Specializing in diverse engineering projects...

Specializing in diverse engineering projects...

We tackle a wide array of challenges across multiple domains. Our projects include the development of cutting-edge RF signal attenuation systems, the creation of advanced wearable skin sensors, and the engineering of high-speed robotic systems designed for precision tasks such as drone capture. Our work reflects a commitment to solving unique and complex engineering challenges, delivering specialized solutions tailored to each project’s demands.


For more detailed project presentation examples, please reach out to aashray.manchanda@berkeley.edu

We tackle a wide array of challenges across multiple domains. Our projects include the development of cutting-edge RF signal attenuation systems, the creation of advanced wearable skin sensors, and the engineering of high-speed robotic systems designed for precision tasks such as drone capture. Our work reflects a commitment to solving unique and complex engineering challenges, delivering specialized solutions tailored to each project’s demands.


For more detailed project presentation examples, please reach out to aashray.manchanda@berkeley.edu

Spring 2025

Spring 2024

Spring 2025

01

MechE

Robotics

Muon Space

Working with Muon Space, a team of 6 ESB students designed and validated a turnover dolly for satellites. The turnover dolly rotates in multiple axes and passes load, backlash, safety, and NASA standards. The design will be built by Muon and will assist with manufacturing and servicing satellites.

02

EECS

MechE

Tesla Force Sensor

Continuing with Tesla's approach to develop a localized force-deflection sensor, ESB designed an "onion graph" display, showcasing a layer-by-layer breakdown of seat stiffness across 3D space. This application was made to be intuitive for any technician to operate.

03

MechE

EECS

Robotics

PAGE Technologies

For PAGE Technologies, we developed a low-cost, inline solution for mass deployment of a hydroponic sensor through a tank system that would pump nutrient-rich water from a pipe, get a reading from the sensor, then spit the water back out. The team worked on research into industry practices, waterproofing standards in engineering, and fluid actuation methods.

04

Robotics

MechE

EECS

Solideon Gas Visualization System

Partnering with Solideon, the ESB team developed a low-cost Schlieren imaging setup to visualize gas flow during robotic welding processes. The team designed a modular test fixture and optical system capable of capturing real-time high-contrast gas flow images using mirror-based techniques and a high-intensity LED light source. This prototype enables better understanding of shielding gas behavior during welding operations.

Fall 2024

Fall 2024

01

Robotics

MechE

EECS

Rapid Robotics Lightbox Scanner

Tasked by Rapid Robotics, the ESB team created a compact 3D scanning lightbox to improve SKU registration and training for robotic packing arms. The device integrates an adjustable turntable, multiple imaging systems, and structured lighting within a modular enclosure. The system produces clean 3D object scans under variable lighting and background conditions, streamlining dataset collection for machine learning applications.

02

EECS

Robotics

Endiatx

Working with Endiatx, a medical robotics startup, the ESB team designed and prototyped an automated robotic manufacturing system to improve reliability and speed of assembly. This project heavily involved problem solving, CAD, physical prototyping, control systems, tolerance analysis, and intelligent electrical design.

03

EECS

MechE

Tesla Force Sensor

Collaborating with Tesla, ESB developed a handheld localized force-deflection sensor rig to characterize car seats. The team was tasked with designing the probing device that read stiffness measurements at any given probe.

04

MechE

Tesla Armrest

The ESB team

Spring 2024

Spring 2025

Spring 2024

01

EECS

MechE

Robotics

KIND HUMANOID Artificial Skin Sensing

KIND HUMANOID Artificial Skin Sensing

The ESB team was assigned to develop a cost-efficient robotic skin for the next version of Kind Humanoid's Mona robot, incorporating high-resolution touch sensing. They conducted experimental research on material properties and resistive and capacitive sensing. This led to the creation of a 10 cm x 10 cm Flex PCB-based capacitive sensing prototype capable of detecting forces up to 100N.

ESB developed a cost-efficient robotic skin for Kind Humanoid's Mona robot, incorporating high-resolution touch sensing. They conducted experimental research on material properties and resistive and capacitive sensing. This led to the creation of a 10 cm x 10 cm Flex PCB-based capacitive sensing prototype capable of detecting forces up to 100N.

02

MechE

NAVIER Sonar Mounting System

NAVIER Sonar Mounting System

ESB developed and integrated a sonar system for hydrofoil electric boats. This obstacle detection system enables Navier to test sonars for collisions, pushing their goal of autonomous marine travel. The team of 5 engineers designed a 7-foot-long hydrodynamic foil system to securely position a sonar below the boat, optimizing foil designs with CFD, machining rigid mounting systems, and coding obstacle detection algorithms.

ESB developed and integrated a sonar system for hydrofoil electric boats. This obstacle detection system enables Navier to test sonars for collisions, pushing their goal of autonomous marine travel. The team of 5 engineers designed a 7-foot-long hydrodynamic foil system to securely position a sonar below the boat, optimizing foil designs with CFD, machining rigid mounting systems, and coding obstacle detection algorithms.

03

MechE

NAVIER Underwater Camera Mount

NAVIER Underwater Camera Mount

ESB researched, designed, and manufactured an hydrodynamic underwater camera mount to study potential cavitation on the hydrofoils of the boat. Our engineers specified our camera choice and conducted research on minimizing drag underwater, conducting CFD on our specified profile for our design. We then designed a mount that would hold our cameras in place while being removable from the hydrofoil.

ESB researched, designed, and manufactured an hydrodynamic underwater camera mount to study potential cavitation on the hydrofoils of the boat. Our engineers specified our camera choice and conducted research on minimizing drag underwater, conducting CFD on our specified profile for our design. We then designed a mount that would hold our cameras in place while being removable from the hydrofoil.

04

Robotics

EECS

MechE

SENTIEN Large Cable Robot

SENTIEN Large Cable Robot

Designed and built a shipping container-sized cable robot to address mechanical and software challenges. Tasks included CAD design and manufacturing of robust winching components, integration of advanced control algorithms for software enhancement, and rigorous testing to characterize system performance.

Designed and built a shipping container-sized cable robot to address mechanical and software challenges. Tasks included CAD design and manufacturing of robust winching components, integration of advanced control algorithms for software enhancement, and rigorous testing to characterize system performance.

01

EECS

MechE

DITTO RF-Attenuating Design

Ditto is a software company that enables communication between devices with or without an internet connection. ESB designed and built a RF-attenuating entrance for Ditto's anechoic testing chamber to enable device communication without internet. We built a sliding mechanism that accounts for thick RF-attenuating material and restrictions with the physical room.

02

EECS

Robotics

SENSIBLE Skin Testing Sensor

To test Sensible Robotics' novel skin sensor, capable of detecting touch more precisely than human skin, ESB was responsible for testing and collecting data for the sensor. By designing and assembling an actuatable claw to test grip strength, Sensible can receive data detailing the effectiveness of their sensor and locate areas for improvement.

03

EECS

MechE

Robotics

SENTIEN High Speed Cable Robot

Continuing Sentien's experimental approach to drone fleet applications, the ESB team was tasked with developing a high-speed cable robot to catch drones mid-flight. This fixture allows greater accuracy for drone docking procedures and allows Sentien to expand into fixed-wing aircraft. We built a six-foot by six-foot winch robot and developed a control scheme to allow us to move the platform to the desired position.

04

System Analysis

MechE

SENTIEN Heat Transfer Optimization

One of Sentien's drone hub systems was experiencing lower-than-desired efficiency when operating in hot climates. ESB analyzed the current system and developed solutions. The team provided researched options for heat transfer systems, as well as thermal analysis calculations and heat location calculators to help set up a customized heat transfer solution.

Fall 2023

Fall 2023

01

EECS

MechE

DITTO RF-Attenuating Design

Ditto is a software company that enables communication between devices with or without an internet connection. ESB designed and built a RF-attenuating entrance for Ditto's anechoic testing chamber to enable device communication without internet. We built a sliding mechanism that accounts for thick RF-attenuating material and restrictions with the physical room.

02

EECS

Robotics

SENSIBLE Skin Testing Sensor

To test Sensible Robotics' novel skin sensor, capable of detecting touch more precisely than human skin, ESB was responsible for testing and collecting data for the sensor. By designing and assembling an actuatable claw to test grip strength, Sensible can receive data detailing the effectiveness of their sensor and locate areas for improvement.

03

EECS

MechE

Robotics

SENTIEN High Speed Cable Robot

Continuing Sentien's experimental approach to drone fleet applications, the ESB team was tasked with developing a high-speed cable robot to catch drones mid-flight. This fixture allows greater accuracy for drone docking procedures and allows Sentien to expand into fixed-wing aircraft. We built a six-foot by six-foot winch robot and developed a control scheme to allow us to move the platform to the desired position.

04

System Analysis

MechE

SENTIEN Heat Transfer Optimization

One of Sentien's drone hub systems was experiencing lower-than-desired efficiency when operating in hot climates. ESB analyzed the current system and developed solutions. The team provided researched options for heat transfer systems, as well as thermal analysis calculations and heat location calculators to help set up a customized heat transfer solution.

Fall 2023

Spring 2023

Spring 2023

Spring 2023

01

EECS

MechE

SENTIEN Drone Delivery System

SENTIEN Drone Delivery System

Designed for Sentien Robotics, this project loaded tennis ball shaped packages into a wirelessly controlled system capable of feeding the balls to certain drones. A separate team worked on a modular winching system that would lower said packages to the final location. This was used as an initial test by Sentien for how feasible drone package delivery is for the company.

Designed for Sentien Robotics, this project loaded tennis ball shaped packages into a wirelessly controlled system capable of feeding the balls to certain drones. A separate team worked on a modular winching system that would lower said packages to the final location. This was used as an initial test by Sentien for how feasible drone package delivery is for the company.

02

EECS

MechE

Robotics

HEDGEHOG Mushroom Composting

HEDGEHOG Mushroom Composting

Hedgehog Foods is an agri-tech robotics startup whose mission is to automate mushroom farming. Our project was to miniaturize a composting unit, used to create mushroom feed. It involved HVAC design, robotics, and a thorough understanding of PID control.

Hedgehog Foods is an agri-tech robotics startup whose mission is to automate mushroom farming. Our project was to miniaturize a composting unit, used to create mushroom feed. It involved HVAC design, robotics, and a thorough understanding of PID control.

03

EECS

MechE

SEISMIC Electromechanical Testing Rig

SEISMIC Electromechanical Testing Rig

ESB members worked on an electromechanical testing rig designed to test wearable use cases for Seismic's assistive suits. From initial CAD ideas to implementing sensors and other electronics, this project allowed Seismic to accurately test their suits in a streamlined process.

ESB members worked on an electromechanical testing rig designed to test wearable use cases for Seismic's assistive suits. From initial CAD ideas to implementing sensors and other electronics, this project allowed Seismic to accurately test their suits in a streamlined process.

04

MechE

BIMOTAL Wheelchair Market Adaptation

BIMOTAL Wheelchair Market Adaptation

Bimotal, a modular electric bike startup, designs products to integrate motors and batteries into standard bicycles, converting them into electric bikes. ESB developed an adaptation of their product for the wheelchair market, requiring intensive CAD design, FEA, and market research.

Specializing in diverse engineering projects...

We tackle a wide array of challenges across multiple domains. Our projects include the development of cutting-edge RF signal attenuation systems, the creation of advanced wearable skin sensors, and the engineering of high-speed robotic systems designed for precision tasks such as drone capture. Our work reflects a commitment to solving unique and complex engineering challenges, delivering specialized solutions tailored to each project’s demands.


For more detailed project presentation examples, please reach out to aashray.manchanda@berkeley.edu

Specializing in diverse engineering projects...

We tackle a wide array of challenges across multiple domains. Our projects include the development of cutting-edge RF signal attenuation systems, the creation of advanced wearable skin sensors, and the engineering of high-speed robotic systems designed for precision tasks such as drone capture. Our work reflects a commitment to solving unique and complex engineering challenges, delivering specialized solutions tailored to each project’s demands.


For more detailed project presentation examples, please reach out to aashray.manchanda@berkeley.edu