What the toolkit includes
- Editable Python 3.9+ source, English instructions and a self-test. Only the Python standard library is required.
- Five example surfaces and 44 rows of reference CSV output, including base sag, polynomial departure, total sag and radial slope.
- An optional ZPL macro and an original example lens. Total sag was cross-checked at 31 points on three surfaces in OpticStudio 18.9.0.
Surface model
Use signed vertex radius R in millimeters, conic constant k and unnormalized A₄, A₆, A₈ and A₁₀ terms. Compare the base conic, polynomial contribution and total sag. The sample and web preview use the same units.
Delivery and use
The digital product is an English-language ZIP for running calculations locally with Python. Its geometric model evaluates an ideal, rotationally symmetric surface at the specified radii. Review the input conventions before using results in an engineering decision.
A toolkit purchase licenses one individual or one named user, including a named user working for a company. That user may use and modify the scripts for their own internal optical engineering work. They may share resulting reports, charts and CSV output with clients. The source toolkit and modified copies may not be redistributed or resold. Applicable statutory rights are preserved.
Terms of service and toolkit license · Privacy policy
Order support and refunds
Sales have not opened, so there are no toolkit orders or charges at this stage.
For a missing download or a refund request after you place an order, email the editorial team with your order number and a brief description. Creem handles the payment and processes applicable refunds. Your statutory rights under applicable law remain available.
Engineering review
For a review of an asphere calculation, describe the question, units and desired deliverable in a short, nonconfidential email. We can discuss the scope and whether a separate quote is appropriate.