Literature DB >> 31274879

Graphene Devices for Tabletop and High-Current Quantized Hall Resistance Standards.

Albert F Rigosi1, Alireza R Panna1, Shamith U Payagala1, Mattias Kruskopf2, Marlin E Kraft1, George R Jones1, Bi-Yi Wu3, Hsin-Yen Lee4, Yanfei Yang2, Jiuning Hu2, Dean G Jarrett1, David B Newell1, Randolph E Elmquist1.   

Abstract

We report the performance of a quantum Hall resistance standard based on epitaxial graphene maintained in a 5-T tabletop cryocooler system. This quantum resistance standard requires no liquid helium and can operate continuously, allowing year-round accessibility to quantized Hall resistance measurements. The ν = 2 plateau, with a value of R K/2, also seen as R H, is used to scale to 1 kΩ using a binary cryogenic current comparator (BCCC) bridge and a direct current comparator (DCC) bridge. The uncertainties achieved with the BCCC are such as those obtained in the state-of-the-art measurements using GaAs-based devices. BCCC scaling methods can achieve large resistance ratios of 100 or more, and while room temperature DCC bridges have smaller ratios and lower current sensitivity, they can still provide alternate resistance scaling paths without the need for cryogens and superconducting electronics. Estimates of the relative uncertainties of the possible scaling methods are provided in this report, along with a discussion of the advantages of several scaling paths. The tabletop system limits are addressed as are potential solutions for using graphene standards at higher currents.

Entities:  

Keywords:  Binary cryogenic current comparator (BCCC); direct current comparator (DCC); epitaxial graphene (EG); metrology; quantized Hall resistance (QHR); standard resistor; standards and calibration

Year:  2018        PMID: 31274879      PMCID: PMC6604640          DOI: 10.1109/TIM.2018.2882958

Source DB:  PubMed          Journal:  IEEE Trans Instrum Meas        ISSN: 0018-9456            Impact factor:   4.016


  5 in total

1.  Atypical Quantized Resistances in Millimeter-Scale Epitaxial Graphene p-n Junctions.

Authors:  Albert F Rigosi; Dinesh Patel; Martina Marzano; Mattias Kruskopf; Heather M Hill; Hanbyul Jin; Jiuning Hu; Angela R Hight Walker; Massimo Ortolano; Luca Callegaro; Chi-Te Liang; David B Newell
Journal:  Carbon N Y       Date:  2019       Impact factor: 9.594

2.  Comparison between NIST Graphene and AIST GaAs Quantized Hall Devices.

Authors:  Takehiko Oe; Albert F Rigosi; Mattias Kruskopf; Bi-Yi Wu; Hsin-Yen Lee; Yanfei Yang; Randolph E Elmquist; Nobu-Hisa Kaneko; Dean G Jarrett
Journal:  IEEE Trans Instrum Meas       Date:  2019       Impact factor: 4.016

3.  Next-generation crossover-free quantum Hall arrays with superconducting interconnections.

Authors:  Mattias Kruskopf; Albert F Rigosi; Alireza R Panna; Martina Marzano; Dinesh Patel; Hanbyul Jin; David B Newell; Randolph E Elmquist
Journal:  Metrologia       Date:  2019       Impact factor: 3.157

4.  Implementation of a graphene quantum Hall Kelvin bridge-on-a-chip for resistance calibrations.

Authors:  Martina Marzano; Mattias Kruskopf; Alireza R Panna; Albert F Rigosi; Dinesh K Patel; Hanbyul Jin; Stefan Cular; Luca Callegaro; Randolph E Elmquist; Massimo Ortolano
Journal:  Metrologia       Date:  2020       Impact factor: 3.157

5.  Analysing quantized resistance behaviour in graphene Corbino p-n junction devices.

Authors:  Chieh-I Liu; Dominick S Scaletta; Dinesh K Patel; Mattias Kruskopf; Antonio Levy; Heather M Hill; Albert F Rigosi
Journal:  J Phys D Appl Phys       Date:  2020       Impact factor: 3.207

  5 in total

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