Questions worth asking before the experiment.

S.P.H.E.R.E. stands for Spatial Positioning Harmonic Empirical Resonance Experiment. It is an independent research initiative proposing a controlled test of whether moving a copper sphere produces a reproducible change in its resonant frequency after ordinary environmental effects are accounted for.

No. The project has no measurement results, and it does not treat the hypothesis as established physics. An unexpected signal would first need artifact checks, conventional explanations, and independent replication.

The project is inspired by the locational-variable concept in the Bashar material presented by Darryl Anka. That is the origin of the question, not empirical evidence for the answer. Mentioning it does not imply endorsement by Darryl Anka.

The proposed protocol uses a hollow copper sphere and a selected mechanical resonance above 230 kHz, following the project's source-inspired measurement proposal. This frequency is a proposed test band, not an experimentally validated threshold. The sphere's dimensions, resonance mode, and achievable sensitivity still require validation.

A null result would establish an upper bound on the location-associated effect under the tested conditions, if the uncertainty is sufficiently small. A nonsignificant test alone does not show that the effect is absent. If the system is too noisy to distinguish the proposed effect, the result is inconclusive instead.

It is the minimum frequency difference the study is designed to distinguish from negligible effects. It will be selected and justified after calibration, then frozen before confirmatory data collection. The current draft does not invent a final sensitivity number before the instrument has been qualified.

No. The founding phase measures resonance of passive copper artifacts. Teleportation, intention experiments, human subjects, and medical or wellness applications are outside its scope.

No DAO or token sale has been launched for this project. The founding phase prioritizes the legal entity, research review, financial controls, and conventional non-investment support. Registering interest does not confer ownership or promise financial returns.

The website is currently collecting expressions of interest, not payments. Fundraising will be announced only after the operating entity, financial controls, and campaign terms are ready. Do not send money or crypto based on this website's draft budget.

No tax-deductibility representation is currently made. The project has not announced charitable status or a fiscal sponsorship arrangement. Any future campaign must state the legal recipient and applicable terms.

The plan is to publish raw measurements, environmental logs, code, deviations, and a report, with stable archival links. No dataset has been released. The published Protocol LOC-1 preregistration is available at https://osf.io/5b6mj/overview, and the whitepaper is archived at Zenodo DOI 10.5281/zenodo.23583932. The resource library distinguishes available documents from planned outputs.

The project needs independent protocol reviewers, precision-measurement and statistics expertise, instrument-access partners, and documentation contributors. Use the collaboration page or the interest form. Funding alone does not grant authorship or influence results.

Not by itself, as far as established physics goes. Rotation, orbit and galactic motion describe reference frames; they do not on their own predict a copper-sphere frequency shift. The experimental question is whether a specified differential signal survives temperature, mounting, orientation and timing effects. See the Earth-motion article and the discussion of rotating-resonator tests.

Simultaneous readout lets shared drift cancel in a ratio and gives sham and comparator controls over the same observation window. It also adds cost and calibration burden, and it does not remove temperature gradients or mount differences. See the proposed protocol and the error budget.

No. It is a proposed amendment published for review on October 9, 2026. The two-sphere LOC-1 draft remains the reference design until independent reviewers have examined the proposal and any adopted change is recorded before data collection. Send critique through the community design review.

Not by itself. Sound drives an object at the frequency played, and the natural frequencies change only when mass, stiffness, geometry, temperature or support change. See the explainer and the record-and-replay article.

A single microphone recording cannot, because it captures air pressure at one point rather than the motion of the whole surface. Reproducing surface motion needs measurements of the surface itself, as set out in the record-and-replay article.

By supporting it with little interference, exciting it across the band, recording force and response synchronously, and reading resonances from the frequency response function. See how to measure a sphere's resonant frequency.

A repeatable difference between two excitation-off baseline measurements, taken before and after a treatment at the same temperature and mounting, larger than the measurement uncertainty. See the A/B/A verification protocol proposal.