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Helping students have more lightbulb moments!


Tailored Professional Development Pre-k-12

As teachers, our goal is to nurture a love for learning in our students and for them to experience more light bulb moments. Nothing is more rewarding for a teacher when their students have that Aha moment and understand why they are learning something! 

I offer a variety of services that last from a few days of face-to-face workshops to long-term school partnerships that can carry over to a period of years for Pre--k to 12 educators.

My role is as a coach to support curriculum development towards the implementation of a concept-based and inquiry-led curriculum that incorporates  Design Thinking and effective eLearning practices.​

Many schools are recognizing that ongoing, sustained professional development for teachers is necessary in order to have a true impact on student learning. 

My school partnerships have led to a direct impact on student learning and together we co-create an ongoing, well- thought out professional development strategy that addresses the specific context of the school and supports teachers' growth.  


 AI-Powered Pedagogy refers to the utilization of artificial intelligence (AI) in educational settings to enhance teaching and learning. It involves the use of AI tools and systems to facilitate a transformation of pedagogy to ultimately create more engaging inquiry based learning experiences and concept-based units. 

Key questions for AI-Powered Pedagogy:


  • How might we raise awareness and engage students in thoughtful discussions about the ethical implications and biases present in AI algorithms? 

  • How might we foster a culture of responsible and unbiased use of AI technologies in the classroom?

  • How might we integrate AI tools and resources to cultivate critical thinking skills in students across various subjects and grade levels? 

  • How might we empower students to apply AI concepts and strategies to address global challenges in areas like sustainability, healthcare, urban planning, or UN SDGs. 

Design Thinking is a framework and philosophy that promotes creative problem-solving and this process has brought us world-changing innovations such as Airbnb, the insulin injection pen, and the computer mouse and cursor gesture. Design thinking is increasingly being adopted by enterprises, governments, and education systems around the world.

Key benefits of Design Thinking for educators and learners include:

  • Helping navigate ambiguity and complexity

  • Ensuring learner empathy and human-centricity of solutions in every step

  • Articulating and prioritizing challenges toward solutions

  • Gaining agility and flexibility in solutions development

  • Helping nurture collaboration through connection

  • Developing creative confidence while having fun


Some guiding questions for Design Thinking:

  • How might we apply the fundamental tenets of Design Thinking to enable inquiry-based learning?

  • How might we use fundamental principles of design thinking to solve education/business / social/human challenges?

  • How might we adopt a more human-centric approach to problem-solving?

  • How might we align interactions of different people with different stakes in our school community?

  • How might we maximize the potential of a strategic innovation process that has proven to produce tangible results?

AI-Powered Pedagogy & Design Thinking


Traditional mathematics learning focuses on rules and procedures with little understanding of the conceptual relationships within the discipline of mathematics—and mathematics is a language of conceptual relationships. Traditional approaches assume a deep understanding of concepts and fail to teach for transferability or to consider the context.


In developing a math curriculum that focuses on deep conceptual understanding we look at the following questions:

  • Why is it important for students to learn conceptually?

  • What are the facts, processes, and concepts in mathematics?

  • How do I craft generalizations in mathematics?

  • How do I plan units of work for a concept-based mathematics curriculum?

  • How do I captivate and engage students? Practical strategies for the classroom?

  • How do I integrate technology to foster conceptual understanding? 

Concept-Based Mathematics:
Teaching for Deep Understanding


With the exponential growth of information and knowledge, students need to move to a higher level of abstraction. We need to develop students’ ability to critically think and reason, in order to solve complex problems and create new ideas. In other words, our students need to be comfortable with navigating ambiguity, build resilience, and develop creative confidence.  

Developing curriculum for deep understanding in all disciplines is a key goal of all teachers.

The following questions can stimulate our thinking in this area:

  • How is knowledge structured and how can we utilize that structure to develop the intellect?

  • How can we move to a three-dimensional curriculum and instruction model that allows us to compact the overloaded curriculum, and teach both factual and conceptual knowledge with greater depth and rigour?

  • What is a conceptual lens and how can we use it to develop higher levels of thinking and increased motivation for learning?

  • How can we design instruction to achieve synergistic thinking between the factual and conceptual levels of knowledge and understanding?

  • How do we scaffold thinking to deeper levels?

  • How do we develop different kinds of guiding questions to path student thinking from the factual to the conceptual level of understanding?

  • What is the difference between an Activity and a Performance of Deep Understanding?

  • What does concept-based instruction “look like” in the classroom?

Concept-Based Curriculum &
Instruction Pre-k-12

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