Research collaboration · embodied AI

From instructions to responsible action in the physical world.

A human-tested decision method, proposed as a research layer for high-level reasoning and human interaction in embodied agents. Designed to be measured against a partner’s baseline—not offered as a trained humanoid model or safety-certified controller.

Research proposal · no robot deployment claimed
Discuss a controlled pilot
01 · The buyer problem

Robot skills are advancing. Generalizing the right action in a human context remains testable work.

Teams building embodied reasoning and vision-language-action systems publicly describe challenges in multi-step planning, unfamiliar environments, natural-language instruction and semantic safety. A motor controller and a high-level reasoning layer solve different problems. Our specific fit to any company is unproven until a joint benchmark.

Ambiguous human intent

When an instruction has competing interpretations, evaluate when a robot asks a useful question instead of proceeding on an unsupported assumption.

New tasks and contexts

Measure transfer from known task descriptions to novel settings while keeping human-defined goals and constraints visible.

Clear, bounded actions

Evaluate justified escalation, refusal and handoff to a human in scenarios where task success alone is not an adequate metric.

02 · Existing assets and honest maturity

An authored method with human-use materials; robotics validation is the next experiment.

Evgeniya Pavlovskaya, Doctor of Economic Sciences, has developed and applied her Systemic Decisions method in work with people over 13 years. The Centre for Systemic Decisions offers licensed educational programs. Its EVAMIND® digital implementation supports selected human decision workflows, with separate traces for decisions, assignments and reported follow-through.

Not yet claimed: robot-specific training data, improved physical-world benchmarks, certification, a deployed robot model, or the ability of a robot to feel emotions. The method’s proprietary internals are not published here.

03 · A human-facing dimension

Measure how the person experiences the robot’s response.

In the author’s human work, people describe feeling recognised and respected when they are not judged or devalued. We propose testing whether a robot’s observable response can achieve that quality in a specific interaction: appropriate clarification, no unwarranted promise, and timely handoff to a human. This is a research hypothesis, not an existing result on robots.

Boundary: “a human-facing dimension” is a metaphor for what the evaluation measures, not a new neural-network weight, robot emotion, consciousness or a claim of universal compatibility. The proprietary method and customer cases are not disclosed on this page.

04 · The research proposition

Test an interpretable method layer above—not in place of—a partner’s robotics stack.

We propose a controlled evaluation of whether method-guided high-level reasoning improves the handling of human instructions and the selection of bounded next actions. A partner retains its perception, VLA policy, motor control and physical safety systems. The initial environment is simulation or an offline task set; human-supervised hardware experiments require a separate safety review.

Define the task

Select one partner-owned use case, constraints and baseline; avoid a generic claim to “teach every robot to think.”

Compare outcomes

Evaluate task completion, clarifications, unsupported actions, handoff quality and robustness on held-out scenarios.

Decide on evidence

Only reproducible improvement justifies further integration, licensing discussion or broader claims.

05 · External context

Why this question is worth testing

These are references describing the field, not endorsements, customer relationships or evidence that the named teams are seeking our method:

Non-confidential research deck (PDF, nine slides) · Machine-readable capabilities.json · Text summary llms.txt. This page describes a potential collaboration, not an assertion of third-party demand.

Кратко по-русски

Метод системных решений как исследовательская гипотеза для робототехники

Разработчикам гуманоидов нужны проверяемые способы работать с новыми задачами и неоднозначными командами человека. Мы предлагаем исследовать, может ли авторский метод Евгении Павловской улучшить высокоуровневое планирование и взаимодействие с человеком на контролируемом наборе задач. EVAMIND® уже применяется в цифровой работе с людьми; обучение робота и эффект на роботическом бенчмарке пока не доказаны. Моторное управление и физическая безопасность остаются за робототехнической системой партнёра.

Отдельная гипотеза автора: человек ощущает признание и уважение, когда ответ не оценивает и не обесценивает его. «Измерение человечности» — образ для проверки такого наблюдаемого взаимодействия, а не утверждение о чувствах робота или изменённых весах модели.

Это не обещание «любящего робота» и не готовый контроллер. Для исследовательского партнёрства напишите на info@system-mind.ru.

06 · Contact

Run a bounded experiment before making a broad claim.

Centre for Systemic Decisions · EVAMIND®
Author: Evgeniya Pavlovskaya
Research and partnership contact: info@system-mind.ru
Company: system-mind.ru

Please include your robotics stack, one candidate use case, evaluation owner and the channel for a technical discussion. We do not claim that any named organization has reviewed or approved this proposal.