Mita Dasog is an associate professor at Dalhousie University in Nova Scotia, Canada.[1] She has received the Emerging Professional Award, the Canadian Council of University Chemistry Chairs Doctoral Award, is a “Top 25” Global Young Scientist in Sustainable Research, and is one of the top 150 women in STEM for her outreach efforts with youth and young women.[2]
Early life and education
Mita Dasog was born in Saskatoon, Saskatchewan. Her family left Canada to return to her parents' home country of India, but she returned to Saskatoon to start university. She received her BSc with high honours in 2009 from the University of Saskatchewan. She then continued her studies by completing a PhD at the University of Alberta where her work focused on the synthesis, properties, and applications of siliconquantum dots. Her research is specifically focused on developing sustainable silicon products in order to make computers and cell-phones more environmentally friendly.[3] Her work was recognized by the Canadian Council of University Chemistry Chairs when she received the Doctoral Award in 2015 for exceptional doctoral research in Canada.
Since starting her position at Dalhousie University, Dasog has ensured that her lab group is actively involved in science outreach activities. In addition to hosting several speaking events for schools and the public, Dasog's group has previously organized a dye-sensitized solar cell workshop as part of the 2018 National Chemistry week. The group has further participated in both the 2018 Halifax STEMFest (where renewable energy technologies were discussed with high-school students) and the 2019 Techsploration Alumni Conference at the Nova Scotia Community College.[6]
Awards/honors
Dasog’s most recent awards and honors include:
2019: President’s Emerging Investigator Research Excellence Award, 2019[1]
2021: Izaak Walton Killam Memorial Research Chair, 2021[1]
Publications
Some examples of Dasog’s notable catalyst-focused publications include:[7]
Photocatalytic Hydrogen Generation using Mesoporous Silicon Nanoparticles: Influence of Magnesiothermic Reduction Conditions and Nanoparticle Aging on the Catalytic Activity