Abstract: An AI-assisted project risk detection platform include a plurality of data trackers configured to automatically collect relevant data associated with a project, the relevant data being selected from the group consisting of project scope, tasks, project management, budget, resources, project team members, project milestones, project timeline, project status, product launch plan, market trends, economic trends, competitive landscape, legal and regulatory environment, consumer behavior, consumer preferences, customer feedback, and social media. These data trackers are installed at critical points along project execution path or product launch plan. The platform further includes an AI-assisted data analysis module configured to receive the relevant data collected by the data trackers, analyze the relevant data, identify emerging vulnerabilities and issues associated with the project, and determine corrective recommendations.

Abstract: A computer-implemented AI-assisted product innovation, development, and launch platform includes a registration module that registers a plurality of users who may be product producers, product manufacturers, product designers, engineers, materials scientists, technology providers, prototype builders, researchers, and validation labs. The platform is configured to receive requests for product specifications, search and identify expertise and resources among the registered users and external expertise and resources needed to create the requested product, and to formulate a launch plan for the requested product and enable collaboration among the identified expertise and resources. The platform further manages collaboration among the identified expertise and resources, and provides comprehensive project management along the entire product design, development, and launch path.

Abstract: Provided is a method to form a thermoplastic composite with electrically and thermally conductive constituents. The method may include receiving a molten rod having a polymer composite core. The method may further include embedding the rod with at least one conductive wire. Embedding the rod with the at least one wire may include wrapping the at least one conductive wire around the rod and tensioning the wire thereby causing the wire to at least partially embed into the rod.

Abstract: Systems and methods for testing the accuracy of a bicycle training apparatus that is configured to measure the power output of a cyclist riding on a bicycle. The system includes a base, a main drive shaft secured to the base, a motor secured to the base and configured to rotate the main drive shaft, torque and rotational speed sensors configured to measure the torque and rotational speed of the main drive shaft during rotation thereof. The bicycle training apparatus may be secured relative to the base and functionally coupled to the main drive shaft. The motor may then be operated to apply a power input to the bicycle training apparatus while measuring the torque and rotational speed of the main drive shaft and the power input with the bicycle training apparatus. The resulting measurements may be compared to determine the accuracy of the bicycle training apparatus.

Abstract: Systems and methods for testing the accuracy of a bicycle training apparatus that is configured to measure the power output of a cyclist riding on a bicycle. The system includes a base, a main drive shaft secured to the base, a motor secured to the base and configured to rotate the main drive shaft, torque and rotational speed sensors configured to measure the torque and rotational speed of the main drive shaft during rotation thereof. The bicycle training apparatus may be secured relative to the base and functionally coupled to the main drive shaft. The motor may then be operated to apply a power input to the bicycle training apparatus while measuring the torque and rotational speed of the main drive shaft and the power input with the bicycle training apparatus. The resulting measurements may be compared to determine the accuracy of the bicycle training apparatus.

Abstract: A three-dimensional product manufacturing robot using a material constituted by plastic formable materials may be provided that includes: a head supply unit which includes an inlet into which the material is introduced; a transformer unit which includes a plurality of rollers guiding a moving direction of the material transferred from the head supply unit; and a head unit which discharges outwardly the material transferred from the transformer unit. As a result, the tension of a tow, i.e., a raw material can be adaptively controlled and the tow moving within the three-dimensional product manufacturing robot can be prevented from being solidified, cured or degraded. Also, the head unit can rotate precisely within a limited distance. Also, the rotation of the head unit does not accompany the rotation of the tow. That is, while the wheel assembly controls the rotation of the head unit, the tow which passes through the inside of the head unit can be discharged to the outside without rotation.

Abstract: Disclosed are a head unit and a head supply unit. The head unit according to the present invention discharges a raw material made of plastic formable materials. The head unit includes: a head pipe which guides the movement of the raw material; a head heater which surrounds the entire or partial head pipe and controls the temperature of the raw material which is moving within the head pipe; and a discharge port which is provided on one end of the heat pipe and discharges the raw material to the outside. The head supply unit according to the present invention includes: an inlet through which a raw material made of plastic formable materials is introduced; an inlet pipe which guides the raw material introduced through the inlet; a head supply heater which controls the temperature of the raw material which passes through the inside of the inlet pipe; and a head fastener which is fastened to a head unit which discharges the raw material.

Abstract: A lower stiffener is provided for a bumper of a vehicle. The lower stiffener is mounted on a lower portion of a bumper beam or a front end module (FEM) carrier of the vehicle. The lower stiffener includes a pair of core portions formed by extending in a width direction of the vehicle in an elongated loop shape corresponding to a shape of the bumper of the vehicle, and arranged parallel to each other at a regular interval. A pair of molding portions surrounds the core portions, respectively and a connection portion connects and integrates the pair of molding portions with each other.

Abstract: A lower stiffener is provided for a bumper of a vehicle. The lower stiffener is mounted on a lower portion of a bumper beam or a front end module (FEM) carrier of the vehicle. The lower stiffener includes a pair of core portions formed by extending in a width direction of the vehicle in an elongated loop shape corresponding to a shape of the bumper of the vehicle, and arranged parallel to each other at a regular interval. A pair of molding portions surrounds the core portions, respectively and a connection portion connects and integrates the pair of molding portions with each other.

Abstract: Disclosed are a head unit and a head supply unit. The head unit according to the present invention discharges a raw material made of plastic formable materials. The head unit includes: a head pipe which guides the movement of the raw material; a head heater which surrounds the entire or partial head pipe and controls the temperature of the raw material which is moving within the head pipe; and a discharge port which is provided on one end of the heat pipe and discharges the raw material to the outside. The head supply unit according to the present invention includes: an inlet through which a raw material made of plastic formable materials is introduced; an inlet pipe which guides the raw material introduced through the inlet; a head supply heater which controls the temperature of the raw material which passes through the inside of the inlet pipe; and a head fastener which is fastened to a head unit which discharges the raw material.

Abstract: A three-dimensional product manufacturing apparatus, may include a shape guide portion including a seating portion; a discharge portion discharging a material onto the seating portion while moving along the seating portion; and a material fixing portion fixing the material discharged from the discharge portion to the fixing portion, in which the seating portion moves the material fixed by the fixing portion depending on a predetermined process sequence and the material is sequentially processed.

Abstract: A three-dimensional product manufacturing robot using a material constituted by plastic formable materials may be provided that includes: a head supply unit which includes an inlet into which the material is introduced; a transformer unit which includes a plurality of rollers guiding a moving direction of the material transferred from the head supply unit; and a head unit which discharges outwardly the material transferred from the transformer unit. As a result, the tension of a tow, i.e., a raw material can be adaptively controlled and the tow moving within the three-dimensional product manufacturing robot can be prevented from being solidified, cured or degraded. Also, the head unit can rotate precisely within a limited distance. Also, the rotation of the head unit does not accompany the rotation of the tow. That is, while the wheel assembly controls the rotation of the head unit, the tow which passes through the inside of the head unit can be discharged to the outside without rotation.