Introduction
In 2025 some circles are debating on whether Artificial
Intelligence has integrated and saturated industry (Kennedy, 2023). Technology is making its presence known via
algorithms showing up in,
ü Virtual platforms, that use
sentiment analysis and transcribe meetings such as Read.ai.
ü Financial intelligence
systems such as predictive algorithms and market research like Fortrade or Cleo
ai which manages personal finance.
ü Virtual assistants, help
with scheduling, research, reminders etc… like Google Assistant or ClickUp.
ü Chatbots, to help with
general research, writing and idea generation such as ChatGPT or Grok.
ü Health artificial
intelligence tools to gather biometric data and make recommendations on foods,
workouts, mindfulness sessions, coaching sessions and sleep patterns such as
Calm or the Fitbit Ai or Apple’s FitnessAI.
ü Image Generators that take
user prompts and create images such as Canva, Dall-E3, Lensa and Adobe Firefly (Glover,
2025).
ü Education intelligence
systems that utilize real time data to personalize user learning experiences
ie., Duolingo (language tool) Adapted Mind Math (Mathematics tool) or Grammarly
(writing tool).
ü Integrated AI are found in
everyday applications such as Zia, the Zoho AI assistant, Microsoft’s Microsoft
Copilot, Gemini, Google apps assistant and so much more.
AI has touched most industries and researchers and technologists
are seeking to ensure that machine learning and artificial algorithms are
everywhere. This is not ambitious as it is already happening. Almost every month
there is a new AI being announced (Mauran, 2025). So, “are we witnessing the
zenith of AI’s golden age or are we on the precipice of a market saturated beyond
capacity? The tech landscape has always
been dynamic, with innovations often outpacing the market’s ability to adapt” (Kennedy,
2023).
With all the benefits of AI, humanity has yet to explore
potential innovations. A major part of influencing the scalability of AI is
ensuring that the infrastructure is in place to allow growth to happen. Immersion IQ notes that “the
infrastructure supporting these workloads has evolved from a nice-to-have to a
strategic differentiator” (2025).
A core feature of AI infrastructure is memory.
Immersion IQ explains that “memory bandwidth, storage throughput
and network connectivity are often more critical to overall performance than
raw compute power” (2025).
“We are tasking our computers
with processing ever-increasing amounts of data to speed up drug discovery,
improve weather and climate predictions, train artificial intelligence, and
much more. To keep up with this demand, we need faster, more energy-efficient
computer memory than ever before” (The Standford Report, 2024).
![]() |
| PCM Technology: Indium Selenide |
Universal Memory & The
Accidental Innovation using Indium Selenide
In December 2024 LiveScience magazine reports –
“Accidental discovery creates candidate for universal memory – a weird
semiconductor that consumes a billion times less power (Hughes, 2024). In the
race to achieve efficient memory utilization in AI systems, Universal Memory is
described as “computing memory that can replace both short-term memory like
random access memory (RAM) and storage devices like solid-state drives (SSDs)
or hard drives” (Hughes, 2024).
Universal Memory can be represented by a traditionally expensive
technology called the Phase-change memory (PCM) that engages a process using high
levels of power- called melt quenching; specialized materials to store data, and
provision of faster processing (Hughes, 2024, Orf, 2024 Shekhar, 2024, Godse,
2018). “PCM works by switching
materials between two states: crystalline, where atoms are neatly organized,
and amorphous, where atoms are arranged randomly. This encodes values 1 and 0
by changing the state of the matter. However, the technology used for this involves
heating and rapidly cooling materials and requires a lot of energy” (Rusano, 2024).
In 2024 scientists accidentally discovered data
-storage benefits while using a semiconductor material called indium selenide
(In2Se3) which uses up to one billion times less energy to bypass melt
quenching. Indium selenide uses ferroelectric materials (which provide spontaneous
polarization) and piezoelectric materials (these physically deform) to deliver the
lowered energy requirements while increasing the data storage of capabilities
for PCM (Hughes, 2024).
Scientists explain that instead of engaging in the melt-quenching process, which is common to PCM Technology, Indium Selenide uses a steady electrical current to produce mechanical shocks which convert it from a crystalline state to a glass phase using less power (SciTechDaily 2024, Orf, 2024). This revolutionary process represents a major contribution towards Universal Memory because it reduces the energy requirements and increases data storage capabilities.
Supporting forces
The forces supporting this new technology are technological. Because of the efficiency-based advantages of using Indium Selenide as a PCM technology acceptance and use by scientists, technologists and engineers would be the primary stimuli which would ensure integration into cell phones, computers (SciTechDaily, 2024) and AI applications in the current and near future.
Conclusion
Phase-change memory technology is now one of the
primary solutions towards Universal Memory, use of Indium Selenide to reduce
the cost (financial and energy) by bypassing the melt quenching process with
the added benefit of data storage makes it a forerunner in the race to create
more storage, increasing processing and lowering energy requirements for AI
(Texas Materials Institute, 2025, Godse, 2018).
While it may seem that AI has saturated industry, there
are advantages to using technology i.e. Health diagnosis analytical systems or
financial systems, which all require sound infrastructure, such as memory. Universal memory enables a wider array of
responses, productivity, predictive capability, adaptation and accuracy in
machine learning platforms (Sandil, 2025).
Innovations using PCM Technology provide efficiency, scalability and
reduced energy consumption when using materials such as Indium Selenide.
Glover, E. (2025, June 3). 42 top AI apps to know. Built In. https://builtin.com/artificial-intelligence/ai-apps
Godse, R., McPadden, A., Patel, V., & Yoon, J. (2018, November).
Memory technology enabling the next artificial intelligence revolution. In 2018
IEEE Nanotechnology Symposium (ANTS) (pp. 1-4). IEEE.
Hughes, O. (2024, December 4). “Accidental discovery” creates candidate
for universal memory — a weird semiconductor that consumes a billion times.
Live Science. https://www.livescience.com/technology/computing/accidental-discovery-creates-candidate-for-universal-memory-a-weird-semiconductor-that-consumes-a-billion-times-less-power
Kennedy,
V. (2023, September 30). AI tech boom: Is the artificial intelligence market
already saturated? Cointelegraph. https://cointelegraph.com/news/ai-market-saturated-investment/
Immersion
IQ. (2025, June 10). Understanding AI infrastructure requirements .https://immersioniq.io/understanding-ai-infrastructure-requirements/
Mauran,
C. (2025, June 29). The biggest AI announcements and high drama of 2025 (so
far). Mashable. https://mashable.com/article/biggest-ai-announcements-2025
Orf, D. (2024, December 6). A seismic new
semiconductor could lead to the holy grail of data storage. Popular Mechanics. https://www.popularmechanics.com/technology/a63095038/semiconductor-phase-change-memory/
Rusanov,
A. (2024, December 6). Accidental discovery: Scientists reduce power
consumption of PCM memory by 1 billion times. ITC.ua. https://itc.ua/en/technologies/accidental-discovery-scientists-reduce-power-consumption-of-pcm-memory-by-1-billion-times/
Sandil,
R. (2025, January 29). The powerful role of memory in AI - Rahul Sandil -
Medium. Medium.
https://medium.com/@rahulsandil/the-powerful-role-of-memory-in-ai-8dd59662fe29
SciTechDaily.
(2024, November 4) Shocking New Memory Tech: crystal-to-glass transformation
using a billion times less energy. Indian Institute of Science (IISE). https://scitechdaily.com/shocking-new-memory-tech-crystal-to-glass-transformation-using-a-billion-times-less-energy/
Shekhar,
S., Bogaerts, W., Chrostowski, L., Bowers, J., Hochbery, M., Soref, R.,
Shastri, B. (2024) Road mapping the next
generation of silicon photonics. Nat Commun 15, 751. https://doi.org/10.1038/s41467-024-44750-0
Texas
Materials Institute. (2025, January 6). IN2SE3: a new material for enhancing AI
performance. https://tmi.utexas.edu/news-events/364-in2se3-a-new-material-for-enhancing-ai-performance-led-by-dr-yurim-jeon-and-dr-deji-akinwande
The Standford Report. (2024,
January 22.). Closing in on universal
memory for large data processing Stanford University. https://news.stanford.edu/stories/2024/01/closing-universal-memory-large-data-processing

No comments:
Post a Comment