# Is nature OO?

**Authors:** Guy Barrand  
**arXiv:** [1108.0014](https://arxiv.org/abs/1108.0014)  
**Date:** 2011-07-29  
**Summary page:** https://www.summarizepaper.com/en/paper/1108.0014v1/

## Key points

- The author explores fundamental questions in physics and challenges the limitations of current Quantum Mechanics (QM) textbooks
- QM textbooks fail to adequately address important axiomatic ideas in microphysics
- The author proposes a new theoretical framework called Hit in Apparatuses Theory (HAT)
- Introduces the concept of Vacuum of Apparatuses (VA) to restore an intuitive ontology to microphysics
- Emphasizes Object Orientation (OO) and a pure "hitological" perspective
- Explores concepts related to observation and relativism in Special Relativity (SR) and General Relativity (GR)
- Discusses the challenge of finding common mathematical frameworks for GR and QM
- Addresses the measurement problem in QM within HAT's framework
- Offers alternative perspectives through HAT while critically analyzing existing quantum mechanical explanations.

## Summary

The author Guy Barrand explores fundamental questions in physics and challenges the limitations of current Quantum Mechanics (QM) textbooks in providing satisfactory answers. He raises inquiries about the axiomatic ideas that underpin microphysics, including the definition of a particle and the composition of an apparatus. Barrand argues that QM textbooks fail to adequately address these questions, despite their importance. To rectify this, he proposes a new theoretical framework called Hit in Apparatuses Theory (HAT) and introduces the concept of Vacuum of Apparatuses (VA). These ideas aim to restore an intuitive ontology to microphysics by adopting a pure "hitological" perspective and emphasizing Object Orientation (OO). The paper further explores concepts related to observation and relativism in Special Relativity (SR) and General Relativity (GR), discussing how these theories impact our understanding of physics and highlighting the challenge of finding common mathematical frameworks for GR and QM. Finally, with HAT as a guiding principle, Barrand addresses one of the central issues in QM – the measurement problem – proposing two possible approaches to resolving it within HAT's framework. This paper offers a critical analysis of existing quantum mechanical explanations while presenting alternative perspectives through HAT. By exploring foundational questions about reality, observation, relativism, and measurement in microphysics, Barrand aims to provide a more comprehensive understanding of these complex phenomena.