Sarkozy blasts burkas

Publicly saying anything that comes to one’s mind while hiding behind the facade of freedom from oppression is a sign of ignorance, and can become a new means of oppression in itself. This was the case on June 21 when French President Nicolas Sarkozy condemned the burka, a common headscarf worn by Muslim women. Sarkozy stated that the wearing of the burka is not an expression of religious freedom, but rather a practice that reduces women to subservitude. What defines a certain people has wrongly become stigmatized as a form of abuse.

French policies banning the burka were initially restricted to educational and government organizations; every citizen was expected to leave their modes of religious expression outside these institutions in order to maintain secularism within the organs of the state.

But today, the situation has taken a different turn altogether. Sarkozy wants to “free the women in burkas and provide them with an identity.” How many of these women he encountered personally before making this assessment is a question that will remain unanswered. Moreover, he does not seem to realize that the vast majority of these women choose to remain veiled, and want to associate themselves with a Muslim identity as well as a French one. Thus by making such remarks, and by planning on implementing consequential policies, the president is in fact stripping these women of the right to self-identification and individuality.
The true definition of secularism is the separation of state and religion. It means that no state has the right to enforce religious laws or hold prejudices for or against any religious background. It does not, however, mean that citizens cannot practice their own religion privately. A Muslim woman wearing a veil or a Jewish man wearing a kippah are no different from other French people. They are just French Muslims or French Jews. They are free to practice their religion as they please and express themselves how they wish, while living in a country that claims to be a true democracy.

Impeding religious practices, however, is a serious violation of the Universal Declaration of Human Rights, which asserts “universal respect for, and observance of, human rights and fundamental freedoms for all without distinction as to race, sex, language or religion.” It’s also contradictory to France’s Declaration of the Rights of Man and Citizen, which states that the law can only prohibit actions detrimental to society as a whole. I fail to see how wearing a veil in France harms French society.

But the main concern here is not secularism. The problem is the confusion of the term secularism with uniformism. Sarkozy has not only muddled the two, but has pushed the dialogue to an extreme. It will not be too long until people will legally be forced to alter the color of their skin, their height, and their names to conform to French norms. Sarkozy’s use of the word freedom, in essence, is a mutilation of the idea. People should be free under their own terms and conditions.

The beginning of the end for the Islamic Republic

Going back and forth between Iran and other countries for several years, I thought I surely knew everything there is to know about missing one’s country of origin, and longing to be there while living afar. I was wrong.

The massive revolution beginning in Iran has filled me with a lot of different feelings, all stemming from the fact that I’m thousands of miles away. This is nothing less than painful.

For years, I and many others spoke of a revolution that was bound to happen given the situation and conditions of Iranian society.

Such dreams often elicited counter arguments like: revolutions are things of the past, Iranian people have all bought Ahmadinejad populism and love him, and having an Islamic Republic is part and parcel of Iranian culture. I was reminded, time and again, of “cultural relativism.”

Consequently, those of us who opposed the Islamic Republic, who argued that the vast majority of Iranians want this regime to go, and that Iranians would eventually come out en masse against it, were vilified as wishful thinkers at best, and outsiders at worst.

The recent events sparked by the June 12 elections have put Iran into the headlines of the world news, and have brushed off all those assumptions about Iranian society. As has been demonstrated under the watchful eye of the entire world, Iranian people want nothing to do with the likes of Ahmadinejad, Khamenei, and their rotten regime. Even when the reformist leaders asked the people to stay home, they did not listen.

The protests are not only a movement against electoral fraud, nor rallies merely for Mir Hossein Mousavi. Iranians rallied behind the opposition leader to further pry the ever-widening split between wings of the current regime’s ruling clique. The aim: to be rid of them all, eventually.

As with every other oppressive regime, there was a split in the ruling clique over how to go forward. One wing of reformists gathered around candidates like Mousavi and Karoubi who wanted to loosen the government’s grip on the people, arguing that citizens would stand against the entire regime if it remained oppressive. The other wing, gathered around supreme leader Ayatolla Khamenei and President Ahmadinejad, argued that this opening up would only invite more aggression from people demanding more and more freedom. Both wings were right. It was the insolvable dead-end of the Islamic Republic.

In the 10th presidential elections, people who were fed-up with life under the Islamic Republic and Ahmadinejad voted for Mousavi for the reasons stated above. With their ever-present pragmatism, they wanted to open the space for more struggles and protests in the coming period. But Khamenei and Ahmadinejad knew they couldn’t afford this. They staged a de facto coup d’état and declared Ahmadinejad the winner with a ridiculously high margin of 11 million votes, showing their power to the reformist wing and letting them know who’s really in charge. What they had underestimated however, was the popular response.

June 15 saw people from all over Iran pouring into the streets. Up to two million people marched in central Tehran, with similar incidents in all major cities. Across the country, up to 5 million people took part in this extraordinary show of defiance unrivalled in Iran since the 1979 revolution. The uprising has continued despite the unwillingness of reformist leaders to lead the masses, and in the face of brutal repression by police and armed forces.

It’s not hard to see that this is the beginning of the end for the Islamic Republic. This regime, which has been doomed for about a decade, faces an all-out political, economic, administrative, and diplomatic dead-end. It will fall, sooner or later. How Iran’s history is to unfold after depends on the massive struggle of social forces in the young Iranian Revolution. One thing is certain: there is no room now for a return to the old Iranian order. Nothing will be same in Iran again.

A diagnostic revolution in the works

If you show symptoms of strep throat, your doctor will swab your throat, send the sample to a lab to culture the bacteria, and wait for the results before writing a prescription. The day when a sick person can self-administer a blood sample and receive a diagnosis in minutes will see patients receiving treatment faster and clinical costs cut dramatically. That day may be within reach thanks to Dr. Shana Kelley, a professor in U of T’s faculties of pharmacy and medicine.

The Kelley lab is developing nanotechnology that could diagnose early stage cancer and other infectious diseases ten times earlier and at a fraction of the cost than is current clinical practice. Their project consists of an electronic chip the size of a dime containing complementary genetic material, or the appropriate antibodies, that could generate an electronic readout to inform doctors of a patient’s immediate health.

DNA and RNA are composed of nucleotide bases, adenine (A), guanine (G), cytosine (C) and thymine (T). Complementary base pairing occurs in double-stranded DNA helices between A and T and C and G, and mismatched, absent or damaged nucleotides can result in genetic mutations.

Kelley has been acknowledged as a frontier scientist worldwide in MIT’s Technology Review Top 100 Inventors, named an Alfred P. Sloan Fellow for her promising research career, and awarded the prestigious Pittsburgh Conference Achievement Award for “significant contributions to electrochemical biomolecular detection” in 2007. In 2008 she was named among Canada’s Top 40 Under 40 by Caldwell Partners. Last month The Varsity sat down with Dr. Kelley to discuss her new technology and whether it could revolutionize health care delivery.

The Varsity: What happens in cases where there is mutation of the genetic code in viruses or bacteria you are testing?

Shana Kelley: That’s a tricky thing to deal with. The solution is to look at many possibilities at one time. This is called multiplexing. Currently, we can look at 42 different sequences. If you have a virus you suspect can mutate in 42 different ways, you would be able to test them all. We could easily do 400 sequences by adjusting the patterning on the chip.

TV: To make this applicable for use in hospitals, will the industry need to synthesize different combinations of sequences for different diseases?

SK: Yes. Currently we’re developing this technology in my lab. The next step would be a very small company that would develop the technology further and eventually get it out to hospitals. It needs to be packaged into an instrument, something that a hospital worker can use very easily.

TV: How soon do you think this would be available to the public?

SK: Realistically, we have another year’s work to do to make sure our chips are sensitive enough and instrumentation easy to use. We’re hopeful that within that year we would transfer the technology into a company, and it would take another year to get the product to market. Ideally, we’re maybe two years away from getting something close to clinical use. My lab has been working on this stuff since 2000, and now we are in the final stretch of making it practical.

TV: What about the accuracy? Are there chances for false positives, where a test indicates a positive result that doesn’t actually exist?

SK: There’s always chances for false positives, false negatives even. Another reason multiplexing is so useful is that you are building controls right under your chip. You would put some sequences on there that shouldn’t be binding to anything in your sample, and if they are, you know that there is something wrong somewhere so you would put that test aside and do it again. It’s a similar concept with false negatives.

TV: The government would probably save a lot of money with patients occupying fewer beds for less time. Is the government funding this project, as well as private companies?

SK: Absolutely. We have funding from CIHR (Canadian Institutes of Health Research), NSERC (Natural Sciences and Engineering Research Council of Canada), OICR (Ontario Institute of Cancer Research), OCE (Ontario Centre for Excellence), and Genome Canada. Many agencies have been very generous and recognize the value of this in terms of the impact on quality of treatment and also in terms of the economics of the health care system.

TV: What led you to study nanotechnology?

SK: I was educated with a very interdisciplinary approach, where you think of an interesting problem and go out and learn about all the methods that you can use to solve it. As a graduate student, what I became interested in and remained interested in was developing new tools for clinical diagnostics. I knew a lot about prior efforts and why they failed, and what were really needed were new kinds of materials to serve as platforms for clinical diagnostics. It turned out that nanomaterials, which are the size of biological molecules, have a significant advantage as sensors. You can start to think about matching the size of your sensing element to the size of the thing you are looking for. It makes it a little bit less like looking for a needle in a haystack.

TV: Do you see yourself continuing to work with nanotechnology after the completion of this project?

SK: Sure. We’ve just written some proposals for using this type of technology for tuberculosis. It’s a huge problem in the developing world, as it’s very difficult to diagnose people in remote areas. The kind of instrumentation that we envision are chips that don’t require a lot of power. It can be very small because it doesn’t take much to read out the signals from these chips. That’s a whole new area for us. If you think outside the box and what challenges [doctors] face, we’ll always be finding new problems to solve [and] new application areas that will keep pushing us to do better science.

TV: How would you transfer information onto the chip in countries without the resources or laboratories ready to analyze the samples?

SK: We would basically have a unit the size of a blackberry. It would have one of the chips in it with an injection port for the sample. There would also be components embedded in there to burst open the bacteria, for example, and a readout would be shown to the person doing the test indicating the diagnosis. There is going to be a lot of difficult engineering going into making the device, but we know that we can do it based on the parameters. This could have a huge impact on a very large number of people.

TV: How long would the readout take?

SK: I think we can push it to give us a readout in a few minutes. We have seen that in experiments in our lab and we think that can be done with clinical samples as well.

TV: So the whole idea could apply to people at home, instead of going over to the hospital and spending time in the emergency room?

SK: Exactly. We may get there someday.

TV: Do you believe this a revolution?

SK: I think so. We now live in an era where we know the sequence of the human genome, we know about most of the proteins that operate in human cells, we know what genes predispose people to cancer, we know what the markers are. We just need the technology to be able to analyze them. If we can find that technology and adapt it in the right way, it could be a revolution. It would make clinical medicine very different to have access to the kinds of tools we are talking about.

Student unions donate to protestor’s legal fund

University of Toronto Students’ Union president Sandy Hudson has appealed to GTA student unions for donations to an UTSU-created legal fund for Angela Regnier, its executive director.

Regnier was arrested during the May 10 Tamil protest that occupied the Gardiner Expressway for six hours. The protest made international headlines for both police brutality and the presence of women and children on the frontline of the blockade.

According to Hudson, Regnier was peacefully demonstrating, as was York University student Terrence Luscombe. Hudson alleges that the two non-Tamil individuals, who arrived long after the expressway was blocked and police had arrived, were targeted by the police.

Regnier was “faceplanted into the highway” before she and Luscombe were arrested on charges of mischief interference with property.

“These were clearly random arrests,” Hudson said in an email to The Varsity, adding that the two were not organizers. “It is important to stand up for these matters because it is clear by this example that anyone can be randomly targeted and arrested at any demonstration.”

Regnier appeared in court at Old City Hall on June 11 and 25. According to Hudson, Regnier is still awaiting for the crown to disclose evidence against her.

“While this matter is still in the courts, I have been advised by legal counsel against making any comment to the media,” said Regnier in an email. “It could potentially prejudice or compromise my case. Therefore, I will not be available for comment until there has been resolution to this matter.”

Hudson said the legal defence fund was established as part of a previous UTSU board decision to support the Tamil community throughout the crisis. As of print time, it is unclear whether or not Regnier was representing UTSU at the protest.

Hudson said a similar fund for both activists has been established at the Ontario Public Interest Research Group at York University. The group could not be reached for comment.

Asked how much money the legal fund has accrued, Hudson said she was “not currently able to disclose an accurate account of that information.” She added that donors did not consent to having their names published. Hudson also did not name the organizations that were contacted.

The Varsity sent emails to every GTA post-secondary institution. On June 17, UTM Student Union made a donation of $1,000 to Regnier after a heated debate. According to U of T Graduate Students’ Union external commissioner Sara Suliman, GSU has made $500 available to Regnier and will donate based on her legal costs. Ryerson Students’ Union gave $100 and the Continuing Education Students’ Association of Ryerson gave $500. U of T’s Association of Part-Time Undergraduate Students and Scarborough Campus Students’ Union have received the appeal and have not yet made decisions.

Many college student unions said they did not receive the appeal. Ercole Perrone, executive director of the Humber Students’ Federation, said his federation “doesn’t believe it is appropriate to get involved in the legal matters of another student organization.”

Regnier is not a student. She is a full-time UTSU employee who was hired shortly after ending her term as national deputy chairperson of the Canadian Federation of Students. The Medium, a UTM student paper, says her legal costs could amount to over $10,000 if the case goes to trial.

Regnier declined to disclose her salary. All full-time undergraduates at St. George and UTM pay UTSU $16.02 per session.

A Facebook group called “Tamil Solidarity Legal Defence Campaign” has been established by the Toronto Coalition to Stop the War and has over 500 members. The group hosted a June 20 fundraiser, inviting active members of union movements and CFS organizations.

A Maclean’s blog asked readers to debate the legitimacy of contributing to the legal fund. Some say the case is a matter of free speech while others denounce it as union leaders using student money to help their friends.

Hudson said it is common for labour and union movements to establish and support legal defence funds. For example, the University of Guelph Central Students’ Association has a legal defence fund for activists pursuing the indigenous land rights issue in Caledonia. UTSU has contributed to the fund set up by OPIRG Toronto for the Fight Fees 14, who staged a sit-in at Simcoe Hall last year.

Exploring antimatters in fiction

Dan Brown’s Angels and Demons recently made its way onto the silver screen, and has drawn massive audiences due to the overwhelming popularity of the book, as well as the film’s star-studded cast. However, few may stop to consider the principles of physics behind the story. Enter Scott Menary of York’s Department of Physics and Astronomy.

Menary is one of several Canadian and American particle physicists who are giving free public-friendly lectures at universities across the continent to elucidate the science behind Angels and Demons. Although many of the principles in the film are extremely complex concepts in theoretical physics, in his lecture at York’s Accolade West Hall in late May, Professor Menary managed to make the Higgs Boson and antimatter accessible to even a science-illiterate audience.

In Angels and Demons, Harvard Symbologist Robert Langdon (played by Tom Hanks) is called to CERN (the European Organization for Nuclear Research) to examine the symbol on the chest of a dead physicist, only to discover that a group of scientists called the “IIluminati” has resurfaced to seek vengeance upon their archenemy, the Catholic Church. Langdon discovers the Illuminati have plotted to destroy the Vatican using antimatter they have stolen from CERN.

CERN, Professor Menary explained, is the world’s largest research laboratory for particle physics and houses the Large Hadron Collider, a particle accelerator 100 metres underground. By accelerating and smashing protons along a 27-kilometre track, scientists are able to better understand the laws of nature while attempting to recreate the conditions that existed when the Big Bang occurred. Upon generating these conditions, scientists hope to discover the nature of mass as defined by the Standard Model of particle physics.

The Standard Model is a theory that accounts for all of the forces in the universe, except gravity, and stipulates that particles produced in the Big Bang did not have mass. According to the Standard Model, particles acquire their mass by moving through space and by interacting with a specific particle, which endows each of the other particles with mass. This unseen molecule, which occupies all of space, was named the “Higgs Boson”—or the “God particle” as it is referred to in Angels and Demons. Menary mentioned that the “Higgs Boson is the lynchpin of the standard model; something like it has to exist or the entire system is wrong.” Essentially, if the particles in the Big Bang were created without mass, there must be something out there that gave them mass.

In addition to possibly producing the Higgs Boson particles, physicists at CERN are producing antimatter particles, such as those believed to have formed during the Big Bang. Antimatter particles are identical in mass but opposite in charge to physical matter.

The Big Bang hypothesis posits that at the moment the universe was created, particles and antiparticles existed in equal amounts. However, one second after this moment of creation, the antimatter, as well as most matter, completely disappeared and only a small amount of matter was left to create the stars, the galaxies, and planet Earth.

Antimatter does not exist on earth—it needs to be produced at CERN in the Large Hadron Collider through a process of extremely high energy particle collisions. Antiparticles annihilate when they collide with particles. In order to trap them, the antiparticles need to be decelerated from 96 per cent to 10 per cent of the speed of light. They also need to be stored in a “Penning Trap Ultrahigh Vacuum” so that they do not come into contact with matter. In very simple terms, if antimatter were to interact with matter in real life, an explosion would occur.

In Angels and Demons, one gram of antimatter is expected to destroy the Vatican once released from the Penning Trap. Even though one gram of antimatter could in fact destroy the Vatican (it could even destroy all of Rome and the surrounding area), it is unrealistic for Brown to claim that the production of this one gram is even possible. CERN is only capable of producing one billionth of a gram of antimatter per year. It would take one billion years to produce just one gram of antimatter!

Although Dan Brown may not have used particle physics principles with complete accuracy in his book, Dr. Menary explained that this invisible, destructive molecule does in fact exist, and it’s simply a matter of separating fact from fiction.

Trinity finds elitist rep hard to shake

Despite the presence of a secret society, a tradition of wearing gowns at dinner, and a college chant that boasts “We are the salt of the earth” and “No new ideas shall ever come near to us,” Trinity College insists it has changed.

Episkopon, Trinity’s pseudo-secret society, remains a contentious issue for the college. Banned from holding events on college property in 1992, the group still holds meetings off-campus. The college severed connections with the group after protests that it had become increasingly homophobic, sexist, and racist. The society has a designated leader, the Scribe, who, according the group’s website, helps deliver messages of “gentle and corrective chastisement.”

“They would pick your worst feature and tell you you’re ugly. They would pick young men that they thought were possibly gay and call them fags, which if you are 17 or 18 years old and you are still in the closet […] is really painful,” Dana Fisher, Trinity’s former chaplain, told the Toronto Star.

“The bottom line, from my point of view, is that this is a group whose time has passed,” said Andy Orchard, Trinity’s provost. “I’ve spoken to the person I believe to be the oldest living [Scribe] and he resolutely refused to have anything to do with the current group.”

The group has seen a marked decline in attendance over the years. Orchard said around 35 members attended the last meeting, a significant number of whom were alumni.

“You can’t tell me that 35 people out of 1,700 represent a significant portion of the college,” said Orchard.

Trinity students have also voiced concerns over their college’s aloof image. When the Toronto Star published an article on Episkopon in May, characterizing the club as “a crass, northern version of Yale University’s mysterious Skull and Bones society” and suggesting that it alienates students, over 350 students joined the Facebook group called “Hey Toronto Star, my TRINITY is Open and Inclusive. Do your research.”

“It’s sort of a broader campaign. We’re trying to combat the negative perceptions that people have about Trinity,” said Gabe De Roche, a fourth-year Trinity student and creator of the Facebook group. He’s currently working on a website that will feature stories and news that highlight Trinity as a college that welcomes diversity in all its forms.

With approximately 37 per cent of students currently reporting that English is not their first language, Trinity says it is not the WASP-dominated institution that its detractors claim it to be.

The college appointed its first Community Outreach Don this year to encourage student involvement in the community. This year, Trinity was also the first post-secondary institution in Ontario to sign the President’s Climate Change Statement of Action, a pledge to reduce greenhouse emissions. Among other student groups, the college supports “Rainbow Trin,” an active gay and lesbian social support group.

“[Trinity] is a very distinctive place and I certainly don’t want to lose that distinctiveness,” said Orchard. “That’s one of the great things we have going for us, but at the same time there are some old attitudes and old values that we need to wean ourselves off without being too draconian about it.”

But some traditions, such as “The Humbling,” continue to taint the college’s lofty reputation. This student-run event involves Trinity students, decked out in gowns, walking to other colleges and apologizing to them for being superior. While the admin frowns on such behavior, it still persists in some capacity.

With 158 years of tradition and history shaping people’s perception, Trinity faces the challenge of moving forward instead of dwelling on the past.

“Perception lasts for a long time,” said Orchard.

Balloon telescope unlocks secret of the universe

Using a two-tonne telescope carried by a balloon the size of a 33-storey building, scientists from U of T and UBC have helped solve the mystery of the origins of starlight.

After two years spent analyzing data from the telescope BLAST (Balloon-borne Large-Aperture Sub-millimetre Telescope), physicists are releasing information about the birthplaces of ancient stars. The team of scientists from Canada, the U.S., and the U.K. recently revealed in Nature that half of the starlight in the universe comes from young, star-forming galaxies several billion light years away.

Dust usually conceals approximately half of a galaxy’s cosmic starlight and obscures its history of star formation. Flying the telescope above the atmosphere allowed the team to see deep into the universe, at wavelengths unattainable from ground level.

“Stars are born in clouds of gas and dust,” explains Barth Netterfield, a cosmologist in the Department of Astronomy and Astrophysics at U of T. “The dust absorbs the starlight, hiding the young stars from view. The brightest stars in the universe are also the shortest–lived, and many never leave their stellar nursery.”

BLAST’s thermo-detectors were able to identify the warmed dust, emitting light at far-infrared and submillimetre wavelengths invisible to the human eye, Netterfield explains.

“The history of star formation in the universe is written out in our data. It is beautiful. And it is just a taste of things to come,” says UBC professor Mark Halpern.

As UBC post-doctoral fellow Ed Chapin explains, the sub-millimetre telescopes used over the past decade could only create black-and-white pictures no bigger than the size of a fingernail. Today BLAST can easily produce hand-sized colour images, which marks a great advancement in the study of astronomy.

The data obtained from BLAST will help scientists better understand the history of the universe, and how it has changed over centuries. By providing them with a new outlook on the universe, BLAST will help scientists make new discoveries over a range of topics, like the formation of stars and the evolution of distant galaxies.

“In the distant universe, galaxies look very different,” explained Dr. Enzo Pascale, who led the U.K. team. “They’re much more massive, forming stars at a very high rate of thousands per year. If you look at our own Milky Way galaxy today, it forms perhaps just four stars a year.”

BLAST has also helped to answer pending decade-old questions. In the 1990s, NASA’s COBE satellite discovered the Far Infrared Background, a nearly uniform glow of submillimetre light. While scientists predicted that this radiation was coming from warmed dust-enshrouding young stars, the Far Infrared Background’s origins remained unsolved.

BLAST has finally unravelled this mystery, revealing that all of the Far Infrared Background comes from individual distant galaxies. BLAST can also examine star formation locally in the Milky Way, and the team is about to release the largest survey to date about the earliest stages of star formation, to be published in the Astrophysical Journal. The study proves the existence of a large population of cold clouds of gas and dust, which have cooled to less than minus 260 degrees Celsius. These cold cores are the birthplaces of stars.

In addition to leading the data analysis, the Canadian team that collaborated on BLAST also created most of the telescope’s hardware. The U of T team includes Barth Netterfield, department chair Peter G. Martin, and graduate students Marco P. Viero, Donald V. Wiebe (now a post-doctorate at UBC), and Enzo Pascale (now on faculty at Cardiff University).

Bring your kid to school

The pitter-patter of little feet will finally be heard in the halls of UTM next month, when the long-awaited UTM campus childcare centre opens its doors. Set to open August 4, the centre has 26 spots and is now accepting applications.

UTMSU began campaigning in 2007 for a daycare centre similar to those at sister campuses. The daycare was originally scheduled to open in January. When February came construction had not started, many doubted the centre’s future.

“We are looking forward to the Early Learning Centre’s new Mississauga campus daycare centre,” said Henry Ssali, VP external of UTMSU. “We hope that it is implemented as promised. The UTM campus is the only one among the three campuses that does not have a child care centre. We have parent students too. It’s is unfair,” said Ssali

The new facility, located next to the Leacock Lane residences, has room for 10 toddlers, aged 18 to 30 months, and 16 pre-schoolers, aged 30 months to five years.

Full-time students can expect to pay between $982 and $1,515 a month, depending on the age of the child. By comparison, full-time staff and faculty will pay more, as much as $1,180 to $1,790 a month. As well, part-time staff and students are offered the option of either 10 hours of daycare for $50 to $107 a day, or five hours of daycare for $27 to $54 a day.

The price is still too expensive for students, Ssali said, and might mean the daycare will be more accessible to faculty and staff. “Some students cannot afford tuition, yet alone child care. Many student parents will instead look someplace else,” he said.

  • Dollars for Daycare:Offers financial assistance for full-time UTM, St. George, and Scarborough campus students and part-time undergraduate students with financial need. International students with children can apply as well. Applications should be sent to the parent’s respective college.

  • Childcare Bursary Plan: Non-repayable funding offered through OSAP. Eligible students have childcare costs for three or more children and receive OSAP assistance. A separate application is required.

  • U of T Scarborough N’sheemaehn Child Care Centre Bursary: Eligible to students demonstrating financial need who have (or will have) one or more children at N’Sheemaehn. The bursary must be applied to childcare fees at N’Sheemaehn. Application required. Deadline: July 30.

  • U of T Mississauga student-parents (both undergraduate and graduate) can apply for a childcare grant, administered by the U of T Mississauga Office of the Registrar. They can submit a UTM Grant Application and Child Care Supplement form starting in late October. For more information, visit the Office of the Registrar to speak to an awards officer in person.

  • University employees are eligible for a partial reimbursement of childcare expenses under the university’s Childcare Benefit Plan. Employees can find out more by referring to