LAM 716-011536-001

1. Dual-Diaphragm Design for UHV-Low-Vacuum Precision

The LAM 716-011536-001 uses separate diaphragms optimized for their respective ranges: a single-crystal silicon diaphragm (silicon nitride coated) for UHV (matching the precision of LAM 716-028123-004) and a polished 316L stainless steel diaphragm (PTFE overlay) for medium-to-low vacuum (matching the ruggedness of LAM 716-021894-001). In a Taiwanese fab using LAM 9000 systems, this design maintained ±1.2% accuracy in UHV (1×10⁻⁹–1×10⁻³ Torr) and ±1.6% accuracy in the transition zone (1×10⁻³–10 Torr)—outperforming generic multi-range sensors (which average ±2.0% accuracy across ranges). This precision reduced “etch CD (critical dimension) variation” defects by 32%, translating to a 3.5% yield increase for a fab producing 120,000 300mm wafers monthly ($4.6M in annual revenue).

2. Eliminate Handoff Errors and Simplify Operations

By covering 1×10⁻¹⁰–760 Torr in one device, the LAM 716-011536-001 eliminates the need for software-driven or manual handoff between separate sensors. In a U.S. fab using LAM 2300 ALD systems for 3D NAND memory, this integration reduced handoff-related defects (e.g., film voids from pressure spikes) by 35% compared to paired sensor setups. It also cut sensor inventory costs by 50% (one device vs. two) and simplified wiring by 45%—freeing up 15% of cleanroom panel space and reducing technician workload for installation and maintenance.

3. Kalrez® 6375 Seals for Universal Chemical Resistance

The sensor comes standard with Kalrez® 6375 seals—resistant to aggressive fluorinated etch gases (NF₃, CF₄, C₂F₆), O₂ plasma cleaning (up to 180°C), and inert/reactive gases—eliminating the need for seal upgrades (common with sensors like LAM 716-021894-001, which offers Viton® as standard). A European fab testing the sensor in LAM Coronus® clean systems found it maintained full accuracy for 70,000+ cycles in NF₃-rich environments—vs. 45,000 cycles for Viton®-sealed sensors (which degrade in fluorine). This longevity reduced sensor replacement frequency by 36%, lowering maintenance costs by $220,000 annually for a 25-tool fab.

4. Fast-Vent Mode for Throughput Optimization

With ≤30 ms response time in low-vacuum fast-vent mode, the LAM 716-011536-001 accelerates chamber venting— a key bottleneck for high-throughput fabs. During wafer load/unload, it captures rapid pressure rises and feeds data to LAM 810-800082-201, which adjusts vent valve speed to avoid overshooting atmospheric pressure. In a Korean fab using LAM 9000 systems for 5nm HPC chips, this reduced vent time from 5.0 minutes to 3.2 minutes per wafer lot—enabling 8 extra lots processed daily (240 additional wafers/month) without compromising wafer handling safety. The sensor’s UHV response time (≤60 ms) also ensures it keeps pace with dynamic plasma transitions, preventing “etch rate drift” in 3nm processes.

Manufacturer:
Part number: LAM 716-011536-001
Our extensive catalogue, including : LAM 716-011536-001 , is available now for dispatch to the worldwide.
  • Full 12-month warranty
  • Available for dispatch immediately
  • We deliver worldwide

Description

Detailed Parameter Table

Parameter Name Parameter Value
Product Model LAM 716-011536-001
Manufacturer LAM Research Corporation
Product Category Multi-Range Vacuum Pressure Sensor (Capacitance Diaphragm Gauge, CDG)
Measurement Range All-in-one coverage: 1×10⁻¹⁰ Torr (UHV) to 760 Torr (atmospheric pressure); covers etch, ALD, load/unload, roughing
Measurement Accuracy ±1.2% of reading (1×10⁻⁹–1×10⁻³ Torr, UHV core range); ±1.6% of reading (1×10⁻³–10 Torr, transition range); ±2.3% of reading (10–760 Torr, low-vacuum range)
Repeatability ±0.3% of reading (full range); Zero drift: ≤0.04×10⁻¹⁰ Torr/month (UHV) / ≤0.06×10⁻² Torr/month (low-vacuum)
Sensor Technology Dual-diaphragm Capacitance Diaphragm Gauge (CDG); UHV diaphragm: Single-crystal silicon (silicon nitride coated); Low-vacuum diaphragm: Polished 316L stainless steel (PTFE overlay)
Output Signal Analog: 4–20 mA (range-selectable); Digital: RS-485 (Modbus RTU) + I2C (health/diagnostics); Native integration with LAM Process Control Software (PCS)
Response Time ≤60 ms (UHV: 1×10⁻⁸–1×10⁻⁶ Torr); ≤40 ms (transition: 1×10⁻³–10 Torr); ≤30 ms (low-vacuum: 10–100 Torr, fast-vent mode)
Operating Temperature Range 10°C–70°C (50°F–158°F); Temperature Coefficient: ≤0.07% of reading per °C (20–65°C)
Storage Conditions -25°C–85°C (-13°F–185°F); Humidity: 5–90% RH (non-condensing, IP54 dust/water tight)
Environmental Ratings IP54 (dust/water resistance); Cleanroom Compatibility: ISO Class 2 (per ISO 14644-1); Vibration Resistance: 10 g (10–2000 Hz); Shock Resistance: 40 g (1ms half-sine)
Material Specifications Housing: 316L stainless steel (electropolished, Ra ≤0.2 μm); Seals: Kalrez® 6375 (standard, fluorine-resistant); Process Port: 1/4” VCR male (316L SS, dead-volume <0.15 cm³, leak rate ≤1×10⁻¹⁰ SCCM)
Electrical Connection M12 5-pin connector (IP67-rated, double-shielded for EMI/RFI protection); Reverse polarity protection
Compliance Standards SEMI F47 (voltage sag immunity), SEMI S2 (equipment safety), RoHS 3.0, CE, ISO 9001, MIL-STD-883H (environmental stress testing), ATEX Zone 2 (optional)
LAM Component Compatibility Works with LAM 810-800082-201 (vacuum controller), LAM 713-071681-009 (UHV valve), LAM 673-092355-006 (RF feedthrough)
Compatible LAM Systems LAM 9000 Series Plasma Etch (5nm–3nm), LAM 2300 Series Deposition (ALD), LAM 790 Series (legacy, with adapter), LAM Coronus® Plasma Clean
Physical Dimensions 3.0” × 2.7” × 2.2” (L×W×H); Mounting: DIN rail / panel-mount (low-profile bracket included); Weight: 0.45 kg (0.99 lbs)
Calibration Interval NIST-traceable calibration recommended: 12 months (fluorinated gases); 24 months (inert/reactive gases); On-board dual-range self-calibration
Service Life Expectancy 80,000+ process cycles (standard conditions); 60,000+ cycles (fluorinated gas environments)
LAM 716-011536-001

LAM 716-011536-001

Product Introduction

The LAM 716-011536-001 is a next-generation multi-range vacuum pressure sensor engineered by LAM Research—an industry leader in semiconductor manufacturing equipment—to redefine full-spectrum vacuum monitoring for advanced chip production. Unlike single-range sensors that require pairing (e.g., LAM 716-028123-004 for UHV + LAM 716-021894-001 for medium-to-low vacuum), it integrates dual diaphragms to deliver seamless accuracy from 1×10⁻¹⁰ Torr (UHV for plasma etch/ALD) to 760 Torr (atmospheric for wafer load/unload). This innovation solves a critical pain point for fabs: eliminating “handoff errors” between separate sensors, reducing inventory costs, and simplifying wiring—all while maintaining the precision required for 5nm–3nm processes.

In semiconductor fabs, the LAM 716-011536-001 acts as the “unified vacuum hub” for LAM’s 9000 Series etch systems. It tracks every process stage without manual intervention: pulling UHV to 5×10⁻⁹ Torr for oxide etch, maintaining 1×10⁻³ Torr during pre-etch purge, venting to 760 Torr for wafer exchange, and roughing back to UHV for the next cycle. For example, in a LAM 9000 tool processing 5nm logic chips, the sensor eliminates the risk of plasma extinction caused by UHV-low-vacuum handoff delays (common with paired sensors), cutting “etch ignition failure” defects by 28%. It feeds real-time data to LAM 810-800082-201 (vacuum pump controller), which adjusts pump speed dynamically to lock in pressure—ensuring nanoscale process stability. Today, it is a cornerstone of high-efficiency fabs, where its all-in-one design balances precision, flexibility, and reliability for next-generation chips.

Core Advantages and Technical Highlights

1. Dual-Diaphragm Design for UHV-Low-Vacuum Precision

The LAM 716-011536-001 uses separate diaphragms optimized for their respective ranges: a single-crystal silicon diaphragm (silicon nitride coated) for UHV (matching the precision of LAM 716-028123-004) and a polished 316L stainless steel diaphragm (PTFE overlay) for medium-to-low vacuum (matching the ruggedness of LAM 716-021894-001). In a Taiwanese fab using LAM 9000 systems, this design maintained ±1.2% accuracy in UHV (1×10⁻⁹–1×10⁻³ Torr) and ±1.6% accuracy in the transition zone (1×10⁻³–10 Torr)—outperforming generic multi-range sensors (which average ±2.0% accuracy across ranges). This precision reduced “etch CD (critical dimension) variation” defects by 32%, translating to a 3.5% yield increase for a fab producing 120,000 300mm wafers monthly ($4.6M in annual revenue).

2. Eliminate Handoff Errors and Simplify Operations

By covering 1×10⁻¹⁰–760 Torr in one device, the LAM 716-011536-001 eliminates the need for software-driven or manual handoff between separate sensors. In a U.S. fab using LAM 2300 ALD systems for 3D NAND memory, this integration reduced handoff-related defects (e.g., film voids from pressure spikes) by 35% compared to paired sensor setups. It also cut sensor inventory costs by 50% (one device vs. two) and simplified wiring by 45%—freeing up 15% of cleanroom panel space and reducing technician workload for installation and maintenance.

3. Kalrez® 6375 Seals for Universal Chemical Resistance

The sensor comes standard with Kalrez® 6375 seals—resistant to aggressive fluorinated etch gases (NF₃, CF₄, C₂F₆), O₂ plasma cleaning (up to 180°C), and inert/reactive gases—eliminating the need for seal upgrades (common with sensors like LAM 716-021894-001, which offers Viton® as standard). A European fab testing the sensor in LAM Coronus® clean systems found it maintained full accuracy for 70,000+ cycles in NF₃-rich environments—vs. 45,000 cycles for Viton®-sealed sensors (which degrade in fluorine). This longevity reduced sensor replacement frequency by 36%, lowering maintenance costs by $220,000 annually for a 25-tool fab.

4. Fast-Vent Mode for Throughput Optimization

With ≤30 ms response time in low-vacuum fast-vent mode, the LAM 716-011536-001 accelerates chamber venting— a key bottleneck for high-throughput fabs. During wafer load/unload, it captures rapid pressure rises and feeds data to LAM 810-800082-201, which adjusts vent valve speed to avoid overshooting atmospheric pressure. In a Korean fab using LAM 9000 systems for 5nm HPC chips, this reduced vent time from 5.0 minutes to 3.2 minutes per wafer lot—enabling 8 extra lots processed daily (240 additional wafers/month) without compromising wafer handling safety. The sensor’s UHV response time (≤60 ms) also ensures it keeps pace with dynamic plasma transitions, preventing “etch rate drift” in 3nm processes.

Typical Application Scenarios

Scenario 1: LAM 9000 Series Full-Cycle Etch for 5nm Logic Chips

A leading South Korean fab uses LAM 716-011536-001 sensors in 42 LAM 9000 etch systems for 5nm logic chip production. Each sensor:

Monitors the full cycle without handoff: pulls UHV to 3×10⁻⁹ Torr (etch phase) with ±1.2% accuracy, maintains 1×10⁻³ Torr (pre-etch purge) with ±1.6% accuracy, vents to 760 Torr (load/unload) with ±2.3% accuracy, and roughs back to UHV—all in one device.

Sends real-time data to LAM 810-800082-201 (vacuum controller), which adjusts TMP/backing pump speed. If UHV drifts to 3.3×10⁻⁹ Torr, the controller increases TMP speed by 4% to restore target pressure within 1.8 seconds.

Detects micro-leaks (e.g., 0.6×10⁻⁸ Torr pressure rise) from LAM 673-092355-006 (RF feedthrough) seals, triggering a plasma purge and alerting technicians—preventing contamination of 300mm wafers (valued at $5,000 each for 5nm chips).

Over 6 months, the fab reported zero UHV-related tool failures, and etch yield increased by 4.2%—equivalent to $5.8M in additional revenue.

Scenario 2: LAM 2300 Series ALD for 3D NAND Memory

A U.S. fab deploys LAM 716-011536-001 sensors in 30 LAM 2300 deposition systems for 3D NAND memory (100+ layer stacks). The sensor:

Maintains 8×10⁻¹⁰ Torr UHV (ALD precursor uniformity) with ±0.08×10⁻¹⁰ Torr stability, syncing with LAM 515-011835-001 (MFC) to time hafnium chloride (HfCl₄) pulses—ensuring 0.8nm-thick HfO₂ layers with <1.0% uniformity.

Uses fast-vent mode (≤30 ms response) to track venting from 1×10⁻³ Torr to 760 Torr, cutting vent time by 1.9 minutes per lot—enabling 6 extra lots processed daily (180 additional wafers/month).

Logs pressure data via RS-485 for IATF 16949 compliance, reducing audit documentation time by 50% vs. manual logkeeping.

This setup met 3D NAND’s strict film uniformity requirements (±1.2%) across 20,000 wafers and reduced ALD defects by 34%, supporting the fab’s 1.6M 3D NAND chip monthly production target.

LAM 716-011536-001

LAM 716-011536-001

Related Model Recommendations

Model Number Product Type Key Use Case (Complementary to LAM 716-011536-001)
LAM 810-800082-201 Vacuum Pump Controller Primary control partner—uses the sensor’s multi-range data to adjust TMP/backing pump speed, optimizing full-cycle vacuum control.
LAM 716-011536-CAL Calibration Kit NIST-traceable tools for dual-range recalibration (UHV + low-vacuum), extending accuracy to 24 months (inert gases).
LAM 713-071681-009 UHV Interlock Valve Coordinates with the sensor—closes if UHV drifts above 1×10⁻⁷ Torr, preventing chamber contamination during etch.
LAM 673-092355-006 RF Feedthrough Sensor detects feedthrough seal leaks (UHV pressure spikes), triggering maintenance before plasma arcing damages the feedthrough.
Swagelok SS-4VCR-M0-1 UHV VCR Fitting Replacement 1/4” VCR male fitting for the sensor’s process port, ensuring UHV sealing (≤1×10⁻¹⁰ Torr) and low dead-volume.
LAM 716-011536-002 Extreme-Temp Variant Operating temp: 5°C–80°C—upgrade for LAM systems with heated chambers (e.g., rapid thermal ALD), retains dual-diaphragm precision.
Pfeiffer TPH 550 High-Speed TMP Compatible with the sensor—optimized for LAM 9000 systems, achieves 1×10⁻¹¹ Torr UHV, works with LAM 810-800082-201 for speed control.
LAM 203-140148-308 Process Gas Isolation Valve Syncs with sensor data—opens only when low-vacuum is stable (760 ±2 Torr), avoiding gas cross-contamination during load/unload.

Installation, Commissioning &

 

We've got you covered
We give you access to a global supply of automation parts at your fingertips, ensuring that manufacturers around the world can avoid unnecessary downtime and continue to do what they do best – making our world possible.
  • Full 12-month warranty on all components
  • Dedicated after-sales support
  • Same-day dispatch on 1000s of parts
  • All units are fully tested
Continue Searching
We're here when you need us
What happens next?
  • 1. Email confirmation
    You will get an email confirming that we have received your enquiry.
  • 2. Dedicated Account Manager
    One of our team will be in touch to confirm your part(s) specification and condition.
  • 3. Your quote
    You will receive a comprehensive quote tailored to your specific needs.