The BPI-R6 Dual-View Representation Architecture defines a linked but semantically separated framework for presenting relational body-proportion profiles alongside reference concordance profiles.
This record publicly defines the BPI-R6 Dual-View Representation Architecture, a linked but semantically separated architecture for presenting the original BPI-R6 relational profile together with its corresponding Reference Concordance profile. The architecture consists of two distinct six-coordinate views: the BPI-R6 Relational Profile View, containing the reference-neutral coordinates R1–R6; and the BPI-R6 Reference Concordance View, containing the reference-relative coordinates C1–C6. The two views are aligned through direct coordinate correspondence, with R1 linked to C1 through R6 linked to C6. This alignment supports axis-level traceability between the focal relational profile and its coordinate-specific correspondence with an explicitly identified reference. However, the two coordinate sets do not share the same meaning and must not be treated as interchangeable values. The Relational Profile View describes the recorded BPI-R6 configuration itself. The Reference Concordance View describes how closely that configuration corresponds to a selected reference profile. The architecture therefore follows the principle that the two views should be linked, but not merged. The Dual-View Architecture does not create a twelve-dimensional body model, overwrite the original BPI-R6 profile, combine R- and C-coordinates into a single score, or convert reference correspondence into body quality, health, attractiveness, improvement, or correctness. The selected reference must remain identifiable because reference identity forms part of the meaning of the concordance view. This record establishes the public semantic definition of the Relational Profile View, the Reference Concordance View, the Dual-View Pair, direct R-to-C coordinate alignment, semantic separation, reference-identification requirements, source-profile preservation principles, and interpretation boundaries governing the joint presentation of the two views. Companion records: Kang S. BPI-R6 Public Technical Definition v0.1: A Six-Coordinate Relational Profile for Visible Body-Proportion Representation. Zenodo. 2026. doi:10.5281/zenodo.20731035 Kang S. BPI-R6 Reference Concordance Framework v0.1: A Reference-Relative Six-Coordinate Representation for Visible Body-Proportion Profiles. Zenodo. 2026. doi:10.5281/zenodo.20731442 No new empirical dataset is introduced in this record. Invitation for Scholarly Dialogue Questions, brief comments, critical perspectives, and informal scholarly conversations are all welcome. Researchers and practitioners who find any part of this work relevant to their own interests are warmly invited to contact the author. You do not need to have read the entire framework, developed a formal position, or prepared a collaboration proposal. Partial impressions, preliminary questions, and brief messages are equally welcome. Contact: Sarang KangEmail: corsetmuscle@gmail.com Keywords: Human Aesthetic Engineering; HAE; visible human form; visible-body interpretation; intersection framework; cross-domain coordination; domain-specialized framework; anthropometry; body scanning; computer vision; sports science; Human–Computer Interaction; Human–Data Interaction; human–machine systems; digital health; personal informatics; technological representation; reference selection; relational organization; contextual interpretation; longitudinal interpretation; interpretation boundaries; evidence-limited inference; responsible interpretation; BPI-R6; Body Proportion Index; body proportion; visible body shape; relational measurement; six-coordinate profile; multidimensional representation; body-data representation Version:v1.1.0 — Public Concept Note / Working Paper
Sarang Kang (Fri,) reported a other. BPI-R6 Dual-View Representation Architecture was evaluated. The BPI-R6 Dual-View Representation Architecture defines a linked but semantically separated framework for presenting relational body-proportion profiles alongside reference concordance profiles.