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The average ten year old is capable of answering the following questions within seconds if taught properly. However, domestic students entering university are stumped by most of them. If you can multiply and divide, then you can solve these without a calculator but perhaps with a small piece of scrap paper. Try them:

  1. In how many distinguishable ways can you rearrange the letters in "c-h-e-e-s-e"?
  2. How many six all-letter character license plates are there that do not contain the sequence FART anywhere?
  3. A bowl contains two candies and three cockroaches. If two items are drawn, then what is the probability at least one is a candy?
  4. A bowl contains three candies and three cockroaches. What is the probability of drawing the three candies before any of the cockroaches?
  5. A bowl contains one candy and three cockroaches. What is the probability of drawing the candy on the try (), if the cockroaches are thrown on the floor after being drawn?
  6. A bowl contains one candy and two cockroaches. What is the probability of drawing the candy on the try, if the drawn cockroaches are replaced in the bowl after being drawn?
  7. What is ?
  8. A frog jumps 1 meter, then half a meter and then keeps jumping each time half as far as the last jump. How far does the frog eventually jump in total?
  9. What is ?
  10. Find the greatest common divisor of 105 and 147.
  11. Find the least common multiple of 45 and 60.
  12. Simplify .
  13. Find all solutions to .
  14. Find all solutions to .

While it might not be apparent, these questions are moving in the direction of artificial intelligence and financial mathematics.

My wife who has not had any mathematical training beyond high school some twenty years ago got the majority of these correct within seconds as the majority of people should. She went to school in China.

Why is Math important?

I've heard many times children or even adults tell me "Why do I need to learn maths?"" or "When am I going to need to understand exponents?". At it's core mathematics is a language. Our ability to dream an endpoint and figure out how to get there is a skill that is developed through mathematics. Even if you do not formally use numbers or equations in your day to day life, the ability to think logically and abstractly is a skill that is developed through mathematics. Practicing mathematics is a way to exercise your brain and develop the ability to think critically and solve problems. Understandably, many people do not enjoy studying pure mathematics just like many people do not enjoy studying grammar; however, many kids might enjoy actualizing their dreams of being the leading scorrer, decyphering a secret message or even building a robot, a rocket. How about building business, understanding why some trends are happening, or even predicting the future?

There was an article that was published a while ago that tried to rationalize the evolutionary function of dreams. The article suggested that dreams were a way for our brains to simulate situations so that we could be better prepared for them in real life. This could be useful in visualizing potential threats or opportunities. To build on ideas and communicate concepts, we use language. We want to adapt our learning and teaching methods to the interests and needs of the students. Our dream is to provide a system where students can learn from their peers. Where we can map their interests and provide them with a playground to simulate and communicate their dreams using the language of mathematics and programming.

Mathematics in Canada

In Canada, there is a general anxiety towards mathematics. There are several reasons for this, but the outcome is that on an international scale Canadian are missing out on the next wave of innovation. The wave of Artificial Intelligence, Machine Learning, and Data Science is here. Our universities classrooms are filled with international students who are far more comfortable with the topics being taught. With one of the most educated populations in the world, we have demonstrated that we have the willingness to learn, but then why are we so afraid of mathematics? In North America why are we relying on H-1B programs to import talent to fill the gaps STEM workforce?

Our education system has a "leave no student behind" mentality. With a relatively small population we need to stop underestimating the potential of our students, and start challenging them to reach their full potential. We need to foster a culture that is excited to access in education limited to the ceiling of a sylybus or curriculum. Just like we would not want a swimmer have to train at pace that would not allow them to strive for their potential, we should allow the students that are ready to learn the next concept to continue to grow in learning. The expectation of the education system in North America would expect independent research for those interested to begin at the age of 38. To contrast that, Einstein invented E = MC2 at the age of 28, which coincidentially was the same age Edison invented electricity, Bell invented the telephone, and Kiyosi Itô invented stochastic calculus (in Japan during the second world war). Indeed, Antoli Skorokhod had completed all his great works by this age

At the same time we need to allow students to explore concepts at their own pace, especially in subjects where concepts build on the prerequisites. We need to normalize and accept that students learn at their own pace. Just because a student is not ready to learn a concept at the age of 10, does not mean they will be any less capable of understanding the concept at the age of 20. However, expecting they already know the concept at the age of 10 and build on those concepts will only compound their frustration and slow down their growth in that subject.

Mathematicians helping Mathematicians

Why are so many people afraid of math? Why do so many people say "I'm not a math person"? In schools everywhere in North America, there has been a generation (if not more) of teachers who have been teaching mathematics while they themselves have been afraid of math. Discovery mathematics or "new math" only works if the teachers are comfortable with the material, and willing to explore different approaches with the students. Discovery mathematics is constrained in that the math curriculum has strict timelines on what topics are being covered.

We have the opportunity to change the way mathematics is taught in North America. Once we have students comfortable with the material, we will give them the opportunity to test their knowledge by teaching their peers. We have the added benefit of having math experts to support the instruction of concepts, and will allow students to explore other perspectives newer students may have. This, we believe, was the true spirit of discovery mathematics.

This method will bring a new generation of mathematicians who are confident. Empethetic, and willing to explore new ideas.

Our Program

We are looking at launching our training program k→∞ with the goal of allowing students to progress at their own pace. We have the outline of three major groups:

  1. Kindergarten to Infinity

    Concentrate on Numbers and Sets

    • Supports Early Literacy & Numeracy – Helps children recognize numbers, sequences, and basic logic.
    • Develops Critical Thinking – Early exposure to problem-solving builds cognitive skills.
    • Makes Math Fun & Intuitive – Visual, hands-on activities introduce numbers and patterns in a playful way.
    • Prepares for School Success – Builds a strong foundation in numeracy before formal schooling.
    • Sparks Curiosity & a Love for Learning – Encourages exploration through engaging, story-driven lessons.
  2. Kids to Infinity

    Phase in Counting and Probability, Algebra, Algorithms, Geometry and Trigonometry, and an Introduction to Data

    • Builds Strong Math Foundations – Gamification, repetition, and real-world applications make abstract concepts easier to grasp.
    • Interactive & Gamified Learning – Keeps kids engaged with challenges, rewards, and immersive problem-solving.
    • Develops Computational & Logical Thinking – Learning algorithms and logic strengthens coding and STEM-related skills.
    • Boosts Confidence & Mastery – Encourages peer-to-peer learning, allowing kids to teach and support each other, reinforcing their own understanding in an interactive classroom setting.
    • Prepares for University & Future Careers – Equips students with essential math, data, and coding skills needed for higher education and in-demand careers in technology, science, and business.
  3. Knowledge to Infinity

    University level mathematics, data science and statistics.

    • Enhances Financial & Data Literacy – Helps professionals and entrepreneurs understand probability, risk, and investment strategies.
    • Supports Career Growth & Upskilling – Coding, algorithms, and data analysis skills are valuable across industries.
    • Strengthens Logical Thinking – Improves problem-solving in professional and personal life.
    • Boosts Confidence in Technology & Decision-Making – Develops a strong understanding of coding, probability, and machine learning, making complex concepts more approachable.
    • Accessible & Flexible Learning for All Ages – Ideal for seniors, adults, and lifelong learners looking to expand their knowledge.

The first two units will be meant to be taken by children and possibly their parents while the last one by anybody who is ready. The current outline are to ensure we have subject experts and material. We would also like to have a program that is focused with an end goal in mind. k→∞ will not follow the Alberta curriculum but rather plan the fastest and most motivated route towards and through the mathematics and algorithms behind machine learning, artificial intelligence and financial mathematics. The education will be deep, broad and complete. In the future, it may broaden its focus.

Contact Us

If you have any questions, feel free to reach out to us at borrey@muchlearning.org.

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