Metrics 3 x 3

I wanted to do a review of the 3 big citation indexes (Web of Science, Scopus, and Google Scholar) at 3 different levels (articles, authors, and journals), since there have been some noteworthy changes this year. Citations are only a part of the story so I will point out when alternative metrics are available, such as views and mentions on social media.

A bit of history: Web of Science was launched as the Science Citation Index in the 1960s, by the Institute for Scientific Information. One thing that they did that set them apart while they were gathering information from journals, was to include each paper’s list of references. It seems like a small thing but it revealed the relationships between papers, and also provided citation counts.

Web of Science did not have any real competition as a citation index until 2004, with the launch of both Google Scholar and Scopus (from the publishing giant, Elsevier). While Web of Science is deep, indexing over 100 years of journal content, it is selective and therefore the coverage is not as wide as Google Scholar or Scopus.
  1. Article metrics

Citation counts may vary between the indexes, depending on their coverage of a subject. It is interesting to explore each one, and necessary to indicate where a count is coming from. The number is often highest in Google Scholar, since it can link to non-journal content like presentation slides.

Citations are useful in general because they allow you to move forward in time, finding newer papers that may be of interest. If a paper is important, you can always set up a citation alert to receive email notifications. Sorting your search results in Web of Science and Scopus by citations will also help you find those seed papers that are often referenced in your research area.

New in beta in Web of Science is the presence of enriched cited references in some records, with specifics on where in the text an article is cited, how many times, and in connection with which other references. They highlight hot papers, those published in the last two years with an unexpectedly high citation count over the most recent two months for their field. They also make it easy to find highly cited papers from the last 10 years.

Item-level usage counts came much later in Web of Science when people became interested in seeing alternative metrics. They count how many times people click on the full-text or export an item to a citation management program like EndNote (EndNote is available from McGill Library!). You can see which papers people are paying attention to in the last 180 days, or all time (really since 2013, when they began counting).

Scopus does have view counts, but they take alternative metrics further by integrating PlumX Metrics with 5 categories: Citations, usage (clicks and downloads), captures (bookmarks), mentions (blog posts, Wikipedia, etc.), and social media (tweets, Facebook likes, etc.).

2. Author metrics

Article citations are used to calculate author metrics. A popular metric is the h-index, where the number of citations an author has received meets their number of published papers (read about this index in Hirsch’s article in arXiv). Some criticisms of the h-index are that it is dependent on the age of the researcher and also on their field, so it shouldn’t be used for comparisons.

When searching for author metrics it is useful to have these identifiers on hand, if possible:

A new visualization in author profiles in Web of Science is the Beamplot, with citation data going back to 1980. Individual points on the plot represent the citations for a given paper, divided by the mean for papers in the same Web of Science subject category from that year.

3. Journal metrics

The Journal Impact Factor and other metrics for journals indexed in Web of Science are published each year in Journal Citation Reports. Web of Science is now a collection of subject indexes and Journal Impact Factor data is provided for journals in the Science and the Social Science Citation Index. This year, Journal Citation Reports has expanded to include the Arts & Humanities and Emerging Sources Citation Index journals, with their new metric: Journal Citation Indicator. It allows for comparison of journals across disciplines. 

There is an updated CiteScore methodology in Scopus with a 4-year publication window (the Journal Impact Factor has 2 years to build up citations). You can choose to rank only open access journals in a subject by CiteScore. You can also find out what percentage of a journal is made up of review articles (reviews are often highly cited), or is never cited at all, by using the Scopus source comparison tool.

Google Scholar does have a metrics page that ranks journals by h5-index (h-index for articles published in the previous 5 years). They can be organized by category and sub-category.

Journal metrics are not meant to be used to judge the research of individuals, but they can come in handy when you are deciding on where to publish your research. Still, they are no substitute for the advice of trusted experts.

I probably went on for too long, so please let me know if you have any questions!

It’s Virtually Science Literacy Week!

Science Literacy Week will be celebrated this September 20 to 26 with climate as the theme. We can help you become a citizen climate scientist with a workshop on capturing the McGill Observatory’s historical weather logs with DRAW, the Data Rescue: Archives and Weather Project.

You can also learn The Art of Explaining Science to Non-Specialists, or how to turn your research into a business, with From Science to Startup: A Beginner’s Guide to Entrepreneurship as a Researcher.

If you are looking for something relaxing this semester, McGill Visual Arts Collection invites you to a Science Literacy Week edition of their on-going De-Stress + Sketch series.

Our Science Literacy Week guide also has lots of virtual exhibits and links promoting resources and materials at McGill Library and beyond, including the wonderful Ocean School from the National Film Board of Canada.

Join us as we help spread the wonders of science Canada-wide!

Sneak peek inside Schulich Library

We cannot wait to welcome you back to the Schulich Library of Physical Sciences, Life Sciences, and Engineering. With renovations of the Macdonald-Stewart Library Building at 20% completion, we thought that it might be time to show you how things are going on the inside.

Schulich Library basement under construction, with floor pipes and ceiling exposed
Schulich Library, basement
Schulich Library main floor under construction, with ceiling exposed
Schulich Library, main floor
Schulich Library 3rd floor under construction, with ceiling exposed
Schulich Library, 3rd floor
Schulich Library 3rd floor under construction, with ceiling exposed inside the turret
Schulich Library, 3rd floor (inside the turret)
Schulich Library 5th floor under construction, with ceiling exposed and markings on the floor for a future bathroom
Schulich Library, 5th floor (planning for washrooms!)
Schulich Library 5th floor under construction, with ceiling exposed inside the turret
Schulich Library, 5th floor (inside the turret)
Decorative stone piece outside of the Schulich Library
Waiting to rejoin Schulich Library…

For more information on the renovation project, please see the project page.

All photos credit: Merika Ramundo, 2021-05-04

April is citizen science month

It is April and spring is in the air in Montreal. While it might be too late for us to collect data on local skating rinks for RinkWatch, there are a multitude of science projects that we can all take part in, from inside or outside of our homes, from wherever we may be. We can help researchers learn more about dogs, or cicadas, microbes, the weather, technologies… and the list goes on. Explore the different options in the project finder from SciStarter.

Here are a few citizen science projects from McGill:

  • DRAW McGill: Transcribe historical weather data from McGill’s Observatory.
  • Phylo: Solve a puzzle and help genetic disease research.
  • Colony B: Identify clusters of bacteria in a fast paced mobile game.

If you want to learn more about citizen science, a great place to start is with this interactive introduction to citizen science tutorial.

Happy April!

April 🙂

Science Literacy Week goes virtual

Next week is Science Literacy Week!

It is a week when we get together across the country to share our love of science, and at McGill Library we have a wonderful virtual program to share with you.

Monday, Sept. 21

  • 2 – 3 p.m. The Art of Communicating Science to Non-Specialists [register]

Wednesday, Sept. 23

  • 10:30 – 11:15 a.m., Urban Heat Island Effect [register]
  • 11:30 a.m. – 1:30 p.m., Keeping Up with Artificial Intelligence – AI Literacy [register]

Thursday, Sept. 24

  • 5:30 – 7 p.m., Science Literacy Week Book Club: Data feminism, by Catherine D’Ignazio and Lauren F Klein. McGill users can read the e-book here. Everyone can read this book open access online here. [register].

Sunday, Sept. 27

But wait, there’s more! We have lots of ‘science at play‘ resources for you. Follow us on Facebook and Twitter for daily colouring pages and puzzles made with images from items in our Rare & Special Collections. Or how about a scavenger hunt? Take photos of any of the items on this list during Science Literacy Week and tag both #SciLit and @McGillLib on social media.

Science Literacy Week scavenger hunt:

  • Interact with old tech: cassettes, mini-discs, laser discs, rotary phone, etc…
  • Find something with ‘patent pending’ or a trademark
  • Animal tracks
  • A native plant
  • A native bird
  • A rock bigger than your hand
  • A cumulus cloud 
  • Something made out of natural fibres 
  • Someone riding a bicycle 
  • Make a shadow puppet
  • A rainbow 
  • Something being reused or recycled
  • Condensation
  • A fossil
  • A data visualization
  • A DIY project
  • An example of each of the 6 classical simple machines:
    • Lever
    • Wheel and axle
    • Pulley
    • Inclined plane
    • Wedge
    • Screw

You will also find 360 videos and DIY viewer information on our guide.

Still more! Homecoming and Redpath Museum has their own lineup of virtual events. We have added them to our online calendar so be sure to check them out.

See you soon, friends (virtually).

An active Science Literacy Week

This year, Science Literacy Week will keep you moving. Beginning September 16, there are tours lined up, a game-based session around data management, a hands-on Excel workshop, interactive sound demonstrations, and exhibits to explore.

Here is the daily rundown of downtown activities organized by the Library:

Monday, (Sept 16): Montreal’s Urban Heat Island: Tour of temperature sensors on campus

Tuesday, (Sept 17): Tour of the Maude Abbott Medical Museum

Wednesday, (Sept 18): Sounds in the City + Treasures from the History of Science in Rare Books and Special Collections

Thursday, (Sept 19): Tour of the Steinberg Centre for Simulation and Interactive Learning + Discover the cure! An introduction to the fundamentals of data management

Friday, (Sept 20): Chart Making in Excel: Going Further by Telling a Story with your Data

Register for an event today!

We also have exhibits going on so don’t miss out on those. You will get the opportunity to test out your map literacy in the Redpath Library Building, and check out a science book in person or online.

Student recommendation for the NHL

Congratulations goes out to Mark Kumhyr, winner of the Winter/Summer 2018 Communication in Engineering (CCOM 206) Excellence in Written Communication Award!

Alternate Refrigeration Systems for Improving Ice Quality in NHL Arenas

The National Hockey League is a multibillion-dollar industry, and yet suffers from a recent uptick in complaints over sub-par ice quality, largely due to a warming climate and higher average ice rink temperatures. The objective of this paper is to demonstrate the superiority of an indirect ammonia/CO2 refrigeration system over a direct CO2 system, all in relation to the current indirect ammonia/brinewater system. The comparison will be made based on three criteria: efficiency, represented by the coefficient of performance value; cost, taking into account short- and long-term investments; and environmental effect, presented as a Global Warming Potential value. The results show that the indirect ammonia/CO2 system is 56% more efficient than the current system, and 20% more than the direct CO2 system, and is less costly in the long-term. The environmental effects of each refrigerant systems were shown to be negligible. It is recommended that the NHL implement an indirect ammonia/CO2 system in order to negate the warming arena temperatures, and ensure that the NHL remains a powerhouse in the sports industry.

Read the full paper in eScholarship, McGill’s open access repository.

Benefits and risks of Mars Colonization

A big thank you to Steve Lee and Anthony Johansen for submitting their Engineering Professional Practice (FACC 400) blog post to The Turret. This guest post will have you thinking about a future society on Mars.


Benefits and risks of Mars Colonization

Steve Lee
Anthony Johansen

Mars, also known as the Red Planet, have caught many scientists’ and engineers’ attention after rovers sent by NASA have found evidence of water on the planet in 2012. The discovery of water was very important since it indicated possibility of life on Mars, and further implies that the Earth is not the only planet where living being exists. Since then, many space agencies around the globe have sent their probes and rovers to collect more information about Mars. Recently, Mars became a popular topic again due to success of SpaceX, a private aerospace company which aims to reduce cost of space transportation and colonize Mars. Elon Musk, the CEO of SpaceX, believes colonizing Mars “i​s potentially something that could be accomplished in about 10 years, maybe sooner, maybe 9 years.” ​But despite all the efforts to make Mars colonization true, how can this benefits our society?

Establishing a colony on Mars would benefit our society in a number of ways. The first, and most notable way, is that a colony on Mars would mark the first interplanetary settlement in human history. This would be the most monumental achievement in our history to date and would likely be a point in history we would never forget. A settlement on Mars would also prove that such an endeavor is possible and pave the way for future colonizations of other planets and moons, inside our solar system as well as out.

Additionally, the world’s population growth have exponentially increased over the last centuries. United Nations projects that the world’s population will reach 9.8 billion in year 2050 and 11.2 billion in year 2100. At this fast growing rate, there is no doubt that the society will suffer due to limited resources available on Earth. However, colonization of Mars would leverage the problem by distributing the population of the Earth to Mars, and as well as improve the chances for mankind to survive in case the Earth is no longer sustainable.

Another important impact of a Mars colonization would be scientific research. As humans attempt to reach further and further into space, new and innovative advances in technology and science are required in order for us to reach these new heights. For example, since 1976 NASA has published a report every year called ​Spinoff which features new technologies based on research done by NASA. As of 2016, there are over 1,920 products in the ​Spinoff database which can be attributed to advances made by NASA researchers. A well known example is the Infrared Ear Thermometer, initially this technology was designed to measure the temperature of stars and planets across large distances, however it was eventually adapted to be used as a way to record human body temperature without direct contact with the body.

Unfortunately, as with any kind of undertaking of this magnitude, there exists risks. And while we do our best to plan for and minimize those risks, there is always a possibility of something going wrong. Some of the main risks in regard to the colonization itself lie in the environment of Mars. As Mars does not have a very substantial atmosphere, the mars colonists would need to be protected not only from the extreme weather and temperatures that can occur on Mars but also from the radiation that penetrates the atmosphere. Mars’ gravity is only 38 percent of that of the Earth and the difference affects greatly on human body. As a side effect, it causes weakness of bone and muscle, motion sickness, fluid redistribution and more.

Another element that creates risk is the human factor. Many engineers and scientists, try to make fault tolerant equipments, but sometimes a tiny little mistakes could result a great disaster. For example, on Jan 28, 1986, crews of the NASA’s space shuttle Challenger were killed during the launch due to failure of O-rings that seals the booster. It was mainly due to lack of experience launching the space shuttle in a specific environment, and lack of tests. Therefore, if the system designed for the Mars exploration have flaws, then it could lead to disasters.

Although there are risks associated to Mars colonization, there are many things that people can benefit from. As Neil Armstrong once said, the beginning of the mission will be “one small step for a man, one giant leap for mankind.”

References

Dunbar, Brian. “NASA Rover Finds Conditions Once Suited for Ancient Life on Mars.” ​NASA​, NASA, 19 Nov. 2015, ​www.nasa.gov/mission_pages/msl/news/msl20130312.html​.

Kelechava, Brad. “The Benefits of Colonizing Mars (Other Than Getting to Live There) – ANSI Blog.” ​The ANSI Blog,​ 4 Feb. 2019, www.blog.ansi.org/2016/10/the-benefits-of-colonizing-mars/​.

“World Population Projected to Reach 9.8 Billion in 2050, and 11.2 Billion in 2100 | UN DESA Department of Economic and Social Affairs.” ​United Nations​, United Nations, www.un.org/development/desa/en/news/population/world-population-prospects-2017.html​.

Patel, Neel V. “SpaceX CEO Elon Musk Says His Company Could Have a Mars Colony by 2026.” ​Inverse​, www.inverse.com/article/21156-elon-musk-says-spacex-could-start-a-mars-colony-by-2026​.

Mars, Kelli. “The Human Body in Space.” ​NASA​, NASA, 30 Mar. 2016, www.nasa.gov/hrp/bodyinspace​.

Tate, Karl. “The Space Shuttle Challenger Disaster: What Happened? (Infographic).” ​Space.com​, Space Created with Sketch. Space, 28 Jan. 2016, www.space.com/31732-space-shuttle-challenger-disaster-explained-infographic.html​.


Steve Lee – U3 Computer Engineering student
Anthony Johansen – U2 Software Engineering student

Doctors’ Cell Phones Are Contaminating Hospitals by Annie Charron

Today we have another guest undergraduate student post, originally submitted as a class assignment for Communicating Science (CCOM 314).

With support from Diane Dechief, Faculty Lecturer at the McGill Writing Centre, we will be sharing more noteworthy student writing right here on The Turret.

Annie chose to write a Trilobite article that provides knowledge on the health consequences of the use of cell phones by doctors.


Doctors’ Cell Phones Are Contaminating Hospitals

Your mobile phone carries the dirty fragments of germs. Thousands of microscopic bacteria bugs are crawling on it. The residue of greasy food is smudged on the screen. The remnants touched on public door handles have engulfed the surface of the phone.

Mobile phones are your hands’ partner in crime: you can wash your hands to eradicate germs and prevent the spread of germs, but you can’t wash the cell phone – at least not with soap. Without proper cleaning, germs are like glitter, they will never go away. Healthcare workers who bring mobile phones to work interfere with infection controls in hospitals.

Healthcare workers cell phones are a magnet for bacteria and harmful chemicals, which could decrease patients’ recovery. Hospitals should be the most sterile places in the world. But our tiny gadgets may ruin this. At any rate, there should be major shame towards the television series Grey’s Anatomy, where the characters are constantly using their mobile devices during patient care without washing their hands.

In a study published by Excellent Publishers in 2017, Ganapathy Shakthivel and his colleagues, working in the department of microbiology at Tirunelveli Medical College in India, examined 50 randomly selected healthcare workers at a specialized care hospital. They investigated how the bacterial contamination of cell phones poses a threat to infections. They then assessed whether contamination could be cleaned simply with 70% rubbing alcohol.

The study lasted for two months and included mobile phones belonging to doctors, nurses, laboratory technicians, nursing assistants and hospital workers. Each worker first filled out a questionnaire that asked questions about the prevalence of phone usage between patient consultations and if workers washed their hands in between use or followed a strict sterile routine. Following this, each mobile phone was swabbed twice. The first swab took place before the decontamination procedure, the second swab occurred after the phone was thoroughly cleaned with the rubbing alcohol for 5 to 7 minutes.

The study revealed that of the 50 mobile phones in the study, 90% were found to be carrying multiple microorganism bacteria such as E. coli, which is very likely to cause infections. The decontamination results revealed that rubbing alcohol proves effective. The majority of the phones (78%) showed no bacterial growth after decontamination and 12% showed decreased bacterial growth. Another study led by Usha Arora (2009), showed a higher decontamination efficacy of approximately 98% with the 70% rubbing alcohol, compared to Ganapathy Shakthivel’s (2017) results of 86.6%.

Ganapathy Shakthivel (2017) states that the use of cell phones in India accounts for more than 88% of all users in Intensive Care Units and Operation theaters. And if a cell phone is not routinely cleaned in hospitals it becomes “a reservoir of infection.” Phones are a vehicle for the transmission of infection, to both patients and the community. The questionnaire revealed that only 12% of the healthcare workers made a habit of washing their hands before attending to a patient. That being said, “nearly 52% of the workers agreed that mobile phones may act a vector for spread of nosocomial (a disease originating in a hospital) infections.”

Preventative methods for eliminating the spread of infection via cell phones, include training other individuals (children, colleagues) not to touch phones other than their own. Some hospitals have banned or eliminated the use of cell phones during working hours. This may be hard to accomplish, considering you touch your phone on average 2,617 times a day. The most important strategy is simply to clean the device with rubbing alcohol before, during and after work – this regular routine will significantly reduce infections in hospitals.

References

Ganapathy Shakthivel, P.C., G. Velvzhi, G. Sucilathangam, Revathy, C. (2017). Mobile phones in healthcare setting: Potential threat in infection control. Int. J.Curr. Microbio  App. Sci. 6(3): 706-711. doi: https://doi.org/10.20546/ijcmas.2017.603.081

Usha, A., P. Devi, A, Chadga, S. Malhotra. (2009). Cell phones A modern slayhouse for bacteria pathogens. Jk Science. 11(3). Retrieved from http://www.jkscience.org/archive/vol113/6-Original%20Article%20-%20cell%20phones.pdf

Comparative Analysis of Interference-Free Alternatives to Wi-Fi

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Once again I have the pleasure of announcing the next Communication in Engineering (CCOM 206) Excellence in Written Communication Award. Alexandre Tessier is the Fall 2017 winner for ‘Comparative Analysis of Interference-Free Alternatives to Wi-Fi’ (yay!).

Abstract:

Current Wi-Fi technologies occupy oversaturated 2.4 GHz and 5GHz frequency bands. In areas with high router density, this results in poor Wi-Fi performances, and, especially, slow data transfer rates at a time when demand for high-speed networks is rising. To minimize these effects, new technologies taking advantage of the availability of higher frequencies have been developed.In particular, Li-Fi and WiGig aim to transfer data wirelessly at rates faster than Wi-Fi and, more importantly, without interference. This paper assesses the viability of these two technologies as interference-free alternatives to Wi-Fi based on 3 standard networking attributes: data transmission capabilities, security, and vulnerability to interference. The analysis concludes that Li-Fi can transfer data at higher rates than WiGig, can be used to implement location-based security levels, and, unlike WiGig, is impervious to interference from neighbouring cells. For the aforementioned reasons, Li-Fi is the most promising candidate for an alternative to Wi-Fi, vastly outperforming current implementations of WiGig.

Download the full paper from the University’s open access repository.

Congratulations, Alexandre!