Daniel Shorr
About
Detail
Chief of Staff to the CEO
Stanford, California, United States
Résumé
Jobs
verified_user
0% verified
Chief of Staff to the CEOTools for HumanityJan 2026 - Current (5 months)- TPM, Office of the CEOTools for HumanityJul 2025 - Current (11 months)
- Manager, Applied ResearchTools for HumanityDec 2024 - Current (1 year 6 months)
- Cofounder & CEOModulus Labs AcquiredSep 2022 - Dec 2024 (2 years 4 months)
- happle, zipline, planet, boeing, stanford bird lab, etc. (research/internships)hardwareaerospaceJun 2019 - Sep 2022 (3 years 4 months)
- coo + rockets team co-captainStanford Student Space InitiativeMar 2019 - Jan 2021 (1 year 11 months)
- Spresident + team captainSwerve Robotics FIRST RoboticsAug 2013 - Aug 2017 (4 years 1 month)
Education
verified_user
0% verified
- MSStanford UniversityJan 2020 - Dec 2022 (3 years)
- BSStanford UniversityJan 2017 - Dec 2021 (5 years)
- WWoodinville High SchoolWoodinville High SchoolJan 2013 - Dec 2017 (5 years)
Projects (professional or personal)
verified_user
0% verified
Publications
verified_user
0% verified
- IAir-Launched Low-SWaP Space-Capable Sounding RocketIEEE Aerospace Conference ProceedingsMar 2019With the goal of becoming the first civilian university to reach space, The Stanford Student Space Initiative's Spaceshot Team (SSI Spaceshot) has designed a custom rocket-balloon (rockoon) system to achieve an apogee height of greater than 100 km (i.e. to cross the Kármán Line, a widely-accepted definition of the boundary of space), while demonstrating a cheap, low Size, Weight, and Power (SWaP), suborbital launch technology. Suborbital launch represents a high-potential space for growth in aerospace as it provides a high-value market for aerospace research and a low-cost, lower-risk opportunity for agents with less capital to access space. Technologies such as this open-source rocket-balloon system provide an incredible opportunity to dem
- AHow Hummingbirds Reorient Forces During Maneuvering FlightAPS March MeetingMar 2019Hummingbirds are among the most agile of birds with the unique ability to hover in flight. While their flight kinematics have been studied extensively, their aerodynamic forces have primarily been studied using indirect methods like inverse dynamics and particle image velocimetry, which are insufficient to capture the full weight support of the bird. Here we present in vivo force recordings of maneuvering Anna's hummingbirds feeding from a moving flower using a novel 3D aerodynamic force platform. The pressure field generated by...