More Like this

1. GNarsil: Splitting Stabilizers into Gauges

   https://doi.org/10.1109/QCE60285.2024.00022  

   Novak, Oskar; Rengaswamy, Narayanan (September 2024, IEEE)
2. Calibration of Differential Pressure Gauges Through In Situ Testing

   https://doi.org/10.1029/2019EA000783  

   Doran, A.K.; Rapa, M.; Laske, G.; Babcock, J.; McPeak, S. (December 2019, Earth and Space Science)

   null (Ed.)
3. The effective potential in Fermi gauges beyond the standard model

   https://doi.org/10.1140/epjc/s10052-024-12398-1  

   Zuk, Jonathan; Balázs, Csaba; Papaefstathiou, Andreas; White, Graham (January 2024, The European Physical Journal C)

   Abstract We derive the field-dependent masses in Fermi gauges for arbitrary scalar extensions of the Standard Model. These masses can be used to construct the effective potential for various models of new physics. We release a flexible notebook () which performs these calculations and renders large-scale phenomenological studies of various models possible. Motivated by the debate on the importance of gauge dependence, we show that, even in relatively simple models, there exist points where the global minimum is discontinuous in the gauge parameter. Such points require some care in discovering, indicating that a gauge-dependent treatment might still give reasonable results when examining the global features of a model. 

   more » « less
4. Graviton propagator in a 2-parameter family of de Sitter breaking gauges

   https://doi.org/10.1007/JHEP10(2019)096  

   Glavan, D.; Miao, S.P.; Prokopec, T.; Woodard, R.P. (October 2019, Journal of High Energy Physics)
5. Transfer printed laser induced graphene strain gauges for embedded sensing in fiberglass composites

   https://doi.org/https://doi.org/10.1016/j.compositesb.2021.108932  

   Groo, Lori Anne; Nasser, Jalal; Inman, Daniel; Sodano, Henry (August 2021, Composites)

   null (Ed.)

   The continuous monitoring of strain in fiber-reinforced composites while in service typically requires bonding a network of sensors to the surface of the composite structure. To eliminate such needs, and to reduce bulk and limit additional weight, this work utilizes the transfer printing of laser induced graphene (LIG) strain gauges onto the surface of commercial fiberglass prepreg for the in situ self-sensing of strain. The resultant embedded strain sensor is entirely integrated within the final composite material, therefore reducing weight and eliminating limitations due to external bonding compared to current alternatives. Additionally, the simple printing process used here allows for the customization of the size and sensing requirements for various applications. The LIG strain sensor is shown to be capable of tracking monotonic cyclic strain as shown during tensile loading and unloading of the host composite, while also proving capable of tracking the dynamic motion of the composite which is characterized via frequency response and sinusoidal base excitation. The LIG strain gauge in this work can thus be used for tracking either quasi-static or dynamic variations in strain for the determination of the deformation experienced by the material, as well as the frequency content of the material for structural health monitoring purposes. 

   more » « less