 kg (308 lb)
Standard warhead weight/mass: 40 kg (88 lb)
Warhead type: HE
Maximum range: 
Guidance: radio command

See also 
CITEFA Mathogo anti-tank missile
CITEFA AS-25K air-to-surface missile
List of anti-ship missiles

References
 references and images about this missile, as predecessor to the AS-25K
 Technical Specifications
 Specifications and brief description

External links
 Weaponry of the COAN
 CITEFA web site  (also in English)
 Technical details

Air-to-surface missiles of the Cold War
Guided missiles of Argentina
Military equipment introduced in the 1970s
Cierva C.3. 

The Cierva C.3 was an experimental autogyro built by Juan de la Cierva in Spain in 1921. It was based on the fuselage of a Sommer monoplane, and was actually completed and tested before that aircraft. The C.3 utilised a single, three-bladed rotor in place of the coaxial double rotor tested on the C.1. A few short hops were achieved in testing and Cierva noted a tendency for the machine to want to roll over, thus alerting him to the problem of dissymmetry of lift that he would have to overcome in order to build a successful rotary-wing aircraft. The C.3 was damaged and rebuilt four times before being abandoned without having flown, la Cierva returning to work on the C.2.

References

See also

1920s Spanish experimental aircraft
Single-engined tractor autogyros
C.3
Unflown aircraft
Ananda Shipyard & Slipways Limited. Ananda Shipyards and Slipways is a Bangladeshi shipbuilding company, founded in 1983.  It is a part of the Ananda Group of companies.

Ananda Shipyards, along with Western Marine Shipyard, is one of two major exporters of ships from Bangladesh.  It was the first Bangladeshi shipbuilding company to deliver a seagoing vessel to a foreign customer, the Stilla Marriage which was delivered to a customer in Denmark.  As of November 2008 the company had received orders worth $373 million from European and African buyers for building 34 vessels.

In 2022, the shipyard exported the largest domestically produced vessel ever exported from Bangladesh, a 6,100 deadweight tonnage (dwt) oceangoing container vessel sold to a UK buyer, Enzian Shipping Company Ltd.

Controversy
After winning a large number of bids in the late 2000s, the company succumbed to the global recession and failed to deliver orders on-time to many customers. This led to a call on performance bonds covering the company's projects. Indemnified losses exceeded $58m, and led to questions being raised by regulators about the banks that issued bonds and loans to the company.

The shipyard has been accused of illegally occupying shore areas along the Meghna River.

Delivered ships

 6 ferries and boats to the Mozambique government.

See also
 Shipbuilding in Bangladesh
 List of companies of Bangladesh

References

External links
  Website of Ananda Group
 Bangladeshi Shipbuilding Ready to Boom

Shipbuilding companies of Bangladesh
Shipyards of Bangladesh
SB buffer. SB buffer is a buffer solution used in agarose and polyacrylamide gel electrophoresis for the separation of nucleic acids such as DNA and RNA. "SB" is a commercial trademark of Faster Better Media LLC for their sodium boric acid-based conductive medium (US Patent # 7811437), which is based on the publications of Brody and Kern.

It is made up of sodium borate, usually 1–10 mM at pH 8.0. It has a lower conductivity, produces sharper bands, and can be run at higher speeds than can gels made from TBE buffer or TAE buffer (5–35 V/cm as compared to 5–10 V/cm). At a given voltage, heat will be generated and thus the gel will be heated. However, SB buffer has lower conductivity than TBE and TAE, and thus the gel temperature is much lower than with TBE or TAE buffers. Therefore, the voltage can be increased to speed up electrophoresis so that a gel run takes only a fraction of the usual time. Downstream applications, such as isolation of DNA from a gel slice or southern blot analysis, work as expected with sodium borate gels.

LB buffer containing lithium borate is similar to sodium borate and has all of its advantages, but permits use of even higher voltages due to the lower conductivity of lithium ions as compared to sodium ions. However, lithium borate is somewhat more expensive.

See also
 TBE buffer
 LB buffer

References

External links
Sodium borate as an electrophoresis buffer
Cost-effective media for the rapid and high resolution of small DNA fragments using polyacrylamide-based electrophoresis
Analysis of oligonucleotide annealing by electrophoresis in agarose gels using sodium borate conductive medium

Buffer solutions
LB buffer. LB buffer, also known as lithium borate buffer, is a buffer solution used in agarose electrophoresis, typically for the separation of nucleic acids such as DNA and RNA. It is made up of Lithium borate (lithium hydroxide monohydrate and boric acid). 

LB(R) is a registered (USPTO) trademark of Faster Better Media LLC, which owns US patent 7,163,610 covering low-conductance lithium borate polynucleotide electrophoresis. 

Lithium Borate buffer has a lower conductivity, produces crisper resolution, and can be run at higher speeds than can gels made from TBE or TAE (5-50 V/cm as compared to 5-10 V/cm). At a given voltage, the heat generation and thus the gel temperature is much lower than with TBE/TAE buffers, therefore the voltage can be increased to speed up electrophoresis so that a gel run takes only a fraction of the usual time. Downstream applications, such as isolation of DNA from a gel slice or Southern blot analysis, work as expected with lithium boric acid gels. 

SB buffer containing sodium borate is similar to lithium borate and has nearly all of its advantages at a somewhat lower cost, but the lithium buffer permits use of even higher voltages due to the lower conductivity of lithium ions as compared to sodium ions and has a better resolution for fragments above 4kb.

See also 

 Borate
 Lithium
 SB buffer
 TBE buffer

External links
Sodium borate as an electrophoresis buffer

References 

Buffer solutions