Resistance bridge based on the cryogenic current comparator in a transport dewar

M.E. Bartolomé; A. Camón; J. Sesé; C. Rillo; Jakob Flokstra; G. Rietveld; Horst Rogalla

doi:10.1109/77.919482

Resistance bridge based on the cryogenic current comparator in a transport dewar

M.E. Bartolomé, A. Camón, J. Sesé, C. Rillo, Jakob Flokstra, G. Rietveld, Horst Rogalla

Faculty of Science and Technology

Research output: Contribution to journal › Article › Academic › peer-review

2 Citations (Scopus)

256 Downloads (Pure)

Abstract

An optimized resistance bridge based on the Cryogenic Current Comparator (CCC) with SQUID readout has been developed. The bridge can be used for routine secondary resistance calibrations as well as for the traceability of 100 ¿ to the quantum Hall resistance. The CCC-SQUID, shielding and wiring are mounted in a telescopic insert, fitted in a low-evaporation rate, transportable liquid He dewar, with an autonomy of around 1 month. A difference compensator method is used to balance the bridge. A new, more reliable and self-standing bridge electronics has been fabricated and tested. An uncertainty in the comparison of resistors at least one order of magnitude better than room temperature CCs is expected

Original language	Undefined
Pages (from-to)	867-870
Number of pages	4
Journal	IEEE transactions on applied superconductivity
Volume	11
Issue number	1
DOIs	https://doi.org/10.1109/77.919482
Publication status	Published - 2001

Keywords

IR-36157
METIS-201052

Access to Document

10.1109/77.919482

00919482

Cite this

@article{d64b0c016a5049e5a6b4dcb11a67ac3b,

title = "Resistance bridge based on the cryogenic current comparator in a transport dewar",

abstract = "An optimized resistance bridge based on the Cryogenic Current Comparator (CCC) with SQUID readout has been developed. The bridge can be used for routine secondary resistance calibrations as well as for the traceability of 100 ¿ to the quantum Hall resistance. The CCC-SQUID, shielding and wiring are mounted in a telescopic insert, fitted in a low-evaporation rate, transportable liquid He dewar, with an autonomy of around 1 month. A difference compensator method is used to balance the bridge. A new, more reliable and self-standing bridge electronics has been fabricated and tested. An uncertainty in the comparison of resistors at least one order of magnitude better than room temperature CCs is expected",

keywords = "IR-36157, METIS-201052",

author = "M.E. Bartolom{\'e} and A. Cam{\'o}n and J. Ses{\'e} and C. Rillo and Jakob Flokstra and G. Rietveld and Horst Rogalla",

year = "2001",

doi = "10.1109/77.919482",

language = "Undefined",

volume = "11",

pages = "867--870",

journal = "IEEE transactions on applied superconductivity",

issn = "1051-8223",

publisher = "IEEE",

number = "1",

}

TY - JOUR

T1 - Resistance bridge based on the cryogenic current comparator in a transport dewar

AU - Bartolomé, M.E.

AU - Camón, A.

AU - Sesé, J.

AU - Rillo, C.

AU - Flokstra, Jakob

AU - Rietveld, G.

AU - Rogalla, Horst

PY - 2001

Y1 - 2001

N2 - An optimized resistance bridge based on the Cryogenic Current Comparator (CCC) with SQUID readout has been developed. The bridge can be used for routine secondary resistance calibrations as well as for the traceability of 100 ¿ to the quantum Hall resistance. The CCC-SQUID, shielding and wiring are mounted in a telescopic insert, fitted in a low-evaporation rate, transportable liquid He dewar, with an autonomy of around 1 month. A difference compensator method is used to balance the bridge. A new, more reliable and self-standing bridge electronics has been fabricated and tested. An uncertainty in the comparison of resistors at least one order of magnitude better than room temperature CCs is expected

AB - An optimized resistance bridge based on the Cryogenic Current Comparator (CCC) with SQUID readout has been developed. The bridge can be used for routine secondary resistance calibrations as well as for the traceability of 100 ¿ to the quantum Hall resistance. The CCC-SQUID, shielding and wiring are mounted in a telescopic insert, fitted in a low-evaporation rate, transportable liquid He dewar, with an autonomy of around 1 month. A difference compensator method is used to balance the bridge. A new, more reliable and self-standing bridge electronics has been fabricated and tested. An uncertainty in the comparison of resistors at least one order of magnitude better than room temperature CCs is expected

KW - IR-36157

KW - METIS-201052

U2 - 10.1109/77.919482

DO - 10.1109/77.919482

M3 - Article

VL - 11

SP - 867

EP - 870

JO - IEEE transactions on applied superconductivity

JF - IEEE transactions on applied superconductivity

SN - 1051-8223

IS - 1

ER -