Model on canvas
Place nodes on the canvas, connect them with members, drag the geometry into shape, or edit coordinates numerically when exact spans and heights matter.
Draw nodes and members, assign pinned, roller, or fixed supports, add point and distributed loads, then solve and inspect reactions, axial force, shear force, bending moment, and displacement diagrams.
Build the analytical model, define boundary conditions, and check the force path without leaving the browser.
Place nodes on the canvas, connect them with members, drag the geometry into shape, or edit coordinates numerically when exact spans and heights matter.
Use pinned, roller, and fixed restraints. Apply joint forces, nodal moments, UDLs, and UVLs with global or local directions and editable load magnitudes.
Switch between model, axial, shear, moment, and displacement views so the reaction labels and diagram shapes can be checked against the load path.
Run early portal-frame, braced-bay, beam-column, or support-sensitivity checks before committing to a heavier desktop model. Use the diagrams to sanity-check hand calculations and load paths.
Compare pinned and fixed bases, move loads along a span, and see how support reactions, shear diagrams, bending moments, and lateral displacement change with each modelling choice.
Demonstrate restraint, sway, moment redistribution, and load combinations live in class. Students can reproduce the same model and inspect the result diagrams on their own devices.
Use the same sequence an engineer would use when checking a 2D frame model.
Place joints, connect beams and columns, and edit node coordinates so the analytical frame matches the span lengths, storey heights, and member layout you want to study.
Choose support restraints, add joint loads or member loads, and organize them into load cases when dead, imposed, wind, or test loads need to be checked separately.
Solve the selected case, then check reactions for equilibrium, internal-force diagrams for load path, and displacement shape for stiffness or restraint issues.
Explore practical guides for modelling frames, choosing support assumptions, comparing beam and frame behaviour, and getting more value from the NextForm workspace.
NextForm is aimed at planar frame models made from nodes and straight members. It supports common idealized restraints, joint loads, member distributed loads, load cases, combinations, and result views for reactions and member actions.
Yes. Open the frame workspace, place nodes and members, assign supports and loads, then press solve. No account or installation is required for the browser workflow.
Use NextForm as a modelling and review aid. Confirm units, restraints, load factors, member releases, equilibrium, and code-specific design checks before relying on any result for real work.
NextForm builds practical web tools for engineers, students, and professionals who need faster ways to model, understand, and improve technical workflows.
We focus on browser-based tools that reduce setup time and help users move from modelling decisions to useful analysis output more quickly.
Frame and beam analysis are our current foundation, with formwork and structural design workflows also part of the product direction.
NextForm should help users explore assumptions, compare alternatives, understand result diagrams, and speed up repeated engineering tasks.
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If you are reporting a solve or modelling issue, include a clear reproduction path and the expected result.