• On December 15th, I presented at the American Geophysical Union (AGU) Annual Conference – Exploring Indoor Thermal Environment of Lunar Habitats – Implications of 3D-Printed Wall Configuration.

    A little background about my year-long project: I investigated heat transfer within lunar habitat walls using simulations in ANSYS, where the walls were partially composed of indigenous lunar material, steel and multi-layer insulation.

    The NASA Artemis mission aims to transport humans to the lunar surface again to explore the lunar surface and determine potential lunar habitat environments. This could have huge impacts on the scientific community, exploration for resources, signs of water, extraterrestrial life, and much more. To support life, lunar habitats must be able to withstand the extreme temperatures of the Moon. The moon lacks an insulating atmosphere, and thus despite receiving the same flux of solar radiation, it experiences hundreds of degrees of temperature swings, meteorites, particles and energy from the Sun and beyond (NASA).

    One solution to the challenges of designing life support systems on the Moon comes from
    using thermal properties of indigenous materials to understand possible lunar habitat
    environments. The habitats must be capable of withstanding extreme temperatures and thermal
    stresses resulting from the extreme weather. During my 9th grade science project, I studied the thermal properties of a lunar habitat, constructed using lunar regolith, and lunar weather data are used to simulate a viable lunar habitat for humans on the Moon. The thermal properties of habitats using indigenous resources and the corresponding long-term environmental quality in habitats as well as lunar weather data could help provide important insight to the system design for a habitat for astronauts to operate from and quarter in.

    Although 9th grade Science Fair ended in Spring 2025, I continued working with Dr. Arup Bhattacharya (Louisiana State University), my mentor and guide on the project, and presented our results at AGU 2025 this week! What is equally awesome is that our research was selected and covered by AGU’s EOS magazine (Astronauts Could Live In Structures Made From Moon Rocks – Eos).

    The entire experience was unreal! I met so many amazing new people from around the world, and got to visit stations set up by NASA, U.S. Department of Energy National Energy Technology Lab, Oak Ridge National Lab, Sandia National Lab, Lawrence Livermore National Lab, and the University of Arizona (go Wildcats!). I was interviewed by Ms. Kaia Glickman from EOS magazine. There were also so many interesting presentations at AGU – I wish I could have seen them all!

  • Let’s learn a little about circuits!

    Electric circuits have many usages in our everyday life – our lights, fridges, phones, computers, cars, and so much more.

    Let’s take a simple circuit with two resistors (both 4 Ohms) and a battery with voltage 8 V.

    An important relation in circuits is the equation V = IR, where V is the potential difference (in this case, 8 V), R is resistance, in Ohms, and I is current, in Amperes.

    To calculate resistance, we first must determine if the resistors are in series or parallel.

    If the resistors are in series, then the total resistance is calculated by summing the resistance of each individual resistor. However, if they are in parallel, then we take the reciprocal of the resistance of each resistor and then sum them together. After summing them, we take the reciprocal of our sum to calculate the total resistance of the current.

    Thus, if the two resistors are in series, the total resistance is 8 Ohms, and by V = IR, we calculate the current to be 1 Ampere.

    If the two resistors are in parallel, then we have the total resistance to be 1/(1/4 + 1/4) = 2 Ohms, and by V = IR, the current is 4 Amperes.

    Hooray! Now we have solved a simple circuit problem 🙂

    If you want another problem, consider the following:
    We have two resistors in series, with resistance 2 Ohms and 4 Ohms, respectively. These resistors are in parallel with another resistor of 6 Ohms. Calculate the current of the circuit if these resistors are in a closed loop circuit with a battery of voltage 9 V.

    A solution will be attached to the next post!

    • Data scientists have to analyze huge amounts of information!
    • There are many means of collecting and transporting information.
    • One such way is quantum information.
      • Quantum information is transmitted through bits of information called qubits.
        • Qubits can transmit vast quantities of data.
        • They are generally found in one of two states: 0 and 1.
        • Qubits can be entangled with other qubits; during entanglement, we can determine information about properties of one qubit based off the other qubit it is entangled with! This is because during entanglement, the two qubits influence each other’s states, and thus their properties correlate.
        • Whenever a qubit is measured, the quantumness of the system is destroyed; that is to say that the superposed state a qubit is in becomes a definite classical state (the aforementioned 0 or 1) with predetermined probability. This process is irreversible.

    • The job of a data scientist, as one might expect, is to analyze vast quantities of data and determine trends.
    • Data science is used everywhere in industries:
      • Used to predict the future of the stock market
      • Aids in predicting outbreaks of disease
      • Sports industries commonly use data science to draw trends and make conclusions about YOUR favorite sports teams
    • What I like about data science:
      • Statistics. I enjoy solving statistics problems and can’t wait to take AP Stats!
      • Drawing conclusions. When given a set of data, I love finding patterns and making charts to display information!
      • Computer science involvement. I like coding a lot, and when analyzing large quantities of data, I have to create programs to help with analysis. It’s very interesting!

  • I like spending time with my friends.

    I like Math and Physics.

    I like the stars and solving problems.

    I really like eating my Dad’s grilled lamb-chops 😛 😛

  • Hi, I am Adhrit and this is my blog :-).