AI is changing the IT market: what specialists will be needed in the future?

May 12, 2026

Artificial intelligence (AI) is rapidly transforming the information technology (IT) sector. The world’s largest companies have announced layoffs affecting tens of thousands of programmers. Several Lithuanian companies have also reported reductions in their IT workforce. Does this mean that AI will replace what was until recently considered one of the most promising and highly paid professions? Experts agree: it is not the demand for programmers that is changing, but rather their role, responsibilities, and required skills.

The market is slowing down — but only temporarily

Aurimas Cholomskis, Head of Department at the applied AI and advanced engineering company Twoday, says he is constantly looking for IT specialists because the company is growing, although he acknowledges that AI is significantly reshaping the labor market. Tools such as Codex and Claude Code allow code to be generated quickly, so employers are increasingly focusing not only on employees’ technical foundations and ability to solve complex problems, but also on their ability to use AI tools effectively in daily work.

„Economic uncertainty is also contributing to these changes. At the moment, demand for IT specialists is lower than it was a few years ago, but in the long term another problem may arise — there could be a shortage of experienced specialists. If fewer beginners enter the market today, in several years this may turn into a deficit of experienced engineers,“ says A. Cholomskis.

Žmogus rašo kompiuteriu

According to him, students and young professionals who manage to establish themselves in the market today and learn how to work effectively with AI will have a unique advantage in the future.

Those who adapt to change will succeed

The nature of IT specialists’ work is also changing. Programmers are writing code themselves less frequently — their focus is shifting toward managing AI tools and ensuring the quality of results.

„AI can help achieve more, but responsibility still lies with humans — ensuring that the result is correct, safe, and meaningful,“ says A. Cholomskis.

The pace of learning is also accelerating — technologies and methodologies are changing almost every week, so the ability to continuously learn is becoming more important than expertise in a single technology.

The expert also highlights the growing demand for data engineers. The quality of AI solutions directly depends on data infrastructure, making specialists in this field increasingly important. In addition, the boundaries between different programming technologies are disappearing — versatility and adaptability are becoming more highly valued.

Companies are not lowering their expectations

Martynas Kulvietis, Head of the Lithuanian branch of the software development company Trimble Reality Capture Platform, notes that demand for IT specialists is not decreasing.

„We are hiring just as before. The number of projects is not shrinking; only expectations for programmers are increasing, both in terms of quality and productivity. The biggest challenge is how to manage the quality of AI-generated code, while also continuously improving skills related to rapidly evolving AI applications.

AI automates various processes, and we try to implement and use it everywhere: for coding, file administration, translations, and document completion. AI helps automate or accelerate work. Figuratively speaking, we are replacing a shovel with a tractor — or even several tractors at once. Modern IT engineers must move from the shovel to the tractor and learn to use it effectively,“ says M. Kulvietis.

Universities are also adapting to the changes

Higher education institutions are also having to adapt. Computer science studies are increasingly focusing not only on programming, but also on AI, data engineering, ethics, and collaboration between humans and AI.

Professor Dalius Mažeika, Dean of the Faculty of Fundamental Sciences at Vilnius Gediminas Technical University, notes that the most important thing today is developing strong foundational knowledge so future IT specialists understand algorithms, data structures, system design, cybersecurity, and possess logical thinking skills.

Dalius Mažeika

Dalius Mažeika

„AI can write a function, but it cannot replace a person who understands why that function is needed. This means programmers spend less time on mechanical coding and more on architecture, business logic, and decision-making. A programmer is becoming an engineer rather than simply a code writer. The ability to understand systems, analyze problems, and evaluate AI-generated code is becoming increasingly important.

AI is excellent at generating, but it does not take responsibility. And in business, responsibility is essential,“ emphasizes the professor.

The future programmer — a versatile creator

According to D. Mažeika, future IT specialists will need to be not only programmers, but also architects, business analysts, and product creators.

The most important skills will become:

  • problem-solving,
  • critical thinking,
  • systems integration,
  • communication with teams and businesses.

Experts agree that AI will not eliminate programmers, but rather change the nature of their work. Just as calculators did not eliminate mathematicians, AI will raise the bar for all IT specialists — those who survive and thrive will be the ones who can adapt, learn continuously, and create greater value.

Related news

New doctoral dissertation
New doctoral dissertation
VILNIUS TECH Library invites you to follow the published new dissertations. The dissertation „Analysis and modeling of deformations induced by the extrusion of fiber-reinforced polymers“ prepared at VILNIUS TECH by Mahmoud Samy Mahmoud Mohammed Farh. The dissertation was prepared in 2021–2026. Scientific consultant – Prof. Dr Viktor Gribniak. The dissertation was defended at the public meeting of the Dissertation Defense Council of the Scientific Field of Materials Engineering in the Aula Doctoralis Meeting Hall of Vilnius Gediminas Technical University at 2 p.m. on 10 June 2026. Additive manufacturing via fused filament fabrication (FFF) enables the creation of geometrically complex components. Yet, its use in structural and semi‑structural applications remains limited by anisotropic mechanical response, defect sensitivity, and fabrication‑induced residual stresses that cause warpage and geometric inaccuracy. This dissertation investigates polylactic acid (PLA)- based materials manufactured by FFF, including neat and partially recycled PLA, continuously reinforced PLA, and short-fiber-reinforced composites, to develop an integrated experimental-computational methodology for evaluating mechanical efficiency and predicting process-induced distortion. The research object comprises the mechanical, thermal, viscoelastic, microstructural, and thermo‑mechanical characteristics of these materials. The dissertation develops a unified approach linking reinforcement strategy, material structure, thermal history, mechanical performance, and warpage behavior. The adopted methodology combines quasi‑static tensile and flexural testing, thermomechanical characterization, scanning electron microscopy, and finite-element simulations. Continuous aramid reinforcement developed in this study for FFF increases the load-bearing capacity of the tension specimens by 67%. Still, reinforcement efficiency was limited by toolpath continuity, interfacial defects, and the absence of in‑process fiber tensioning. Short‑fiber-reinforced composites exhibit distinct fiber‑type‑dependent behavior: carbon‑filled PLA increases stiffness, while wood‑filled PLA enhances crystallinity, stiffness retention near the glass‑transition temperature, toughness, and dimensional fidelity. Wood‑fiber reinforcement reduces edge warpage by 43% and carbon fiber by 14.3% under identical conditions. A staged thermo‑mechanical simulation framework is developed to model printing, cooling, and detachment, transferring residual stress and distortion fields into subsequent mechanical simulations. The ABAQUS model for neat PLA predicts warpage with an average error of 8.2–10.6%, whereas a Digimat workflow captures the deformation in short‑fiber-reinforced PLA with an error of 14.3–17.9%. The latter predictions were obtained for the first time. The dissertation consists of an introduction, three main chapters, general conclusions, and references. The First Chapter provides a literature review of FFF of reinforced polymers, including material combination and modeling strategies. The Second Chapter specifies the chosen materials, test program, and thermo mechanical modeling concept. The Third Chapter evaluates experimental and numerical results, integrating mechanical, thermal, microstructural, and simulation based findings. The General Conclusions summarize the dissertation work, which is supported by four publications, including three articles in Web of Science indexed journals with impact factors, and four conference presentations. Doctoral dissertation readers can search via VILNIUS TECH Virtual Library.    
More
New doctoral dissertation
New doctoral dissertation
VILNIUS TECH Library invites you to follow the published new dissertations. The dissertation „Interaction between currency market evolution with monetary policy instruments in the age of digitisation“ („Valiutų rinkos evoliucijos sąveika su monetarinės politikos instrumentais skaitmenizacijos amžiuje“) prepared at VILNIUS TECH by Tomas Pečiuli. The dissertation was prepared in 2020–2026. Scientific consultant – Assoc. Prof. Dr Asta Vasiliauskaitė. The dissertation was defended at the public meeting of the Dissertation Defence Council of the Scientific Field of Economics in the Aula Doctoralis Meeting Hall of Vilnius Gediminas Technical University at 10 a.m. on 10 June 2026. The emergence of decentralised cryptocurrencies has created fundamental challenges for traditional monetary policy systems. Although these digital assets have the potential to increase financial inclusion and efficiency, their volatility and the lack of centralised oversight create systemic risks that cannot be properly managed using classical models. This dissertation presents an integrated hybrid analytical framework designed to quantitatively assess the impact of cryptocurrencies on monetary policy transmission mechanisms, providing policymakers with empirically grounded tools to analyse this evolving financial domain more effectively. The dissertation is divided into three main parts. The First Chapter summarises the theoretical role of cryptocurrencies in modern monetary theory. The Second Chapter presents and substantiates a new methodology that combines machine-learning techniques with advanced econometric modelling, specifically using an Elastic Net machine learning model with ARIMA residuals and MSGARCH specifications to capture regime-dependent behaviour. The Third Chapter empirically validates the framework using data from cryptocurrency markets and central bank policy operations. The empirical results show a significant asymmetric policy transmission effect, with the price of Bitcoin reacting by USD -15,348 to a 1% change in the Federal Reserve interest rate. The analysis also identifies critical volatility thresholds (σ>80%) at which cryptocurrency fluctuations increase inflation risk. These results indicate the growing systemic importance of cryptocurrencies in monetary policy dynamics. The study contributes to the emerging field of digital asset economics. The integrated modelling approach helps overcome the long-standing limitations of analysing nonlinear financial phenomena. Practical applications include real-time financial stability risk monitoring systems and evidence-based guidelines for regulatory interventions. The modular structure of the framework allows for future expansion by incorporating evolving market structures and new digital assets. The dissertation’s results have been presented to the scientific community in eight peer-reviewed publications in scientific journals and conference proceedings. This work provides central banks with essential analytical tools to maintain monetary stability and to promote responsible financial innovation in the digital era. Doctoral dissertation readers can search via VILNIUS TECH Virtual Library.
More