The paper proposes a new higher-dimensional mechanism to address the hierarchy problem, where the weak scale is generated from a large scale of order the Planck scale through an exponential hierarchy. This exponential hierarchy arises from the background metric, which is a slice of \(AdS_5\) spacetime, rather than gauge interactions. The mechanism relies on the existence of only one additional dimension. The authors demonstrate a simple explicit example with two three-branes, one containing the Standard Model fields. The experimental consequences are distinct from those of large extra dimension scenarios, with no light Kaluza-Klein modes and fundamental spin-2 excitations with masses of weak scale order, coupled to the standard model particles with weak scale strength. The phenomenology of these models is quite different, with no current constraints from theories with very large extra dimensions applying. The paper also discusses the classical solution to Einstein's equations and the physical implications, including the determination of four-dimensional mass scales and the phenomenological implications for collider searches. The conclusion highlights the potential resolution to the hierarchy problem and the experimental verification that can be pursued at the LHC.The paper proposes a new higher-dimensional mechanism to address the hierarchy problem, where the weak scale is generated from a large scale of order the Planck scale through an exponential hierarchy. This exponential hierarchy arises from the background metric, which is a slice of \(AdS_5\) spacetime, rather than gauge interactions. The mechanism relies on the existence of only one additional dimension. The authors demonstrate a simple explicit example with two three-branes, one containing the Standard Model fields. The experimental consequences are distinct from those of large extra dimension scenarios, with no light Kaluza-Klein modes and fundamental spin-2 excitations with masses of weak scale order, coupled to the standard model particles with weak scale strength. The phenomenology of these models is quite different, with no current constraints from theories with very large extra dimensions applying. The paper also discusses the classical solution to Einstein's equations and the physical implications, including the determination of four-dimensional mass scales and the phenomenological implications for collider searches. The conclusion highlights the potential resolution to the hierarchy problem and the experimental verification that can be pursued at the LHC.