IHI

IHI is a heavy-industry manufacturer company that focuses in four main areas: energy, infrastructure, industrial systems, and aerospace

IHI is a heavy-industry manufacturer company thatfocuses in four main areas: energy, infrastructure, industrial systems, and aerospace. They utilized their shipbuilding technology in new areas, such as heavy machinery manufacturing, bridge building, plant construction and aero-engine production. 

IHI was formerly known as Ishikawajima-Harima Heavy Industries Co.

Specific field: clean energy; renewable energy; batteries; software development; system engineering; robotics; telecommunication

Student Story|Jose Rios, ChemE, '18

Jose Rios, ChemE, '18

During MISTI Japan, by stepping a bit out of my comfort zone and trying new things I was able to have many unforgettable experiences!

Jose hard at work @ IHI

IHI is a heavy-industry manufacturer company focused on a variety of fields from Resource, Energy and Environment to Aero/Space Engineering. Specifically I worked with my mentor to make and test a specific Clathrate catalyst in order to produce Ammonia gas at high rates from Hydrogen and Nitrogen gas. In the future, this Ammonia could be used in a small scale renewable energy plant in gas turbines or solid oxygen fuel cells. Our goal was to adjust the composition and measure the activation energy and ammonia production rate to determine an optimal composition. My job would be to make the catalyst and also perform many tests on each catalyst by measuring ammonia production. By the end I was able to successfully make and test many catalysts and help my mentor get closer at determining the variety of trends that composition have on catalyst rate and activation energy.

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Student Story|Alex Lam, Aero/Astro, '21

Alex Lam, Aero/Astro, '21

MISTI Japan gave me the opportunity to obtain real-life work experience while working on my Japanese in and out of the workplace. The cultural immersion that IHI and MISTI Japan offered were unparalleled, and it was an incredible experience all around. I was able to both develop my technical skills at work as well as explore Japan as a whole. I would highly recommend the experience to anyone who has the opportunity!

Alex Lam with the Autonomous Transport Group that he worked with in Yokohama

IHI is a heavy industry company rooted in the shipbuilding industry and its spinoffs

My Project at the Autonomous Transport Group:

•Early R&D stages of testing autonomous vehicle controllers that can be retrofitted to existing industry vehicles for use in shipyards and open mines

•Responsible for testing, validating, and visualizing autonomous controllers and path planners for driving passenger cars, tractor-trailers, and articulated haulers operating in both forward and reverse using MATLAB’s SimScape MultiBody

•Implemented literature controllers such as Pure Pursuit, PID-F, and Stanley Method controllers

•Implemented path planners ranging from brute force to RRT* algorithm with visualization of routes

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Student Story|Lisa Zahray, EECS, '19

Lisa Zahray, EECS, '19

I’ve made some of my favorite memories on this trip, had more fun than I even imagined, all while learning skills I’ll definitely use in the future.

Lisa '19, with some of her coworkers at IHI after giving a presentation

IHI – Heavy Industry: Energy, Infrastructure, Industrial Systems, and Aero/Space/Defense
Project: Automatic Design System Based on Reinforcement Learning for Aero-Engine Blades

 

Accomplishments:

•Implemented and compared two reinforcement learning methods (DDPG and DQN) on continuous pendulum task

•Implemented DDPG algorithm to interface with OpenFoam (fluid dynamics software) in python

•Improved DDPG runtime by precomputing discrete actions, then moving to continuous

•Found techniques to help combat hyperparameter sensitivity for image input

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Student Story|De Xin Chen, Materials Science, '18

De Xin Chen, Materials Science, '18

"Without prior lab experience at MIT, it would be challenging to tackle the issue because it is not something that can be seen or realized directly.  Therefore, I am glad I was able to successfully put to use the skills and knowledge MIT taught me."

De Xin at his work desk

IHI has six different factories in Japan, each with a  different specialization. As a heavy industry oriented company, IHI also has other types of researches. The Department of Applied Science in Yokohama Works (one of its six factories) is one of the examples.

The Department of Applied Science contains engineers from many different fields such as chemistry, physics, and pharmaceutical science. Some of its on-going project includes wireless charging, femtosecond laser, carbon capture and storage, and teraherz waves. Indeed, it is surprising that a heavy industry company actually has these other non heavy-industry related researches.

My project in IHI focuses on the storage part in Carbon Capture and Storage (CCS). What is CCS? In short, CCS captures exhaust gas from factory, distills and condenses CO2 into pure or near-pure liquid, and transports the liquid to store in depleted oil/gas reservoir or sub-seabed repository. However, there is a possibility of leakage, so it is necessary to produce a electrochemical liquid carbon dioxide sensor, which is the primary focus of my project.

Due to the originality of the idea, however, some of the results did not come out as expected. Since it is difficult to visualize the actual process occurring inside the sensor, it is necessary to test it via other means. MIT teaches me how to approach such abstract problem and break it down into little pieces in order to find a solution. In my case, I have to design experiments to test every little part that might contribute to the error such as the electrode preparation, the chemical used to prepare the sensor, the pre-made carbon dioxide solution, and the equipment used to test our sensor.  After countless experiments and literature searches, I found that the temperature in the rinsing process is too high such that it provides enough energy to break the chemical bonding in the sensor.

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Student Story|Corinne Drysdale, MSE, '18

Corinne Drysdale, MSE, '18

"While working at IHI, I noticed a very collaborative community. It seemed that everyone was well aware of what everyone else was working on, and that getting results was dependent on a team effort that required many different engineer’s skills. There was a very strong group dynamic where the focus was on the group accomplishing their goals together, rather than individuals focused primarily on furthering their own careers."

I worked in one of IHI’s research and development departments, the Advanced Applied Science Department in Yokohama. As IHI has accepted many interns from the MIT-Japan program over the last few years, I noticed that there was strong connection with MIT amongst the engineers from this department.

This project studied the optical properties of a relatively new nanomaterial, carbon nanowalls, for use in an ultrashort pulse laser. Carbon nanowalls are small and short pieces of graphite that stand vertically on a surface. This unique structure creates valuable optical properties that can shorten the pulse of the laser down to an order of valuable optical properties that can shorten the pulse of the laser down to an order of 10-15 s. However, fabrication of carbon nanowalls can be quite difficult. The purpose of this internship was to optimize various factors in the fabrication of carbon nanowalls so that they may demonstrate ideal optical properties for use in the laser. During this internship, I read several research papers to learn and expand on theknowledge we had about the subject. I had experience with carbon nanostructures from the undergraduate research I performed last summer, and I was able to use that experience when performing carbon nanowall fabrication and analysis. At the end of the internship, I used the skills I learned from my communication-intensive materials laboratory class to present the results of the project.

In the Advanced Applied Science Department, I worked on the development of the optical properties of a fairly new and largely unexamined material, for a new purpose: the development of ultrashort pulse lasers. The pulse of the lasers we worked on was not much longer than the shortest pulse ever created in a laser. The ultrashort pulse laser can have many potential applications, including spectroscopy, 3D optical memory, and Lasik eye surgery. As we explored a new material’s unexamined potential uses, I would categorize this project as innovation.

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Student Story|Mina Blume, Materials Science & Engineering, '17

Mina Blume, Materials Science & Engineering, '17

I was able to use some of the things we learned in the various labs I have done at MIT. My supervisor was very surprised when I was able to explain exactly how the scanning electron microscope and EDXS produced the data they do.

Mina Blume with her co-workers from the Materials Research Department at IHI

I was working in the Materials Research Department of IHI. Because IHI makes a lot of heavy machinery and products, it is important that the materials used to make those products are durable and designed with the products’ working environment and function in mind.

My project at IHI was oxidation property evaluation of silicide and ceramics for use in jet engine turbine vane materials.

Most of my project dealt with studying oxidation, corrosion and diffusion. I had learned a little about those subjects this past spring in 3.022, Microstructural Evolution of Materials.

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Student Story|George Liu-Krason, Chem, '18

George Liu-Krason, Chem, '18

"Thanks to my MISTI Japan internship, I now have a clearer image of what I want to do post-graduation. I wasn’t sure I would like working in Japan, but this summer has shown me that working in Japan is something I want to seriously pursue."

George in his IHI work uniform

The department I worked for was called the Advanced Applied Science Department. It is a research and development division.  They work on a variety of projects which are thought up by the company or commissioned by clients.

It turned out that my internship was similar to the previous MIT intern De Xin Chen’s project. I was working with the same advisor, Hiroshi Sato, on a chemical sensor. The previous work had been for developing a chemical sensor for CO2, but my project was detection of glucose.

The purpose of a chemical sensor is to detect the presence  of a target molecule. Good chemical sensors are able to do so even in the presence of impurities.  The chemical sensor used in these experiments used a molecule called Phenylboronic Acid (PBA). PBA is able to bind to sugars like glucose which can be detected via electrochemical measurement.

 

 

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