Honeywell is hiring Data Scientist π
Experience : 0-1 Year
Location : Bangalore
Apply link : https://www.linkedin.com/jobs/view/4445679023/
Experience : 0-1 Year
Location : Bangalore
Apply link : https://www.linkedin.com/jobs/view/4445679023/
Linkedin
Honeywell Technologies hiring Data Scientist I in Bengaluru, Karnataka, India | LinkedIn
Posted 4:19:53 PM. Job DescriptionAs a Data Scientist I here at Honeywell, you will be responsible for applying dataβ¦See this and similar jobs on LinkedIn.
β
Deep Learning Models You Should Know π§ π
1οΈβ£ Feedforward Neural Networks (FNN)
β Basic neural networks for structured/tabular data
β Example: Classification or regression on tabular datasets
2οΈβ£ Convolutional Neural Networks (CNN)
β Specialized for image and spatial data
β Example: Image classification, object detection
3οΈβ£ Recurrent Neural Networks (RNN)
β Processes sequential data
β Example: Time series forecasting, text generation
4οΈβ£ Long Short-Term Memory (LSTM)
β A type of RNN for long-range dependencies
β Example: Stock price prediction, language modeling
5οΈβ£ Gated Recurrent Unit (GRU)
β Lightweight alternative to LSTM
β Example: Real-time NLP applications
6οΈβ£ Autoencoders
β Unsupervised learning for feature extraction & denoising
β Example: Anomaly detection, noise reduction
7οΈβ£ Generative Adversarial Networks (GANs)
β Generates synthetic data by pitting two networks against each other
β Example: Deepfakes, art generation, image synthesis
8οΈβ£ Transformer Models
β State-of-the-art for NLP and beyond
β Example: Chatbots, translation (BERT, GPT)
π¬ Tap β€οΈ for more!
1οΈβ£ Feedforward Neural Networks (FNN)
β Basic neural networks for structured/tabular data
β Example: Classification or regression on tabular datasets
2οΈβ£ Convolutional Neural Networks (CNN)
β Specialized for image and spatial data
β Example: Image classification, object detection
3οΈβ£ Recurrent Neural Networks (RNN)
β Processes sequential data
β Example: Time series forecasting, text generation
4οΈβ£ Long Short-Term Memory (LSTM)
β A type of RNN for long-range dependencies
β Example: Stock price prediction, language modeling
5οΈβ£ Gated Recurrent Unit (GRU)
β Lightweight alternative to LSTM
β Example: Real-time NLP applications
6οΈβ£ Autoencoders
β Unsupervised learning for feature extraction & denoising
β Example: Anomaly detection, noise reduction
7οΈβ£ Generative Adversarial Networks (GANs)
β Generates synthetic data by pitting two networks against each other
β Example: Deepfakes, art generation, image synthesis
8οΈβ£ Transformer Models
β State-of-the-art for NLP and beyond
β Example: Chatbots, translation (BERT, GPT)
π¬ Tap β€οΈ for more!
β€2
7 Steps of the Machine Learning Process
Data Collection: The process of extracting raw datasets for the machine learning task. This data can come from a variety of places, ranging from open-source online resources to paid crowdsourcing. The first step of the machine learning process is arguably the most important. If the data you collect is poor quality or irrelevant, then the model you train will be poor quality as well.
Data Processing and Preparation: Once youβve gathered the relevant data, you need to process it and make sure that it is in a usable format for training a machine learning model. This includes handling missing data, dealing with outliers, etc.
Feature Engineering: Once youβve collected and processed your dataset, you will likely need to transform some of the features (and sometimes even drop some features) in order to optimize how well a model can be trained on the data.
Model Selection: Based on the dataset, you will choose which model architecture to use. This is one of the main tasks of industry engineers. Rather than attempting to come up with a completely novel model architecture, most tasks can be thoroughly performed with an existing architecture (or combination of model architectures).
Model Training and Data Pipeline: After selecting the model architecture, you will create a data pipeline for training the model. This means creating a continuous stream of batched data observations to efficiently train the model. Since training can take a long time, you want your data pipeline to be as efficient as possible.
Model Validation: After training the model for a sufficient amount of time, you will need to validate the modelβs performance on a held-out portion of the overall dataset. This data needs to come from the same underlying distribution as the training dataset, but needs to be different data that the model has not seen before.
Model Persistence: Finally, after training and validating the modelβs performance, you need to be able to properly save the model weights and possibly push the model to production. This means setting up a process with which new users can easily use your pre-trained model to make predictions.
Data Collection: The process of extracting raw datasets for the machine learning task. This data can come from a variety of places, ranging from open-source online resources to paid crowdsourcing. The first step of the machine learning process is arguably the most important. If the data you collect is poor quality or irrelevant, then the model you train will be poor quality as well.
Data Processing and Preparation: Once youβve gathered the relevant data, you need to process it and make sure that it is in a usable format for training a machine learning model. This includes handling missing data, dealing with outliers, etc.
Feature Engineering: Once youβve collected and processed your dataset, you will likely need to transform some of the features (and sometimes even drop some features) in order to optimize how well a model can be trained on the data.
Model Selection: Based on the dataset, you will choose which model architecture to use. This is one of the main tasks of industry engineers. Rather than attempting to come up with a completely novel model architecture, most tasks can be thoroughly performed with an existing architecture (or combination of model architectures).
Model Training and Data Pipeline: After selecting the model architecture, you will create a data pipeline for training the model. This means creating a continuous stream of batched data observations to efficiently train the model. Since training can take a long time, you want your data pipeline to be as efficient as possible.
Model Validation: After training the model for a sufficient amount of time, you will need to validate the modelβs performance on a held-out portion of the overall dataset. This data needs to come from the same underlying distribution as the training dataset, but needs to be different data that the model has not seen before.
Model Persistence: Finally, after training and validating the modelβs performance, you need to be able to properly save the model weights and possibly push the model to production. This means setting up a process with which new users can easily use your pre-trained model to make predictions.
β€4
FREE Claude AI Masterclass- From Prompting to Building π€³πΌβοΈπ»
Build AI Agents for Real-World Applications in 120 Minutes. π―
πNo prior AI experience needed
Eligibility :- Freshers β’ Working Professionals
π Date: 24 October 2026 β° 7:00 PM
π» Mode:Online
π π₯π²π΄πΆπππ²πΏ ππΌπΏ ππ₯πππ :
https://rebrand.ly/claude-masterclass
π’ Share this opportunity with your friends.
Build AI Agents for Real-World Applications in 120 Minutes. π―
πNo prior AI experience needed
Eligibility :- Freshers β’ Working Professionals
π Date: 24 October 2026 β° 7:00 PM
π» Mode:Online
π π₯π²π΄πΆπππ²πΏ ππΌπΏ ππ₯πππ :
https://rebrand.ly/claude-masterclass
π’ Share this opportunity with your friends.
β€2