AMAT 0010-23716 | PMAX Pyrometer RTP Temperature Probe Assembly

Description

• Brand: Applied Materials (AMAT)
• Full Model Number: 0010-23716
• System/Series Family: Applied Materials RTP / PMAX / Radiance+ equipment
• Core Function: Non-contact optical temperature measurement for wafer-process temperature monitoring
• Top 3 Hardcore Specs: PMAX pyrometer assembly; Radiance+ configuration; 300 mm RTP application
• Assembly Type: Pyrometer / emissometer probe assembly
• Application: Rapid Thermal Processing (RTP)
• Configuration Reference: Radiance+ P1-P7
• Probe Reference: 2 mm probe, 300 mm configuration
• Related Part: 0010-23715, identified for a different Radiance+ probe configuration
• Stock Status: New Surplus or Fully Tested Refurbished; exact revision to be confirmed

Current parts references identify AMAT 0010-23716 as a PMAX Pyrometer assembly for Applied Materials RTP equipment. An OEM-parts listing specifically identifies it as a Radiance+ pyrometer 2 mm probe, 300 mm, for P1-P7 configurations.

Module 3: Technical Product Introduction

Temperature measurement in an RTP chamber cannot rely on ordinary contact sensors without affecting the process geometry. The AMAT 0010-23716 is a PMAX pyrometer assembly used for non-contact wafer-temperature measurement in Applied Materials rapid thermal processing equipment. Available parts records consistently associate the part number with PMAX Pyrometer RTP assemblies, while an Applied Materials RTP parts list identifies 0010-23716 specifically as a Radiance+ 2 mm probe, 300 mm configuration for P1-P7 systems.

The exact optical and electrical characteristics should be handled carefully. Public parts records support the PMAX/Radiance+ identity, but they do not provide enough authoritative documentation to publish a guaranteed spectral range, absolute temperature range, accuracy, response time, connector pinout, or supply specification for every 0010-23716 revision. Some secondary listings publish highly specific values that conflict with one another. For procurement and replacement work, the probe geometry, PMAX configuration, tool compatibility, revision, and physical assembly identification should therefore take priority over unverified generic pyrometer specifications.

AMAT 0010-23716

Module 4: Application Scenarios & Field Realities

• Inside an Applied Materials RTP chamber, 0010-23716 provides the optical temperature-sensing path required to monitor wafer temperature without placing a conventional contact sensor directly on the wafer. Probe alignment, optical path condition, and mechanical positioning can therefore affect the measurement as much as the electronics.
• For Radiance+ P1-P7 configurations on 300 mm RTP equipment, the documented parts list identifies 0010-23716 as the 2 mm, 300 mm pyrometer-probe configuration. This makes the complete part number important; a different probe length or configuration can change physical positioning inside the chamber.
• During preventive maintenance, contamination of the optical path deserves attention before replacing the electronics. Chamber deposits, window contamination, mechanical misalignment, and damaged probe components can all produce temperature-measurement errors even when the pyrometer electronics remain operational.
• When a process shows unexplained temperature non-uniformity, compare the measured temperature behavior with a qualified reference method rather than assuming the pyrometer is defective. Optical-temperature systems are sensitive to emissivity, surface condition, viewing geometry, and chamber optical contamination — field conditions that cannot be reproduced by a simple electrical continuity test.

Module 5: Migration, Compatibility & Installation Traps

Replacement Matrix

Replacement classification: Drop-in Replacement only when the existing tool specifically calls for AMAT 0010-23716 and the replacement has the same probe geometry, Radiance+ configuration, revision, mounting arrangement, and associated PMAX system configuration.

Software compatibility: Configuration verification required. The probe itself is not a conventional PLC module, but the host equipment must recognize the associated PMAX measurement hardware and maintain the appropriate temperature-scaling and calibration configuration.

Cross-model replacement: Hardware modification or engineering verification required. The related 0010-23715 is identified as a different Radiance+ probe configuration. A probe with a different length, diameter, optical arrangement, or application designation should not be assumed interchangeable simply because it belongs to the same PMAX family.

Field Traps — Watch Out

1. Verify the complete probe configuration. The available AMAT parts list identifies 0010-23716 as a 2 mm probe, 300 mm, Radiance+ P1-P7 configuration. Do not order solely from the generic term “PMAX pyrometer.”

2. Optical contamination can imitate sensor failure. Before replacing the probe assembly, inspect the optical path, viewing window, probe tip, chamber deposits, and mechanical alignment. A contaminated or displaced optical path can produce a temperature offset while all electrical checks remain normal.

3. Confirm wafer and tool configuration. The 0010-23716 reference is associated with RTP equipment and a 300 mm configuration. A physically similar pyrometer intended for another wafer size or chamber geometry can have an incompatible viewing position.

4. Do not use unverified generic temperature specifications for acceptance testing. Secondary sources publish conflicting values for the measurement range, response time, and interface. The original AMAT tool configuration and the actual probe identification should control calibration acceptance.

5. Preserve the original optical alignment. Record probe insertion depth, mounting orientation, mechanical stops, and cable routing before removal. Even a small change in viewing geometry can alter the measured wafer temperature.

Module 6: Quality Assurance SOP

Pre-Shipment Inspection Protocol for AMAT 0010-23716

• OEM identity inspection: Verify Applied Materials marking, exact 0010-23716 part number, PMAX identification, serial number, revision markings, and any Radiance+ configuration identifiers.
• Configuration verification: Confirm the unit corresponds to the documented Radiance+ 2 mm, 300 mm P1-P7 configuration where applicable.
• Mechanical inspection: Examine the probe body, mounting components, protective hardware, cable, connector, strain relief, and probe tip for cracks, deformation, corrosion, contamination, or unauthorized modification.
• Optical-surface inspection: Inspect the optical path and sensing aperture under controlled lighting for deposits, scratches, contamination, discoloration, or mechanical damage.
• Cable inspection: Check the complete cable assembly for cuts, crushed sections, insulation damage, connector damage, looseness, or evidence of excessive bending.
• Connector inspection: Examine every electrical connector for oxidation, bent contacts, damaged locking features, contamination, and poor mechanical retention.
• Continuity verification: Perform point-to-point continuity checks on applicable conductors using an approved low-energy test procedure appropriate for the assembly.
• Insulation verification: Where permitted by the original equipment procedure, perform an appropriate insulation-resistance test without exposing sensitive optical or electronic components to an excessive test voltage.
• Power/interface verification: Connect the assembly only to a verified compatible PMAX/Radiance+ test environment; do not apply an assumed generic supply voltage.
• Temperature-reference test: Use a calibrated blackbody or qualified optical-temperature reference to verify representative temperature measurement behavior across the applicable tool operating range.
• Repeatability test: Perform repeated measurements at controlled reference temperatures and record measurement stability, drift, and repeatability.
• Response verification: Apply controlled temperature steps using an appropriate optical test fixture and evaluate the measured response against the approved AMAT equipment specification.
• Optical alignment verification: Where the laboratory fixture permits, confirm correct probe positioning and viewing geometry against the original tool configuration.
• Host-system communication test: Connect the assembly to the applicable PMAX/RTP controller and verify correct identification, measurement acquisition, diagnostics, and absence of communication errors.
• Calibration verification: Compare measured temperature against a traceable reference and document calibration offset or correction requirements according to the applicable equipment procedure.
• Thermal soak: Operate the assembly under representative chamber-side conditions where safely possible and monitor for measurement drift, intermittent signals, or temperature-dependent instability.
• Final QC record: Record exact part number, revision, probe geometry, configuration, serial number, reference-temperature measurements, repeatability results, alignment condition, host-system test result, calibration status, test date, and inspector approval.
• Contamination-controlled packaging: Protect the probe tip and optical surfaces from dust, fingerprints, moisture, impact, and mechanical shock. Use suitable clean packaging for semiconductor-equipment service parts.

Procurement note: The technically supported identity is AMAT 0010-23716 — PMAX Pyrometer Assembly for Applied Materials RTP equipment. Current parts references identify it as a Radiance+ 2 mm probe, 300 mm configuration for P1-P7, while historical transaction records repeatedly describe the same part number as a PMAX pyrometer or emissometer probe assembly. Because public secondary sources publish conflicting detailed electrical and optical specifications, those values should not be treated as universal acceptance criteria without matching the exact AMAT tool and hardware revision.