Rishav’s Mentorship | School of Futuristic Intelligence
The School of Futuristic Intelligence

Private Mentorship Space

Rishav’s Mentorship

Your place to return to every session, revisit the work, continue your projects and practices, and see your studies taking shape over time.

3Sessions
3Hours together
1Resources & explorations
Return · Explore · Continue

Your Sessions

Everything from this course of study, gathered here so you can return to the work and continue where you left off.

Aug192026
Session64 minutes together

Seeing Why Circle Formulas Work — Pi, Tau, and Visual Models

Session Overview

Rishav explored the new SFI School app library through visual multiplication, cubes, circles, and polyhedra. The main lesson visually derived circumference and circle area—rather than merely memorizing formulas—and connected π, τ, radius, diameter, and circumference. Rishav also suggested several improvements for the apps.

We can keep trying to get more decimals, but pi itself is the answer to a question.
— The Bhakti Math Guru

Circle formulas made visible

Unrolling circle sectors into a near-rectangle showed where the formulas come from.

  • Radius and diameter: The radius r runs from the center to the circle; the diameter d crosses the whole circle, so d = 2r.
  • Circumference: C = πd = 2πr = τr, where π ≈ 3.14 and τ ≈ 6.28.
  • Area: The rearranged circle has height r and width C/2 = πr. Therefore A = πr × r = πr².
  • Meaning of π and τ: π is the number of diameters around a circle; τ is the number of radii around it. The decimal expansion of π continues indefinitely.
  • Approximation: 22/7 is very close to π, while larger rational approximations such as 333/106 are closer still.

Other visual explorations

Visual Cubes supported decomposing cubes such as 11³ = 1,331, 12³ = 1,728, and 13³ = 2,197. The polyhedra exploration showed solids, their nets, and their numbers of vertices, edges, and faces.

Daily app exploration

Set a timer for 20–30 minutes each day and explore the math apps thoughtfully.

  • Main focus: Practice visual multiplication and the circle/π exploration; other apps may also be explored.
  • Do the mathematics: Do not only move the controls—predict, calculate, and explain what changes. For example, determine the circumference and area when r = 1.
  • Movie homework: Watch Ender's Game, the recommended film about highly capable children solving a world-scale problem.

App ideas you helped develop

Ideas included test and challenge modes, progress tracking, a comment or feedback feature, draggable controls, and a large-number mode for Visual Cubes. The next few lessons will continue with circles and geometry, including a planned π app.

Aug122026
Session56 minutes together

Decimals, Fractions, and the Repeating Cycle of 1/7

Session Overview

After a short mental-multiplication warm-up, you chose to explore decimals and their relationship to fractions. The main investigation focused on why some decimals terminate while others repeat, especially the six-digit cycle in 1/7.

The whole idea is you need to do something on a regular basis.
— The Bhakti Math Guru

New study routine

Practice math after school for 20–30 minutes, Monday through Friday, with weekends off. The goal is a consistent routine rather than rushing to prepare immediately before class.

Decimals as fractions

Decimal notation is based on the human convention of using base ten. Decimal place values represent tenths, hundredths, thousandths, and so on, and the resulting fractions can often be simplified.

  • Terminating examples: 0.2 = 2/10 = 1/5; 0.25 = 25/100 = 1/4; 0.125 = 125/1000 = 1/8.
  • Repeating examples: 1/3 = 0.333… and 1/6 = 0.1666…. A displayed final digit may be rounded, even though the actual repeating digit continues forever.

Why 1/7 repeats

You explored 1/7 = 0.142857142857…, whose six-digit block repeats. Since 999,999 ÷ 7 = 142,857, the fraction 142,857/999,999 equals 1/7; the recurring remainder explains why the same block starts again indefinitely.

  • Related pattern: Fractions with denominators made of 9s naturally generate repeating blocks; for example, 1/9 = 0.111… and 1/11 = 0.090909….
  • Vocabulary: A reciprocal reverses a fraction, such as changing 1/7 to 7/1.

What to revisit

Review the decimal–fraction conversions and reconstruct the repeating pattern of 1/7. You can also explore other unit fractions and compare the lengths of their repeating cycles.

Inspect longer repeating decimals

Wolfram Alpha was used to examine expansions that are difficult to calculate by hand, such as 1/17, which has a 16-digit repeating block.

Previous homework

Complete the homework from the previous session. No new homework was assigned.

Jul292026
Session 155 minutes together

Visual Multiplication and the Difference of Squares

Session Overview

Rishav used an animated area grid to calculate squares and other products, then began visualizing the same decompositions mentally. The session developed the difference-of-squares identity through geometric rearrangement and briefly connected repeated multiplication with exponents and logarithms.

It's not just about shortcuts, right, but it's about noticing the pattern.
— The Bhakti Math Guru

Seeing multiplication as area

The grid breaks a product into smaller rectangles that can be added mentally. For example, 26² can be seen as 20² + 2(20×6) + 6² = 400 + 240 + 36 = 676. After working visually, Rishav practiced closing his eyes and recalling the grid.

  • Squares practiced: Examples included 21² = 441, 31² = 961, 41² = 1,681, 51² = 2,601, and 101² = 10,201.
  • General multiplication: The same area method was applied to products whose factors were different, such as 11×12 and 27×23.

Difference of squares

Products equally spaced above and below a central number follow (n−d)(n+d) = n²−d². The grid showed this as a large square with a smaller square missing.

  • 34×26: (30+4)(30−4) = 30²−4² = 900−16 = 884.
  • 27×33: (30−3)(30+3) = 30²−3² = 900−9 = 891.
  • 79×81: (80−1)(80+1) = 80²−1² = 6,400−1 = 6,399.

Powers and logarithms

Repeated factors were regrouped to identify powers: 25² = (5²)² = 5⁴ = 625, and 27² = (3³)² = 3⁶ = 729. Rishav also found 4⁶ = 4,096 and recognized that asking which power of 2 equals 4,096 is a logarithm question: log₂(4,096) = 12.

Practice between sessions

Practice multiplication every day so the next session can move forward without a full review.

  • Grid practice: Use the area grid for perfect squares and other multiplication problems, then try to visualize the grid without looking.
  • Difference-of-squares practice: Choose factor pairs equally spaced around a convenient center and calculate the central square minus the smaller square.
  • Check results: The custom program occasionally displayed an incorrect breakdown, so verify answers independently when something looks inconsistent.
Resources

Continue the exploration

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