Maintainance And Safety Accessories TRIZ Cases

Separate coolant paths let a machine tool switch half-wet, wet, and dry modes to clear chips while limiting tool temperature variation.

Spray cooling, rollers, and height adjustment help this inner burr removal holder clear burr buildup, avoid overheating, and keep weld scraping stable.

A fabric bellows with a tensioned mounting edge protects machine kinematics through moving openings while saving space and preserving dynamics.

An air nozzle near the tool tip clears zirconia milling dust during machining, cutting residue and reducing manual cleaning time.

A slit-guided cover insertion keeps chips and cutting oil inside the housing during chip bucket removal, reducing outside contamination.

Pump activation is timed near program end to clear chips with cutting fluid while avoiding excessive coolant use and power draw.

Pivotable rollers grip composite tape scrap on both sides and pull it into a bin, reducing manual removal delays in fiber placement.

A slit lets the NC lathe opening cover slide into the housing, keeping chips and cutting oil inside during chip bucket removal.

A tensioned fabric bellows shields moving spindle and workpiece kinematics while saving installation space and preserving machine tool dynamics.

Separate dirty-air and sealing airflow paths prevent clogging and keep suction stable while a gasket holds the accessory to the workpiece.

Separate debris and suction airflow paths keep large particles from clogging the seal, maintaining stable dust extraction on the workpiece.

Separate coolant flow paths and pump control maintain machining-point pressure while continuously cleaning the filter to prevent clogging.

Selective coolant routing clears chips from non-machining areas while preserving dry cutting conditions, reducing tool wear and stoppages.

Modular lamellae with bellows dragging modules simplify wide protective cover assembly while maintaining continuous isolation from coolant, oil, and chips.

Electrical conductivity monitoring manages alkaline electrolytic machining fluid quality in real time, correcting metal ion effects to sustain machining performance.

A central-web connector with pivoting arms cuts protective cover compression size while keeping shielding elements strong and easier to manufacture.

A tilting tray with fork pockets lets cutting-machine waste be lifted and dumped, reducing manual breaking of adhered debris.

A sleeve-mounted baffle enclosure contains silica dust and drilling debris at the source while staying easy to install, remove, and clean.

A two-stage coolant path removes machining debris before a hydrophilic oil-repellent filter, cutting clogging and extending filter life.

Swirling tank flow concentrates sludge so only the spindle passage needs centrifugal filtration, cutting clogging risk and filter cost.

A two-tank coolant layout sends bubble-like coolant to a separate tank, preventing leaks and easing handling during machining.

A water-soluble hydraulic and processing fluid setup avoids bacterial growth and oily residue while enabling simple mixed-fluid reuse.

A split coolant flow uses one filtered path and one bypass path to capture foreign matter while delaying filter clogging and reducing maintenance.

Operator detection switches window coolant protection only when visual inspection is needed, keeping visibility clear while suppressing energy waste.

Multiple manifold outlets around the workpiece axis improve cutting-zone cooling and chip removal while reducing guide bushing fouling.

Thermal insulation shields the grinding machine structure from cooling-fluid heat, helping maintain tight gear-grinding accuracy.

A Venturi air curtain clears chips from the machining zone, blocks dust from the housing, and cools the tool for cleaner portable machining.

A tall coolant tank, bottom-fed pump, and inline filter increase capacity, remove sludge, and shrink machine tool installation area.

A closed air loop through the machine structure and buried piping uses stable subsoil temperature to limit thermal deformation and machining error.

A fixed and moving cover pair shields the spindle head mechanism from chips without long Z-axis covers that interfere with bed structures.

Overlapping shutter plates with a coupling unit expand and contract while resisting chips, lubricant, and dust to prevent cover deformation.

Sensors switch the coolant protection unit only when an operator is near, keeping the machine tool window clear without wasting energy.

Ultrasonic tank sensing and liquid-level analysis stop the pump before low machining fluid disrupts spray supply and machining quality.

A drain and suction path returns coolant mist and fine chips that pass the filter, preventing buildup inside the machine tool.

A sub-tank with a magnetic separator and filter opening removes chips from coolant, preventing pump clogging while keeping the machine tool compact.

A curved seal lip absorbs sliding-surface unevenness to stabilize contact pressure, reduce wear, and extend machine-tool sealing life.

A small-aperture restrictor helps deliver high-pressure supercritical CO2 and oil to cutting edges without costly custom tool modifications.

A single-pump annular flow layout filters and cleans cutting fluid while limiting sludge buildup, cost, and filter maintenance.

Convergent internal ducts let one spindle sprayer block dust and residue while directing cooling and lubricating fluid onto a dental milling cutter.

Continuous sensing of concentration, pH, hardness, and temperature enables real-time cutting fluid adjustment to reduce CNC defects and tool corrosion.

A parallel blowing flow, angled extraction, and chip conveyor create negative pressure to separate chips and dust in dry machining.

Flowmeter-based coolant control replaces pressure-led supply to improve drill hole precision, cut tool wear, and lower energy use.