My attitude toward emerging
technologies continues to evolve, shifting from curiosity and excitement to a
more intentional and ethically informed mindset. Early in my professional and
academic experiences, I viewed new technology as inherently positive – something
to adopt quickly because it represented progress, efficiency, or modernization.
Like many early adopters described in innovation diffusion theory, I use to believe
implementing new tools demonstrated forward thinking and adaptability. However,
experience has reshaped that perspective. As artificial intelligence (AI),
machine learning, automation, and large-scale data systems entered education
and behavioral fields, I began questioning not only what technology could do
but also whether it should do certain things. Today, instead of adopting
technology simply because it is innovative, I evaluate whether it aligns with
meaningful goals, human-centered learning values, and long-term societal
implications (Davenport & Ronanki, 2018). My willingness to adopt new tools
has not disappeared, but it has become more measured, strategic, and grounded
in purpose.
Much of this shift has been
influenced by learning about the ethical and social impacts of emerging
technologies such as AI, blockchain, and big data. Understanding how these
systems reshape power, decision-making, and human relationships has made technology
adoption feel less neutral and more like a deliberate ethical stance. Scholars
have emphasized that AI systems are not passive; they embed assumptions,
biases, and values shaped by the data and designers behind them (Chklovski,
2019; Goksel & Bozkurt, 2019). Learning about instances of algorithmic
bias, digital surveillance, and inequitable decision pathways has encouraged me
to think critically before integrating technology into instructional or
clinical practice (Dennis, 2018). This awareness has shifted my position on the
innovation curve. Rather than rushing toward the newest AI-enabled tool, I now
consider questions of transparency, governance, privacy, and equity before
endorsing or using emerging systems.
One ethical dilemma that deeply
resonated with me is the concern over algorithmic bias, specifically when
flawed or incomplete datasets inform automated decisions affecting vulnerable
populations. This issue is especially relevant within education and behavioral
sciences, where data often informs intervention pathways, access to support, and
evaluation of student behavior. According to Fournier (2018), AI systems
trained on narrow or biased datasets can unintentionally reinforce inequity
rather than reduce it. Understanding this has made me more cautious about
integrating AI systems without strong human oversight, responsible data
governance, and evidence of equity-focused design. Instead of being an
unquestioning early adopter, I now fall closer to the early majority group – still
open to innovation, but guided by ethical discernment.
This ethical lens becomes even more
important when examining the rise of AI and its implications for the global
workforce. Research predicts that automation and intelligent systems will
reshape – not just support – labor sectors across industries (Dillon, 2019).
While AI may create new career pathways, it may also displace workers lacking
digital access, training, or economic flexibility (Hogle, 2017). Key figures in
technology and policy have expressed concerns about widening inequality,
accelerated labor shifts, and the existential uncertainty surrounding AI-driven
systems (Ciolacu et al., 2018). Simultaneously, others argue that AI can serve
as a powerful augmentation tool that enhances, rather than replaces, human
labor by removing repetitive work and enabling higher-level tasks (Edwards
& Cheok, 2018). These contrasting perspectives reflect broader social
tension: AI may democratize access or deepen inequity depending on how systems
are implemented and governed.
Within the profession of Applied
Behavior Analysis (ABA), AI presents both potential benefits and challenges. On
the positive side, AI-assisted analytics may help clinicians streamline data
collection, identify patterns, and support treatment decisions grounded in
behavioral science principles (Dillon, 2019). Automation may also reduce
administrative burden, allowing behavior analysts to spend more time building
therapeutic rapport and delivering meaningful interventions. AI-supported
instructional systems could expand learner access, especially for individuals
in remote or underserved communities (Ciolacu et al., 2018).
However, the risks cannot be
ignored. AI systems may oversimplify complex behavioral variables or generate
recommendations without true contextual understanding. The nuance of human
communication, rapport, developmental variability, and environmental influence
could be lost if AI models are treated as authoritative rather than supportive
(Dennis, 2018). Additionally, the profession must address critical questions
around data privacy, informed consent, and the ethical use of sensitive
behavioral information (Chklovski, 2019). As behavior analysis intersects more
directly with AI, the field must establish strong ethical frameworks to ensure
technology enhances, rather than compromises, ethical care.
Ultimately, my stance on emerging
technologies continues to evolve as I develop a deeper understanding of their
power, limitations, and consequences. While I still value innovation, I now
believe it must be pursued with transparency, critical reflection, and an
unwavering commitment to human dignity. Technology can support meaningful
progress—but only when implemented thoughtfully, ethically, and equitably.
References
Chklovski,
T. (2019, January 28). 4 ways AI education and ethics will disrupt society in
2019—EdSurge news. EdSurge.
https://www.edsurge.com/news/2019-01-28-4-ways-ai-education-and-ethics-will-disrupt-society-in-2019
Ciolacu,
M., Tehrani, A. F., Binder, L., & Svasta, P. M. (2018). Education
4.0—Artificial intelligence assisted higher education: Early recognition system
with machine learning to support students’ success. 2018 IEEE 24th
International Symposium for Design and Technology in Electronic Packaging
(SIITME), 23–30.
Davenport,
T. H., & Ronanki, R. (2018). Artificial intelligence for the real world.
Harvard Business Review, 96(1), 108–116.
Dennis,
M. J. (2018). Artificial intelligence and higher education. Enrollment
Management Report, 22(8), 1–3.
Dillon,
J. (2019, February 19). In real life: How will AI impact workplace learning?
Learning Solutions Magazine.
https://learningsolutionsmag.com/articles/in-real-life-how-will-ai-impact-workplace-learning
Edwards,
B. I., & Cheok, A. D. (2018). Why not robot teachers: Artificial
intelligence for addressing teacher shortage. Applied Artificial Intelligence,
32(4), 345–360.
Fournier,
J. (2018, May 17). Getting your head around artificial intelligence. Learning
Solutions Magazine.
https://learningsolutionsmag.com/articles/getting-your-head-around-artificial-intelligence
Goksel,
N., & Bozkurt, A. (2019). Artificial intelligence in education: Current
insights and future perspectives. In Handbook of research on learning in the
age of transhumanism (pp. 224–236). IGI Global.
Hogle,
P. (2017, March 28). AI is everywhere, but what is AI? Learning Solutions
Magazine.
https://learningsolutionsmag.com/articles/2271/ai-is-everywhere-but-what-is-ai
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