

You know what I find most frustrating about this topic? People are still stuck on Google looking at hundreds of different articles about how to train a neural network, and eventually give up because it's all math, huge datasets, and sometimes, writing code that looks like an Egyptian hieroglyphics.
Anyway, now picture this: You create a virtual employee who can handle clients, process orders and compile reports for you—all done without programmers, or PhD's by using ready-to-use "blocks" that fit together just like LEGO pieces. Sounds impossible? Not even close! Here we are in 2026, and 'traditional' training of neural networks is already outdated for most business requirements.
In the past three years, we have tested over 43 different ways of automating tasks (in both cryptocurrency and more traditional business), and it's pretty straightforward—anyone trying to create an 'AI' from scratch is wasting time and money; there's already available tools on the market that allow for automation of 95% of tasks, all which allow for no programming. The only question is, do you know how to use them?
This article isn't about how to build reinforcement-learning algorithms in Python; it's about how to create an AI Agent up and running in just hours that actually starts delivering value to your business—while your competition sits behind their computer searching for terms. We'll be going through step-by-step examples of how to do this with real-life case studies, and how no-code services are not simply "the easy way out," but have become the logical path forward to automated solutions.

AI agents are computer programs that complete tasks on their own based on pre-determined rules utilizing machine-learning algorithms to make decisions. AI agents analyze their surroundings with intelligence rather than blindly follow directions like a "dumb" script. AI agents can adapt to any changes made in their environments and continue to function without requiring continuous input.
Academically speaking, AI Agents are considered to be autonomous computational systems capable of exhibiting intelligent behaviour towards a predetermined goal, and do so within their constant changing/flexible environment. Therefore, when using AI agents, you have access to a digital employee, meaning for example if you wanted your AI agent to "process customer requests," or if you wanted it to "keep an eye on the market and broadcast whenever anything of interest happens," then your agent will perform both tasks 24 hours a day 365 days a year and steadily become more intelligent.
It's more than just automation – this is a goal-oriented logic system. Important note: current business AI does not require building a neural network from scratch since these AI use pre-trained models (like GPT and others) which means that the AI has an understanding of natural language. You will configure the AI to behave according to your business process and not create complicated training algorithms to train the AI. That is the main difference between doing academic research compared to using already-created tools.
AI agents solve three large issues for businesses: shortage of time, not enough qualified employees, and requiring 24/7 access to data. While you sleep, AI agents process applications and analyze market data as well as generate reports while being less expensive than employing analysts or assistants.
Where AI agents are currently generating revenue:
Ultimately, utilizing agents allows employees to devote more time to creative, empathetic, and strategic thinking rather than performing repetitive tasks.
Reinforcement Learning (RL) is an approach in which the agent learns how to make decisions based upon interactions with an/the environment and the result of those interactions (reward or penalty). For example, if an agent's action results in a positive outcome (reward) it is reinforced to continue performing that same action; when an agent's action has a negative outcome (penalty), the agent has been instructed to either ignore or correct that action. The agent will try many different actions until it arrives at the actions that yield the highest rewards.
AlphaGo is a well-known example of RL in action. Many businesses are utilizing RL to enhance the effectiveness of advertising (determining which advertisement generates the most clicks), and utilizing RL for developing variable pricing, as well as for managing investment portfolios.
The primary disadvantage of RL in a business setting is the significant number of iterations required to train an agent to perform at a competent level. Training an agent in a real-world trading environment may cause the business to lose all of its deposited funds and incur substantial computational costs to train agents to their required level of performance. Using RL to develop agents for many businesses is not practical. ASCN.AI is an example of a platform that uses pre-trained models adjusted by reward methods in a no-code interface without the use of code or server farms.
Two types of Machine Learning are Supervised Learning and Unsupervised Learning.
Supervised Learning occurs when the model's training dataset consists of labelled data - (data that has an explicit correct answer that corresponds with each input). For example, if you are training an AI to classify customer reviews as either "positive," "negative," or "neutral", you would label 10,000 reviews then use the patterns learned to classify all subsequent reviews.
The problem arises because acquiring sufficient labelled datasets for such an approach is very expensive and time-consuming; therefore, most people now rely on using pre-trained models (such as GPT-4 or Claude) and use either a small sample of labelled data to fine-tune these models or uses prompt engineering techniques to adjust them.
In contrast, Unsupervised Learning occurs when the model attempts to identify unseen patterns in the dataset by clustering/creating groups or identifying outliers within your data.
For example, if you have 100,000 customers and wish to group them into marketing categories, you would use a Clustering Algorithm (for example, K-Means) to analyse their behaviour and identify clusters of customers such as "VIPs," "One-time Buyers," or "Discount Hunters."
In ASCN.AI, Unsupervised Learning is used to identify anomalies in Whale Trades, where an external agent gets notified when a trade occurs in the Long Term Holder wallet classifies as "non-moving." Due to ASCN.AI's technology, clients have had an early warning (15-20 minutes) prior to several 2024-2025 use cases, to date.
Neural Network architectures are used by agents to determine how to process data.
Transformer: The dominant architecture for Natural Language Processing (NLP) applications; GPT, BERT and Claude are all Transformer-based networks. The "Attention" mechanism is the key to the power of Transformer's ability to understand the entire context of a document instead of just considering the last several words. Business agents prefer using GPT-4 as their AI because it can differentiate between intent and keywords.
Recurrent Neural Networks (RNNs) are perfect for analyzing sequence data, whether it's token prices, trading volumes, or processing logs over time. Unfortunately, RNNs are being phased out of most roles like this and many others due to Transformers providing superior scalability.
Convolutional Neural Networks (CNNs) analyze images and signals, including document recognition and analyzing price charts visually for potential fraud.

The first step in training a new AI agent is determining its purpose. A bot that interacts with humans will be nothing more than an interactive bot if you don't determine what it is you want your agent to accomplish.
Which of the following describes the type of problem you're trying to solve? "How can I automate my business?" "How do I reduce my average support response time from two hours to ten minutes?"
What types of data sources will you have available for your agent to work from? (CRM systems, spreadsheets, APIs)? If your data exists in multiple locations, the capability of your agent will be severely limited.
What means will the agent have of communicating with you or with other systems that support your creation of the agent? (i.e. sending messages via Telegram, writing to Google Sheets, making HTTP calls, etc).
Your AI agent will be trained using data as fuel.
Quality > Quantity in Training an AI Model!
In testing an agent that was trained on 500 manually verified dialogues, we saw an accuracy rate of 87%, but when using 5,000 automatically labeled dialogues, we only had an accuracy rate of 62%.
If you are using a no-code platform, you primarily configure your prompts and logic for your chosen agent.
No-Code Build Example:
Will require an ML Engineer for Building/Collecting Datasets, in addition to PyTorch/TensorFlow, hyperparameter tuning, and weeks on a GPU Cluster. Generally, you will be 10x less expensive and complete the building process 8x faster with no-code solutions.
How do you evaluate if your agent is working or not after going live?
Technical Metrics: Accuracy % (correctly), Latency (time to respond—i.e., anything over 15 seconds will usually be too long for your customers)
Business Metrics: Ticket Processing Time, % of Closed tickets automatically, Conversion Rate.
Qualitative Reviews: Manually review 50-100 dialogues for "hallucinations" (facts that are made up). Critical to evaluate during the first few months.
When we launched a token-analyzing agent, when we set it live, it had an accuracy of 78% (bad data set). After setting it up to receive updates every 10 minutes, we took the accuracy rate to 91% and lowered the response time from 25 to 12 seconds.
By 2026, training an AI agent will no longer be dependent on writing code; it will depend on the creation of processes. If you can define the logic of your business and provide the agent with the appropriate knowledge and tools, you can build a system to replace an entire department of workers doing routine tasks, in a single afternoon. Start Small, use pre-built models, and focus on creating a Product, not on how it's been created.