Daily Archives: May 11, 2024

Future Innovators Challenged to Design Nuclear Fission and Fusion Decommissioning Robots – Automation.com

Posted: May 11, 2024 at 2:06 pm

Students in West Cumbria have been tasked by the Robotics and AI Collaboration (RAICo) and the Industrial Solutions Hub (iSH) to design and build robots which will be showcased at a major robotics and artificial intelligence (RAI) industry event. Students aged 16 to 18 from West Lakes Academy and the Energy Coast University Technical College (UTC) are taking part in the challenge, with the aim of each school developing a small robot capable of transporting a mock nuclear waste barrel. The four-week sprint challenge is designed to encourage creativity, innovation and an enthusiasm for science and technology, focusing on RAI. Participants will demonstrate their new skills through showcasing their robots at the Harnessing Robotics and AI for Challenging Environments event to be held at Energus, Lillyhall, Cumbria on 21st May 2024. The RAICo-supported event, designed to showcase the regions RAI capability, is a chance for the students to network with industry professionals, listen to keynote speeches and find out about opportunities in the sector before they embark on their careers. The decommissioning waste challenge will incorporate coding, engineering and creativity skills, creating a stand-out point for university or apprenticeship applications. The task replicates real-world challenges within the nuclear fission and fusion decommissioning industry. RAICo is a collaboration between the UK Atomic Energy Authority, the Nuclear Decommissioning Authority (NDA), Sellafield Ltd and the University of Manchester. The collaboration is accelerating the deployment of robotics and AI in nuclear decommissioning and fusion engineering. iSH, based in West Cumbria, works on delivering programmes that bring together industry, SMEs, academia, national bodies, research facilitiesand community to deliver growth and regeneration opportunities. Representatives from iSH and RAICo are visiting the students at West Lakes Academy and the Energy Coast University Technical College (UTC) once a week for four weeks, offering guidance and a chance to build relationships with industry professionals. It comes as part of a commitment to make a positive difference to Cumbrias social and economic climate.

Sophie Finlinson, project manager at RAICo who has led the development of the challenge, said: "This educational outreach initiative offers practical exposure to students interested in STEM subjects. It could represent a pivotal step in someones journey towards a successful career in our industry. Were excited to see the robots take shape." Hannah Pears, education liaison officer at iSH, is visiting the schools, along with engineers from RAICo, to support the students and prepare them for their presentations. She said: Who knows what exciting outcomes this could lead to? These students are engaging in a unique opportunity where they can demonstrate their skills, ask questions to industry experts, and gain experience that will look amazing on their CV. The challenge encompasses the emerging technologies that will revolutionise industries in West Cumbria and beyond, and will show young people that there are opportunities to be part of something innovative right on their doorstep. This is RAICos first collaboration with schools in West Cumbria. The collaboration will use effective community engagement to develop its socio-economic impact strategy with the aim to engage many more schools and colleges to inspire future industry professionals.

RAICo is a collaboration between the UK Atomic Energy Authority, the Nuclear Decommissioning Authority, Sellafield Ltd and the University of Manchester. The collaboration is accelerating the deployment of robotics and AI in nuclear decommissioning and fusion engineering. Through the use of robotics and AI, RAICo helps remove people from harmful environments across the nuclear sector, achieving safer, faster and more cost-effective Solutions. RAICos teams operate from all over the UK, and are situated in the North-West of England, including Whitehaven, Warringtonand Manchester, and in Oxford. RAICo1 is the first in a series of robotics and AI collaboration facilities across the UK and is based in Whitehaven in Cumbria. RAICo is open to engaging with governments, academia, industry, supply chain companies, SMEsand communities to ensure its work achieves maximum impact.

iSH (Industrial Solutions Hub) delivers programmes that build on West Cumbrias nuclear heritage, expanding its technical capability, developing a regional industrial cluster and showcasing it to the world. The iSH Enterprise Campus (iEC) at Cleator Moor, Cumbria will include a solutions hub where businesses in the region will be able to collaborate and work with other specialist companies from around the UK and the rest of the world. iSH is supported in its activity by funding from Cleator Moor Town Deal Board which, working with Copeland Borough Council, secured a provisional offer of 22.5 million from the Governments 3.6 billion Towns Fund initiative in 2022. Significant match funding sums have also been pledged by the Nuclear Decommissioning Authority (NDA), Sellafield Ltd, and the Copeland Community Fund. Further contributions have been made by Cumberland Council, the former Copeland Borough Council and Cleator Moor Town Council.

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Future Innovators Challenged to Design Nuclear Fission and Fusion Decommissioning Robots - Automation.com

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Cheating in Online Chess (Part II): The Analysis of Engine Use – Chess.com

Posted: at 2:05 pm

Hctor Laiz Ibez and Ral Snchez Garca are currently conducting a qualitative study on cheating in online chess, whose preliminary findings they describe in a two-part blog entry. This blog post is the second of the two parts.

Missed the first part? Read it here!

Chessable provided support to their research. University students and faculty research sponsors starting or continuing chess-themed research may apply before May 15 at https://www.chessable.com/research_awards for Chessable Research Awards.

To study the topic of cheating in online chess we conducted a qualitative study involving 24 Spanish male chess players, each with an Elo rating between 2100 and 2500. The players were divided into three different experimental groups: (A) human; (B) human playing autonomously with the help of a chess engine during the whole game; (C) human playing with the restricted help of a chess engine. See Part I for a more detailed methodological account of the experiment.

As part of the study, we sought to dissect the implications of engine assistance on the integrity of competitive play, focusing on the behaviours of two distinct groups under experimental conditions. This post will focus on the strategies and impressions arising from participants who had access (unlimited or restricted) to a chess engine: Group B and Group C.

Group Bs engagement with the chess engine was defined by an unrestricted access policy, allowing players to utilize technological assistance throughout their games. Participants were informed that their objective should not necessarily be to disguise the use of engines, but rather to secure the win. Nevertheless, the interaction with the engine varied among players, revealing a diverse range of strategies from heavy reliance to more selective use.

The engines influence was described as addictive by participants, who noted that it significantly boosted their confidence. However, this reliance also posed its own set of challenges, particularly affecting players ability to engage in independent strategic thinking and making it difficult to delve into any precise or sharp line calculations. Regarding the technical setup for engine assistance, Group B players typically played their moves on a phone and checked the engine on a PC/laptop, although a minority swapped programs on the same PC/laptop.

Concerning expectations of opponent play, most players initially assumed that their adversary could, as they themselves, likely cheat or have access to a chess engine. However, gaining an advantage or observing an opponents mistake led them to conclude that (a) the opponent was playing independently; or (b) if they had access to an engine, it was in a more limited fashion compared to theirs. All Group B players won and dominated their games, except for one draw.

For Group C, experimental conditions restricted engine assistance to three specific consultations per game, provided the player had more than 2 minutes on the clock. This limited access to Stockfish 15 capabilities introduced a strategic element to engine use, requiring players to judiciously decide when to seek help based on the games critical moments. This assistance included the best engine move (only one move, not the entire line) and the position evaluation.

Group C participants focused on leveraging these limited opportunities to gain a competitive edge, primarily using consultations in sharp positions where the correct move could significantly alter the games course. Trust in the engines suggestions was absolute. In one case, a player, despite mishearing a move (misinterpreting f for e) and verbally expressing concern about its suitability, played it anyway. Other players followed moves that, in post-game interviews, they admitted were contrary to their playstyle and that they would never choose in a real game.

Most Group C players believed their opponents might also employ the 3-wild cards or other types of computer assistance, given the lack of information about the conditions under which the other player was playing. This occasionally led to players hoarding wildcards, relying as much as possible on their own analysis, and seeking help when they felt their opponent was getting a favourable position.

Engine evaluations were generally considered more useful than the specific moves, which were described as confusing without the follow-up moves to justify them as the best choice. This sometimes caused nervousness among players. The overall impression was that this type of assistance, although helpful, did not create a significant imbalance or provide a sizable advantage under the experiments conditions.

Nevertheless, all participants agreed that, given this edge and the opportunity to use it in a larger number of games (200-300), they would greatly improve their use of wildcards, even adapting their game to take full advantage of this type of assistance, to maximize its impact.

These preliminary findings offer a glimpse into the dynamics of engine use in online chess, providing valuable perspectives on how players navigate the challenges and opportunities presented by technology. By examining the strategies and motivations behind engine assistance, the research contributes to a broader understanding of cheating in chess, highlighting the need for ongoing dialogue and action to ensure fair play and maintain the games integrity.

Hctor is an honorary fellow of the Department of Business Management and Economics at the University of Len. His research focuses on the digital economy and emerging technologies. He also works full-time at the Spanish National Cybersecurity Institute (INCIBE), dealing mainly with matters related to international relations and EU initiatives. He is a FIDE Master and plays for Club de Xadrez Fontecarmoa. Email: hlaii@unileon.es

Ral is a lecturer on motor learning and the theory of play at the Sports Science school of the Polytechnic University of Madrid. He is also closely connected to the Embodied Design Research Laboratory (EDRL) of the University of California, Berkeley. His research blends social and cognitive sciences to study skill acquisition from an embodied perspective. His interest in chess deals with the question of distributed cognition and distributed agency between humans and computers. Email: raul.sanchezg@upm.es

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Cheating in Online Chess (Part 1): Suspicions of Engine Assistance – Chess.com

Posted: at 2:05 pm

Ral Snchez Garca and Hctor Laiz Ibez are currently conducting a qualitative study on cheating in online chess, whose preliminary findings they describe in a two-part blog entry. This blog post is the first of the two parts.

Chessable provided support to their research. University students and faculty research sponsors starting or continuing chess-themed research may apply before May 15 at https://www.chessable.com/research_awards for Chessable Research Awards.

The advent of digital platforms in chess has significantly enhanced the games accessibility and global reach, yet it has concurrently escalated the prevalence of cheating, specifically through unauthorized engine assistance. To study the topic of cheating in online chess, we conducted an experiment with 24 Spanish male chess players (Elo 2100-2500) in seven sessions. The players were divided into three different experimental groups: (A) human; (B) human playing autonomously with the help of a chess engine during the whole game; (C) human playing with the restricted help of a chess engine: they could only ask the researcher for help three times (consisting of best move and position evaluation) if they had more than 2 minutes on the clock.

We randomly paired players to play a two-game (changing colours) match of 10+5 (10 minutes with an increment of 5 seconds). None of them knew the identity of the opponent; neither his exact Elo rating; nor the condition of his experimental group. Players used an online platform, using nicknames with pseudonyms provided by the researchers. We recorded the games and conducted private semi-structured interviews with each player right after the match ended. We asked them about their impressions of the two-game match, how they assessed their play and their opponents play, and we specifically asked them about their impression on the possibility that the opponent could have used a chess engine. Besides, we asked players using chess engines (conditions B and C) about their strategies and impressions on how the use of the engine affected their way of playing and the whole interaction during the game. Group B and C players were also subject to questioning on whether they had any type of suspicions regarding their opponents play and the possibility of them also having access to external help.

After the entire round of interviews, we conducted a colloquium with all the participants of the specific session in which we disclosed the experimental conditions of each player. In the colloquium we oriented the conversation towards the broader topic of cheating in chess, both over the board and online.

A qualitative content analysis of the interviews and colloquiums provided findings in two major topics: (1) emergence of suspicions of cheating during the games by every participant; (2) strategies and impressions on engine assistance by those participants in conditions B and C.

This first post deals with the preliminary findings about (1) the emergence of suspicions of cheating during the games.

First, from the subjective impressions of players, we could not say with certainty when cheating was taking place or not. Nonetheless, we could predict (or at least say that it was more likely to emerge) when suspicions of cheating would emerge in the participants, regardless of their personalities. Suspicions of cheating emerged when performative expectations about chess playing were broken. Performative expectations refer to what is considered as normal play for a human player with certain characteristics (i.e., specific Elo rating). Performative expectations were projected depending on different factors: (i) stratification; (ii) interaction; (iii) experimental conditions.

(i) Stratification: this term referred first and foremost to chess hierarchical status expressed in the Elo rating. A specific Elo rating projects an expected playing strength. When the playing strength in the actual performance of the game does not match what is expected for the Elo rating, suspicions are more likely to occur. During the experiment, hierarchical status did not influence much the participants suspicions because they were unaware of the exact Elo rating of the opponent. The possible range (2100-2500) was so broad that it could not project a defined expectancy to be tested against the actual performance of the adversary. Nonetheless, in the colloquium, a mismatch between Elo rating and actual performance appeared frequently in the narratives of suspicions in cheating cases. Also, during the colloquium, participants talked about other qualifying stratification elements (age, gender, and nationality) that altered the performative expectancies bound to the hierarchical status of Elo rating, thus affecting the emergence of suspicions of cheating.

(ii) Interaction: during the actual chess games, participants expected to find normally occurring chess events in relation to questions such as the human-like logic of moves; consistency of playing strength and style; and time management. Such normal appearance of play was disrupted when awkward or incompressible moves appeared; when inconsistency in the opponents play appeared; or when time management of moves was erratic and/or variable. When these non-normal chess events occurred, the suspicion of engine assistance emerged more often.

Other interaction elements, present in over the board games, such as awkward emotional responses (e.g., too nervous, or too calm) were not available in online game. Thus, they did not appear in the interview narratives of the participants, even though they were raised in the colloquium discussion on cheating afterwards.

Even though participants could not make a post-hoc analysis of the games, elements such as a high percentage of precision in chess moves (related to Elo rating) and correlation between the opponent patterns and engine patterns were also raised in the colloquium as clear indexes of suspicion of cheating by engine assistance.

(iii) Experimental conditions: The experiment was presented as a typical psychological experiment that studied common topics (decision making in chess), carried out by university researchers, one of them known to the participants. Performative expectations about what it entailed to participate in scientific experiments implied that all participants took the test under the same conditions, that they were not deceived or harmed. That is why those who were subjects in condition A (human) could not conceive the suspicion of cheating in his adversary; engine assistance would break the expectation that all participants were under the same conditions and that they (humans in condition A) would not be deceived. However, precisely the condition of those who used the engine in conditions B and C projected the expectation that, since all experimental subjects were under the same conditions, everyone could be using chess engines. That explains why subjects using engine in conditions B and C were more suspicious of their human counterparts in condition A than the other way around. In fact, only one subject in condition A suspected about the use of engine of his opponent.

Concluding this first post of preliminary findings from the study, we found that the mere suspicion of cheating (engine assistance) by the opponent was enough to alter the players capacity to engage the game, negatively affecting his performance. Perhaps the most negative impact on the current sensation of extended cheating in online chess (Zaksait, 2020, p. 68), qualified by many participants in the experiment as paranoia, is precisely this: many players are underperforming on their chess play due to the suspicions of cheating.

Zaksait, S. (2020). Cheating in chess: a call for an integrated disciplinary regulation. Kriminologijos studijos, 8, 57-83.

Ral is a lecturer on motor learning and the theory of play at the Sports Science school of the Polytechnic University of Madrid. He is also closely connected to the Embodied Design Research Laboratory (EDRL) of the University of California, Berkeley. His research blends social and cognitive sciences to study skill acquisition from an embodied perspective. His interest in chess deals with the question of distributed cognition and distributed agency between humans and computers. Email: raul.sanchezg@upm.es

Hctor is an honorary fellow of the Department of Business Management and Economics at the University of Len. His research focuses on the digital economy and emerging technologies. He also works full-time at the Spanish National Cybersecurity Institute (INCIBE), dealing mainly with matters related to international relations and EU initiatives. He is a FIDE Master and plays for Club de Xadrez Fontecarmoa. Email: hlaii@unileon.es

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Cheating in Online Chess (Part 1): Suspicions of Engine Assistance - Chess.com

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