Update 2024-02-11

resume.cls

@@ -89,7 +89,7 @@
   {\large\bf\raggedright}{}{0em}{}
 
 \newcommand{\headerwithlabel}[3]{% bold first item, italic second, right align third
-  \vspace{0.3em}{{\bf #1}~{\it\normalsize #2}\hfill {\normalsize#3}} \\
+  \vspace{0.3em}{{\bf #1}~{\it\normalsize #2}\hfill {\it\normalsize#3}} \\
 }
 
 % TABLES AND LISTS

resume.tex

@@ -1,21 +1,21 @@
 %% RESUME - Philip Linden
 \documentclass[10pt,final,sans]{resume}
-\begin{document}
 
+\begin{document}
 \setlength\headheight{28pt} % make header tall enough
 \name{PHILIP J. LINDEN}
 \lcontact{
-  \begin{tabular}{@{}ll@{}}
-    \faLinkedin & \href{https://www.linkedin.com/in/philiplinden/}{philiplinden} \\
-    \faGithub & \href{https://github.com/philiplinden/}{philiplinden} \\
-    \faTwitter& \href{https://twitter.com/PhilipJLinden}{PhilipJLinden}
+    \begin{tabular}{@{}cl@{}}
+        \faEthereum & \href{https://etherscan.io/address/0x6bFd9e435cF6194c967094959626ddFF4473a836}{philiplinden.eth} \\
+        \faGithub & \href{https://github.com/philiplinden/}{philiplinden} \\
+        \faLinkedin & \href{https://www.linkedin.com/in/philiplinden/}{philiplinden}
   \end{tabular}
 } \rcontact{
     \begin{tabular}{@{}r@{}}
-        me@email.com \\
+        lindenphilipj@gmail.com \\
         1 Quiet St \\
-        Santa Clara, CA 95050 \\
-        (555) 555-5555
+        North America, Earth 12345 \\
+        (585) 690-7067
     \end{tabular}
 }
 
@@ -29,32 +29,47 @@ \section{Professional Summary}
 \section{Education}
 \headerwithlabel{Rochester Institute of Technology}{Rochester, NY}{May 2017}
 Bachelor of Science in Mechanical Engineering -- Aerospace Option \\
-Master of Engineering in Mechanical Engineering \\
-\begin{tabular}{@{}lll@{}}
-{\bf Graduate Paper:} & Cosmic Dawn Intensity Mapper (CDIM) &
-\href{https://github.com/runphilrun/CDIM-design/blob/master/cdim_design.pdf}{github.com/runphilrun/CDIM-design} \\
-{\bf Undergraduate Capstone:} & 1 kW Arcjet Thruster &
-\href{https://github.com/RIT-Space-Exploration/msd-P17101/blob/master/p17101.pdf}{github.com/RIT-Space-Exploration/msd-P17101}
-\end{tabular}
+Master of Engineering in Mechanical Engineering
 
 \section{Technical Skills}
-Systems Engineering, Mechanical Engineering, Aerospace Engineering,
-Electro-Optical Engineering, Image Processing, Git, Python, MATLAB, Simulink,
-OpenCV, Docker, CAD, {\textrm \LaTeX}, MacOS, Linux, Controls, Technical Writing
+Mission Operations, Space Systems Engineering, Imaging Science, Git, Python, Rust, MATLAB, Simulink, Docker, CAD,
+{\textrm \LaTeX}, MacOS, Linux, Controls, Web3 (Ethereum), Timekeeping, Technical Writing, Public Speaking
 
-\section{Engineering Experience}
+\section{Experience}
 
 \headerwithlabel{Planet}{San Francisco, CA}{November 2018 -- Present}
+Senior Space Systems Engineer, Mission Operations
+\begin{itemize}
+    \item Designed and implemented automated flight operations scripts to maximize satellite operations uptime, detect and respond to anomalies, and update onboard software.
+    \item Responsible Engineer for the entire SkySat optical assembly and onboard imaging chain.
+    \item Responsible Engineer for SkySat, Pelican, and Tanager imaging ConOps and on-orbit payload commissioning.
+\end{itemize}
+
 Space Systems Engineer / Flight Operator, SkySat Mission Operations
 \begin{itemize}
-  \item Conducted flight operations for the SkySat constellation of 21 Earth 
-  observation satellites, including manual commanding, anomaly investigation \&
-  resolution, and development of new spacecraft activities, operations 
-  procedures, automated procedures, and automated on-orbit activities.
-  \item Maintained spacecraft testbed and ground support equipment for
-  hardware-in-the-loop testing.
-  \item {\bf Projects:} SkySat Payload Commissioning \& Recalibration
-  \item {\bf Technical Paper:} Optical Image Stabilization System On-Orbit Calibration
+    \item Conducted flight operations for the SkySat constellation of 21 Earth
+    observation satellites, including manual commanding, anomaly investigation \&
+    resolution, and development of new spacecraft activities, operations
+    procedures, automated procedures, and automated on-orbit activities.
+    \item Maintained spacecraft testbed and ground support equipment for
+    hardware-in-the-loop testing.
+    \item {\bf Publications:} \href{https://digitalcommons.usu.edu/smallsat/2021/all2021/189/}{SSC21-VIII-05} (2021), \href{https://doi.org/10.1109/AERO55745.2023.10115608}{doi:10.1109/AERO55745.2023.10115608} (2023)
+\end{itemize}
+
+\headerwithlabel{MoonDAO}{San Francisco, CA}{January 2023 -- Present}
+Rocketeer, Senator, Citizen Voter
+\begin{itemize}
+    \item Voting member, community manager, and among the top 5 most active contributors.
+    \item {\bf Project:} DeSci Labs Publication Reproducibility Validations
+    \item {\bf Project:} Cislunar Open Clock Synchronization System (CLOCSS)
+\end{itemize}
+
+\headerwithlabel{Open Lunar Foundation}{San Francisco, CA}{January -- May 2023}
+Research Fellow, Timekeeping \& Lunar Clocks
+\begin{itemize}
+    \item Researched the feasibility of a local lunar time standard or a shared and openly accessible reference timing signal for positioning, navigation, and timing (PNT) capabilities of lunar missions.
+    \item Proposed the concept of a local lunar time standard that can be accessed using technology that is likely to be included in most lunar missions for nominal activities.
+    \item {\bf Project:} Possibilities for a Local Lunar Time Standard
 \end{itemize}
 
 \headerwithlabel{Lockheed Martin Space}{Sunnyvale, CA}{June 2017 -- November 2018}
@@ -65,145 +80,80 @@ \section{Engineering Experience}
   support major business pursuits.
   \item Led a software team through critical development milestones for Matlab
   engineering tools.
-\end{itemize} 
+\end{itemize}
 \headerwithlabel{SpaceX}{Hawthorne, CA}{June -- August 2016}
 Vehicle Engineering Intern, Capsule Structures
 \begin{itemize}
   \item Modeled and drafted designs for critical structures for the Crew Dragon
   vehicle.
 \end{itemize}
 
-Vehicle Engineering Intern, Capsule Reusability \hfill January -- July 2015
+Vehicle Engineering Intern, Capsule Reusability \hfill {\it January -- July 2015}
 \begin{itemize}
   \item Project development, including hands-on prototyping and designing,
   conducting and \\
   presenting experiments to explore changes to Dragon Cargo space capsules.
-  \item {\bf Projects:} Dragon Capsule Water Sealing
-\end{itemize}
-
-\headerwithlabel{RIT Center for Detectors}{Rochester, NY}{March -- May 2016}
-Lab Assistant, Mechanical Engineer
-\begin{itemize}
-  \item Created system-level designs and modeled mechanical components for
-  astronomy research \\ 
-  experiments including a cryogenic sounding rocket payload, a ground-based
-  observatory telescope, \\
-  and small spacecraft.
-  \item Led a team of undergraduate students and served as systems engineer for
-  integration of a \\
-  NASA sounding rocket research payload.
-  \item {\bf Projects:} Cryogenic Star Tracking Attitude Regulation System
-  (CSTARS)
-\end{itemize}
-
-\headerwithlabel{GE Aviation}{Cincinnati, OH}{January -- May 2014}
-Engineering Co-op, Ultrasonic Non-Destructive Test Lab
-\begin{itemize}
-  \item Analyzed scan imagery for component defects in test samples and flight
-  hardware, including \\
-  composite delaminations and weld voids.
-  \item Developed and optimized test procedures for components with irregular
-  geometry.
-  \item {\bf Projects:} GEnx Flowpath Spacer Inspection Optimization
 \end{itemize}
 
 \headerwithlabel{RIT Space Exploration (RITSPEX)}{Rochester, NY}{Fall 2014 -- Present}
 Alumni Member
 \begin{itemize}
-  \item Mentor undergraduate students working on space exploration projects.
-  \item Provide subject-matter expertise in imaging projects and control systems.
-  \item {\bf Projects:} SPEX Project Definition Document Template, {\it Where U
-  At Plants?}~(WUAP) HAB Payload, SPEXcast
+  \item Mentored undergraduate students working on space exploration projects.
+  \item Provided subject-matter expertise in imaging projects and control systems.
 \end{itemize}
 
-% \section{Additional Experience} \headerwithlabel{RIT Undergraduate
-% Admissions}{Rochester, NY}{Fall 2013--May 2017}
-
 \break
 \section{Detailed Project Descriptions}
+\headerwithlabel{spacetime}{(work in progress) \href{https://philiplinden.github.io/spacetime/}{philiplinden.github.io/spacetime}}{Personal, 2024}
+A simulation of heterogeneous networked clocks in cislunar space, built in Rust on the Bevy game engine. This project aims to use agent-based modeling and simulations to explore how network topology and time synchronization evolve in a growing lunar ecosystem. Modeling how the approach may be used in practice and at scale informs decisions about how to architect a robust cislunar PNT system that scales with the population.
+
+
+\headerwithlabel{DeSci Reproducibility Validations}{\href{https://github.com/philiplinden/cremons-et-al-2022}{\faGithub\ philiplinden/cremons-et-al-2022} \quad \href{https://nodes.desci.com/dpid/137}{nodes.desci.com/dpid/137}}{MoonDAO, 2023}
+Reproduced figures and findings of \href{https://doi.org/10.1029/2022/EA002277}{doi:10.1029/2022/EA002277} in Matlab and converted code to Python. Published on DeSci Labs with data, code, commentary, and the original manuscript.
 
-\headerwithlabel{Cosmic Dawn Intensity Mapper (CDIM)}
-{\href{https://ui.adsabs.harvard.edu/abs/2019BAAS...51g..23C/abstract}{NASA ADS abstract} | \href{https://arxiv.org/abs/1903.03144}{arXiv:1903.03144}}
-{\bf Graduate Paper}
+\headerwithlabel{Cislunar Open Clock Synchronization System (CLOCSS)}{\href{https://www.youtube.com/watch?v=cd8hiubLy48}{presentation}}{MoonDAO, 2023}
+{\it DARPA LunA-10 Proposal (Shortlisted)}
+Developed a concept for a decentralized approach to lunar infrastructure. Authored manuscript and presentation materials submitted to DARPA's \href{https://www.darpa.mil/news-events/2023-08-15}{LunA-10} capability study.
+
+\headerwithlabel{Possibilities for a Local Lunar Time Standard}{\href{https://www.openlunar.org/research/possibilities-for-a-local-lunar-time-standard}{white paper}}{Open Lunar Fellowship, 2023}
+Authored a white paper that explores the characteristics of a common reference timing signal to serve future lunar operations. The goal was to identify a low-cost, transparent approach to the development of a Local Lunar Time Standard.
+
+\headerwithlabel{On-Orbit Demonstrations of Proactive Tasking of Glint Imagery}{}
+{IEEE Aerospace Conference, 2023}
+{\it Awarded Best Paper in Track (Track 12)} \href{https://doi.org/10.1109/AERO55745.2023.10115608}{doi:10.1109/AERO55745.2023.10115608} \\
+Formalized a methodology to predict future glint windows over a specific region. Studied various tasking approaches that described the satellite's actions during these windows to autonomously acquire glint captures. These actions were then demonstrated by orbiting satellites, and their captures were then analyzed.
+
+\headerwithlabel{Automatic Optical Image Stabilization System Calibration}
+{\href{https://digitalcommons.usu.edu/smallsat/2021/all2021/189/}{SSC21-VIII-05}}
+{Small Satellite Conference, 2021}
+Developed and executed an on-orbit calibration campaign. Automated on-orbit procedures and analyses were used for calibration and validation of an optical image stabilization (OIS) system across a fleet of 19 satellites. OIS actuation settings were configured for each image capture through automated optimization procedures.
+
+\headerwithlabel{High Altitude Balloon Autonomous Altitude Control
+System}{\href{https://brickworks.github.io/Nucleus/pdr_altitudecontrol/}{brickworks.github.io/Nucleus}}{Personal, 2020}
+Designed a control system for a high altitude balloon (HAB)
+to maintain a target altitude by venting gas from the balloon and dropping
+ballast mass in flight. I modeled passive flight dynamics of a HAB in MATLAB,
+Simulink, and Python. I developed a state machine and control system in
+Simulink and used the model to tune a PID controller. I then derived a
+state-space model, Kalman filter, and LQR controller from scratch to achieve
+better performance.
+
+\headerwithlabel{Cosmic Dawn Intensity Mapper (CDIM)}{\href{https://ui.adsabs.harvard.edu/link_gateway/2019BAAS...51g..23C/doi:10.48550/arXiv.1903.03144}{doi:10.48550/arXiv.1903.03144}}{Graduate Paper, 2017}
 Contributed to a proposal for a Probe Class (\textasciitilde\$850M) NASA mission
 for a 1.5 meter space telescope intended to observe near-infrared light from the
 early universe. Compiled financial, mass, and power budgets for the optics,
 instruments, cryocooler \& spacecraft. Defined system-level design, generated
-representative CAD models and figures of the spacecraft. This mission was 
-published in the NASA 2020 Decadal Survey. My contribution: \href{https://github.com/runphilrun/CDIM-design/blob/master/cdim_design.pdf}{\it github.com/runphilrun/CDIM-design}
+representative CAD models and figures of the spacecraft. This mission was
+published in the NASA 2020 Decadal Survey. My contribution: \href{https://github.com/runphilrun/CDIM-design/blob/master/cdim_design.pdf}{\it \faGithub\ runphilrun/CDIM-design}
 
-\headerwithlabel{1 kW Arcjet Thruster}
-{\href{https://github.com/RIT-Space-Exploration/msd-P17101/blob/master/p17101.pdf}
-{github.com/RIT-Space-Exploration/msd-P17101}}{\bf Undergraduate Capstone}
+\headerwithlabel{1 kW Arcjet Thruster}{\href{https://github.com/RIT-Space-Exploration/msd-P17101/blob/master/p17101.pdf}{\faGithub\ RIT-Space-Exploration/msd-P17101}}{Undergraduate Capstone, 2017}
 Developed the concept, system-level design, and nozzle design for a small scale
 arcjet thruster demonstration. Worked in a multidisciplinary team of mechanical
 and electrical engineers. Responsible for communication between the team and the
 customer (RIT Space Exploration). Designed and performed CFD analysis on the
 thruster nozzle.
 
-\headerwithlabel{Optical Image Stabilization System On-Orbit Calibration}
-{\href{https://digitalcommons.usu.edu/smallsat/2021/all2021/189/}{Small Satellite Conference 2021}}
-{\bf Publication}
-Led a small team to calibrate SkySat Optical Image Stabilization (OIS) System,
-and overhauled the calibration process into an automated procedure. The
-automated procedure improved calibration from a manual effort requiring weeks
-of effort by a subject matter expert, to a code-assisted workflow that may be
-completed by any flight operator in a matter of hours. Wrote a conference paper
-and technical presentation describing key concepts of the technology, an
-overview of the calibration approach, and key results of the effort. The
-calibrated OIS system improves SNR and constrains motion blur to less than 1
-pixel while also allowing faster scan rates and HDR captures.
-
-\headerwithlabel{SkySat Payload Commissioning \& Recalibration}{Planet}{}
-Conducted on-orbit calibration of payload subsystems. I developed new
-procedures and Python scripts to automate calibration workflows and commission
-the payloads of eight newly launched SkySats and recalibrate payloads of the
-rest of the 21-satellite fleet.
-
-\headerwithlabel{High Altitude Balloon Autonomous Altitude Control
-System}{\href{https://brickworks.github.io/Nucleus/pdr_altitudecontrol/}{brickworks.github.io/Nucleus}}
-{\it Work In Progress}
-Designed a control system for a high altitude balloon (HAB) to maintain a
-target altitude by venting gas from the balloon and dropping ballast mass in
-flight. I modeled passive flight dynamics of a HAB in MATLAB, Simulink, and
-Python. I developed a state machine and control system in Simulink and used the
-model to tune a PID controller. I then derived a state-space model, Kalman
-filter, and LQR controller from scratch to achieve better performance. First
-flight expected to launch in 2021.
-
-\headerwithlabel{Where U At Plants?~(WUAP) High Altitude Balloon Payload}
-{\href{https://github.com/RIT-Space-Exploration/hab-cv/}{github.com/RIT-Space-Exploration/hab-cv}}{}
-Where U At Plants? (WUAP) is a high-altitude balloon payload using on-board
-image processing with a Raspberry Pi 3, Python 3 and OpenCV 3.3 to mask RGB
-images of the Earth and attempts to mask areas of vegetation using colorspace
-transformations. WUAP flew as a payload on RIT Space Exploration's HAB4 high
-altitude balloon mission on April 22, 2018. A
-\href{https://github.com/RIT-Space-Exploration/hab-cv/blob/master/reports/Project%20Definition%20Document/hab-cv.pdf}{Project
-Definition Document} and
-\href{https://github.com/RIT-Space-Exploration/hab-cv/blob/master/reports/HAB4%20Post%20Flight%20Report/report_wuap_postflight-hab4.md}{post-flight
-report} document the design intent and discuss the results.
-
-\headerwithlabel{Cryogenic Star Tracking Attitude Regulation System (CSTARS)}
-{RIT Center for Detectors}{}
-Designed the mechanical model of CSTARS, an experiment endorsed by the New York
-Space Grant and funded with \$100,000 by NASA's Undergraduate Student Instrument
-Program. I designed CAD models for the cryogenic thermal regulation system,
-telescope, and mechanical supports in Solidworks 2015. I was the systems
-engineer for payload integration with a Black Brant IX at NASA Wallops Flight
-Facility.
-
-\headerwithlabel{Dragon Capsule Water Sealing}{SpaceX}{}
-Designed and tested retrofits to the Dragon Cargo capsule in order to prevent
-water ingress on splashdown. Investigated water entry paths, conducted
-experiments to validate designs, and implemented modifications on flight
-hardware present on Dragon vehicles since the CRS-7 mission.
-
-\headerwithlabel{GEnx Flowpath Spacer Inspection Optimization}{GE Aviation}{}
-Optimized parameters for detection of internal wrinkles in composite layups
-with complex geometry during ultrasonic inspection. Conducted destructive
-microscopy to validate results and presented findings to principal engineers.
-
-\headerwithlabel{SPEXcast Podcast}{\href{https://blog.spexcast.com/}{blog.spexcast.com}}{}
+\headerwithlabel{SPEXcast Podcast}{\href{https://blog.spexcast.com/}{blog.spexcast.com}}{Personal, 2016--2021}
 I produce, edit, and co-host a space exploration podcast, which is a weekly
 discussion podcast the science and technology of space exploation. SPEXcast
 also features interviews with space scientists and industry members, including