Labnet International

Shaking Incubators

311DS Shaking Incubator 115V

I-5311-DS by Labnet International is the Model 311DS High Performance Shaking Incubator, a 71 L (2.5 cu. ft.) orbital shaker incubator with a speed range of 20–300 rpm (19 mm orbit) and temperature control from ambient +5° to 80°C (±0.5°C). Holds up to four 2 L Erlenmeyer flasks or six 1 L flasks. SmartChek™ digital temperature control, insulated door, 120 V, 50/60 Hz. Flask clamps available separately.

Manufacture

Imaging and Gel Visualization

Enduro GDS2-1302 Gel Documentation System

GDS2-1302 by Labnet International is the ENDURO™ GDS II gel documentation system with a 5 MP scientific-grade sensor, 8 mm F/1.4 Smart Capture lens, AutoExposure, a built-in 302 nm LED UV transilluminator (30,000-hour rated life), and UV safety cut-off switch. Captures JPEG and 16-bit TIFF. Requires a Windows 10 PC (not included). cTUVus and CE certified. Contact MBP at customerservice@mbpinc.net for institutional pricing and PO support.

Dry Baths

<h2>What Are Dry Bath Incubators?</h2>
&nbsp;
A dry bath incubator uses direct thermal conduction from a heated aluminum block to sample tubes placed in precision-machined well inserts, rather than immersing samples in a liquid medium. This eliminates water bath contamination risks from microbial biofilms, cross-contamination between samples from water droplets, and the mineral scale buildup associated with tap water. Aluminum blocks heat rapidly: most models reach 37 degrees C from ambient in 3-5 minutes and 100 degrees C in approximately 10-15 minutes, providing faster protocol transitions than water baths for multi-temperature workflows. Interchangeable aluminum well insert blocks are machined to fit specific tube formats with tight tolerances (typically plus or minus 0.1 mm), maximizing thermal contact between the block wall and tube exterior for efficient and uniform heat transfer. Choose dry bath incubators over water baths when contamination prevention is critical, when multiple setpoint temperatures are needed in rapid succession, or when protocols require temperatures above 70 degrees C, where evaporation from water baths is significant.
&nbsp;
<h2 dir="ltr">What You Will Find:</h2>
&nbsp;
<a href="https://mbpinc.net/equipments/temperature-control-equipment/temperature-controlled-baths/dry-baths/dry-baths-accessories" title="Dry Baths Accessories">Dry Baths Accessories</a>
<ul>
<li dir="ltr" role="presentation">High-conductivity interchangeable heating blocks designed to accommodate microtubes, PCR strips, and centrifuge tubes for maximum versatility.</li>
<li dir="ltr" role="presentation">Specialized block lifters and thermal covers that ensure safe handling and improved temperature insulation during high-heat protocols.</li>
<li dir="ltr" role="presentation">Precision-fit modular inserts engineered for seamless heat transfer, allowing you to customize your heating station for any vessel size.</li>
</ul>
&nbsp;
<h2>How to Choose a Dry Bath Incubator</h2>
&nbsp;
Number of blocks and block capacity
Single-block dry baths hold one aluminum insert block and typically accept 8-24 wells, depending on tube size, occupying minimal bench space. Dual-block models accept two independently controlled blocks simultaneously (see Dual Baths), enabling two temperatures in one footprint. Four-block configurations (such as Labnet DB-04A) hold four blocks with a broad temperature range up to 150 degrees C, suitable for high-throughput labs processing multiple protocols simultaneously. Confirm well count per block for your primary tube format before purchasing.
Temperature range
Standard dry bath incubators cover ambient plus 5 degrees C to 100 degrees C, sufficient for most molecular biology protocols (37 degrees C incubation, 55-60 degrees C Proteinase K digestion, 70 degrees C inactivation, 95 degrees C DNA denaturation). Extended-range models reach 120-160 degrees C for applications such as paraffin embedding at 60-65 degrees C, wax melting, electrophoresis gel denaturation, and COD (chemical oxygen demand) digestion at 150 degrees C. Models with Peltier cooling blocks extend the lower range to -10 to -30 degrees C for sub-ambient incubations.
Temperature accuracy and uniformity
Block temperature accuracy (deviation from the true temperature at setpoint) is typically plus or minus 0.2-0.5 degrees C at 37 degrees C for microprocessor PID-controlled units; the Biolab dry bath incubator 1306 series specifies plus or minus 0.3 degrees C stability and or minus 0.3 degrees C block uniformity at 100 degrees C. Block uniformity describes the temperature variation between different wells in the same insert at the same setpoint, a critical specification when running comparative assays where all samples must be at identical temperatures.
Heated lid
An adjustable heated lid positions a temperature-controlled surface directly above the tube caps during incubation, preventing condensation of volatile samples on the cooler upper portions of the tube and the cap. Heated lids are essential for enzyme reactions, isothermal amplification (LAMP), immunoassay incubations, and any protocol where evaporation or condensation affects sample concentration or reaction outcome. Models like the Labnet PR1MA Mini with Heated Lid allow independent temperature setting of the lid to optimize anti-condensation heating without overheating the sample.
Programmable timer and multi-cycle function
Programmable dry baths with a built-in timer (up to 99 hours and 59 minutes on most models) allow unattended protocol completion with automatic shutoff. Multi-cycle function (up to 99 repetitions) enables automated ramp-hold-repeat cycles for denaturation-renaturation experiments, isothermal nucleic acid amplification protocols, and temperature cycling without a PCR thermocycler for simple two-step protocols. Auto-restart after power failure is standard on research-grade models.
&nbsp;
<h2>Specifications Context</h2>
&nbsp;
A 150 W heating element in a single-block dry bath achieves temperature equilibration from 25 degrees C to 100 degrees C in 10 minutes or less, compared to 15-25 minutes for a 12-20 L water bath at comparable setpoints. Block temperature uniformity of plus or minus 0.3 degrees C across all wells is standard for research-grade dry bath incubators; economy models may specify plus or minus 1 degree C block uniformity, which is insufficient for quantitative assays comparing samples run in different wells. Dry bath incubators operating at 95-100 degrees C require minimal maintenance compared to water baths: no water changes, no algae treatment, no mineral descaling, making them operationally lower-cost for high-temperature molecular biology protocols. Dry bath incubators with heated lids, dual LED displays (showing actual and setpoint temperatures simultaneously), and programmable multi-cycle timers are the standard specification for new molecular biology lab installations, replacing older dry block heaters.&nbsp;
&nbsp;
Ready to upgrade your sample heating setup? Explore our full range of dry baths and <a href="https://mbpinc.net/contact-us">contact the MBP team</a> for a quote today.

Product Literature

D1300-Group-Brochure

D1300-Group-Constant Temperature Selection Guide

Block, 48 x 0.2 ml PCR tubes or 6 x 0.2 ml

Single Block, 96 well PCR plate, skirted or nonskirted (for single block unit only)

Dual Block, 96 well micro plate or 4 slides (for dual block unit only)

Dual Block, 96 well PCR plate, skirted or nonskirted (for dual block unit only)

Block, 384 well PCR plate. Block fits D1200 only and holds one plate

Pop-Stopper for D1102, D1102-A, D1105, D1105-A blocks

AccuRack™ tube rack for 20x1.5mL tubes. Compatible with the D1105A block

AccuBlock digital dry bath Accessories

LABNET DIGITAL DRY BATH Series

D1300 series by Labnet International is the AccuBlock™ Digital Dry Bath — ambient +5°C to 150°C, ±0.2°C uniformity, built-in 99-hour timer. Available in 1-block (D1301), 2-block (D1302), and 4-block (D1304) configurations with 120 V and 230 V variants. Accepts the full Labnet interchangeable block system.

Temperature Range

Timer

Temperature Uniformity

Display Increments

Block Capacity

Chamber Construction

Interface

Dimensions (W x D x H)

Weight

External Temperature Probe

Dry Bath Block Construction

Dimensions (W x D)

Thermometer Well

LABNET DIGITAL DRY BATH SINGLE BLOCK

LABNET DIGITAL DRY BATH DUAL BLOCK 120V

LABNET DIGITAL DRY BATH DUAL BLOCK-230V

LABNET DIGITAL DRY BATH FOUR BLOCKS 120V

LABNET DIGITAL DRY BATH FOUR BLOCK-230V

Plate Sealer

<h2>What Are Plate Sealers?</h2>
&nbsp;
A plate sealer is a laboratory instrument that applies a uniform heat seal to the surface of a standard SBS-format microplate, protecting samples from evaporation, contamination, aerosol carryover, and sample loss during PCR, qPCR, ELISA, NGS library preparation, and long-term storage. Even small amounts of evaporation from low-volume PCR reactions can alter reagent concentrations and affect amplification consistency, while inadequate sealing during frozen storage can lead to sample degradation through sublimation and repeated freeze-thaw cycles.&nbsp;Bench-top semi-automated heat sealers use controlled temperature and pressure to bond compatible polymer films or aluminum foils securely to the plate rim, producing consistent, reproducible seals with minimal operator variability. Typical sealing temperatures range from 80 to 200 degrees C, with sealing completed in 2 to 3 seconds after the instrument reaches operating temperature. Choose a heat plate sealer when your workflow requires reliable sealing for PCR, qPCR, NGS library preparation, or secure short- and long-term microplate storage.
&nbsp;
<h2>What you will find:</h2>
&nbsp;
<ul>
<li>Semi-automated and automated plate sealers for sealing standard and deepwell microplates.</li>
<li><a href="https://mbpinc.net/equipments/microscopes-balances-and-analytical-equipment/microplate-instruments/plate-sealer/plate-sealer-accessories">Plate Sealer Accessories</a>, including optically clear qPCR sealing films and foil seals for a variety of microplate applications.</li>
<li>Optically clear qPCR sealing films with peelable, pierceable, and strong-bond options for different plate types.</li>
<li>Foil plate seals with peelable or strong-bond adhesives for polypropylene (PP) plates, including DMSO-compatible cold storage applications.</li>
</ul>
&nbsp;
<h2>How to Choose a Plate Sealer</h2>
&nbsp;
Heat sealer vs. adhesive sealer vs. manual film applicator
Heat sealers produce hermetic, consistent seals by bonding non-adhesive sealing film to the plate at programmed temperature and pressure; the seal is uniform plate to plate and user to user, and holds integrity through thermal cycling (-80 to +100 degrees C). They require a warm-up period (3 to 6 minutes) and a sealing film or foil matched to the instrument. Adhesive sealers use pressure-sensitive film that the operator applies by rolling or pressing across the plate; no instrument warm-up is required, but seal quality is technique-dependent and less reliable for PCR thermal cycling or cryogenic storage. Manual film applicators (rollers or squeegees) ensure even pressure application of adhesive films and are intermediate in cost and reliability.
Sealing temperature and film compatibility
Most heat sealers cover a sealing temperature range of 80 degrees C to 200 degrees C with 1-degree increment control. PCR aluminum foil seals typically seal optimally at 175 to 185 degrees C; optically clear polymer films for qPCR seal at 160 to 175 degrees C; cell culture gas-permeable membranes seal at lower temperatures (80 to 120 degrees C). Confirm that the sealer's temperature range covers all seal types used in the lab, and that the instrument stores named protocols per seal type to prevent user parameter errors.
Plate format compatibility
Confirm the sealer's plate guide accommodates the plate formats in routine use: standard 96-well at 14.4 mm height; low-profile 96-well PCR plates (13.8 mm); 384-well plates; and deep-well plates (2 mL per well, up to 44 mm tall). Some sealers require format-specific adapter inserts or different sealing frames for 384-well and deep-well plates. Confirm the maximum plate height the instrument accommodates (typically 44 to 48 mm) and whether height adjustment is automatic or manual.
Platen temperature uniformity
Temperature uniformity across the sealing platen (plus or minus 3 degrees C or better across the full plate footprint) is the critical performance specification for qPCR and PCR plate sealers. Non-uniform platen temperature produces weaker seals in cooler zones (typically the outer corners and edges of the plate) where evaporation during thermocycling is most likely and where Cq value variability is first observed. Request platen temperature mapping data from the manufacturer across the full plate area at the intended sealing temperature before specifying a sealer for critical qPCR applications.
Throughput and automation integration
Manual heat sealers process one plate per cycle (2 to 3 seconds active sealing time plus operator load/unload time: approximately 1 plate per minute). Semi-automated sealers with motorized drawer eject the plate after sealing and include a stackable design for faster processing. Fully automated sealers integrate with liquid handling robots and process plates at 1 to 3 plates per minute without operator intervention. For drug discovery and NGS workflows processing 50 to 500 plates per day, specify a fully automated sealer with RS-232 or USB control interface.
&nbsp;
<h2>Specifications Context</h2>
&nbsp;
After sealing, allow the sealed plate to cool on a flat surface for 10 to 15 seconds before placing it in the thermocycler or centrifuge; premature handling before the seal cools and bonds to the rim can cause edge lifting, particularly in the outer rows. If the seal lifts at any position, the sealing temperature is too low, the plate rim was wet or contaminated before sealing, or the sealing film is incompatible with the specific plate brand. Foil seal materials for cryogenic storage must specify a minimum rated temperature of -80 degrees C or below; standard PCR foil seals may not maintain seal integrity below -40 degrees C during prolonged cold storage.&nbsp;
&nbsp;
To discuss product availability or get selection guidance,&nbsp;<a href="https://mbpinc.net/contact-us">contact the MBP team</a>.

Labnet Accuseal Plate Sealer, includes adapters for standard and deepwell microplates, 120V

PS1000 by Labnet International is the AccuSeal™ semi-automated plate sealer with a 100–190°C temperature range (±1°C), 0.5–10 second sealing time, and compatibility with standard assay, deep-well (≤45 mm), and PCR plates in PP, PS, or PE — accepting paper, polyester, peelable, and aluminum foil films; adapters for standard and deep-well formats included; 120V (230V as PS1000-230V).

Sealing Temperature

Temperature Accuracy

Sealing Time

Compatible Plate Materials

Compatible Plate Types

Maximum Plate Height

Blotting

Enduro™ Gel XL Electrophoresis System-BROCHURE

Labnet Enduro Gel XL with standard casting set, gel tank and safety lid and power supply

E0160 by Labnet International is the Enduro™ Gel XL, a complete horizontal agarose gel electrophoresis system including a standard casting set, gel tank, safety lid, and integrated digital power supply. Three gel tray sizes support up to 112 samples per run across 4 combs. The integrated power supply runs 10–150 V at up to 400 mA in constant voltage or current mode, with digital timer and automatic last-settings memory.

Output Voltage

Output Amperage

Maximum Sample Capacity

Memory Function

Mini Incubators

User Manual

Labnet-Mini-Incubator - Selection Guide

Labnet Mini Incubator

The Labnet Mini Incubator (I5110A) by Labnet International (Corning) is a 9.2L compact benchtop incubator with a temperature range of ambient +5&deg;C to 70&deg;C. All-metal housing with a plexiglass viewing window; one adjustable shelf holds up to 48 petri dishes or 28 microplates. Available in 120V and 230V. Analog controls; additional shelves available separately.

Temperature range

Capacity

Controls

Exterior dimensions (W x D x H)

Interior dimensions (W x D x H)

Electrical

Mini Incubator 115Volt

Mini Incubator - 230V

Microcentrifuge

<h2>What Are Microcentrifuges?</h2>
&nbsp;
Microcentrifuges are compact, high-speed benchtop centrifuges designed specifically for 0.2&ndash;2.0 mL microtubes and PCR strips, operating at 10,000&ndash;21,000 &times;g in a fixed-angle rotor. They are the primary centrifugation instrument in molecular biology, biochemistry, and clinical molecular diagnostics labs: nucleic acid pellet formation after ethanol precipitation, spin-column DNA/RNA extraction and PCR cleanup steps (typically specified at 10,000&ndash;16,000 &times;g for 30&ndash;60 seconds), cell debris clearance from lysates, protein precipitation supernatant recovery, and brief sample clarification before downstream analysis. Standard benchtop microcentrifuges reach 14,000&ndash;15,000 RPM (16,000&ndash;21,000 &times;g), while high-speed models reach up to 21,000 RPM and approximately 31,000 &times;g. Refrigerated variants maintain 0&ndash;4&deg;C for temperature-sensitive workflows.
&nbsp;
<h2>What You Will Find:</h2>
&nbsp;
<ul>
<li>High-Speed Microcentrifuges: For faster sample processing</li>
<li>Refrigerated Microcentrifuges: For temperature-sensitive handling</li>
<li>Benchtop Microcentrifuge Systems: For routine lab working</li>
<li>5D Digital Microcentrifuge: With customizable time and speed options</li>
<li>Mini Microcentrifuges: Compact units for rapid spin-down tasks</li>
<li>MC-24 High-Speed Microcentrifuge: Features touch screen control and high speed</li>
<li>Microplate Centrifuges: Developed for PCR plates and strip formats</li>
<li>Microcentrifuge Accessories: For expanded tube flexibility and compatibility</li>
</ul>
&nbsp;
<h2>How to Choose a Microcentrifuge</h2>
&nbsp;
Maximum RCF vs. Protocol Requirements
Most spin-column kit protocols specify 10,000&ndash;16,000 &times;g. A standard microcentrifuge reaching 14,000&ndash;16,000 &times;g covers these requirements. If your lab performs alcohol-precipitation DNA/RNA pelleting (12,000&ndash;16,000 &times;g) or virus concentration steps (20,000+ &times;g), choose a model reaching at least 16,000 &times;g. High-speed models reaching 21,000&ndash;31,000 &times;g are available for specialized applications.
Rotor Tube Positions and Capacity
Most microcentrifuge rotors hold 12&ndash;24 &times; 1.5/2.0 mL tubes per run. Laboratories processing larger batches benefit from 24-position rotors, while smaller research groups may find 12-position models sufficient. Confirm that adapters for 0.5 mL and 0.2 mL tubes are available if required by your workflows.
Refrigerated vs. Ambient Temperature
Refrigerated microcentrifuges are recommended for RNA extraction, protein stability studies, cell viability applications, and any protocol requiring 4&deg;C centrifugation. Standard room-temperature models are suitable for routine DNA extraction and PCR cleanup procedures.
Noise Level and Footprint
Modern brushless DC motor microcentrifuges typically operate at &le;52 dB, making them quieter than older brush-motor systems. Most units occupy 200&ndash;300 mm of bench width, so confirm that sufficient clearance is available when the lid is fully open.
Safety Features
Essential safety features include lid-lock mechanisms, imbalance detection, and over-speed protection. Laboratories handling infectious materials should verify that aerosol-tight sealed rotor lids are available for the selected model.
&nbsp;
<h2>Specifications Context</h2>
&nbsp;
The standard spin-column step in most commercial DNA/RNA extraction kits specifies 10,000&ndash;16,000 &times;g for 30&ndash;60 seconds. Always confirm the rotor's maximum RCF from manufacturer specifications, since RPM values alone do not account for differences in rotor radius.
Microcentrifuge rotors are typically fixed-angle designs positioned at approximately 45&deg;, providing efficient pelleting and short sedimentation paths. Aerosol-tight sealed lids allow safe handling of BSL-2 samples and other applications requiring biocontainment. Modern brushless DC motors offer quieter performance, improved speed accuracy, and longer service intervals than legacy brush-motor systems.
Your search for high-performance microcentrifuges is over. <a href="https://mbpinc.net/contact-us">Contact now</a> with the expert team at Molecular Biology Products Inc. and get the right microcentrifuge for your lab today.

Brochure

Labnet Mini Microcentrifuge,Gray Lid,100-240V

C1601-G by Labnet International is the gray-lid mini microcentrifuge running at 6,000 RPM / 2,000 × g, with an 8-place rotor for 1.5/2.0 mL tubes and a quick-release 4-place PCR strip rotor, electronic braking, universal 100–240V power, and compact 17.2×14.7×12.2 cm footprint — also available in blue (C1601-B), purple (C1601-P), and red (C1601-R).

Maximum Speed

Maximum Capacity

Dimensions

Labnet Mini Microcentrifuge,Purple Lid, 100-240V

The C1601-P by Labnet International is a mini microcentrifuge with a purple lid, reaching 6,000 RPM / 2,000 × g with a quick-release rotor that holds 8 × 1.5/2.0 mL microtubes or 4 × 0.2 mL PCR strip tubes. Universal voltage (100–240 V) and a compact 17.2 × 14.7 cm footprint make it suitable for any bench.

Constant Temperature Selection Guide

Non-toxic safety thermometer for -20°C to 110°C, with 1 resolution, 305 mm long, 76 mm immersion

Labnet 6 Liter General Purpose Water Bath Accessories

Labnet Mini Water Bath 6 Liter, 115 V

W1106A by Labnet International is a 6-liter mini water bath with a seamless stainless steel chamber, ambient +5°C to 100°C temperature range, and 550 W heater. Includes stainless gable cover and thermometer clip. Analog-controlled, 120 V. Compact benchtop footprint for enzyme incubation, cell culture, and molecular biology workflows.

Heater

Vortex Mixers

<h2>What are laboratory vortex mixers?</h2>
&nbsp;
A laboratory vortex mixer is a small benchtop instrument with an eccentrically rotating motor that drives a cup-shaped rubber head in a rapid circular path, creating a vortex in liquid-filled tubes or vessels pressed onto the cup. The vibration transfers through the closed tube wall to the liquid, generating a powerful swirling vortex that thoroughly mixes tube contents within seconds. Vortex mixers are used throughout the laboratory for resuspending pellets after centrifugation, mixing enzyme reaction components, homogenizing samples, dissolving compounds, and briefly but thoroughly mixing any small tube or vessel.
&nbsp;
<h2 dir="ltr">What you will find:</h2>
&nbsp;
<ul>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" aria-level="1">
BLUline vortex mixer: with a flip-head for faster, touch-based mixing
</li>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" aria-level="1">
BenchMixer&trade; vortex mixers: for everyday, reliable lab vortexing
</li>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" aria-level="1">
BenchMixer&trade; XL multi-tube vortexer: for high-performance output sample processing
</li>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" aria-level="1">
Labnet Orbit 300 multipurpose digital vortexer: for programmable and controlled mixing
</li>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" aria-level="1">
Vortex mixer accessories: including horizontal heads, tube racks, and foam holders for different tube sizes and applications
</li>
</ul>
&nbsp;
<h2>How to choose a vortex mixer</h2>
&nbsp;
Choose touch-mode for ad hoc brief mixing and continuous-mode for timed runs
Touch-mode vortex mixers run only when a tube or vessel is pressed against the cup head, stopping immediately on release &mdash; the natural format for brief, on-demand mixing during pipetting workflows. Continuous-mode switches the mixer to run at a set speed without tube contact, suitable for timed mixing steps or when using a multi-tube adapter for batch runs.
Match vortex speed range to your application
Standard vortex mixers operate between approximately 600 and 3200 rpm, with lower speeds appropriate for gentle mixing of delicate samples or larger vessels, and full speed appropriate for vigorous resuspension of tightly packed pellets. Variable-speed models with a dial allow speed to be dialed down for sensitive applications.
Confirm tube compatibility with the cup head or adapter
The standard cup head on most vortex mixers accommodates 1.5 mL and 2 mL microcentrifuge tubes directly, and most standard tube formats up to approximately 50 mL can be mixed by holding the tube against the cup at the appropriate angle. For 15 mL and 50 mL conical tubes, holding at a slight angle rather than vertical provides more efficient mixing.
Consider a multi-tube foam insert for batch processing
Foam inserts and multi-tube adapters allow 6, 8, or more tubes to be mixed simultaneously during a timed continuous-mode run, suited for batch mixing of many samples between processing steps.
Check that footprint and noise level suit your bench placement
Vortex mixers vary considerably in physical footprint and operating noise; models with a suction-cup base or weighted housing reduce walking on the benchtop at high speed. For open-plan labs or shared spaces, noise level at full speed is worth checking in product specifications.
&nbsp;
<h2>Specifications context</h2>
&nbsp;
The classic vortex mixing action produces a liquid vortex through eccentrically driven cup oscillation at typically 2000&ndash;3200 rpm for full-speed operation, a mechanism that has remained essentially unchanged since the Vortex-Genie design introduced by Scientific Industries in 1962. As of 2026, variable-speed vortex mixers with touch-mode and continuous-mode operation and a removable cup head for accessory attachment remain the most widely used format in molecular biology and biochemistry labs.
<a href="https://mbpinc.net/contact-us">Contact the MBP team today</a> to request a quote and find the right vortex mixer for your application.

Labnet Orbit 300 Multipurpose digital Vortexer, without platform, 120V

S2030-300-B by Labnet International is the Orbit 300 Multipurpose Digital Vortexer, sold without a platform, running 100-1200 rpm with a 3mm orbit and digital speed and time display, at 120V.

Speed Range

Motion/orbit size

Maximum capacity

Ambient operating range

Declaration of Conformity

Labnet Orbit P4 Digital Shaker with platform for 4 microplates, 120V

S2020-P4-B by Labnet International is the Orbit P4 Digital Shaker, a compact orbital shaker that holds up to 4 standard microplates at 100-1400 rpm with a 3mm circular orbit, digital LED speed and timer display, and a +4 to 65C operating range.

Speed range*

Maximum load

Base dimensions (W x D x H)

Maximum speed

Laboratory Oven

<h2>What Are Laboratory Ovens?</h2>
&nbsp;
Laboratory ovens are electrically heated, thermally insulated chambers that maintain a defined temperature for drying, heating, curing, sterilizing, or processing solid samples and materials placed on internal shelves. Unlike water baths or dry block heaters that heat liquid samples in tubes, laboratory ovens process bulk materials, glassware, powders, porous materials, and large samples that cannot fit in tube-based incubators. The two principal oven types are forced air convection ovens (using a fan to circulate heated air at 300-500 m3/h for uniform, rapid temperature distribution and moisture removal) and vacuum drying ovens (sealing the chamber and using an external vacuum pump to reduce pressure below 133 Pa, dramatically lowering the boiling point of water and solvents to enable low-temperature drying at 30-60 degrees C for heat-sensitive materials). Choose forced air convection for most drying, sterilization, and curing applications at temperatures above 50 degrees C. Choose vacuum ovens when samples are heat-sensitive, oxygen-sensitive, or require solvent removal at temperatures below 60 degrees C.
&nbsp;
<h2 dir="ltr">What You Will Find:</h2>
&nbsp;
<a href="https://mbpinc.net/equipments/temperature-control-equipment/laboratory-oven/forced-drying-ovens" title="Forced Drying Ovens:">Forced Drying Ovens:</a>
<ul>
<li>High-speed fans ensure rapid temperature recovery and perfect heat uniformity across every shelf.</li>
<li>Stainless steel interiors provide maximum durability and are easy to keep clean and organized.</li>
</ul>
<a href="temperature-control-equipment/laboratory-oven/vacuum-drying-ovens" title="Vacuum Drying Ovens:">Vacuum Drying Ovens:</a>
<ul>
<li>Reduced-pressure environments allow for safe moisture removal at lower temperatures for heat-sensitive materials.</li>
<li>Digital safety controls protect your samples from oxidation and prevent accidental overheating.</li>
</ul>
&nbsp;
<h2>How to Choose a Laboratory Oven</h2>
&nbsp;
Forced air vs. vacuum
Forced air convection ovens use a fan to distribute heated air uniformly throughout the chamber, providing rapid temperature recovery after door opening and temperature uniformity of plus or minus 1-5 degrees C across the chamber. They are suitable for drying glassware and labware after washing, dehydrating soil or biological specimens for moisture content analysis, dry heat sterilization at 160-180 degrees C, polymer curing, aging tests, and annealing of soft materials. Vacuum drying ovens remove air and moisture from a sealed chamber by vacuum pump, enabling drying at 30-200 degrees C at pressures below 133 Pa. They are required for heat-sensitive pharmaceuticals and APIs, porous materials with moisture trapped in internal cavities, electronic components sensitive to oxidation, and materials processed under oxygen-free conditions.
Temperature range
Standard laboratory ovens cover ambient plus 10 degrees C to 250-300 degrees C for most research and quality control applications. Forced air drying ovens such as the Labtron LFDO-A18 specify RT plus 10 degrees C to 300 degrees C with 225 L capacity. High-temperature ovens reach 350-500 degrees C for ceramics and materials research. Vacuum drying ovens typically cover RT plus 10 degrees C to 200 degrees C; the lower maximum reflects the glass or stainless steel chamber design and silicone door seal constraints. Avoid specifying an oven with a maximum temperature far above the required process temperature: ovens are less stable and less uniform at temperatures well below their ceiling.
Chamber volume and shelf capacity
Oven chamber volume is specified in liters (15 L to 500 L for benchtop models; floor-standing models up to 1,000 L) or cubic feet (0.5 to 18 cu. ft.). Shelf count, shelf dimensions, and maximum load per shelf (kg per shelf) determine actual sample throughput. Standard benchtop laboratory ovens have 2-4 adjustable stainless steel perforated shelves. Vacuum ovens have 2-4 heated shelves in a smaller chamber (typically 0.6-3 cu. ft.) sealed for pressure operations.
Temperature uniformity
Uniformity (variation across the chamber at setpoint) for forced air ovens is typically plus or minus 2-5 degrees C for standard models and plus or minus 0.5-2 degrees C for precision models. Uniformity is improved by forced air circulation but remains poorer than dry block heaters or water baths because the larger chamber volume contains thermal gradients even with fan circulation. Placing samples in the center of the chamber away from walls and heating elements reduces exposure to thermal gradients.
Safety and ventilation
Standard laboratory ovens are not rated for flammable solvent applications and must not be used with volatile organic solvents (ethanol, acetone, diethyl ether): solvent vapors can ignite on the heating elements or fan motor. For flammable solvent work, explosion-proof or flammable-material-safe ovens with ATEX-rated motors and all-inert internal components are required. Over-temperature protection (safety thermostat at a fixed cutoff above the setpoint) and over-current protection are standard safety features on research-grade laboratory ovens.
&nbsp;
<h2>Specifications Context</h2>
&nbsp;
Forced air ovens achieve temperature uniformity of plus or minus 2-5 degrees C across the chamber when the fan is in operation; uniformity degrades toward the chamber corners and near the heating elements. Vacuum drying ovens at 0.098 MPa vacuum (133 Pa, near full vacuum for benchtop models) reduce the boiling point of water from 100 degrees C to approximately 40-50 degrees C, enabling thorough drying of heat-sensitive materials at setpoints as low as 40 degrees C without thermal degradation. Dry heat sterilization of glassware in a forced air oven is typically performed at 160-180 degrees C for 2-4 hours, destroying bacterial spores and endotoxin more effectively than autoclave steam sterilization at equivalent temperatures. Forced air laboratory ovens with 4-zone heated air jacket designs, microprocessor PID controls, programmable multi-segment ramp-and-hold profiles, and USB data logging are the standard specification for new research and pharmaceutical laboratory installations.&nbsp;
&nbsp;
Ready to upgrade your thermal capacity? Explore our laboratory oven range and <a href="https://mbpinc.net/contact-us">reach out to the MBP team</a> for a friendly quote today.

ProBlot-12-Hybridization-Oven-Brochure

ProBlot-Hybridization-Oven-Temperature selection guide

Labnet Problot Hybridization Oven

H0600A by Labnet International (ProBlot 6) — microprocessor-controlled hybridization oven for 6 large (35 mm) or 12 small bottles plus 50 mL tubes. Temperature range: ambient +5°C to 80°C, ±0.5°C uniformity; rotisserie 4–20 rpm. Mirrored SS interior, see-through door, 120V. Contact MBP for pricing.