SeaKing Solace

Technology

From real-world motion to reproducible simulation.

The SeaKing Solace technology concept is designed to capture real-world motion, associate it with synchronized biometric data, and reproduce selected motion profiles within a controlled simulator environment.

Conceptual motion-simulation research platform.
Conceptual visualization of a future motion-simulation research platform.

Capture

Measure the motion.

Six-degree-of-freedom sensors can describe a session through heave, pitch, roll, surge, sway, and yaw. Precise timestamps and environmental context are intended to keep motion and biometric records aligned.

Heave, pitch, and roll

Characterize vertical and rotational vessel movement over time.

Surge, sway, and yaw

Characterize longitudinal, lateral, and directional movement.

Synchronized context

Align motion, time, environmental conditions, and research events within one record.

Correlate

Pair motion with physiology.

Candidate measures include heart rate, HRV, pupillometry, blood pressure, respiration, tolerability, and participant-reported outcomes. Associations would require careful analysis and would not, by themselves, establish causation.

Conceptual synchronized motion and biometric sensor system.

A common clock is intended to align motion, biometric signals, participant reports, and protocol events without treating any single measure as evidence of efficacy.

Heart rateHRVPupillometryBlood pressureRespirationParticipant outcomes

Reproduce

Recreate selected motion profiles.

The simulator concept is intended to provide a controlled environment for repeatable motion, adjustable intensity, protocol consistency, and clinical research. It is not presented as clinically validated.

Precision and repeatability

Conceptual close view of a multi-axis motion-platform mechanism.

Closed-loop future

Toward responsive motion protocols.

A future platform could use real-time physiological signals to adjust motion within predefined safety and research parameters. This is a future concept, not completed or validated functionality.

Conceptual signal synchronization

Conceptual motion and physiological sensor signals shown as synchronized flowing traces.
01

Defined motion

02

Synchronized sensing

03

Research analysis

04

Constrained adjustment

Accessibility

Designed for a path beyond the boat.

The long-term concept is land-based: more scalable, repeatable, geographically accessible, compatible with clinical settings, and less dependent on weather or vessel access.

Development status

Separate what is being asked from what may eventually be built.

Current

Hypothesis

Whether externally applied rhythmic motion is associated with measurable physiologic and exploratory participant responses.

Proposed

Research program

A four-phase pathway intended to move from on-water characterization to controlled studies.

In development

Simulator concept

A controlled platform intended to reproduce selected motion profiles for research.

Future vision

Responsive platform

A potential closed-loop system contingent on evidence, engineering, safety work, and validation.