NEW YORK, April 19, 2018 – The 2018 World Finals of the Association for Computing Machinery (ACM) International Collegiate Programming Contest (ICPC) culminated today at Peking University in Beijing, China. Three students from Moscow State University earned the title of 2018 World Champions. Teams from the Moscow Institute of Physics and Technology, Peking University and The University of Tokyo placed in second, third and fourth places and were recognized with gold medals in the prestigious competition.
ACM ICPC is the premier global programming competition conducted by and for the world’s universities. The global competition is conceived, operated and shepherded by ACM, sponsored by IBM, and headquartered at Baylor University. For more than four decades, the competition has raised the aspirations and performance of generations of the world’s problem solvers in computing sciences and engineering.
In the competition, teams of three students tackle eight or more complex, real-world problems. The students are given a problem statement, and must create a solution within a looming five-hour time limit. The team that solves the most problems in the fewest attempts in the least cumulative time is declared the winner. This year’s World Finals saw 140 teams competing. Now in its 42nd year, ICPC has gathered more than 320,000 students from around the world to compete since its inception.
As computing increasingly becomes part of the daily routines of a growing percentage of the global population, the solution to many of tomorrow’s challenges will be written with computing code. The ICPC serves as a unique forum for tomorrow’s computing professionals to showcase their skills, learn new proficiencies and to work together to solve many real-world problems. This international event fosters the innovative spirit that continues to transform our world.
The 140 teams that participated in this year’s World Finals emerged from local and regional ICPC competitions that took place in the fall of 2017. Initially, selection took place from a field of more than 300,000 students in computing disciplines worldwide. A record number of students advanced to the regional level. 49,935 contestants from 3,089 universities in 111 countries on six continents competed at more than 585 sites, all with the goal of earning one of the coveted invitations to Beijing.In addition to the World Champion designation, gold, silver, and bronze medals were awarded. The top teams this year included:
- Moscow State University
- Moscow Institute of Physics and Technology
- Peking University
- The University of Tokyo
- Seoul National University
- University of New South Wales
- Tsinghua University
- Shanghai Jiao Tong University
- St. Petersburg ITMO University
- University of Central Florida
- Massachusetts Institute of Technology
- Vilnius University
- Ural Federal University
About the ACM-ICPC
Headquartered at Baylor University, the ACM-ICPC is a global competition among the world’s university students, nurturing new generations of talent in the science and art of information technology. For more information about the ACM-ICPC, including downloadable high resolution photographs and videos, visit ICPC headquarters and ICPCNews. Additional information can be found via the “Battle of the Brains” podcast series. Follow the contest on Twitter @ICPCNews and #ICPC2016.
“An Exciting Time to Be a Software Developer”
Designing and programming computer software is an invaluable skillset, one that is increasingly in demand in the United States, and one that the California State University is preparing students for through its extensive computer science programs.
Much sought after by companies in a variety of industries, U.S. software developers earned a median annual salary of $102,280 in 2016. The expects it to be one of the fastest-growing fields between now and 2026.
, chair of the at explains that the growing demand for developers is driven by the trend of traditionally non-technical industries turning to software solutions to become more efficient, effective and competitive.
“Computing is becoming more important in nearly every discipline. Data is the new microscope,” Dr. Lupo says.
The occupation is projected to increase 24 percent through 2026, adding more than 300,000 jobs — a growth that’s three times higher than the average for all occupations.
So who makes a good software developer? Really, anyone with a passion for the impact the field has and will have, Lupo says.
In addition to good math and science skills, prospective software development students should “enjoy working with others to creatively solve problems that can have global and societal impacts.”
“A software developer is more than a programmer; [she] is a new type of engineer who builds software as a product,” explains Michael Soltys, Ph.D., professor and chair of computer science at California State University Channel Islands.
“Computer science is now part of every aspect of the human endeavor, and so a computer science degree offers many careers,” Dr. Soltys says, adding that he sees students going on to a range of careers, from cybersecurity to applications and game developing.
Soltys and other CSU Channel Islands faculty prepare career-ready students with a variety of innovative hands-on projects, often with real-world applications.
For example, computer science students recently built a prototype of a digital forensics tool — in collaboration with the Ventura County DA’s digital forensics lab — that helps investigators more quickly acquire data from digital devices. Another project focused on an internet-enabled sprinkler timer design that helped conserve water.
This hands-on experience helps make Soltys’ students ideal candidates for the IT industry, he says, adding that many begin their careers even before graduation.
Applied learning is also an essential part of Cal Poly San Luis Obispo’s computer science and software engineering programs, says Lupo. “With nearly every course we offer a laboratory component where students must apply what they are learning in projects that they might find in industry.”
The growth in the software development field, as well as the need for more professionals, will only continue as technology continues to advance, Lupo explains.
“More data is available than ever before, and computational resources are more ubiquitous than they have ever been,” Lupo says. “This means that new models, processes and tools can be created to study all sorts of problems that we have only begun to consider.
“It’s a very exciting time to be a software developer.”
1 December 1932: Polish Cipher Bureau first solved ENIGMA message. (Read an article in our Cryptologic Bytes Archives about Poland’s Overlooked Enigma Codebreakers.”)
Polish mathematicians from the University of Poznan (from left): Marian Rejewski, Jerzy Rozycki, and Henryk Zygalski broke the Enigma code, the most important encryption machine used by Nazi Germany. The success of the Polish cryptologists from the Cryptology Bureau enabled the British to read encrypted German correspondences during World War II, contributing to the wartime success of the allies.
In 1928, when the German military began using the cipher machine, Enigma, the Polish Cipher Bureau began its efforts to break it. They hired the three mathematicians in 1932 to do just that! The team worked for months to determine the wiring of the rotors. Using a mathematical equation and key lists acquired from a German traitor, they determined the three rotors’ internal wiring. They discovered three ways of deciphering Enigma readings. The Polish team then exploited some of the Germans’ standardized methods and successfully read many of the encrypted messages. They read the first one on December 1, 1932. They were in business…at least for a time…Seven years later, just before war broke out, the Poles handed over their knowledge of the Enigma codes, as well as Polish-built replicas of the machines, to British and French Intelligence officers near Warsaw.
The government official said that in recognition of the trio’s efforts, the upper house of Poland’s parliament has passed a resolution in their honor to ‘restore justice’. The resolution reads: ‘In both popular literature and official information, the public was told that the breaking of the Enigma codes was due to the work of the British Intelligence services to the complete omission of the work of Polish scientists.’
Source: National Cryptologic Foundation
Poland’s Overlooked Enigma Codebreakers
Posted on 07/08/2014
Poland’s Overlooked Enigma Codebreakers
By Gordon Corera
BBC News, Warsaw
4 July 2014
Read the article and see more photos online HERE.
The first breakthrough in the battle to crack Nazi Germany’s Enigma code was made not in Bletchley Park but in Warsaw. The debt owed by British wartime codebreakers to their Polish colleagues was acknowledged this week at a quiet gathering of spy chiefs. Continue reading “1932: Polish Cipher Bureau Success!”
A few years ago, during a visit to Cézanne’s studio in Aix-en-Provence, I experienced a flash of insight about the artist that I saw as intrinsic to his becoming the father of modern painting. Once having seen it, it inspired me to move in a new direction in my own work.
Cézanne painted his studio walls a dark gray with a hint of green. Every object in the studio, illuminated by a vast north window, seemed to be absorbed into the gray of this background. There were no telltale reflections around the edges of the objects to separate them from the background itself, as there would have been had the wall been painted white. Therefore, I could see how Cézanne, making his small, patch-like brush marks, might have moved his gaze from object to background, and back again to the objects, without the familiar intervention of the illusion of space. Cézanne’s was the first voice of “flatness,” the first statement of the modern idea that a painting was simply paint on a flat canvas, nothing more, and the environment he made served this idea. The play of light on this particular tone of gray was a precisely keyed background hum that allowed a new exchange between, say, the red of an apple and the equal value of the gray background. It was a proposal of tonal nearness that welcomed the idea of flatness.
If government and industry don’t dramatically boost their efforts to protect critical infrastructure, such as the financial system or electric grids, they risk missing a “narrow and fleeting window of opportunity before a watershed, 9/11-level cyberattack,” according to a report approved by the Homeland Security Department’s National Infrastructure Advisory Council.
A long time ago, developers wrote assembly code that ran fast and light. On good days, they had enough money in their budget to hire someone to toggle all those switches on the front of the machine to input their code. On bad days, they flipped the switches themselves. Life was simple: The software loaded data from memory, did some arithmetic, and sent it back. That was all.
Today, developers must work with teams spread across multiple continents where people speak different languages with different character sets and – this is the bad part – use different versions of the compiler. Some of the code is new, and some may be from decade-old libraries that may or may not come with source code. Building team spirit and slogging through the mess is only the beginning of what it means to be a programmer today.
Once the darling of the developer community, Ruby’s popularity has plummeted in the past few years, leading some tech leaders to wonder if the language may eventually die out completely.
In IEEE Spectrum’s ranking of the top programming languages, Ruby comes in at No. 12—down from No. 8 in 2014.
The lack of job prospects led coding bootcamp Coding Dojo to drop Ruby courses from all of its six campuses across the US by the end of the year, while adding a full-stack course in Java.
“We looked at local markets to see the most relevant technologies, and we found that Java was at the top of the charts, and Ruby on Rails seemed to rank much lower in demand in terms of startup positions, and general demand and interest,” said Speros Misirlakis, head of curriculum at Coding Dojo.
David Hilbert, the great German mathematician (he died in 1943), had a stupendous, dazzling vision. He hoped and believed that some day mathematicians would construct one vast formal deductive system with axioms so powerful that every possible theorem in all of mathematics could be proved true or false. Such a system would have to be both consistent and complete. Consistent means it is impossible to prove both a statement and its negation. Complete means that every statement in the system can be proved true or false.
In 1931, to the astonishment of mathematicians, a shy, reclusive Austrian, Kurt Gödel, aged twenty-five, shattered Hilbert’s magnificent dream. Gödel showed that any formal system rich enough to include arithmetic and elementary logic could not be both consistent and complete. If complete, it would contain an infinity of true statements that could not be proved by the system’s axioms. What is worse, even the consistency of such a system cannot be established by reasoning within the system. “God exists,” a mathematician remarked, “because mathematics is consistent, and the devil exists because we can never prove it.”
I recall a cartoon by Robert Monkoff which shows a man in a restaurant examining his bill. He is saying to the puzzled waiter: “The arithmetic seems correct, yet I find myself haunted by the idea that the basic axioms on which arithmetic is based might give rise to contradictions that would then invalidate these computations.”
Fortunately, arithmetic can be shown consistent, but only by going outside it to a larger system. Alas, the larger system can’t be proved consistent without going to a still larger system. Many formal systems less complex than arithmetic, such as simple logic and even arithmetic without multiplication and division, can be proved consistent and complete without going beyond the system. But on levels that include all of arithmetic, the need for meta-systems to prove completeness and consistency never ends. There is no final system, such as Hilbert longed for, that captures all of mathematics. “Truth,” as the authors of this new book encapsule it, “is larger than proof.”
A major global cyber-attack disrupted computers at Russia’s biggest oil company, Ukrainian banks and multinational firms with a virus similar to the ransomware that infected more than 300,000 computers last month.
The rapidly spreading cyber extortion campaign, which began on Tuesday, underscored growing concerns that businesses have failed to secure their networks from increasingly aggressive hackers, who have shown they are capable of shutting down critical infrastructure and crippling corporate and government networks.