An optimization result can sit between the parameters a team learns and the outcome it cares about. SpinForge Warp makes the optimization step differentiable, so a compatible learning workflow can propagate feedback through that step rather than treating it only as a separate black box.
BUILT FOR
Teams connecting optimization to machine learning, differentiable simulation or computational design.
CHALLENGES → PRODUCT RESPONSE
The problem you face. What the product changes.
YOUR CHALLENGEWITH SPINFORGE WARP
01
Optimization breaks the feedback path
A separately executed search can leave a learning workflow without a gradient through its decision step.
SpinForge Warp provides differentiable annealing on NVIDIA Warp, making that optimization step part of the supported backpropagation workflow.
02
Learning and search are tuned separately
Parameters selected upstream may not reflect what happens inside the optimization step.
The differentiable path lets compatible training use feedback through optimization, tying parameter changes to the downstream modeled objective.
03
A gradient needs a defined interpretation
An optimization-related gradient is useful only in the model and numerical regime where it is evaluated.
Qualify the objective, gradient behavior and numerical conditions together with the customer’s accepted end-to-end task.
WHAT YOU GET
A defined capability. A useful result.
01
Differentiable optimization
Annealing that participates in a supported backpropagation computation.
02
NVIDIA Warp implementation
The product’s stated execution foundation, not a new proprietary GPU language.
03
A learning integration point
A route to connect the optimization step to a compatible training objective.
04
A defined evaluation scope
Agree numerical checks, task quality and complete execution cost for your workflow.
EXAMPLE CUSTOMER WORKFLOW
Learn a decision-dependent parameter
A team wants an upstream parameter choice to reflect the optimized result downstream.
Illustrative customer use—not a new benchmark or completed customer deployment.
01→
Define the modeled objective and the optimization step.
02→
Integrate the supported differentiable operation into the learning workflow.
03→
Evaluate gradients, task outcomes and total training/execution cost.
FIT & ACCEPTANCE
Start with the task. Agree the useful outcome.
What you bring
The differentiable model, optimization objective, supported execution environment and acceptance criteria.
What a useful evaluation measures
+Gradient behavior within the qualified model
+Quality of the downstream task
+Total compute and memory cost
Delivery
License the selected capability, commission an implementation, or agree an operated service. Infrastructure and additional engineering are specified separately.
QUESTIONS BEFORE BUYING
A clear scope. A clear relationship.
What is the important boundary?−
Differentiability is a product capability, not a guarantee of a global optimum or a universal learning speedup. The supplied table does not provide a product-specific benchmark, arbitrary-operation coverage or a universal gradient-correctness claim.
How is it priced?+
No new standalone price is supplied for this product; request a scoped proposal. The platform plans buy qualified workflows and capacity, not a second charge every time a compatible method is selected. Existing bundle inclusions do not expand automatically.
How do we get access?+
An existing product in the SpinForge portfolio. Request the release, available invocation interfaces and setup for your selected workflow; this publication does not invent executable commands or MCP tool names.
PUT THE PRODUCT TO WORK
Tell us what needs to improve.
Bring a task, an accepted outcome and the environment in which the product needs to work.
Select the capability you need directly or include its compatible role in a qualified platform workflow. Production scope identifies release, environment, capacity and support; a product count is not an entitlement.