Abstract: A system for monitoring a condition of a pan line associated with a longwall mining system includes multiple pan segments arranged in a successive manner. Adjacently located pan segments are moveably coupled by an interconnecting joint. An underside of each pan segment defines an opening whose axis is parallel to a plane of the associated pan segment. The system also includes a fiber optic shape sensing system that has a fiber optic cable disposed along the multiple pan segments and located within the opening of each pan segment. A controller coupled to the fiber optic cable detects a shape of the fiber optic cable, identifies a position of each pan segment based on the detected shape of the fiber optic cable, and determines if a fault exists in the interconnecting joints between adjacently located pan segments based on the identified positions of respective ones of the adjacently located pan segments.

Abstract: A system for monitoring a condition of a pan line associated with a longwall mining system includes multiple pan segments arranged in a successive manner. Adjacently located pan segments are moveably coupled by an interconnecting joint. An underside of each pan segment defines an opening whose axis is parallel to a plane of the associated pan segment. The system also includes a fiber optic shape sensing system that has a fiber optic cable disposed along the multiple pan segments and located within the opening of each pan segment. A controller coupled to the fiber optic cable detects a shape of the fiber optic cable, identifies a position of each pan segment based on the detected shape of the fiber optic cable, and determines if a fault exists in the interconnecting joints between adjacently located pan segments based on the identified positions of respective ones of the adjacently located pan segments.

Abstract: A machine operating at an underground mine site is provided. The machine includes an engine, a frame, and a vision assembly. The vision assembly is configured to generate a vision feed of a portion of a roof of the mine site. The roof of the mine site has a plurality of bolts arranged in a predefined pattern. The vision assembly is configured to capture at least a portion of the predefined pattern of bolts based on a field of view of the vision assembly. A controller is communicably coupled to the vision assembly. The controller is configured to receive the vision feed of the portion of the roof of the mine site. The controller is configured to compare the vision feed with the predefined pattern of bolts. The controller is configured to determine a current position of the machine at the mine site based on the comparison.

Abstract: A machine operating at an underground mine site is provided. The machine includes an engine, a frame, and a vision assembly. The vision assembly is configured to generate a vision feed of a portion of a roof of the mine site. The roof of the mine site has a plurality of bolts arranged in a predefined pattern. The vision assembly is configured to capture at least a portion of the predefined pattern of bolts based on a field of view of the vision assembly. A controller is communicably coupled to the vision assembly. The controller is configured to receive the vision feed of the portion of the roof of the mine site. The controller is configured to compare the vision feed with the predefined pattern of bolts. The controller is configured to determine a current position of the machine at the mine site based on the comparison.

Abstract: A method for manually calibrating a camera mounted on a camera mount of a vehicle is provided. According to the present disclosure, the method includes acquiring an image data in a field of view of the camera based on an actual position of the camera. The captured image data is processed to determine a current pattern based on the actual position of the camera. The image data is displayed, wherein the current pattern is superimposed on the image data. The image data is also processed to display a marker pattern in the field of view of the camera. Thereafter a pre-determined orientation and/or a pre-determined height for the camera is calculated. Further, the actual position of the camera is manually adjusted to achieve the pre-determined orientation and the pre-determined height of the camera and to align the current pattern with the marker pattern.