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researcher

M. Eriksson

80 papers hereh-index 417.9k citations162 works total

Matching runs newest-first, so older work may not be attached to this profile yet.

author position
  • first author1
  • middle author31
  • last author40

Across the 72 of 80 papers where every author was matched, so the position is known.

fields
  • cond-mat.mes-hall58
  • quant-ph11
  • cond-mat.mtrl-sci8
  • physics.app-ph2
  • physics.optics1
same name
  • M. Eriksson — 18 papers, h 11
  • M. Eriksson — 11 papers, h 20
  • M. Eriksson — 8 papers, h 9
  • M. Eriksson — 8 papers, h 4
  • M. Eriksson — 4 papers, h 2
  • M. Eriksson — 3 papers, h 3

Either other researchers who publish under this name, or the same person where the external sources have not merged their records.

identity via Semantic Scholar / OpenAlex

activity
19982026
most citedSilicon Quantum Electronics

1.2k citations · 7.5k across the 80 of their papers we have counts for

collaborators
Showing 2002Show all

4 papers · 1 filter

cond-mat.mes-hall2002

Pseudo-Digital Qubits: A General Approach

Mark Friesen, Robert Joynt, M. A. Eriksson

Pseudo-digital coupling has recently been proposed as a simple but robust technique for reducing gating errors in quantum dot quantum computers. Here, we discuss the technique in t…

quant-ph2002★ 17 cited

Pseudo-digital quantum bits

Mark Friesen, Robert Joynt, M. A. Eriksson

Quantum computers are analog devices; thus they are highly susceptible to accumulative errors arising from classical control electronics. Fast operation--as necessitated by decoher…

cond-mat.mtrl-sci2002★ 250 cited

Practical design and simulation of silicon-based quantum dot qubits

Mark Friesen, Paul Rugheimer, Donald E. Savage +4

Spins based in silicon provide one of the most promising architectures for quantum computing. A scalable design for silicon-germanium quantum dot qubits is presented. The design in…

cond-mat.mtrl-sci2002★ 250 cited

Design and proof of concept for silicon-based quantum dot quantum bits

Mark Friesen, Paul Rugheimer, Donald E. Savage +4

Spins based in silicon provide one of the most promising architectures for quantum computing. Quantum dots are an inherently scalable technology. Here, we combine these two concept…

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Not affiliated with arXiv. Researcher data from Semantic Scholar (ODC-BY) and OpenAlex.