A compact, module-changing probe that uses strain-gauge mechanisms for higher accuracy and longer life than kinematic touch-trigger probes. The TP200 was developed for tightly toleranced workpieces, and where access to features requires long or complex stylus arrangements.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
In principle, styli are the co-ordinate measuring machine’s (CMM’s) “tools”, providing the same relationship that turning tools have with lathes, and milling and boring tools have with milling machines. When measuring with a touch-trigger probe, the machine uses the stylus to take the data points on the surface of the workpiece. Each touch generates a point that is defined using co-ordinate values in X, Y and Z. Feature, size, form and position can then be computed from these points.
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