Design of a Fast Digital Double Relaxation Oscillation SQUID (corrected)

M. Podt; A.J. Mieog; A.J. Mieog; Jakob Flokstra; Horst Rogalla

doi:10.1109/77.947384

Design of a Fast Digital Double Relaxation Oscillation SQUID (corrected)

M. Podt, A.J. Mieog, A.J. Mieog, Jakob Flokstra, Horst Rogalla

Faculty of Science and Technology

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

1 Citation (Scopus)

140 Downloads (Pure)

Abstract

A fast digital Double Relaxation Oscillation SQUID (DROS) with a relaxation oscillation frequency of 100 MHz has been developed. The digital DROS incorporates a DROS and a superconducting up-down counter that supplies the feedback flux. The major advantage of a DROS is that the relaxation oscillations generate an on-chip clock signal and therefore, no external clock is required. In order to maximize the slew rate without compromising the sensitivity, the quantization unit of the feedback flux was adapted to the flux noise of the DROS. This resulted in a designed flux slew rate of 5·106 ¿0/s. We will discuss the design optimization, numerical simulations, the layout and some experimental results of the digital DROS

Original language	Undefined
Pages (from-to)	4054-4057
Number of pages	4
Journal	IEEE transactions on applied superconductivity
Volume	11
Issue number	2
DOIs	https://doi.org/10.1109/77.947384
Publication status	Published - 2001

Keywords

IR-36162
METIS-201086

Access to Document

10.1109/77.947384

00947384

Cite this

@article{536f242efc454e829fa9f3fc3a7bea68,

title = "Design of a Fast Digital Double Relaxation Oscillation SQUID (corrected)",

abstract = "A fast digital Double Relaxation Oscillation SQUID (DROS) with a relaxation oscillation frequency of 100 MHz has been developed. The digital DROS incorporates a DROS and a superconducting up-down counter that supplies the feedback flux. The major advantage of a DROS is that the relaxation oscillations generate an on-chip clock signal and therefore, no external clock is required. In order to maximize the slew rate without compromising the sensitivity, the quantization unit of the feedback flux was adapted to the flux noise of the DROS. This resulted in a designed flux slew rate of 5·106 ¿0/s. We will discuss the design optimization, numerical simulations, the layout and some experimental results of the digital DROS",

keywords = "IR-36162, METIS-201086",

author = "M. Podt and A.J. Mieog and A.J. Mieog and Jakob Flokstra and Horst Rogalla",

year = "2001",

doi = "10.1109/77.947384",

language = "Undefined",

volume = "11",

pages = "4054--4057",

journal = "IEEE transactions on applied superconductivity",

issn = "1051-8223",

publisher = "IEEE",

number = "2",

}

TY - JOUR

T1 - Design of a Fast Digital Double Relaxation Oscillation SQUID (corrected)

AU - Podt, M.

AU - Mieog, A.J.

AU - Flokstra, Jakob

AU - Rogalla, Horst

PY - 2001

Y1 - 2001

N2 - A fast digital Double Relaxation Oscillation SQUID (DROS) with a relaxation oscillation frequency of 100 MHz has been developed. The digital DROS incorporates a DROS and a superconducting up-down counter that supplies the feedback flux. The major advantage of a DROS is that the relaxation oscillations generate an on-chip clock signal and therefore, no external clock is required. In order to maximize the slew rate without compromising the sensitivity, the quantization unit of the feedback flux was adapted to the flux noise of the DROS. This resulted in a designed flux slew rate of 5·106 ¿0/s. We will discuss the design optimization, numerical simulations, the layout and some experimental results of the digital DROS

AB - A fast digital Double Relaxation Oscillation SQUID (DROS) with a relaxation oscillation frequency of 100 MHz has been developed. The digital DROS incorporates a DROS and a superconducting up-down counter that supplies the feedback flux. The major advantage of a DROS is that the relaxation oscillations generate an on-chip clock signal and therefore, no external clock is required. In order to maximize the slew rate without compromising the sensitivity, the quantization unit of the feedback flux was adapted to the flux noise of the DROS. This resulted in a designed flux slew rate of 5·106 ¿0/s. We will discuss the design optimization, numerical simulations, the layout and some experimental results of the digital DROS

KW - IR-36162

KW - METIS-201086

U2 - 10.1109/77.947384

DO - 10.1109/77.947384

M3 - Article

SN - 1051-8223

VL - 11

SP - 4054

EP - 4057

JO - IEEE transactions on applied superconductivity

JF - IEEE transactions on applied superconductivity

IS - 2

ER -