Learn how to perform mathematical and geometric operations in Dynamo to create, measure, and modify geometry. Dynamo learners will understand how to use math nodes, vectors, transformations, and geometry relations to build parametric design logic.

💡 Goal: Learn to use geometric measurement nodes.
Create two points at (0,0,0) and (10,0,0), then measure the distance between them.
10.0
Tags: #geometry #distance #math

💡 Goal: Understand direction and magnitude.
Generate a vector that starts at (0,0,0) and ends at (10,5,0), then calculate the length of this vector.
Vector with length ≈ 11.18
Tags: #geometry #vectors #math

💡 Goal: Work with numerical precision.
Create numbers with decimals [2.345, 3.789] and round each to two decimal places.
[2.35, 3.79]
Tags: #math #rounding #precision

💡 Goal: Use logic to generate multiple points.
Create a 5×5 grid of points spaced 2 units apart in X and Y directions.
25 points forming a uniform grid.
Tags: #geometry #points #matrix

💡 Goal: Understand point data (X, Y, Z).
Extract and display the X, Y, and Z coordinates of a list of points.
Lists of X, Y, Z values.
Tags: #geometry #points #analysis

💡 Goal: Understand curve parameterization.
Create a Line than a NurbsCurve then divide this Line/NurbsCurve into 10 equal parts.
10 evenly spaced points along the line/NurbsCurve.
Tags: #geometry #lines #points #parametric

💡 Goal: Understand plane orientation.
Create a plane using three points, then extract its normal vector with “Plane.Normal”.
A visible plane and perpendicular arrow showing its normal direction.
Tags: #geometry #planes #vectors

💡 Goal: Explore vector operations.
Create two vectors — one along X-axis, one along Y-axis — and measure the angle between them.
90°
Tags: #geometry #vectors #analysis

💡 Goal: Use formulas and parameters to generate dynamic geometry.
Create circles with radii [5,10,15,20] centered at the origin; all controlled by a single parameter multiplier.
Four concentric circles scaling dynamically when radius factor changes.
Tags: #geometry #math #parameters #circles

💡 Goal: Apply transformations with vector logic.
Create points along X-axis, then move them 5 units in Y-direction using a Vector, then create line from each 2 corresponding points, then calculate the length of the lines by 2 ways (Numerical way "using math formulas - L = √((x₂ − x₁)² + (y₂ − y₁)²) ", and Geometrical way using dynamo nodes).
Parallel lines facing the Y axis, and list of length of each line.
Tags: #geometry #vectors #transformation

💡 Goal: Understand geometric limits of Revit elements.
Select a few Revit elements and create bounding boxes using “Element.BoundingBox”.
Extract min and max points then calculate the center point of the bounding box from those points, then check if the points are inside the corresponding elements or not.
List of bools indicating if the center of the bounding box lies inside the geometry of the element or not
Tags: #revit #geometry #boundingbox

💡 Goal: Integrate Revit data with math calculations.
Extract room areas and convert them from m² to ft² using multiplication.
[Area_f² = 10.7639]
Tags: #revit #math #conversion #parameters

💡 Goal: Combine trigonometric math and geometry creation.
Use sin() and cos() functions with a number sequence to create points forming a helix curve.
3D spiral curve around Z-axis.
Tags: #geometry #math #trigonometry #advanced

💡 Goal: Apply nested list logic to measure relationships.
Generate 10 random points and calculate the distance between every pair.
A 10×10 distance matrix of numeric values.
Tags: #math #lists #geometry #matrix #analysis

💡 Goal: Combine math and Revit logic for geometric control.
Select several Revit columns and adjust their top offset so each follows a slope defined by the formula Z = 0.5 × X.
Columns increasing in height linearly along X-axis.
Tags: #revit #geometry #math #parameters #automation

💡 Goal: Simulate interactive geometry based on distance logic.
Generate a grid of points and one attractor point, Then scale nearby points’ Z-coordinates based on distance.
3D topography that rises near the attractor.
Tags: #geometry #points #vectors #parametric

💡 Goal: Integrate geometrical calculations with Revit Elements.
Select several Revit elements then calculate the centroid of those elements' geometries, then calculate the Areas of their cross section that intersect with a planner surface facing XY-Basis axis, and this planner surface origin is created from each element's origin. [in a string format]
List of Areas ["5.12 m2", "10.8 m2", "16.0m2"]
Tags: #revit #geometry #math #parameters #automation

