Partica LA-960

Laser Scattering Particle Size Distribution Analyzer

This latest evolution in the LA series advances scientific knowledge for tomorrow’s world through intuitive software, unique accessories, and high performance.

The LA-960 continues HORIBA’s proud tradition of leading the industry with innovative design.

Segment: Scientific

Division: Particle Characterization

Manufacturing Company: HORIBA, Ltd.

Performance that matters

Measure particle size between 10 nanometers and 5 millimeters
State of the art nanoparticle measurement resolves peaks at 30 nanometers
Suitable for suspensions, emulsions, powders, pastes, gels, and creams
Easy to use dry powder accessory, read the PowderJet page for more information
Requires only micrograms* of sample, minimizing cost of analysis
Flexible, fully automated measurement sequences maximize precision and method compliance
Excellent reproducibility and unit-to-unit agreement, read the Gage R&R Study for more information
Measurements in less than 60 seconds boost productivity
Based on the ultra-durable LA-950 platform, noted for its reliability

Software that grows to meet your needs

New users are guided by the Method Expert software to create powerful measurement methods with no prior training
Experienced users create turn-key measurements with the Sequence function to include custom messages, measurement averaging, pass/fail repeats, and much more
Advanced users benefit the Intensity Graph, Custom Calculations, and other power tools to deeply understand their measurements
The brand new user interface emphasizes ease of use to ensure hassle-free operation
Integrated 21 CFR Part 11 compliant software available with user administration, audit trail, and electronic signature functionality

HORIBA's performance guarantee

Guaranteed accuracy of ± 0.6%**
Excellent unit-to-unit precision, ideal for multi-location requirements
ISO 13320:2009 compliant
IQ/OQ available
LA-960 performance verified on every unit with NIST-traceable mono- and polydisperse size standards

Our particle expertise = your solution

HORIBA's experienced staff of technical and applications specialists support the LA-960 in 54 offices across 45 countries. We are committed to the satisfaction of our users and to the education of the greater industry and provide many channels of support including:

Sample analysis via the many Applications Labs around the world
Free software updates, webinars, technical notes, and much more in the Download Center
Instant support via phone, e-mail, and online meeting
On-site and in-house user training courses
Service contracts, verifications, and validations to fit every requirement
Advanced software tools to correlate data from other particle size analyzers to maintain historic specifications

Watch the LA-960 Product Overview video (3:19)
This latest evolution in the LA particle size analyzer series advances scientific knowledge for tomorrow’s world through intuitive software, unique accessories, and high performance.

Interview with Rob Lee of Particle Sciences (1:58)
Watch a two minute video detailing how HORIBA Scientific has partnered with Particle Sciences to provide world-class technology and support for their CDMO business.

Measurement Method	Mie Scattering Theory
Measurement Range	0.01 μm to 5000 μm
Measurement Time	1 minute from dispersion liquid filling to measurement and rinse.
Sampling System	Required Sample Amount：Sample 10 mg to 5 g (Depends on sample material) Dispersion Medium：Approx. 180 mL to 250 mL (Using Flow Cell) Viscosity：Less than 10 mPa・s
Optical System	Light Source：650 nm Laser Diode approx. 5.0 mW 405 nm Light Emitting Diode (LED) approx. 3.0 mW Detectors：Silicon Photo Diode
Circulation System	Ultrasonic Probe：Frequency 20 kHz 7-Level selections Circulation Pump：15-Level selections Agitator：15-Level selections Flow/Fraction Cell：Tempax Glass
Power Supply	120 V AC ±10% or 230 V AC ±10%, 50/60 Hz ±1%
Power Consumption	300 VA
Operating Temperature	15 to 35℃ (59 to 95℉)
Operating Humidity	Relative Humidity 85% or less (no condensation)
External Dimensions	705 x 565 x 500 mm (28 x 23 x 20 in) (W x D x H：not including dimensions of projections)
Mass Approx	56 kg (123 lb)

Dry Feeder Accessory

Dispersion Method	Injector-driven forced dispersion in air, using compressed air
Sample Supply Method	Vibrating feeder
Sample Ejection Method	Vacuum-driven forced ejection
Sample Concentration Adjustment Method	Adjusted by feeder vibration power
Control Method	Serial communication with LA-960 measurement unit
Controlled Items	Feeder vibration power alteration (automatic or user-set), vacuum ON/OFF, compressed air valve ON/OFF, pressure is adjustable
Measurement Time	Normally about 2 seconds from start of measurement
Operating Temperature / Humidity	15 to 35℃, 85% RH max. (no condensation) (59 to 95℉)
Outer Dimensions	332 mm x 321 mm x 244 mm (13 x 13 x 10 in) (W x D x H：not including dimensions of projections and LA-960 measurement unit)
Power Supply	AC 100/120/230V, 50/60 Hz, 1500 VA (Including vacuum; not including LA-960 measurement unit)
Compressed Air Pressure	0.5 MPa to 0.8 MPa
Compressed Air Supply Port	Quick connector for resin tube with 6 mm outer diameter (Compressed air supply equipment must be provided separately)

Schematics

Line Up and Accessories

Components		LA-960N	LA-960A	LA-960S	LA-960W	LA-960L
Optics	Standard optical system	•	•	•	•	•
Aqua type Ethanol can be used as a dispersing additive. （0.01 - 3000μm）	Standard circulation system	-	•	-	-	-
	Pressurized fill adapter	-	-	-	•	-
	Liter flow	-	-	-	-	•
	Peristaltic pump system	-	-	-	•	-
Solvent type （0.01 - 3000μm）	Standard pump system	-	-	•	-	-
Accessories	Fraction cell holder	•	•	•	•	•
	Mini flow with ultrasonic unit （0.01- 1000μm)	•	•	•	•	•
	Paste cell holder	•	•	•	•	•
	Dry unit （0.1 - 5000μm）	•	•	•	•	•
	Auto sampler	-	•	•	•	•
	Slurry sampler	-	•	•	•	•

Nanotechnology is extremely diverse, ranging from novel extensions of conventional device physics, to completely new approaches based upon molecular self-assembly and to developing new materials with dimensions on the nanoscale. Materials reduced to the nanoscale can show different properties compared to what they exhibit on a macroscale, enabling unique applications.