
GPU kernel profiling and optimization workbench
Reduce context switching and manual tuning effort while keeping kernel changes reviewable.
- For
- GPU and HPC developers profiling, debugging and optimizing kernels
- Solves
- Kernel work is split across an editor, a profiler, a compiler explorer and separate AI tools, so hotspots, compiler output and tuning changes are hard to trace to one reviewed result.
- Delivers
- Reviewed optimization report with benchmark evidence
- Built in
- about 6 weeks of creation time, MVP in 7 days
- Investment
- $12,500 for the MVP, $42,500 for the full product
- Run it
- Inside your business, or as part of your offer to clients
What it does
Reduce context switching and manual tuning effort while keeping kernel changes reviewable.
- Edit GPU kernels in a dedicated workspace.
- Profile kernels in the editor to find hotspots.
- Suggest concrete AI optimizations for kernel performance.
- Emulate GPU hardware to test kernel behavior.
- Compare generated code and compiler output.
- Show GPU reference material while coding.
- Display live performance metrics during work.
- Tune CUDA kernels without manual tuning code.
- Support advanced GPU architectures.
- Support multiple GPU languages and DSLs.
- Benchmark kernels and measure performance changes.
- Provide GPU virtualization for test workflows.
- Optimize kernels from analysis through final tuning.
- Combine editing, profiling and related tools in one place.
- Compare the reviewed result with the recorded baseline and value assumptions.
- Capture corrections and named-owner approval before consequential use.
- Export a versioned reviewed optimization report with benchmark evidence, source references and unresolved questions.
Everything these tools do, in one app
- GPU code editor Provides an editing environment tailored for writing GPU kernels and compute workloads.Found in RightNow, wafer
- Integrated profiling Profiles GPU code inside the editor to find performance hotspots and bottlenecks.Found in RightNow, wafer
- AI optimization suggestions Uses AI to suggest concrete ways to improve GPU kernel performance.Found in RightNow AI 'V2.0', RightNow
- GPU emulator Emulates GPU hardware to test kernel behavior without needing the target hardware.Found in RightNow
- Compiler explorer Shows and compares generated code and compiler output without leaving the editor.Found in wafer
- In-editor GPU documentation Provides GPU reference material and documentation directly while coding.Found in wafer
- Real-time feedback Gives live performance metrics and feedback as you work on kernels.Found in RightNow AI 'V2.0', RightNow
- No-code interface Lets users tune and optimize CUDA kernels without writing manual tuning code.Found in RightNow AI 'V2.0'
- Advanced GPU support Works with advanced GPU architectures for broader compatibility.Found in RightNow AI 'V2.0'
- Multi-language support Supports multiple GPU programming languages and DSLs in the editor.Found in RightNow
- Benchmarking tools Helps benchmark GPU kernels and measure performance changes.Found in RightNow
- GPU virtualization Provides GPU virtualization for testing and optimization workflows.Found in RightNow
- End-to-end optimization Offers tools to optimize kernels from analysis through final tuning.Found in RightNow
- Unified editing experience Combines editing, profiling, and related tools to reduce context switching.Found in wafer
What goes in, what comes out
- Kernel source
- Build settings
- Profiling traces
- Target GPU details
AI drafts, people review. Technical delivery workspace with managed implementation.
- Reviewed optimization report with benchmark evidence
How it works
The workflow
- InStart with
Kernel source, build settings, profiling traces and target GPU details
- 1
Confirm the buyer's problem and scope
- 2
Collect kernel source
- 3
Build settings
- 4
Profiling traces and target GPU details
- 5
Then follow this sequence: 1
- OutFinish with
Reviewed optimization report with benchmark evidence
AI does the heavy lifting, people stay in charge
Use AI to interpret permitted inputs, suggest structured mappings and generate candidate outputs for the three stated task modules. Use deterministic code for arithmetic, schema validation, hard constraints and reproducible tests. Review source-linked explanations and uncertainty before accepting results. One fixed GPU architecture family and one supported language set; final correctness and production tuning checks remain with the developer. A model suggestion is never a verified fact, professional decision or authorization to act.
What your team sees
Primary screens: Project and target setup, Editable kernel workspace, Profiling and benchmark review, Client proof and delivery. Use a thumbnail gallery for kernels and runs, a large central editing canvas, and a right-hand panel for profiling traces, compiler output, documentation and comments. Let users compare kernel versions and benchmark runs side by side. Display draft, changes requested and approved states. Provide a client preview link with comments anchored to the relevant kernel or run. Make the task-specific outcome reviewed optimization report with benchmark evidence visible beside its evidence, review state and value baseline.
Accounts and administration
Project ownership, kernel versions, client comments, approval states, usage allowances, run limits, download history and a rights record for supplied material. Add organization access boundaries, named reviewers, usage caps, data retention controls, export logs and explicit approval for external actions.
Integrations and data access
Developer-owned kernel repositories, build systems and permitted profiling sources. Cloud GPU storage, code repository import/export and CI destinations. Start with file exchange and validate destination specifications before promising direct deployment. Start with authorized file exchange. Validate current provider access, usage rights and schema behavior before promising a connector.
How we build it
We build with our own AI software development factory, so most implementations take days to a few weeks of creation time, not months. You see working software at every step, and exact timing depends on availability.
- 1
Scoping call
Day 1Thirty minutes on your process, your data and how you want to run it: for your own team, or for your clients. You get a fixed scope and price for the MVP.
- 2
MVP
7 daysOne buyer segment, one recurring use case; first modules: edit GPU kernels in a dedicated workspace; profile kernels in the editor to find hotspots. Manual review in the loop. Built by our AI software factory.
- 3
Paid pilot
8 daysAccounts, roles, review states, audit trail and the first integration, hardened for two to three paying pilot customers.
- 4
Full product
3 weeksSelf-serve onboarding, billing, monitoring and the wider integration set.
- 5
Run and improve
MonthlyWe host, monitor and improve it for a fixed monthly fee, or hand it over to your team. How the retainer works.
Why we start with an MVP
An MVP, or minimum viable product, is the smallest version that your users can actually work with. It is not a cheap version of the full solution. It is a test, built to answer the questions that decide whether the rest is worth building.
- Pick the riskiest assumption. Here: will GPU and HPC developers profiling, debugging and optimizing kernels use it to solve "kernel work is split across an editor, a profiler, a compiler explorer and separate AI tools, so hotspots, compiler output and tuning changes are hard to trace to one reviewed result"?
- Build only what tests it. One team, one use case, a few core modules. People do the rest by hand for now.
- Run a paid pilot. Agree quality and outcome thresholds before the pilot using this measure: Accepted kernel speedups per developer hour and regressions after merge.
- Measure, then decide. Track accepted kernel speedups per developer hour and regressions after merge; accepted-output rate; material error rate; reviewer correction time; actual repeat purchase. Then expand, change course or stop, with evidence instead of opinions.
MVP scope for this solution. Pilot scope: One fixed GPU architecture family and one supported language set; final correctness and production tuning checks remain with the developer. Implement one approved input format, a bounded representative case set and the first two task modules: edit GPU kernels in a dedicated workspace; profile kernels in the editor to find hotspots. Support the third module with operator review: suggest concrete AI optimizations for kernel performance. Include source references, corrections, basic organization access, approval states, export and value measurement. Use managed operator assistance for unresolved exceptions. The cost estimate covers this narrow prototype, not unrestricted multi-tenant scale, complex production integrations, specialist certification or physical operations.
After the MVP. Once paid pilots prove usefulness, automate repeatable reviewed steps and add one verified source integration. Expand supported inputs and case volume only after new evaluation cases pass. Build reusable customer configurations and recurring value reports around reviewed optimization report with benchmark evidence. Retain the explicit scope boundary: One fixed GPU architecture family and one supported language set; final correctness and production tuning checks remain with the developer.
What the build depends on. Kernel upload and preview, asynchronous profiling jobs, editable version history, reviewer access and tested export formats. High-fidelity production requires specialist GPU QA. Obtain representative authorized cases, baseline measurements, qualified reviewers and a buyer-side decision owner. Specific limitation: One fixed GPU architecture family and one supported language set; final correctness and production tuning checks remain with the developer.
Investment
A planning range to start the conversation, not a quote. You pay per phase, so you can stop after the MVP.
- Phase 1
MVP
One buyer segment, one recurring use case; first modules: edit GPU kernels in a dedicated workspace; profile kernels in the editor to find hotspots. Manual review in the loop.
- Phase 2
Paid pilot
Accounts, roles, review states, audit trail and the first integration, hardened for two to three paying pilot customers.
- Phase 3
Full product
Self-serve onboarding, billing, monitoring and the wider integration set.
Indicative total, MVP to full product$42,500about 6 weeks of creation time · start with the MVP from $12,500
Running costs per month
A rough indication of monthly hosting and AI model costs once it is live, not tested. Real costs depend on usage, file sizes and the models chosen.
| Stage | Hosting and infrastructure | AI usage | Total per month |
|---|---|---|---|
| MVP and paid pilotabout 3 customers | $30–$60 | $60–$120 | $90–$180 |
| Full productabout 50 customers | $110–$210 | $530–$1,050 | $640–$1,260 |
Run it or resell it
For your own team
GPU and HPC developers profiling, debugging and optimizing kernels run it inside the business: kernel source, build settings, profiling traces and target GPU details in, reviewed optimization report with benchmark evidence out, reviewed by your people.
As part of your offer
Agencies, consultancies and software companies can offer it to their own clients under their brand. We build and maintain it; you sell and deliver it.
Your brand, or this one
Run it under your own brand, or start from this concept style.
- primary
#278c91 - accent
#c95456 - surface
#e4f0f1 - ink
#22201e
- Headings
- Manrope
- Text
- Manrope
- Voice
- Technical, direct, no hype
Selling it to your own clients: the go-to-market playbook
Pricing to test
Test a USD 300-1,500 fixed pilot for one defined kernel package. Offer a monthly production allowance after repeat demand. Quote complex multi-GPU or specialist tuning separately. These are test prices, not market benchmarks. Package the initial sale as one bounded reviewed optimization report with benchmark evidence. Recurring fees must specify volume, review depth and integration support. For exchanges, test a disclosed coordination or successful-service fee rather than holding customer funds. Reprice only after measuring real delivery labor; platform-build cost is separate from a commercial pilot fee.
Message to test
Reduce context switching and manual tuning effort while keeping kernel changes reviewable. Demonstrate a concrete reviewed optimization report with benchmark evidence using the buyer's approved example and show the baseline, corrections and actual delivery effort.
Where to find buyers
GPU and HPC developers profiling, debugging and optimizing kernels professional communities; specialist consultants serving this buyer; permissioned partner introductions; practical demonstrations at relevant trade or practitioner events.
Lead magnet
A reviewed sample reviewed optimization report with benchmark evidence from a small authorized input set, with a transparent calculation of accepted kernel speedups per developer hour and regressions after merge and no promised savings.
The first 30 days
- Week 1: interview five GPU and HPC developers profiling, debugging and optimizing kernels and inspect a recent example of kernel work split across an editor, a profiler, a compiler explorer and separate AI tools, so hotspots, compiler output and tuning changes are hard to trace to one reviewed result.
- Week 2: prepare a consented or synthetic demonstration of the three task modules.
- Week 3: seek one bounded paid pilot with agreed baseline and acceptance criteria.
- Week 4: measure accepted kernel speedups per developer hour and regressions after merge, reviewer effort and repeat-purchase interest. This is a demand-validation plan, not a thirty-day full-product delivery promise.
Paid pilot
Agree quality and outcome thresholds before the pilot using this measure: Accepted kernel speedups per developer hour and regressions after merge. Continue only if the buyer accepts the actual output, the intended job outcome improves without unacceptable errors, and measured delivery cost fits willingness to pay. Revise or stop if access is unavailable, qualified review cannot be provided, or apparent savings disappear after corrections and support. Use held-out cases when comparing model quality; use a properly reviewed comparison design before making causal claims. Record missing cases and negative results alongside successful outputs.
Success metrics
Accepted kernel speedups per developer hour and regressions after merge; accepted-output rate; material error rate; reviewer correction time; actual repeat purchase.
Retention and expansion
Repeat the workflow when the buyer again needs reviewed optimization report with benchmark evidence. Retain permissioned settings and reviewed examples, report realized value honestly, and sell increased volume or adjacent approved workflows only after contribution margin and quality remain acceptable.
Why clients would pick it
A reusable library of approved kernel patterns, hardware constraints and review examples, together with reliable delivery for a narrow GPU niche. Build a permissioned library of representative task cases, reviewer corrections and verified operating constraints for GPU and HPC developers profiling, debugging and optimizing kernels. Repeatable delivery and useful integrations matter more than access to a base model.
Alternatives and positioning
RightNow AI 'V2.0', RightNow AI, RightNow and wafer, plus manual editor, profiler and compiler-explorer setups. Compare this product with the buyer's present method on accepted kernel speedups per developer hour and regressions after merge. Offer a bounded paid workflow instead of claiming broad autonomous expertise. Market uniqueness and competitor coverage are not verified.
Main delivery costs
GPU compute attempts, profiling and emulation runs, storage, reviewer hours, client revision rounds and licensed source assets. Additional initial validation requires representative authorized sample preparation, buyer interviews, buyer-side evaluation and bounded validation of reviewed optimization report with benchmark evidence. Track cost per accepted output, including correction work, unsuccessful cases and support.
Safeguards
Preserve developer intent, source attribution, benchmark accuracy and usage permissions. Developers approve substantive kernel changes and deployment scope. One fixed GPU architecture family and one supported language set; final correctness and production tuning checks remain with the developer. Keep all consequential actions under authorized human control and do not fabricate missing inputs, permissions, professional judgments or market evidence.