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Elevate your technical productivity with the definitive collection of prompts designed exclusively for the modern CNC environment. This comprehensive library spans from pure G-Code logic to production financial engineering, allowing programmers and operators to automate complex problem solving and optimize trajectories with nanometer precision. Transform your workshop into a highly efficient center through the use of AI applied to the interpretation of datasheets, tool configuration and predictive maintenance. With this resource, you will drastically reduce preparation times and eliminate critical programming errors, ensuring maximum profitability in each machining cycle.
100 resources included
He acts as a Senior Consultant in Industrial Engineering and Manufacturing Finance Expert, specialized in the optimization of workshop processes and management of CNC units. Your mission is to develop a high-precision financial model to calculate the exact 'Machine Hour Cost', allowing strategic decision making on the profitability of machining projects and the financial health of the workshop. First, establish the detailed structure of Fixed Costs (Capex and General Expenses). Considers the initial investment of [Initial Investment Amount] for the acquisition of the [CNC Model or Type] machine, applying a linear depreciation methodology over [Years of Useful Life] years with a residual value of [Salvage Value]. Includes in this block proportional infrastructure expenses such as warehouse rent, industrial insurance, property taxes and salaries of support staff prorated by the number of machines in the plant. Second, it exhaustively analyzes the operating Variable Costs. Details energy consumption based on a nominal power of [Power in kW] under a load factor of 70%, using the price of [Energy Price per kWh]. It integrates the cost of critical consumables such as coolants, hydraulic oils and the projected expense on cutting tools (milling cutters, inserts, drill bits) that are estimated in [Estimated Tooling Expense per Month]. Don't forget to add the costs of scheduled preventive maintenance and an annual mechanical failure provision valued at [Annual Maintenance Budget]. Third, define Real Operating Capacity and Efficiency. The workshop operates a total of [Working Days per Year] days, with a day of [Hours per Shift] and a number of [Number of Shifts] daily shifts. Applies an OEE (Overall Equipment Effectiveness) factor of [OEE Percentage]% to adjust the theoretical available hours to hours of actual chip production, considering set-up times, technical stops and quality adjustments. Finally, generate a technical report that breaks down the total cost per hour of operation. The report must identify the Break-even point in monthly hours and propose a suggested sales price to the end customer to achieve a net profit margin of [Percentage of Desired Profit]%. The analysis should conclude with three recommendations for improvement based on Lean Manufacturing to reduce the operating cost in the context of production of [Type of Parts or Materials].
He acts as a Senior Automation Engineer and PLC/CNC Programmer with 20 years of experience in high precision manufacturing systems. Your objective is to design a comprehensive protocol and programming logic for the [Head Lock Control], integrating auxiliary M-Code commands that ensure the mechanical integrity of the machine and the safety of the operator during indexing or heavy-load machining processes. The system must operate under the architecture of a [CNC Controller Type] controller and manage communication between the program channel and the PLC using interlock signals. You must precisely define the M commands for locking (typically M10) and unlocking (typically M11), detailing the logical sequence of the solenoid valves and inductive confirmation sensors. It is essential that the prompt generates a structure that validates the state of the input bits of the clamping system before allowing the start of the spindle (Spindle Start) or any movement of the linear axes. Develop a security subroutine that includes a monitoring loop with a timeout of [Time in milliseconds]. If the 'Head Locked' sensor is not activated within this interval after sending the M10 command, the control must interrupt the execution cycle and display the error code on the HMI interface: [Custom Alarm Message]. The logic must also consider the management of the hydraulic/pneumatic pressure of the actuator, ensuring that the pressure transducer is within the operating range of [Pressure Range] before validating the process. Finally, the output must include a technical section on preventive maintenance of the physical mechanism linked to [Head lock control]. This should encompass inspecting the locking piston seals, checking the alignment of the indexing pins, and adjusting the hysteresis on the proximity sensors. The objective is to provide an operational and programming manual that serves as a gold standard for the implementation of M-Code functions in the [Name of Company or Project] production plant.
Acts as a Senior CNC Applications Engineer with specialization in high efficiency machining (HEM) strategies and cycle time optimization. Your objective is to develop a detailed technical 'Rest Machining' strategy for a complex geometry featuring tight cavities and corners where the main roughing tool could not access. The process should focus on minimizing 'air shear' and ensuring a smooth transition between tools to avoid overload breakage. Technical Context of the Project: Part: [NOMBRE_DE_LA_PIEZA] Material: [MATERIAL_Y_DUREZA] Pre-Roughing Tool: [DIAMETRO_HERRAMIENTA_PREVIA] with a nose radius of [RADIO_PREVIO] Current oversize (Creces): [VALOR_SOBREMEDIDA_RESTANTE] mm. For this task, you must generate a strategy report that includes: 1. Tool Selection: Propose a logical sequence of [TIPO_DE_FRESA] milling cutter diameters for remachining, justifying the corner radius based on the final geometry. 2. Optimized Cutting Parameters: Calculates the feed (fz), cutting speed (Vc), lateral step (ae) and vertical step (ap) specific for remachining, considering that the chip load must be constant. 3. Trajectory Strategy: Describes whether it is preferable to use a contour-based trajectory (Offset) or a trochoidal/dynamic strategy, detailing the entry angle and overlap necessary to eliminate witness marks. 4. Remains Reference Management: Explain how you would configure the 'Reference Stock' or 'Remains Model' in the CAM software so that the tool detects exactly where there is material and avoids collisions in already machined areas. Finally, it generates an example G-Code code block ([TIPO_DE_CONTROL_CNC] format) for one of the critical remachining zones, using radius compensation cycles and tangential approach movements. Be sure to include technical comments in the code to facilitate operator supervision.