Publications

Tim’s Google Scholar page can be found here. Other members of the group have their own publication lists on their individual pages.

  1. Single-Molecule Analysis with Solid-State Nanopores
    Tim Albrecht.
    Annual Review of Analytical Chemistry, 12(1), 371–387, 2019 [DOI]
    [Show/hide abstract]
    Solid-state nanopores and nanopipettes are an exciting class of single-molecule sensors that has grown enormously over the last two decades. They offer a platform for testing fundamental concepts of stochasticity and transport at the nanoscale, for studying single-molecule biophysics and, increasingly, also for new analytical applications and in biomedical sensing. This review covers some fundamental aspects underpinning sensor operation and transport and, at the same time, it aims to put these into context as an analytical technique. It highlights new and recent developments and discusses some of the challenges lying ahead.
  2. Assisted delivery of anti-tumour platinum drugs using DNA-coiling gold nanoparticles bearing lumophores and intercalators: towards a new generation of multimodal nanocarriers with enhanced action
    Ana B. Caballero, Lucia Cardo, Sunil Claire, James Samuel Craig, Nikolas J. Hodges, Anton Vladyka, Tim Albrecht, Luke A. Rochford, Zoe Pikramenou, and Michael John Hannon.
    Chemical Science, 10(40), 9244–9256, 2019 [DOI]
    [Show/hide abstract]
    Nanocarriers with unusual DNA binding properties provide enhanced cytotoxic activity beyond that conferred by the platinum agents they release.
  3. Gold-Induced Desulfurization in a Bis(ferrocenyl) Alkane Dithiol
    Evangelina Pensa, Rafa{ł} Karpowicz, Artur Jab{l}oński, Damian Trzybiński, Krzysztof Woźniak, Davor Šakić, Valerije Vrček, Nicholas J. Long, Tim Albrecht, and Konrad Kowalski.
    Organometallics, 38(9), 2227–2232, 2019 [DOI]
  4. Rapid Fragmentation during Seeded Lysozyme Aggregation Revealed at the Single Molecule Level
    Markéta Kubánková, Xiaoyan Lin, Tim Albrecht, Joshua B. Edel, and Marina K. Kuimova.
    Analytical Chemistry, 2019 [DOI]
    [Show/hide abstract]
    Protein aggregation is associated with neurodegenerative disorders such as Alzheimer’s and Parkinson’s diseases. The poorly understood pathogenic mechanism of amyloid diseases makes early stage diagnostics or therapeutic intervention a challenge. Seeded polymerization that reduces the duration of the lag phase and accelerates fibril growth is a widespread model to study amyloid formation. Seeding effects are hypothesized to be important in the “infectivity” of amyloids and are linked to the development of systemic amyloidosis in vivo. The exact mechanism of seeding is unclear yet critical to illuminating the propagation of amyloids. Here we report on the lateral and axial fragmentation of seed fibrils in the presence of lysozyme monomers at short time scales, followed by the generation of oligomers and growth of fibrils.
  5. Electric Single-Molecule Hybridization Detector for Short DNA Fragments
    Amelia Y. Y. Loh, Claire H. Burgess, Diana A. Tanase, Giorgio Ferrari, Martyn A. McLachlan, Anthony E. G. Cass, and Tim Albrecht.
    Analytical Chemistry, 90(23), 14063–14071, 2018 [DOI]
    [Show/hide abstract]
    In combining DNA nanotechnology and high-bandwidth single-molecule detection in nanopipettes, we demonstrate an all-electric, label-free hybridisation sensor for short DNA sequences ({\textless} 100 nt). Such short fragments are known to occur as circulating cell-free DNA in various bodily fluids, such as blood plasma and saliva, and have been identified as disease markers for cancer and infectious diseases. To this end, we use as a model system a 88-mer target from the RV1910c gene in Mycobacterium tuberculosis that is associated with antibiotic (isoniazid) resistance in TB. Upon binding to short probes attached to long carrier DNA, we show that resistive pulse sensing in nanopipettes is capable of identifying rather subtle structural differences, such as the hybridisation state of the probes, in a statistically robust manner. With significant potential towards multiplexing and high-throughput analysis, our study points towards a new, single-molecule DNA assay technology that is fast, easy to use and compatible with point of care environments. Nanopore devices are a new class of stochastic single-molecule sensors. As nanoscale analogues of the well-known Coulter counter, which is routinely used for cell counting in hospital environments, they have been developed towards fast and label-free DNA sequencing. 1 This feat has now largely been achieved with (modified) biological pores, such as -hemolysin. 2 However, resistive pulse sensing with solid-state nanopores and nanopipettes offers a range of other potential applications. These nanodevices are relatively easy to fabricate (especially nanopipettes 3,4) and there is usually considerable flexibility in their design, with regards to the pore dimensions (diameter, channel length,
  6. Cyclic Voltammetry Peaks Due to Deep Level Traps in Si Nanowire Array Electrodes
    A. Shougee, F. Konstantinou, T. Albrecht, and K. Fobelets.
    IEEE Transactions on Nanotechnology, 17(1), 154-160, 2018 [DOI]
  7. Electrochemical processes at the nanoscale
    T. Albrecht, S. Horswell, L. K. Allerston, N. V. Rees, and P. Rodriguez.
    Current Opinion in Electrochemistry, 7, 138-145, 2018 [DOI]
  8. A Redox-Activated G-Quadruplex DNA Binder Based on a Platinum(IV)–Salphen Complex
    S. Bandeira, J. Gonzalez-Garcia, E. Pensa, T. Albrecht, and R. Vilar.
    Angewandte Chemie – International Edition, 57(1), 310-313, 2018 [DOI]
  9. Controlling the Dynamic Instability of Capped Metal Nanoparticles on Metallic Surfaces
    E. Pensa and T. Albrecht.
    Journal of Physical Chemistry Letters, 9(1), 57-62, 2018 [DOI]
  10. Disentangling chemical effects in ionic-liquid-based Cu leaching from chalcopyrite
    A. Al-Zubeidi, D. Godfrey, and T. Albrecht.
    Journal of Electroanalytical Chemistry, 819, 130-135, 2018 [DOI]
  11. Cross-plane conductance through a graphene/molecular monolayer/Au sandwich
    Bing Li, Marjan Famili, Evangelina Pensa, Iain Grace, Nicholas J. Long, Colin Lambert, Tim Albrecht, and Lesley F. Cohen.
    Nanoscale, 10(42), 19791–19798, 2018 [DOI]
    [Show/hide abstract]
    Experimental scalability of junction properties, in combination with theoretical transmission probability, demonstrates a significantly enhanced molecular connection.
  12. Deep learning for single-molecule science
    Tim Albrecht, Gregory Slabaugh, Eduardo Alonso, and SM Masudur R. Al-Arif.
    Nanotechnology, 28(42), 423001, 2017 [DOI]
  13. The role of ion-water interactions in determining the Soret coefficient of LiCl aqueous solutions
    S. Di Lecce, T. Albrecht, and F. Bresme.
    Physical Chemistry Chemical Physics, 19(14), 9575-9583, 2017 [DOI]
  14. Single-Molecule Conductance Studies of Organometallic Complexes Bearing 3-Thienyl Contacting Groups
    S. Bock, O. A. Al-Owaedi, S. G. Eaves, D. C. Milan, M. Lemmer, B. W. Skelton, H. M. Osorio, R. J. Nichols, S. J. Higgins, P. Cea, N. J. Long, T. Albrecht, S. Mart�n, C. J. Lambert, and P. J. Low.
    Chemistry – A European Journal, 23(9), 2133-2143, 2017 [DOI]
  15. Low Noise Nanopore Platforms Optimised for the Synchronised Optical and Electrical Detection of Biomolecules
    W. H. Pitchford, C. R. Crick, H. -J. Kim, A. P. Ivanov, H. -M. Kim, J. -S. Yu, T. Albrecht, K. -B. Kim, and J. B. Edel.
    RSC Nanoscience and Nanotechnology, 2017-January(41), 270-300, 2017 [DOI]
  16. Ferrocene- and Biferrocene-Containing Macrocycles towards Single-Molecule Electronics
    L. E. Wilson, C. Hassenrück, R. F. Winter, A. J. P. White, T. Albrecht, and N. J. Long.
    Angewandte Chemie – International Edition, 56(24), 6838-6842, 2017 [DOI]
  17. Functionalised Biferrocene Systems towards Molecular Electronics
    L. E. Wilson, C. Hassenrück, R. F. Winter, A. J. P. White, T. Albrecht, and N. J. Long.
    European Journal of Inorganic Chemistry, 2017(2), 496-504, 2017 [DOI]
  18. Ionic liquids for metal extraction from chalcopyrite: Solid, liquid and gas phase studies
    O. Kuzmina, E. Symianakis, D. Godfrey, T. Albrecht, and T. Welton.
    Physical Chemistry Chemical Physics, 19(32), 21556-21564, 2017 [DOI]
  19. A computational approach to calculate the heat of transport of aqueous solutions
    S. Di Lecce, T. Albrecht, and F. Bresme.
    Scientific Reports, 7, , 2017 [DOI]
  20. Insulated molecular wires: Inhibiting orthogonal contacts in metal complex based molecular junctions
    O. A. Al-Owaedi, S. Bock, D. C. Milan, M. -C. Oerthel, M. S. Inkpen, D. S. Yufit, A. N. Sobolev, N. J. Long, T. Albrecht, S. J. Higgins, M. R. Bryce, R. J. Nichols, C. J. Lambert, and P. J. Low.
    Nanoscale, 9(28), 9902-9912, 2017 [DOI]
  21. Progress in single-biomolecule analysis with solid-state nanopores
    T. Albrecht.
    Current Opinion in Electrochemistry, 4(1), 159-165, 2017 [DOI]
  22. TiO2coated Si nanowire electrodes for electrochemical double layer capacitors in room temperature ionic liquid
    F. Konstantinou, A. Shougee, T. Albrecht, and K. Fobelets.
    Journal of Physics D: Applied Physics, 50(41), , 2017 [DOI]
  23. Single Molecule Trapping and Sensing Using Dual Nanopores Separated by a Zeptoliter Nanobridge
    P. Cadinu, B. Paulose Nadappuram, D. J. Lee, J. Y. Y. Sze, G. Campolo, Y. Zhang, A. Shevchuk, S. Ladame, T. Albrecht, Y. Korchev, A. P. Ivanov, and J. B. Edel.
    Nano Letters, 17(10), 6376-6384, 2017 [DOI]
  24. High-Vacuum Deposition of Biferrocene Thin Films on Room-Temperature Substrates
    R. Leber, L. E. Wilson, P. Robaschik, M. S. Inkpen, D. J. Payne, N. J. Long, T. Albrecht, C. F. Hirjibehedin, and S. Heutz.
    Chemistry of Materials, 29(20), 8663-8669, 2017 [DOI]
  25. Principles of a Single-Molecule Rectifier in Electrolytic Environment
    K. C. M. Cheung, X. Chen, T. Albrecht, and A. A. Kornyshev.
    Journal of Physical Chemistry C, 120(6), 3089-3106, 2016 [DOI]
  26. Nanopores: general discussion
    A. Mount, M. Kang, D. Fermin, T. Albrecht, J. Gooding, R. Crooks, N. Tao, W. Schmickler, J. MacPherson, S. Chen, P. Actis, O. Magnussen, L. Baker, P. Bartlett, S. Faez, J. Clausmeyer, B. Thomas, P. A. Ash, F. Kanoufi, Y. Long, P. Unwin, M. Koper, S. Lemay, A. Ewing, Z. Tian, R. Johnson, M. Eikerling, and M. Platt.
    Faraday Discussions, 193, 507-531, 2016 [DOI]
  27. Electrochemistry of single nanoparticles: general discussion
    T. Albrecht, J. MacPherson, O. Magnussen, D. Fermin, R. Crooks, J. Gooding, T. Hersbach, F. Kanoufi, W. Schuhmann, C. Bentley, N. Tao, S. Mitra, K. Krischer, K. Tschulik, S. Faez, W. Nogala, P. Unwin, Y. Long, M. Koper, Z. Tian, M. A. Alpuche-Aviles, H. White, V. Brasiliense, C. Kranz, W. Schmickler, K. Stevenson, C. Jing, and M. Edwards.
    Faraday Discussions, 193, 387-413, 2016 [DOI]
  28. High-bandwidth detection of short DNA in nanopipettes
    R. L. Fraccari, M. Carminati, G. Piantanida, T. Leontidou, G. Ferrari, and T. Albrecht.
    Faraday Discussions, 193, 459-470, 2016 [DOI]
  29. A robotic platform for high-throughput electrochemical analysis of chalcopyrite leaching
    D. Godfrey, J. H. Bannock, O. Kuzmina, T. Welton, and T. Albrecht.
    Green Chemistry, 18(7), 1930-1937, 2016 [DOI]
  30. High-speed detection of DNA translocation in nanopipettes
    R. L. Fraccari, P. Ciccarella, A. Bahrami, M. Carminati, G. Ferrari, and T. Albrecht.
    Nanoscale, 8(14), 7604-7611, 2016 [DOI]
  31. Single-Molecule Studies of Unlabeled Full-Length p53 Protein Binding to DNA
    P. Nuttall, K. Lee, P. Ciccarella, M. Carminati, G. Ferrari, K. -B. Kim, and T. Albrecht.
    Journal of Physical Chemistry B, 120(9), 2106-2114, 2016 [DOI]
  32. Trianguleniums as Optical Probes for G-Quadruplexes: APhotophysical, Electrochemical, and Computational Study
    A. Shivalingam, A. Vyšniauskas, T. Albrecht, A. J. P. White, M. K. Kuimova, and R. Vilar.
    Chemistry – A European Journal, 22(12), 4129-4139, 2016 [DOI]
  33. Complexes comprising ‘dangling’ phosphorus arms and tri(hetero)metallic butenynyl moieties
    M. S. Inkpen, A. J. P. White, T. Albrecht, and N. J. Long.
    Journal of Organometallic Chemistry, 812, 145-150, 2016 [DOI]
  34. Oxide-coated silicon nanowire array capacitor electrodes in room temperature ionic liquid
    L. Qiao, A. Shougee, T. Albrecht, and K. Fobelets.
    Electrochimica Acta, 210, 32-37, 2016 [DOI]
  35. Oligomeric ferrocene rings
    M. S. Inkpen, S. Scheerer, M. Linseis, A. J. P. White, R. F. Winter, T. Albrecht, and N. J. Long.
    Nature Chemistry, 8(9), 825-830, 2016 [DOI]
  36. Unsupervised vector-based classification of single-molecule charge transport data
    Mario Lemmer, Michael S. Inkpen, Katja Kornysheva, Nicholas J. Long, and Tim Albrecht.
    Nature Communications, 7, 1–10, 2016 [DOI]
  37. Electrodeposition and bipolar effects in metallized nanopores and their use in the detection of insulin
    A. Rutkowska, K. Freedman, J. Skalkowska, M. J. Kim, J. B. Edel, and T. Albrecht.
    Analytical Chemistry, 87(4), 2337-2344, 2015 [DOI]
  38. Which way up? Recognition of homologous DNA segments in parallel and antiparallel alignments
    D. J. O. Lee, A. Wynveen, T. Albrecht, and A. A. Kornyshev.
    Journal of Chemical Physics, 142(4), , 2015 [DOI]
  39. Synchronized optical and electronic detection of biomolecules using a low noise nanopore platform
    W. H. Pitchford, H. -J. Kim, A. P. Ivanov, H. -M. Kim, J. -S. Yu, R. J. Leatherbarrow, T. Albrecht, K. -B. Kim, and J. B. Edel.
    ACS Nano, 9(2), 1740-1748, 2015 [DOI]
  40. Challenges of biomolecular detection at the nanoscale: Nanopores and microelectrodes
    K. Mathwig, T. Albrecht, E. D. Goluch, and L. Rassaei.
    Analytical Chemistry, 87(11), 5470-5475, 2015 [DOI]
  41. Electronic structures of cyclometalated palladium complexes in the higher oxidation states
    B. N. Nguyen, L. A. Adrio, T. Albrecht, A. J. P. White, M. A. Newton, M. Nachtegaal, S. J. A. Figueroa, and K. K. Hii.
    Dalton Transactions, 44(37), 16586-16591, 2015 [DOI]
  42. The Unusual Redox Properties of Fluoroferrocenes Revealed through a Comprehensive Study of the Haloferrocenes
    M. S. Inkpen, S. Du, M. Hildebrand, A. J. P. White, N. M. Harrison, T. Albrecht, and N. J. Long.
    Organometallics, 34(22), 5461-5469, 2015 [DOI]
  43. New Insights into Single-Molecule Junctions Using a Robust, Unsupervised Approach to Data Collection and Analysis
    M. S. Inkpen, M. Lemmer, N. Fitzpatrick, D. C. Milan, R. J. Nichols, N. J. Long, and T. Albrecht.
    Journal of the American Chemical Society, 137(31), 9971-9981, 2015 [DOI]
  44. Avoiding problem reactions at the ferrocenyl-alkyne motif: A convenient synthesis of model, redox-active complexes for molecular electronics
    M. S. Inkpen, A. J. P. White, T. Albrecht, and N. J. Long.
    Dalton Transactions, 43(41), 15287-15290, 2014 [DOI]
  45. SSB binding to single-stranded DNA probed using solid-state nanopore sensors
    D. Japrung, A. Bahrami, A. Nadzeyka, L. Peto, S. Bauerdick, J. B. Edel, and T. Albrecht.
    Journal of Physical Chemistry B, 118(40), 11605-11612, 2014 [DOI]
  46. Label-free Pb(II) whispering gallery mode sensing using self-assembled glutathione-modified gold nanoparticles on an optical microcavity
    S. Panich, K. A. Wilson, P. Nuttall, C. K. Wood, T. Albrecht, and J. B. Edel.
    Analytical Chemistry, 86(13), 6299-6306, 2014 [DOI]
  47. Electrochemical applications of nanopore systems
    T. Albrecht, M. Carminati, G. Ferrari, P. Nuttall, W. Pitchford, and A. J. Rutkowska.
    SPR Electrochemistry, 12(1), 155-186, 2014 [DOI]
  48. High precision fabrication and positioning of nanoelectrodes in a nanopore
    A. P. Ivanov, K. J. Freedman, M. J. Kim, T. Albrecht, and J. B. Edel.
    ACS Nano, 8(2), 1940-1948, 2014 [DOI]
  49. Single molecule ionic current sensing in segmented flow microfluidics
    T. R. Gibb, A. P. Ivanov, J. B. Edel, and T. Albrecht.
    Analytical Chemistry, 86(3), 1864-1871, 2014 [DOI]
  50. Oxidative purification of halogenated ferrocenes
    M. S. Inkpen, S. Du, M. Driver, T. Albrecht, and N. J. Long.
    Dalton Transactions, 42(8), 2813-2816, 2013 [DOI]
  51. Mapping the ion current distribution in nanopore/electrode devices
    A. Rutkowska, J. B. Edel, and T. Albrecht.
    ACS Nano, 7(1), 547-555, 2013 [DOI]
  52. Single-molecule studies of intrinsically disordered proteins using solid-state nanopores
    D. Japrung, J. Dogan, K. J. Freedman, A. Nadzeyka, S. Bauerdick, T. Albrecht, M. J. Kim, P. Jemth, and J. B. Edel.
    Analytical Chemistry, 85(4), 2449-2456, 2013 [DOI]
  53. Branched redox-active complexes for the study of novel charge transport processes
    M. S. Inkpen, T. Albrecht, and N. J. Long.
    Organometallics, 32(20), 6053-6060, 2013 [DOI]
  54. Rapid Sonogashira cross-coupling of iodoferrocenes and the unexpected cyclo-oligomerization of 4-ethynylphenylthioacetate
    M. S. Inkpen, A. J. P. White, T. Albrecht, and N. J. Long.
    Chemical Communications, 49(50), 5663-5665, 2013 [DOI]
  55. Rapid ultrasensitive single particle surface-enhanced raman spectroscopy using metallic nanopores
    M. P. Cecchini, A. Wiener, V. A. Turek, H. Chon, S. Lee, A. P. Ivanov, D. W. McComb, J. Choo, T. Albrecht, S. A. Maier, and J. B. Edel.
    Nano Letters, 13(10), 4602-4609, 2013 [DOI]
  56. Design and characterization of a current sensing platform for silicon-based nanopores with integrated tunneling nanoelectrodes
    M. Carminati, G. Ferrari, A. P. Ivanov, T. Albrecht, and M. Sampietro.
    Analog Integrated Circuits and Signal Processing, 77(3), 333-343, 2013 [DOI]
  57. Electrochemical tunnelling sensors and their potential applications
    Tim Albrecht.
    Nature Communications, 3, 810–829, 2012 [DOI]
    [Show/hide abstract]
    The quantum-mechanical tunnelling effect allows charge transport across nanometre-scale gaps between conducting electrodes. Application of a voltage between these electrodes leads to a measurable tunnelling current, which is highly sensitive to the gap size, the voltage applied and the medium in the gap. Applied to liquid environments, this offers interesting prospects of using tunnelling currents as a sensitive tool to study fundamental interfacial processes, to probe chemical reactions at the single-molecule level and to analyse the composition of biopolymers such as DNA, RNA or proteins. This offers the possibility of a new class of sensor devices with unique capabilities.
  58. Solid-state nanopores for biosensing with submolecular resolution
    A. Bahrami, F. Doǧan, D. Japrung, and T. Albrecht.
    Biochemical Society Transactions, 40(4), 624-628, 2012 [DOI]
  59. Probing electron transport in proteins at room temperature with single-molecule precision
    M. S. Inkpen and T. Albrecht.
    ACS Nano, 6(1), 13-16, 2012 [DOI]
  60. Nanobiotechnology: A new look for nanopore sensing
    T. Albrecht.
    Nature Nanotechnology, 6(4), 195-196, 2011 [DOI]
  61. DNA tunneling detector embedded in a nanopore
    A. P. Ivanov, E. Instuli, C. M. McGilvery, G. Baldwin, D. W. McComb, T. Albrecht, and J. B. Edel.
    Nano Letters, 11(1), 279-285, 2011 [DOI]
  62. Flow-based autocorrelation studies for the detection and investigation of single-particle surface-enhanced resonance raman spectroscopic events
    M. P. Cecchini, M. A. Stapountzi, D. W. McComb, T. Albrecht, and J. B. Edel.
    Analytical Chemistry, 83(4), 1418-1424, 2011 [DOI]
  63. Ultrafast surface enhanced resonance raman scattering detection in droplet-based microfluidic systems
    M. P. Cecchini, J. Hong, C. Lim, J. Choo, T. Albrecht, A. J. DeMello, and J. B. Edel.
    Analytical Chemistry, 83(8), 3076-3081, 2011 [DOI]
  64. How to understand and interpret current flow in nanopore/electrode devices
    T. Albrecht.
    ACS Nano, 5(8), 6714-6725, 2011 [DOI]
  65. Resizing metal-coated nanopores using a scanning electron microscope
    G. A. T. Chansin, J. Hong, J. Dusting, A. J. Demello, T. Albrecht, and J. B. Edel.
    Small, 7(19), 2736-2741, 2011 [DOI]
  66. Nanopore/electrode structures for single-molecule biosensing
    M. Ayub, A. Ivanov, E. Instuli, M. Cecchini, G. Chansin, C. McGilvery, J. Hong, G. Baldwin, D. McComb, J. B. Edel, and T. Albrecht.
    Electrochimica Acta, 55(27), 8237-8243, 2010 [DOI]
  67. New developments in nanopore research – From fundamentals to applications
    T. Albrecht, J. B. Edel, and M. Winterhalter.
    Journal of Physics Condensed Matter, 22(45), , 2010 [DOI]
  68. Precise electrochemical fabrication of sub-20 nm solid-state nanopores for single-molecule biosensing
    M. Ayub, A. Ivanov, J. Hong, P. Kuhn, E. Instuli, J. B. Edel, and T. Albrecht.
    Journal of Physics Condensed Matter, 22(45), , 2010 [DOI]
  69. Layering and shear properties of an ionic liquid, 1-ethyl-3- methylimidazolium ethylsulfate, confined to nano-films between mica surfaces
    S. Perkin, T. Albrecht, and J. Klein.
    Physical Chemistry Chemical Physics, 12(6), 1243-1247, 2010 [DOI]
  70. Interfacial redox processes of cytochrome b562
    P. Zuo, T. Albrecht, P. D. Barker, D. H. Murgida, and P. Hildebrandt.
    Physical Chemistry Chemical Physics, 11(34), 7430-7436, 2009 [DOI]
  71. Charge transport in nanoscale junctions
    T. Albrecht, A. Kornyshev, and T. Bjørnholm.
    Journal of Physics Condensed Matter, 20(37), , 2008 [DOI]
  72. Single-molecule electron transfer in electrochemical environments
    J. Zhang, A. M. Kuznetsov, I. G. Medvedev, Q. Chi, T. Albrecht, P. S. Jensen, and J. Ulstrup.
    Chemical Reviews, 108(7), 2737-2791, 2008 [DOI]
  73. A density functional theory study of the electronic properties of Os(II) and Os(III) complexes immobilized on Au(111)
    N. M. O’Boyle, T. Albrecht, D. H. Murgida, L. Cassidy, J. Ulstrup, and J. G. Vos.
    Inorganic Chemistry, 46(1), 117-124, 2007 [DOI]
  74. Single-molecule conductance of redox molecules in electrochemical scanning tunneling microscopy
    W. Haiss, T. Albrecht, H. Van Zalinge, S. J. Higgins, D. Bethell, H. Höbenreich, D. J. Schiffrin, R. J. Nichols, A. M. Kuznetsov, J. Zhang, Q. Chi, and J. Ulstrup.
    Journal of Physical Chemistry B, 111(24), 6703-6712, 2007 [DOI]
  75. Intrinsic multistate switching of gold clusters through electrochemical gating
    T. Albrecht, S. F. L. Mertens, and J. Ulstrup.
    Journal of the American Chemical Society, 129(29), 9162-9167, 2007 [DOI]
  76. Mechanism of electrochemical charge transport in individual transition metal complexes
    T. Albrecht, A. Guckian, A. M. Kuznetsov, J. G. Vos, and J. Ulstrup.
    Journal of the American Chemical Society, 128(51), 17132-17138, 2006 [DOI]
  77. Voltammetry and in situ scanning tunnelling microscopy of de novo designed heme protein monolayers on Au(111)-electrode surfaces
    T. Albrecht, W. -W. Li, W. Haehnel, P. Hildebrandt, and J. Ulstrup.
    Bioelectrochemistry, 69(2), 193-200, 2006 [DOI]
  78. In situ scanning tunnelling spectroscopy of inorganic transition metal complexes
    T. Albrecht, K. Moth-Poulsen, J. B. Christensen, A. Guckian, T. Bjørnholm, J. G. Vos, and J. Ulstrup.
    Faraday Discussions, 131, 265-279, 2006 [DOI]
  79. Scanning tunneling spectroscopy in an ionic liquid
    T. Albrecht, K. Moth-Poulsen, J. B. Christensen, J. Hjelm, T. Bjørnholm, and J. Ulstrup.
    Journal of the American Chemical Society, 128(20), 6574-6575, 2006 [DOI]
  80. Potential-induced structural transitions of DL-homocysteine monolayers on Au(1 1 1) electrode surfaces
    J. Zhang, A. Demetriou, A. C. Welinder, T. Albrecht, R. J. Nichols, and J. Ulstrup.
    Chemical Physics, 319(1-3), 210-221, 2005 [DOI]
  81. Transistor effects and in Situ STM of redox molecules at room temperature
    T. Albrecht, A. Guckian, J. Ulstrup, and J. G. Vos.
    IEEE Transactions on Nanotechnology, 4(4), 430-433, 2005 [DOI]
  82. Transistor-like behavior of transition metal complexes
    T. Albrecht, A. Guckian, J. Ulstrup, and J. G. Vos.
    Nano Letters, 5(7), 1451-1455, 2005 [DOI]
  83. Electrochemistry and bioelectrochemistry towards the single-molecule level: Theoretical notions and systems
    J. Zhang, Q. Chi, T. Albrecht, A. M. Kuznetsov, M. Grubb, A. G. Hansen, H. Wackerbarth, A. C. Welinder, and J. Ulstrup.
    Electrochimica Acta, 50(15), 3143-3159, 2005 [DOI]
  84. Electrochemical and spectroscopic investigations of immobilized de novo designed heme proteins on metal electrodes
    T. Albrecht, W. Li, J. Ulstrup, W. Haehnel, and P. Hildebrandt.
    ChemPhysChem, 6(5), 961-970, 2005 [DOI]
  85. Prototype for in Situ Detection of Atmospheric NO3and N2O5via Laser-Induced Fluorescence
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