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Choose a page... Seite 001: Nordmann Seite 002: References (Examples) Seite 003: Car manufacturers place their trust in Nordmann. The following car manufacturers have included Nordmann in their “ Process Monitoring“ Seite 004: System configuration of the SEM-Modul and SEM-Profibus Seite 005: Benefits of in-process tool monitoring and post-process tool monitoring Seite 006: Concept Tool Monitor SEM-Modul/SEM-Profibus Seite 007: Functions of the Tool Monitor for turning, drilling and milling Seite 008: Monitoring strategies and limit values for measured curves Seite 009: Monitoring jump-like changes and waviness Seite 010: Trend display of the mean height (tool wear) Seite 011: Simple operation of the SEM-Modul with pull-down menus Seite 012: Manual adjustment of the envelope curves by a touchpen Seite 013: Automatic error detection and correction of limit values Seite 014: Tool Monitoring Requirements Seite 015: Operator-friendliness and sensitivity“under the one hat“ Seite 016: Possible sensor positions for tool monitoring in CNC lathes Seite 017: Possible sensor positions for tool monitoring in machining centers Seite 018: Possible sensor positions for tool monitoring in transfer lines and rotary transfer machines Seite 019: Possible sensor positions for tool monitoring in multi-spindle automatic lathes Seite 020: Tool monitoring system SEM-Profibus connected with the Profibus in sinumeric controls 840D(sl) Seite 021: Tool monitoring system SEM-Profibus-Micro connected with the Profibus in sinumeric controls 840D(sl) Seite 022: Comparison of open-loop/closed-loop tool monitoring Seite 023: Tool Monitor SEM-Profibus integrated in Bosch-Rexroth MTX control on Mikron-Multistep Seite 024: Versions of SEM-Modul, SEM-Profibus, SEM-Profibus-Micro for tool monitoring with few or no sensors Seite 025: A selection of acoustic emission and force sensors Seite 026: 3 phase effective power unit (WLM-3) Seite 027: Sensitivity of effective power while drilling Seite 028: Tool monitoring on an EMAG lathe Seite 029: Sensor selection for different kind of machine tools Seite 030: Evaluation of the dynamic of the effective power to detect milling head tooth breakage Seite 031: Tool monitoring on a Liebherr gear hobbing machine Seite 032: Acoustic emission measurement with SEH Seite 033: Chip removal signal measurement with an acoustic emission hydrophone on the drill Seite 034: Measured value of the acoustic emission hydrophone during breakage of a 0.2mm piece of a conic nozzle drill Seite 035: Development of acoustic emission until drill breaks Seite 036: Acoustic emission measurement (sensor SEH) directly on the tool with a jet of cooling lubricant as acoustic wave conductor Seite 037: Acoustic emission recording with spring steel as acoustic emission conductor (patented process) Seite 038: Measured value of the acoustic emission hydrophone during breakage of a 3mm drill in a 6-spindle drill head Seite 039: Monitoring drills and milling tools by acoustic emission microphone LSM Seite 040: Detection of breakage on toothing hammer Seite 041: Acoustic emission measurement on tool with SEA sensor Seite 042: Wireless acoustic emission value transmission (SEA-Wireless) Seite 043: Force measurement on rocker arms in automatic multi-spindle lathes Seite 044: Force measuring on the feed rod in multi-spindle automatic lathes Seite 045: Advantages of the BDA-Kralle strain gauge Seite 046: Feed force measurement in multi-spindle drill heads Seite 047: Piezoelectric 3D force measurement Seite 048: Two measurements to detect breakage during hard turning with force measurement. Seite 049: Tooth breakage control for hard-skiving Seite 050: Breakage control for honing on Hurth Seite 051: Monitoring and control of gear hobbing and gear grinding Seite 052: Monitoring for centering, stock to be removed and wear Seite 053: Drill breakage control with the ultrasound distance sensor US-D Seite 054: Tool length control BDA-Feder Seite 055: ONLY IN GERMAN: Werkzeuglängentaster für Kleinstbohrer Seite 056: Hydro distance sensor HDS: Example for use in drill breakage control Seite 057: Measured values when testing the tool length with the hydro distance Sensor HDS Seite 058: Hydro-Distance sensor HDS: Application in post-process tool control in CNC lathes Seite 059: Tool length control with the Hydro-Distance sensor HDS Seite 060: Laser distance sensor LDS-2. Example for use in drill breakage control Seite 061: Laser distance sensor LDS-2 Seite 062: Drill breakage control with a barrier jet of cooling lubricant Seite 063: Tool length control with the jet of cooling lubricant as barrier Seite 064: Jet barriers with measurement of impact noise at the sensor Seite 065: Jet barriers with measurement of impact noise at the tool (or workpiece) Seite 066: ONLY IN GERMAN: Nutzung des Aufprallgeräusches der Innenkühlung zur Bohrerbruchkontrolle Seite 067: ONLY IN GERMAN: Kontrolle auf Bruch, Ausbruch, Rundlauf und Schneidstoff Seite 068: Dynamic pressure sensor SDS as jet barrier for cooling lubricant or compressed air Seite 069: Jet barrier with compressed air Seite 070: Drill bit breakage check with EMS electromagnetic sensor Seite 071: Check for debris (swarf) at the hollow shaft cone Seite 072: Principle of acoustic work piece dimension control Seite 073: Workpiece measurement check (patented procedure) using the example of a thread check Seite 074: Work piece dimension control with the acoustic friction sensor RST Seite 075: Work piece dimension control with the acoustic friction sensor RST Seite 076: Contact elements for micrometer accuracy position finding of rotating tools relative to work piece fixing position Seite 077: Work piece length control in multi-spindle automatic lathe using BDA-Pilz Seite 078: Work piece length control in the multi-spindle lathe using the WLT length sensor Seite 079: Work piece length control on 2 work pieces from both sides in rotary transfer machines Seite 080: Closed process diagram for grinding and dressing Seite 081: Possible sensor positions for monitoring grinding machines Seite 082: Examples for control and monitoring functions during grinding Seite 083: Different contactless sensors for measuring acoustic emissions at dressing Seite 084: Acoustic emission picked up from the dressing ring with a jet of cooling lubricant to compensate the temperature expansion Seite 085: Acoustic emission sensor RSA-Ring on the work piece spindle for process controlling the grinding of injection nozzles Seite 086: Measuring curves of the sensor RSA-Ring at dressing and grinding injection nozzles on UVA grinding machines Seite 087: Rotating acoustic emission sensor RSA-2 for the rotor of the „Kaiser spindle“ Seite 088: Measuring curves of the sensor RSA-2 in the rotating dressing roll spindle for dressing the seat contour (injection nozzle grinding) Seite 089: In-process control of mandrel lateral eccentricity and oscillations when internally grinding using the example of valve grinding Seite 090: In-process control of mandrel lateral eccentricity and oscillations when grinding internal diameter using the example of valve grinding Seite 091: In-process control of mandrel eccentricity and oscillations when grinding internal diameter using the example of valve grinding Seite 092: Tool Monitor SEM-B2 Seite 093: Condition Monitoring - Preventitive Maintenanceor Seite 094: Special features of the NORDMANN sensor portfolio Seite 095: Special features of the NORDMANN Tool Monitors Seite 096: Why do most new users decide on Nordmann tool monitoring? Seite 097: Savings from the use of Nordmann Tool Monitors (Page 1) Seite 098: Savings from the use of Nordmann Tool Monitors (Page 2) Seite 099: Costs/savings by the use of a tool monitoring system Seite 100: Seite 001: Thank you for your attention

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