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University of Colorado
1.
Bromley, Sarah Louise.
Many-Body Physics in an Optical Lattice Clock.
Degree: PhD, 2018, University of Colorado
URL: https://scholar.colorado.edu/phys_gradetds/240 
► In this work we study the effect of interactions in an optical lattice clock based on fermionic Sr atoms. In current one-dimensional lattice clocks…
(more)
▼ In this work we study the effect of interactions in an optical lattice clock based on fermionic Sr atoms. In current one-dimensional lattice clocks nuclear spin-polarized atoms are known to have contact interactions of <i>p</i>-wave character and collective in nature. Here we focus on interactions that will influence the design of future optical lattice clocks. We study the case where atoms are no longer confined to a single nuclear spin state. By using samples of atoms with different distributions among the ten nuclear spin states of Sr we show that these interactions are SU(<i>N</i>) symmetric up to a 3% uncertainty in our measurements. Through these measurements we are also able to determine all the <i>s</i>-wave and <i>p</i>-wave scattering lengths. We also study the case of nuclear spin-polarized interacting atoms that are allowed to tunnel between different lattice sites where the electronic spin and the motion of these atoms become coupled. We observe spectroscopically the precession of the collective magnetization and evolution of spin locking effects arising from the interplay between <i>p</i>-wave interactions and interactions induced by the spin-orbit coupling. The many-body dynamics are captured by a spin model that describes a broad class of condensed matter systems ranging from superconductors to quantum magnets. By loading a dense sample of atoms into a magneto-optical trap we are able to observe long-range dipole-dipole interactions between our Sr atoms. These interactions will be important for atomic clocks based on a three dimensional lattice, such as the one recently demonstrated in our lab. In these clocks it is possible to remove the contact interactions between the atoms by loading only one atom per lattice site. In this case the dominant interactions will be from the long-range dipole-dipole interactions that will take place between the atoms.
Advisors/Committee Members: Jun Ye, Ana Maria Rey, James Thompson.
Subjects/Keywords: atomic clocks; collective; spin-orbit coupling; strontium; spin-polarized; Atomic, Molecular and Optical Physics; Physics
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APA (6th Edition):
Bromley, S. L. (2018). Many-Body Physics in an Optical Lattice Clock. (Doctoral Dissertation). University of Colorado. Retrieved from https://scholar.colorado.edu/phys_gradetds/240
Chicago Manual of Style (16th Edition):
Bromley, Sarah Louise. “Many-Body Physics in an Optical Lattice Clock.” 2018. Doctoral Dissertation, University of Colorado. Accessed March 02, 2021.
https://scholar.colorado.edu/phys_gradetds/240.
MLA Handbook (7th Edition):
Bromley, Sarah Louise. “Many-Body Physics in an Optical Lattice Clock.” 2018. Web. 02 Mar 2021.
Vancouver:
Bromley SL. Many-Body Physics in an Optical Lattice Clock. [Internet] [Doctoral dissertation]. University of Colorado; 2018. [cited 2021 Mar 02].
Available from: https://scholar.colorado.edu/phys_gradetds/240.
Council of Science Editors:
Bromley SL. Many-Body Physics in an Optical Lattice Clock. [Doctoral Dissertation]. University of Colorado; 2018. Available from: https://scholar.colorado.edu/phys_gradetds/240
University of Colorado
2.
Chen, Jwo-Sy.
Ticking near the Zero-Point Energy: Towards 1 x 10^-18 Accuracy in Al^+ Optical Clocks.
Degree: PhD, Physics, 2017, University of Colorado
URL: https://scholar.colorado.edu/phys_gradetds/218
► The advancement of optical atomic clocks in the past two decades has motivated many potential applications in navigation, communication, and science. Accurate optical clocks that…
(more)
▼ The advancement of optical atomic clocks in the past two decades has motivated many potential applications in navigation, communication, and science. Accurate optical clocks that outperform the current cesium time standard also trigger a discussion about a possible redefinition of the SI second. The
27Al
+ quantum logic clocks developed at the National Institute of Standards and Technology (NIST) were the first to achieve the clock fractional frequency uncertainty below 10
-17 in 2010. To date, a few research groups around the world have demonstrated optical clocks based on various atomic transitions with fractional frequency uncertainty in the 10
-18 range. The accuracy of the previous
27Al
+ clocks was limited by the second order Doppler (time dilation) shift and the blackbody shift. Since 2010, the third
27Al
+ optical clock is being developed at NIST to achieve a higher accuracy. The frequency uncertainties dominant in the previous clocks are controlled and reduced in the current optical clock. The new design of the ion trap system has reduced significantly both the blackbody radiation shift uncertainty and the time dilation shift uncertainty due to micromotion, while the time dilation shift uncertainty due to the secular motion has been reduced by more than an order of magnitude by operating the optical clock near the three dimensional zero-point energy. Despite those previously dominant uncertainties, several other systematic effects are being evaluated and some other efforts are being made to achieve a total uncertainty towards 1.0 x 10
-18. In this thesis, I will document the detail of the construction and evaluation of the current
27Al
+ optical clock developed at NIST.
Advisors/Committee Members: David Wineland, David Leibrandt, James Thompson, Murray Holland.
Subjects/Keywords: atomic clock; ion trap; optical clcok; Atomic, Molecular and Optical Physics
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APA (6th Edition):
Chen, J. (2017). Ticking near the Zero-Point Energy: Towards 1 x 10^-18 Accuracy in Al^+ Optical Clocks. (Doctoral Dissertation). University of Colorado. Retrieved from https://scholar.colorado.edu/phys_gradetds/218
Chicago Manual of Style (16th Edition):
Chen, Jwo-Sy. “Ticking near the Zero-Point Energy: Towards 1 x 10^-18 Accuracy in Al^+ Optical Clocks.” 2017. Doctoral Dissertation, University of Colorado. Accessed March 02, 2021.
https://scholar.colorado.edu/phys_gradetds/218.
MLA Handbook (7th Edition):
Chen, Jwo-Sy. “Ticking near the Zero-Point Energy: Towards 1 x 10^-18 Accuracy in Al^+ Optical Clocks.” 2017. Web. 02 Mar 2021.
Vancouver:
Chen J. Ticking near the Zero-Point Energy: Towards 1 x 10^-18 Accuracy in Al^+ Optical Clocks. [Internet] [Doctoral dissertation]. University of Colorado; 2017. [cited 2021 Mar 02].
Available from: https://scholar.colorado.edu/phys_gradetds/218.
Council of Science Editors:
Chen J. Ticking near the Zero-Point Energy: Towards 1 x 10^-18 Accuracy in Al^+ Optical Clocks. [Doctoral Dissertation]. University of Colorado; 2017. Available from: https://scholar.colorado.edu/phys_gradetds/218
University of Colorado
3.
Wu, Hao.
Achieving a Large Density of Hydroxyl Radicals for Cold Collisions.
Degree: PhD, 2019, University of Colorado
URL: https://scholar.colorado.edu/phys_gradetds/285
► Molecular physics has experienced groundbreaking progress in the fields of precision spectroscopy, chemical reaction kinetics, quantum state engineering and many-body physics. In order to better…
(more)
▼ Molecular physics has experienced groundbreaking progress in the fields of precision spectroscopy, chemical reaction kinetics, quantum state engineering and many-body physics. In order to better observe these phenomena, there is an insatiable pursuit of larger trapped molecular densities and longer lifetime. In this thesis, several key milestones that we have recently achieved towards these goals for hydroxyl radicals (OH) are reported. First, we discovered an enhanced spin-flip behavior of dipolar molecules due to the existence of dual (electric and magnetic) dipole moments and obtained a better understanding of complex spin-dynamics for both Hund's case (a) and (b) molecules in mixed electric and magnetic fields. Second, we demonstrated that the skimmer cooling technique can be applied to radicals and the production of OH can be enhanced by factor of 30 due to both clogging mitigation and more favorable skimmer-valve distance. Finally, we showed some preliminary results that it is possible to use a newly built Stark decelerator to study electric field controlled sub-kelvin collisions in an intra-beam.
Advisors/Committee Members: Jun Ye, John Bohn, Murray Holland, James Thompson, Carl Lineberger.
Subjects/Keywords: enhanced spin-flip loss; hydroxyl radicals; skimmer cooling; sub-kelvin collisions; Atomic, Molecular and Optical Physics; Physics
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APA (6th Edition):
Wu, H. (2019). Achieving a Large Density of Hydroxyl Radicals for Cold Collisions. (Doctoral Dissertation). University of Colorado. Retrieved from https://scholar.colorado.edu/phys_gradetds/285
Chicago Manual of Style (16th Edition):
Wu, Hao. “Achieving a Large Density of Hydroxyl Radicals for Cold Collisions.” 2019. Doctoral Dissertation, University of Colorado. Accessed March 02, 2021.
https://scholar.colorado.edu/phys_gradetds/285.
MLA Handbook (7th Edition):
Wu, Hao. “Achieving a Large Density of Hydroxyl Radicals for Cold Collisions.” 2019. Web. 02 Mar 2021.
Vancouver:
Wu H. Achieving a Large Density of Hydroxyl Radicals for Cold Collisions. [Internet] [Doctoral dissertation]. University of Colorado; 2019. [cited 2021 Mar 02].
Available from: https://scholar.colorado.edu/phys_gradetds/285.
Council of Science Editors:
Wu H. Achieving a Large Density of Hydroxyl Radicals for Cold Collisions. [Doctoral Dissertation]. University of Colorado; 2019. Available from: https://scholar.colorado.edu/phys_gradetds/285
University of Colorado
4.
Foss-Feig, Michael Simonds.
Quantum simulation of many-body physics with neutral atoms, molecules, and ions.
Degree: PhD, Physics, 2012, University of Colorado
URL: https://scholar.colorado.edu/phys_gradetds/70
► Real materials are extremely complicated, and any attempt to understand their bulk properties must begin with the appropriate choice of an idealized model, or…
(more)
▼ Real materials are extremely complicated, and any attempt to understand their bulk properties must begin with the appropriate choice of an idealized model, or Hamiltonian. There are many situations where such models have furnished a decisive understanding of complex quantum phenomena, such as BCS superconductivity and quantum magnetism. There are also cases, for instance the unconventional superconductivity of doped cuprates or heavy-fermion metals, where even the simplest conceivable models are intractable to current theoretical techniques. A promising route toward understanding the physics of such models is to simulate them directly with a highly controlled quantum system. Ultracold neutral atoms, polar molecules, and ions are in many ways ideally suited to this task.
In this thesis, we emphasize how the unique features of particular atomic and molecular sys- tems can be leveraged to access interesting physics in experimentally feasible temperature regimes. In chapter 3, we consider prospects for simulation of the Kondo lattice model using alkaline- earth atoms. In particular, we show how groundstate properties – for instance anomalous mass enhancement – can be probed by looking at far-from equilibrium dynamics, which are a standard diagnostic tool in ultracold atom experiments. Chapter 4 describes a realistic implementation of a bosonic version of the Kondo lattice model, and we show how the Kondo interaction qualitatively changes the superfluid to Mott insulator phase transition. Chapters 5, 6, and 7 are unified through an attempt to understand the effects of dissipation in many-body quantum systems. In chapter 5, our goal is mainly to understand the detrimental effects of two-body reactive collisions on dipolar molecules in a 3D optical lattice. Chapter 6 takes a rather different perspective, and shows that this type of loss naturally induces quantum correlations in the steady state of reactive fermionic molecules or alkaline earth atoms. In chapter 7, we develop an exact analytic solution for the non-equilibrium dynamics of long-ranged Ising models with Markovian decoherence. We apply our solution to the benchmarking of dynamics in an existing trapped-ion quantum simulator, which due to its large size and long-ranged, frustrated, interactions is well beyond the reach of a brute force numerical description.
Advisors/Committee Members: Ana Maria Rey, Mike Hermele, James Thompson, Jun Ye, Mark Ablowitz.
Subjects/Keywords: kondo physics; open quantum systems; quantum simulation; ultracold atomic gases; Atomic, Molecular and Optical Physics; Condensed Matter Physics
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APA (6th Edition):
Foss-Feig, M. S. (2012). Quantum simulation of many-body physics with neutral atoms, molecules, and ions. (Doctoral Dissertation). University of Colorado. Retrieved from https://scholar.colorado.edu/phys_gradetds/70
Chicago Manual of Style (16th Edition):
Foss-Feig, Michael Simonds. “Quantum simulation of many-body physics with neutral atoms, molecules, and ions.” 2012. Doctoral Dissertation, University of Colorado. Accessed March 02, 2021.
https://scholar.colorado.edu/phys_gradetds/70.
MLA Handbook (7th Edition):
Foss-Feig, Michael Simonds. “Quantum simulation of many-body physics with neutral atoms, molecules, and ions.” 2012. Web. 02 Mar 2021.
Vancouver:
Foss-Feig MS. Quantum simulation of many-body physics with neutral atoms, molecules, and ions. [Internet] [Doctoral dissertation]. University of Colorado; 2012. [cited 2021 Mar 02].
Available from: https://scholar.colorado.edu/phys_gradetds/70.
Council of Science Editors:
Foss-Feig MS. Quantum simulation of many-body physics with neutral atoms, molecules, and ions. [Doctoral Dissertation]. University of Colorado; 2012. Available from: https://scholar.colorado.edu/phys_gradetds/70
University of Colorado
5.
Campbell, Sara L.
A Fermi-Degenerate Three-Dimensional Optical Lattice Clock.
Degree: PhD, Physics, 2017, University of Colorado
URL: https://scholar.colorado.edu/phys_gradetds/214
► Strontium optical lattice clocks have the potential to simultaneously interrogate millions of atoms with a spectroscopic quality factor Q = 4 x 10 17. Previously,…
(more)
▼ Strontium optical lattice clocks have the potential to simultaneously interrogate millions of atoms with a spectroscopic quality factor Q = 4 x 10
17. Previously, atomic interactions have forced a compromise between clock stability, which benefits from a large atom number, and accuracy, which suffers from density-dependent frequency shifts. Here, we demonstrate a scalable solution which takes advantage of the high, correlated density of a degenerate Fermi gas in a three-dimensional optical lattice to guard against on-site interaction shifts. Using a state-of-the-art ultra-stable laser, we achieve an unprecedented level of atom-light coherence, reaching Q = 5.2 x 10
15 with 1 x 10
4 atoms. We investigate clock systematics unique to this design; in particular, we show that contact interactions are resolved so that their contribution to clock shifts is orders of magnitude lower than in previous experiments, and we measure the combined scalar and tensor magic wavelengths for state-independent trapping along all three lattice axes.
Advisors/Committee Members: Jun Ye, James Thompson, Ana Maria Rey, Cindy Regal, Robert McLeod.
Subjects/Keywords: 3D optical lattice; atomic clock; degenerate Fermi gas; optical lattice clock; precision metrology; quantum gases; Atomic, Molecular and Optical Physics; Physics
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APA (6th Edition):
Campbell, S. L. (2017). A Fermi-Degenerate Three-Dimensional Optical Lattice Clock. (Doctoral Dissertation). University of Colorado. Retrieved from https://scholar.colorado.edu/phys_gradetds/214
Chicago Manual of Style (16th Edition):
Campbell, Sara L. “A Fermi-Degenerate Three-Dimensional Optical Lattice Clock.” 2017. Doctoral Dissertation, University of Colorado. Accessed March 02, 2021.
https://scholar.colorado.edu/phys_gradetds/214.
MLA Handbook (7th Edition):
Campbell, Sara L. “A Fermi-Degenerate Three-Dimensional Optical Lattice Clock.” 2017. Web. 02 Mar 2021.
Vancouver:
Campbell SL. A Fermi-Degenerate Three-Dimensional Optical Lattice Clock. [Internet] [Doctoral dissertation]. University of Colorado; 2017. [cited 2021 Mar 02].
Available from: https://scholar.colorado.edu/phys_gradetds/214.
Council of Science Editors:
Campbell SL. A Fermi-Degenerate Three-Dimensional Optical Lattice Clock. [Doctoral Dissertation]. University of Colorado; 2017. Available from: https://scholar.colorado.edu/phys_gradetds/214
University of Colorado
6.
Bowler, Ryan.
Coherent Ion Transport in a Multi-electrode Trap Array.
Degree: PhD, Physics, 2014, University of Colorado
URL: https://scholar.colorado.edu/phys_gradetds/130
► Quantum information processors are predicted to enable a significant speedup in solving certain classes of problems compared to their classical counterparts. For one scheme…
(more)
▼ Quantum information processors are predicted to enable a significant speedup in solving certain classes of problems compared to their classical counterparts. For one scheme of a processor implementation, required elements include qubits with long coherence times, laser-induced universal gates, information transport, and motional-state initialization using a second coolant ion species. Techniques described in this thesis include the use of a multiple electrode segmented trap, wherein information transport is achieved through the transport of qubit ions between spatially distinct locations. While experiment timescales had previously been dominated by ion transport and re-cooling of motional states, I have achieved transport and separation of qubit ions on timescales comparable to quantum logic gates. This work has been extended to achieve fast transport of qubit and coolant two-species ion chains. The developed techniques for ion transport result in low motional excitations, reducing the need for re-initialization of ion motional states. This can enable significant improvement in the operation time of an ion-based quantum information processor.
Advisors/Committee Members: David Wineland, Cindy Regal, Konrad Lehnert, James Thompson, Kelvin Wagner.
Subjects/Keywords: computation; ion; quantum; transport; Atomic, Molecular and Optical Physics
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APA (6th Edition):
Bowler, R. (2014). Coherent Ion Transport in a Multi-electrode Trap Array. (Doctoral Dissertation). University of Colorado. Retrieved from https://scholar.colorado.edu/phys_gradetds/130
Chicago Manual of Style (16th Edition):
Bowler, Ryan. “Coherent Ion Transport in a Multi-electrode Trap Array.” 2014. Doctoral Dissertation, University of Colorado. Accessed March 02, 2021.
https://scholar.colorado.edu/phys_gradetds/130.
MLA Handbook (7th Edition):
Bowler, Ryan. “Coherent Ion Transport in a Multi-electrode Trap Array.” 2014. Web. 02 Mar 2021.
Vancouver:
Bowler R. Coherent Ion Transport in a Multi-electrode Trap Array. [Internet] [Doctoral dissertation]. University of Colorado; 2014. [cited 2021 Mar 02].
Available from: https://scholar.colorado.edu/phys_gradetds/130.
Council of Science Editors:
Bowler R. Coherent Ion Transport in a Multi-electrode Trap Array. [Doctoral Dissertation]. University of Colorado; 2014. Available from: https://scholar.colorado.edu/phys_gradetds/130
University of Colorado
7.
Lin, Yiheng.
Quantum Entanglement Generation in Trapped Ions Using Coherent and Dissipative Methods.
Degree: PhD, Physics, 2015, University of Colorado
URL: https://scholar.colorado.edu/phys_gradetds/150
► Entangled states are a key resource in fundamental quantum physics, quantum cryptography, and quantum computation. In this thesis, we focus on the demonstrations of…
(more)
▼ Entangled states are a key resource in fundamental quantum physics, quantum cryptography, and quantum computation. In this thesis, we focus on the demonstrations of two novel methods to generate entanglement. First, we implement dissipative production of a maximally entangled steady state on two trapped ions. Dissipative and coherent processes are combined and implemented in a continuous time-independent fashion, analogous to optical pumping of atomic states, continuously driving the system towards the steady entangled state. With this method, we obtain a Bell state fidelity up to 0.89(2). Second, we propose and demonstrate a novel coherent process to confine quantum evolution in a subspace between an initial separable state and the target entangled state. We demonstrate this scheme on two and three ions obtaining a Bell state fidelity up to 0.992(2). Both of these methods are robust against certain types of experimental noise and decoherence. Additionally, we demonstrate sympathetic cooling of ion chains to near the ground
state of motion with an electromagnetically-induced-transparency (EIT) method. This results in roughly an order of magnitude faster cooling time while using significantly lower laser power compared to the conventional resolved sideband cooling method. These techniques may be helpful for scaled-up quantum computing.
Advisors/Committee Members: David J. Wineland, James Thompson, Cindy Regal, Eric Cornell, David Jonas.
Subjects/Keywords: open quantum system; quantum computing; quantum entanglement; quantum information; quantum optics; trapped ion experiment; Atomic, Molecular and Optical Physics; Optics; Quantum Physics
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APA ·
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APA (6th Edition):
Lin, Y. (2015). Quantum Entanglement Generation in Trapped Ions Using Coherent and Dissipative Methods. (Doctoral Dissertation). University of Colorado. Retrieved from https://scholar.colorado.edu/phys_gradetds/150
Chicago Manual of Style (16th Edition):
Lin, Yiheng. “Quantum Entanglement Generation in Trapped Ions Using Coherent and Dissipative Methods.” 2015. Doctoral Dissertation, University of Colorado. Accessed March 02, 2021.
https://scholar.colorado.edu/phys_gradetds/150.
MLA Handbook (7th Edition):
Lin, Yiheng. “Quantum Entanglement Generation in Trapped Ions Using Coherent and Dissipative Methods.” 2015. Web. 02 Mar 2021.
Vancouver:
Lin Y. Quantum Entanglement Generation in Trapped Ions Using Coherent and Dissipative Methods. [Internet] [Doctoral dissertation]. University of Colorado; 2015. [cited 2021 Mar 02].
Available from: https://scholar.colorado.edu/phys_gradetds/150.
Council of Science Editors:
Lin Y. Quantum Entanglement Generation in Trapped Ions Using Coherent and Dissipative Methods. [Doctoral Dissertation]. University of Colorado; 2015. Available from: https://scholar.colorado.edu/phys_gradetds/150
University of Colorado
8.
Kindel, William F.
Generation and Efficient Measurement of Single Photons Using Superconducting Circuits.
Degree: PhD, Physics, 2015, University of Colorado
URL: https://scholar.colorado.edu/phys_gradetds/153
► In this thesis, I demonstrate and evaluate an on-demand source of single propagating microwaves photons. Working in the context of a quantum network, nodes…
(more)
▼ In this thesis, I demonstrate and evaluate an on-demand source of single propagating microwaves photons. Working in the context of a quantum network, nodes are connected via propagating, nonclassical states of the electromagnetic field. As such, preparing and detecting propagating quantum states is an essential task. I work with one particular node consisting of a microfabricated, effective two level system coupled to a microwave resonator and study its ability to produce propagating nonclassical states, such as single photon states. In principle, states generated by this node could be sent to other such nodes. However, I send them into a Josephson parametric amplifier (JPA) to characterize the source.
In particular, I discuss how to design and couple the two components that form my source: a fixed frequency transmon qubit and a 3D superconducting waveguide cavity. I demonstrate the ability to control of the dynamics of this combined system and implement a single photon generation protocol, which utilizes a single microwave control field that is far detuned from the photon emission frequency. To characterize the generation, I perform tomography on the propagating photon state to determine its density matrix
ρ. I perform repeated JPA-backed, linear measurements of the propagating state. Based on the histograms of my measurements, I infer a maximum single photon component
ρ11 = 0:36 ± 0:01. I characterize the imperfections of the photon generation and detection, including detection inefficiency and measurement backaction. I find that within uncertainty my measurements match my expectation.
Advisors/Committee Members: Konrad W. Lehnert, Murray Holland, Charles Rogers, James Thompson, Mathias Weber.
Subjects/Keywords: circuit; microwave; photon; qubit; cavity design; coupled system; Quantum Physics
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APA ·
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APA (6th Edition):
Kindel, W. F. (2015). Generation and Efficient Measurement of Single Photons Using Superconducting Circuits. (Doctoral Dissertation). University of Colorado. Retrieved from https://scholar.colorado.edu/phys_gradetds/153
Chicago Manual of Style (16th Edition):
Kindel, William F. “Generation and Efficient Measurement of Single Photons Using Superconducting Circuits.” 2015. Doctoral Dissertation, University of Colorado. Accessed March 02, 2021.
https://scholar.colorado.edu/phys_gradetds/153.
MLA Handbook (7th Edition):
Kindel, William F. “Generation and Efficient Measurement of Single Photons Using Superconducting Circuits.” 2015. Web. 02 Mar 2021.
Vancouver:
Kindel WF. Generation and Efficient Measurement of Single Photons Using Superconducting Circuits. [Internet] [Doctoral dissertation]. University of Colorado; 2015. [cited 2021 Mar 02].
Available from: https://scholar.colorado.edu/phys_gradetds/153.
Council of Science Editors:
Kindel WF. Generation and Efficient Measurement of Single Photons Using Superconducting Circuits. [Doctoral Dissertation]. University of Colorado; 2015. Available from: https://scholar.colorado.edu/phys_gradetds/153
. 
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