we have developed an end to end automated multi lingual dubbing and facial synchronization technique. Automated dubbing has the potential to exponentially increase the outreach of audio and video content facilitating the creation of videos for everyone focusing on Speech Recognition ASR, Neural Translation NMT and Speech Synthesis TTS for Urdu. Our deep-learning dubbing solution has been showcased at a number of events and received great feedback. Their work was also presented at the International Conference on AI ICAI 22 where 28 out of 120 papers were accepted and received the Best Paper Award.

we have developed an end to end automated multi lingual dubbing and facial synchronization technique. Automated dubbing has the potential to exponentially increase the outreach of audio and video content facilitating the creation of videos for everyone focusing on Speech Recognition ASR, Neural Translation NMT and Speech Synthesis TTS for Urdu. Our deep-learning dubbing solution has been showcased at a number of events and received great feedback. Their work was also presented at the International Conference on AI ICAI 22 where 28 out of 120 papers were accepted and received the Best Paper Award.

we have developed an end to end automated multi lingual dubbing and facial synchronization technique. Automated dubbing has the potential to exponentially increase the outreach of audio and video content facilitating the creation of videos for everyone focusing on Speech Recognition ASR, Neural Translation NMT and Speech Synthesis TTS for Urdu. Our deep-learning dubbing solution has been showcased at a number of events and received great feedback. Their work was also presented at the International Conference on AI ICAI 22 where 28 out of 120 papers were accepted and received the Best Paper Award.

We have created an autonomous robot to Sort and Segregate industrial waste produced by nuclear power plants. Features. - Fully Autonomous Driving. - Navigation in complex spaces. - Real-Time Mapping. - Sort and Segregate. - Pose Estimations - Grip and UnGrip - Virtual Simulations - Tes Environments - Manual Take over - VR Controls

We have created an autonomous robot to Sort and Segregate industrial waste produced by nuclear power plants. Features. - Fully Autonomous Driving. - Navigation in complex spaces. - Real-Time Mapping. - Sort and Segregate. - Pose Estimations - Grip and UnGrip - Virtual Simulations - Tes Environments - Manual Take over - VR Controls

We have created an autonomous robot to Sort and Segregate industrial waste produced by nuclear power plants. Features. - Fully Autonomous Driving. - Navigation in complex spaces. - Real-Time Mapping. - Sort and Segregate. - Pose Estimations - Grip and UnGrip - Virtual Simulations - Tes Environments - Manual Take over - VR Controls

We have created an autonomous robot to Sort and Segregate industrial waste produced by nuclear power plants. Features. - Fully Autonomous Driving. - Navigation in complex spaces. - Real-Time Mapping. - Sort and Segregate. - Pose Estimations - Grip and UnGrip - Virtual Simulations - Tes Environments - Manual Take over - VR Controls

Our State of the art solutions for controlling large swarms of drones can help solve your surveillance needs. Control multiple drones to throw a next-gen drone show. Features. - Pose Estimations - Object Detection - Object Tracking - Fleet mode - Collision Avoidance - Safe Landing - Synchronized movements

Our State of the art solutions for controlling large swarms of drones can help solve your surveillance needs. Control multiple drones to throw a next-gen drone show. Features. - Pose Estimations - Object Detection - Object Tracking - Fleet mode - Collision Avoidance - Safe Landing - Synchronized movements

Our State of the art solutions for controlling large swarms of drones can help solve your surveillance needs. Control multiple drones to throw a next-gen drone show. Features. - Pose Estimations - Object Detection - Object Tracking - Fleet mode - Collision Avoidance - Safe Landing - Synchronized movements

We presents the design and implementation of a novel SW which makes the upgrade of a commercially available motorised wheelchair to a SW a much simpler process. The system is a complete implementation offering low-level hardware control, a specialised ROS architecture and autonomous navigation algorithms allowing shared user control or fully-autonomous movement. Contrary to most other published works, the focus of this paper is to implement a fully-featured working prototype with minimal hardware complexity and an efficient modular software development environment.

We presents the design and implementation of a novel SW which makes the upgrade of a commercially available motorised wheelchair to a SW a much simpler process. The system is a complete implementation offering low-level hardware control, a specialised ROS architecture and autonomous navigation algorithms allowing shared user control or fully-autonomous movement. Contrary to most other published works, the focus of this paper is to implement a fully-featured working prototype with minimal hardware complexity and an efficient modular software development environment.

We presents the design and implementation of a novel SW which makes the upgrade of a commercially available motorised wheelchair to a SW a much simpler process. The system is a complete implementation offering low-level hardware control, a specialised ROS architecture and autonomous navigation algorithms allowing shared user control or fully-autonomous movement. Contrary to most other published works, the focus of this paper is to implement a fully-featured working prototype with minimal hardware complexity and an efficient modular software development environment.

We presents the design and implementation of a novel SW which makes the upgrade of a commercially available motorised wheelchair to a SW a much simpler process. The system is a complete implementation offering low-level hardware control, a specialised ROS architecture and autonomous navigation algorithms allowing shared user control or fully-autonomous movement. Contrary to most other published works, the focus of this paper is to implement a fully-featured working prototype with minimal hardware complexity and an efficient modular software development environment.

We presents the design and implementation of a novel SW which makes the upgrade of a commercially available motorised wheelchair to a SW a much simpler process. The system is a complete implementation offering low-level hardware control, a specialised ROS architecture and autonomous navigation algorithms allowing shared user control or fully-autonomous movement. Contrary to most other published works, the focus of this paper is to implement a fully-featured working prototype with minimal hardware complexity and an efficient modular software development environment.

Wattax is an advanced AI-based tool designed by Goal Bytes to extract information from daily purchase receipts which it uses to calculate VAT, income tax, bills, deviants, and other critical information. It uses the extracted information to file your taxes and do bookkeeping for you in real time. Features. - Text Extraction - Information parsing - Budget recommendations

Wattax is an advanced AI-based tool designed by Goal Bytes to extract information from daily purchase receipts which it uses to calculate VAT, income tax, bills, deviants, and other critical information. It uses the extracted information to file your taxes and do bookkeeping for you in real time. Features. - Text Extraction - Information parsing - Budget recommendations

Goal Bytes Specializes in creating unique specialized warehouse robots as per your requirements. 1 STATIONARY ROBOTS stay in one place but are usually equipped with an articulated limb for sorting or palletization. 2) RAIL-GUIDED ROBOTS use rails, wires or magnetic tape to guide themselves from place to place. These robots are not highly autonomous and are typically used as transportation systems. 3) LASER-GUIDED ROBOTS use lasers, labels and geo guidance to position themselves within the warehouse. These robots are highly autonomous but may still have difficulty recognizing and avoiding human workers. 4) LiDAR-EQUIPPED ROBOTS can use high resolution scanners to navigate the warehouse with high autonomy, avoiding obstacles, following human workers and identifying new tasks as they come up.

Goal Bytes Specializes in creating unique specialized warehouse robots as per your requirements. 1 STATIONARY ROBOTS stay in one place but are usually equipped with an articulated limb for sorting or palletization. 2) RAIL-GUIDED ROBOTS use rails, wires or magnetic tape to guide themselves from place to place. These robots are not highly autonomous and are typically used as transportation systems. 3) LASER-GUIDED ROBOTS use lasers, labels and geo guidance to position themselves within the warehouse. These robots are highly autonomous but may still have difficulty recognizing and avoiding human workers. 4) LiDAR-EQUIPPED ROBOTS can use high resolution scanners to navigate the warehouse with high autonomy, avoiding obstacles, following human workers and identifying new tasks as they come up.

Goal Bytes Specializes in creating unique specialized warehouse robots as per your requirements. 1 STATIONARY ROBOTS stay in one place but are usually equipped with an articulated limb for sorting or palletization. 2) RAIL-GUIDED ROBOTS use rails, wires or magnetic tape to guide themselves from place to place. These robots are not highly autonomous and are typically used as transportation systems. 3) LASER-GUIDED ROBOTS use lasers, labels and geo guidance to position themselves within the warehouse. These robots are highly autonomous but may still have difficulty recognizing and avoiding human workers. 4) LiDAR-EQUIPPED ROBOTS can use high resolution scanners to navigate the warehouse with high autonomy, avoiding obstacles, following human workers and identifying new tasks as they come up.

Goal Bytes Specializes in creating unique specialized warehouse robots as per your requirements. 1 STATIONARY ROBOTS stay in one place but are usually equipped with an articulated limb for sorting or palletization. 2) RAIL-GUIDED ROBOTS use rails, wires or magnetic tape to guide themselves from place to place. These robots are not highly autonomous and are typically used as transportation systems. 3) LASER-GUIDED ROBOTS use lasers, labels and geo guidance to position themselves within the warehouse. These robots are highly autonomous but may still have difficulty recognizing and avoiding human workers. 4) LiDAR-EQUIPPED ROBOTS can use high resolution scanners to navigate the warehouse with high autonomy, avoiding obstacles, following human workers and identifying new tasks as they come up.

Goal Bytes Specializes in creating unique specialized warehouse robots as per your requirements. 1 STATIONARY ROBOTS stay in one place but are usually equipped with an articulated limb for sorting or palletization. 2) RAIL-GUIDED ROBOTS use rails, wires or magnetic tape to guide themselves from place to place. These robots are not highly autonomous and are typically used as transportation systems. 3) LASER-GUIDED ROBOTS use lasers, labels and geo guidance to position themselves within the warehouse. These robots are highly autonomous but may still have difficulty recognizing and avoiding human workers. 4) LiDAR-EQUIPPED ROBOTS can use high resolution scanners to navigate the warehouse with high autonomy, avoiding obstacles, following human workers and identifying new tasks as they come up.