Brands

<h2>What is Chemicals as a reagent category?</h2>
&nbsp;
Chemicals covers the broad range of chemical and biochemical reagents used across molecular biology, cell biology, biochemistry, and general laboratory work: biochemically relevant compounds like vitamins, buffer salts, amino acids, and enzyme substrates; general laboratory chemicals including solvents, acids, bases, and inorganic salts; and research-grade specialty chemicals for specific applications. Unlike application-specific categories such as Epigenetics or Electrophoresis, which organize reagents by research workflow, Chemicals organizes by the nature of the material itself.
&nbsp;
<h2 dir="ltr">What you'll Discover:</h2>
&nbsp;
<ul>
<li dir="ltr" aria-level="1">
<a href="https://mbpinc.net/reagents/chemicals/biochemical-reagents" title="Biochemical Reagents:">Biochemical Reagents:</a> High-quality metabolic inducers such as IPTG (G116), L-Arabinose (A2001-ZYM), and Cumate (CH065), along with essential buffers and enzyme stabilizers like TRIS (CH059), DTT (G025), and PMSF (G034).
</li>
<li dir="ltr" aria-level="1">
<a href="https://mbpinc.net/reagents/chemicals/inorganic-reagents-and-compounds" title="Inorganic Reagents &amp; Compounds:">Inorganic Reagents &amp; Compounds:</a> Ultra-pure essential chemical substances like Sodium Azide (CH052) designed for accurate laboratory buffer enhancement and sample conservation methodologies.
</li>
<li dir="ltr" aria-level="1">
<a href="https://mbpinc.net/reagents/chemicals/detergents-and-surfactants" title="Detergents &amp; Surfactants:">Detergents &amp; Surfactants:</a> Enhanced cell lysis and denaturing agents featuring 20% SDS (CH100) and concentrated 10X Tris-Glycine-SDS Buffer (CH125) for protein electrophoresis setup.
</li>
</ul>
&nbsp;
<h2>How to navigate Chemicals</h2>
&nbsp;
Start with Biochemical Reagents for biologically relevant compounds
Biochemical Reagents covers the subset of the catalog most relevant to molecular and cell biology workflows: vitamins and cofactors, buffer salts and ready-to-use buffer solutions, amino acids, and other compounds with specific roles in biological systems.
Check purity grade requirements before ordering a research chemical
Research-grade chemicals vary in purity from technical grade to ACS-certified, HPLC-grade, and molecular biology grade, with the appropriate grade depending on how the chemical is used; cell culture and enzymatic applications generally require higher purity than non-biological analytical or general lab use.
Confirm whether your chemical needs are better served by a specialty category
Some research chemicals belong more naturally in application-specific sections of the catalog, such as chromatin immunoprecipitation buffers in Epigenetics or gel running buffers in Electrophoresis, while general-purpose chemicals and biochemical reagents not tied to a single workflow type belong in this Chemicals branch.
Consider bulk ordering for high-consumption research chemicals
Common research chemicals like buffer salts, solvents, and vitamins are used in large quantities by active research labs, and bulk pricing can represent meaningful savings on frequently replenished reagents.
Look for certificates of analysis when accuracy matters for your application
Quantitative applications, including analytical standards, enzyme kinetics studies, and defined cell culture supplementation, require chemicals with documented lot-specific purity and concentration, typically confirmed by certificate of analysis provided with each lot.
&nbsp;
<h2>Specifications context</h2>
&nbsp;
Research-grade purity designations for laboratory chemicals follow widely adopted convention systems including ACS grade (meets American Chemical Society purity specifications), HPLC grade (verified purity for chromatographic applications), and molecular biology grade (certified free from nuclease, protease, and other activities that would interfere with molecular biology applications). As of 2026, pre-made, ready-to-use solutions for common biochemical reagents like PBS, HEPES buffer, and Tris-HCl continue to see growing adoption over powder or concentrated formats in labs prioritizing convenience and reproducibility over reagent cost per use.
<a href="https://mbpinc.net/contact-us">Reach out to the friendly team at MBP</a> now to get a quote for your particular research needs.

Chemicals

MSDS

IPTG

IPTG G116 — 1.0 g isopropyl β-D-1-thiogalactopyranoside. Non-metabolizable lac repressor inactivator for induction of lacZ and recombinant protein expression from lac-regulated promoters (T7, tac, trc). Working concentration 0.1–1.0 mM. Store at −20 °C.

Unit Quantity

Storage Condition

Shipping condition

<h2 data-section-id="v1drft" data-start="0" data-end="43">What are cloning chemicals and reagents?</h2>
&nbsp;
Cloning chemicals and reagents cover the enzymes, buffers, and molecular biology-grade chemicals used in DNA fragment preparation, modification, and purification within a cloning workflow, including restriction endonucleases, T4 DNA ligase and other DNA-modifying enzymes (phosphatases, polymerases), reaction buffers, and plasmid extraction reagents. Related entities include restriction enzyme digestion, DNA dephosphorylation/phosphorylation, plasmid DNA purification (column-based and magnetic bead-based), and enzyme unit definitions.
&nbsp;
<h2 dir="ltr">What you will find:</h2>
&nbsp;
<ul>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" role="presentation">Targeted XJa and XJb strains for faster recovery of proteins.</li>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" role="presentation">Mix &amp; Go! solutions for optimized and dependable bacterial transformation.</li>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" role="presentation">Culture Media &amp; Supplements used for yeast research, and include YPD Plus and mating pheromones.</li>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" role="presentation">Extraction and Lysis Reagents include reliable genomic preparation and yeast protein kits.</li>
<li dir="ltr" style="font-family: arial, helvetica, sans-serif;" role="presentation">Chromogenic Substrates and Enzymatic Inducers with highly pure X-GAL and IPTG for cloning and blue-white screening.</li>
</ul>
&nbsp;
<h2 data-section-id="1daajgc" data-start="866" data-end="913">How to choose cloning chemicals and reagents</h2>
&nbsp;
Restriction enzyme selection and buffer compatibility
Restriction enzymes require specific reaction buffers, and many modern enzyme lines use a single universal buffer compatible across multiple enzymes to simplify double-digest reactions; confirm buffer compatibility when combining enzymes from different suppliers or using older single-buffer-per-enzyme formulations.
Enzyme unit definitions and reaction scale
Restriction enzyme and ligase activity is defined in units per microliter, with one unit typically defined as the amount needed to digest or ligate a defined quantity of standard substrate DNA under specified conditions in a set time; scale enzyme quantity to the amount of DNA being processed rather than assuming a fixed volume works for all reaction sizes.
Plasmid purification grade
Plasmid DNA extraction reagents range from molecular biology grade, suitable for general cloning and sequencing, to transfection-grade or endotoxin-free formulations required for applications such as lentiviral packaging or mammalian cell transfection, where endotoxin contamination can reduce transfection efficiency or cause cell stress.
Dephosphorylation for preventing vector self-ligation
Alkaline phosphatase treatment of a linearized vector before ligation removes 5' phosphate groups, preventing vector self-ligation and improving the ratio of recombinant clones; this step is particularly useful when the vector and insert share compatible sticky ends that could otherwise religate without insert incorporation.
&nbsp;
<h2 data-section-id="1fljvas" data-start="3459" data-end="3484">Specifications context</h2>
&nbsp;
Restriction enzymes and ligases are supplied at defined unit concentrations (commonly 10&ndash;20 units per microliter for restriction enzymes), with reaction buffers formulated for specific pH and salt conditions optimized for enzyme activity. Plasmid purification kits are differentiated by yield (micrograms of DNA recovered), purity (A260/A280 ratio), and endotoxin level (endotoxin units per microgram), with endotoxin-free kits specifying levels below a defined threshold suitable for transfection applications.&nbsp;
This sub-category is part of MBP's cloning catalog alongside ligation independent cloning kits and transformation kits and competent cells, used downstream of enzyme-based fragment preparation. Labs producing custom lentivirus for immortalization can also review MBP's cell immortalization catalog. MBP's specialist team can help confirm enzyme buffer compatibility and plasmid purification grade for a specific downstream application before order placement.
<a href="https://mbpinc.net/contact-us">Contact the expert team </a>at MBP today to request a quote for high-purity chemicals and reagents.

Chemicals/Reagents

DataSheet

IPTG (Isopropyl-β-D-thiogalactopyranoside)

I1001-25 is IPTG (Isopropyl-β-D-thiogalactopyranoside), CAS 367-93-1, MW 238.3 g/mol — supplied as a premade 0.5 M sterile solution (25 mL). The standard non-metabolizable lac operon inducer for recombinant protein expression in E. coli. Typical working concentration: 0.1–1 mM. Store at −20°C.

Concentration

Product Storage

Purity

Manufacturer

Shipping Condition

Isopropyl-β-D-thiogalactopyranoside (IPTG) (5 x 5 ml)

Isopropyl-β-D-thiogalactopyranoside (IPTG) (5 ml)

Cold Storage Coolers & Chillers

<h2 data-section-id="16gwf6l" data-start="0" data-end="46">What Are Cold Storage Coolers and Chillers?</h2>
&nbsp;
Laboratory cold storage coolers and chillers are bench-top temperature-control systems designed to keep temperature-sensitive reagents, enzymes, antibodies, cells, and biological samples cold during active laboratory work. They maintain low temperatures&mdash;typically around 0 &deg;C or below freezing&mdash;without requiring ice, electricity (in passive systems), or immediate access to a freezer. These systems are widely used in molecular biology, PCR setup, nucleic acid extraction, enzyme handling, and cell-based assays where maintaining cold-chain conditions during pipetting and multi-step workflows is essential.
Gel-based benchtop coolers are the most common type. They are pre-frozen at approximately &ndash;20 &deg;C and use phase-change materials to maintain samples near 0 &deg;C for several hours, typically up to four hours depending on ambient conditions. This provides a clean, stable, and consistent cooling environment without melting ice or water contamination.
&nbsp;
<h2 dir="ltr">What you will find: </h2>
&nbsp;
<ul>
<li dir="ltr" aria-level="1">
Benchtop tube coolers for PCR reagents and enzymes
</li>
<li dir="ltr" aria-level="1">
Cryo tube chillers for 0.2 mL to 2.0 mL tubes
</li>
<li dir="ltr" aria-level="1">
Insulated transport coolers for sample movement
</li>
<li dir="ltr" aria-level="1">
Gel-filled cooling blocks for stable temperature control
</li>
<li dir="ltr" aria-level="1">
Mini coolers for short-term cold storage (2&ndash;8&deg;C range)
</li>
<li dir="ltr" aria-level="1">
Freezer-compatible chillers for sub-zero handling
</li>
<li dir="ltr" aria-level="1">
Rack-style coolers for organized tube placement
</li>
<li dir="ltr" aria-level="1">
Portable cold boxes for field and clinical use
</li>
</ul>
&nbsp;
<h2 data-section-id="1ff2itk" data-start="1171" data-end="1221">How to Choose Cold Storage Coolers and Chillers</h2>
&nbsp;
Tube Format Compatibility
Coolers and chillers are designed around specific laboratory tube formats. Common configurations include holders for 0.2 mL PCR tubes and strips, 1.5/2.0 mL microcentrifuge tubes, 15 mL conical tubes, and 50 mL conical tubes. Some dual-sided designs combine multiple formats in a single unit, allowing simultaneous use for PCR plates on one side and microtubes on the other, improving workflow efficiency and reducing bench clutter.
Temperature Hold and Duration
Passive gel-based coolers maintain approximately 0 &deg;C for several hours after being pre-chilled at &ndash;20 &deg;C. Their performance depends on ambient temperature, workload, and sample frequency. Metal cooling blocks pre-chilled at &ndash;80 &deg;C can achieve lower temperatures temporarily but warm more quickly. For workflows requiring long-duration or continuously controlled cooling, electrically powered thermoelectric chillers provide stable setpoints over extended periods.
Ice-Free vs Ice-Based Systems
Gel-based coolers eliminate the need for ice entirely, reducing condensation, contamination risk, and constant ice replenishment during experiments. Traditional ice buckets remain a low-cost option but require continuous maintenance and can introduce water exposure risks. Ice-free systems are preferred in workflows where moisture control and consistent temperature stability are critical.
Single-Sided vs Dual-Sided Designs
Single-sided coolers are suitable for workflows using one tube format consistently. Dual-sided coolers accommodate multiple formats&mdash;such as PCR plates and microtubes&mdash;within a single unit, making them more versatile for complex molecular biology workflows. Selection depends on workspace constraints and experimental diversity.
Dry Ice Compatibility
Some insulated cold storage systems are designed for use with dry ice, maintaining extremely low temperatures around &ndash;78 &deg;C. These are used for short-term cryogenic handling, transport, or dispensing workflows where ultra-low temperature maintenance is required without active refrigeration.
&nbsp;
<h2 data-section-id="1jl751w" data-start="3892" data-end="3917">Specifications Context</h2>
&nbsp;
Modern gel-based benchtop coolers are engineered using phase-change materials that stabilize near 0 &deg;C for several hours after being pre-conditioned at &ndash;20 &deg;C. Dual-format systems have become increasingly common in molecular biology laboratories because they reduce the number of separate cooling devices required on the bench. As of 2026, these ice-free systems are widely adopted in PCR and nucleic acid workflows due to their consistency, cleanliness, and ease of use compared to traditional ice-based cooling methods.
<a href="https://mbpinc.net/contact-us">Connect with the MBP team</a> today to discuss your specific temperature-hold requirements and find the ideal chiller configuration for your laboratory&rsquo;s daily demands.

Ice Bucket, 4.5 Liters, 270mm x 200mm, Expanded PUR

601000 by Globe Scientific is a 4.5-liter red ice bucket manufactured from 15 mm expanded polyurethane (PUR) foam, measuring 200 mm × 270 mm. It includes a lid and integral handles, and is compatible with crushed ice, dry ice, salt-ice baths, and brief liquid nitrogen exposure. A practical choice for on-ice molecular biology, tissue culture, and sample processing workflows.

Manufacture

Thermal Cyclers Accessories

<h2>What are thermal cycler accessories?</h2>
&nbsp;
Thermal cycler accessories are the PCR-format consumables and hardware additions that work within a thermal cycler to run PCR reactions, including the plastic tubes, plates, and seals that hold the reaction mix during cycling, and physical block inserts or lid adapters that extend the instrument's compatibility to different tube or plate formats. 0.2 mL individual PCR tubes and 8-tube strip tubes are the most commonly used formats for routine molecular biology PCR; 96-well thin-wall plates are standard for higher-throughput genotyping and screening; and 384-well plates are used for very high-throughput applications.
&nbsp;
<h2 dir="ltr">What you will find:</h2>
&nbsp;
<ul>
<li style="font-family: arial, helvetica, sans-serif;">&nbsp;In-situ PCR adapter: for direct amplification on microscope slides with T5000-96 compatibility for seamless integration with thermal cyclers</li>
</ul>
&nbsp;
<h2>How to choose thermal cycler accessories</h2>
&nbsp;
Confirm tube or plate format compatibility with your cycler block and lid
PCR tubes, strip tubes, and plates must fit the geometry of your thermal cycler's block and heated lid, since a plate that sits too high in the block will not receive adequate lid pressure, degrading cycle reproducibility. Confirm that the consumable's recommended cycler compatibility list includes your specific instrument model or is stated as universally compatible.
Choose thin-wall tubes and plates for fastest heat transfer
Thin-wall PCR tubes and plates have thinner plastic walls than standard microcentrifuge tubes, reducing thermal resistance between the block and the reaction mix and enabling faster, more uniform temperature equilibration during each step. Using standard-wall tubes in a fast-ramp cycler negates part of the instrument's ramp rate advantage.
Use standard adhesive seals for end-point PCR plates
For 96-well or 384-well PCR plates, adhesive plate seals prevent evaporation and cross-contamination between wells during cycling without requiring individual tube caps, and standard opaque or foil seals are adequate for end-point PCR where fluorescence measurement during cycling is not needed.
Use optical plate seals for qPCR plates only
Optical adhesive seals are transparent in the fluorescence excitation and emission wavelengths, allowing real-time fluorescence detection through the sealed plate. They are more expensive than standard seals and should be reserved for qPCR plate applications; standard seals are adequate for end-point PCR amplification.
Check heated lid compatibility before using low-profile plates or domed caps
Some PCR plates have low-profile or skirted designs, and some tubes have domed caps, and the heated lid must accommodate the specific cap or plate rim profile to apply even pressure. Incompatible lid-to-consumable profiles result in uneven lid pressure, condensation in some wells, and inconsistent PCR results.
&nbsp;
<h2>Specifications context</h2>
&nbsp;
Thin-wall PCR tubes and plates minimize thermal resistance between the block and the reaction mix, enabling rapid temperature equilibration for fast-ramp cyclers. Modern thin-wall formats are manufactured from polypropylene, combining PCR reagent compatibility, low background fluorescence, and efficient heat transfer. As of 2026, plate-based PCR with adhesive seals is standard for any application processing more than 8&ndash;16 reactions per run.
<a href="https://mbpinc.net/contact-us" style="color: #236fa1; text-decoration: underline;">Contact the MBP team </a><a href="https://mbpinc.net/contact-us"></a>today to request a quote and find the right accessories for your PCR thermal cycler.

Thermal Cycler Accessories

In-situ adapter for use with T5000-96

T5000-A-IS by Benchmark Scientific is the in-situ slide adapter for the TC 9639 Thermal Cycler (T5000-96), adding a 4-slide capacity to the multiformat block. Supports in-situ hybridization, IS-PCR, CISH, and immunofluorescence protocols requiring temperature cycling or controlled incubation on standard microscope slides.

Overhead Stirrers Accessories

<h2>What Are Overhead Stirrer Accessories?</h2>
&nbsp;
Overhead stirrer accessories are modular components that attach to an overhead stirrer motor unit to adapt it for specific applications, vessel formats, and chemical conditions. The core accessories are impellers (the mixing head), drive shafts (which connect the motor to the impeller), chuck or collet adapters (which secure the shaft in the motor's output), and support stands with clamps or crossbar assemblies that position the motor above the vessel at the correct height. Additional accessories include vessel holders and clamp stands for securing round-bottom or Erlenmeyer flasks during mixing, PTFE sleeves for shaft sealing in closed-vessel applications, and digital speed display controllers that retrofit onto analog motor units. Because overhead stirrer motor chucks accept shafts within a defined diameter range (commonly 6 mm, 8 mm, 10 mm, or 12 mm), confirm shaft diameter compatibility with the motor before ordering any impeller-and-shaft combination. Before ordering any accessory, confirm three things: motor chuck bore diameter, required shaft length for your vessel depth, and whether the impeller geometry matches the flow regime your application needs.
&nbsp;
<h2>What You Will Find:</h2>
&nbsp;
<ul>
<li>Stainless steel and PTFE (Teflon&reg;) propellers compatible with overhead stirrers for a variety of mixing applications.</li>
<li>One-line propellers designed for efficient agitation in low- to medium-viscosity liquids.</li>
<li>Paddle propellers with flat holes for enhanced fluid circulation and blending performance.</li>
<li>Centrifugal impellers that promote radial flow and effective mixing of liquid samples.</li>
<li>Four-arm propellers available in stainless steel or PTFE for versatile stirring across diverse laboratory workflows.</li>
</ul>
&nbsp;
<h2>How to Choose Overhead Stirrer Accessories</h2>
&nbsp;
Impeller geometry
Impeller type determines mixing regime and is the primary accessory selection decision. Propeller impellers (two- or three-blade marine propeller) generate axial flow, drawing fluid from above and directing it downward, suited for general liquid blending, cell suspension, and low-viscosity mixing. Paddle and anchor impellers sweep tangentially near the vessel wall, appropriate for high-viscosity materials that resist axial flow. Dispersing disc impellers (flat disc with serrated edge or teeth) generate radial high-shear flow for emulsification, pigment dispersion, and fine particle suspension. Ribbon impellers are used for highly viscous, thickening batches where conventional impellers fail to move material from the vessel walls.
Shaft length and diameter
The shaft length must extend from the motor chuck to the correct immersion depth in the vessel. Standard lengths range from 200 mm to 600 mm; longer shafts are available for deep vessels or pilot-scale bioreactors. Shaft diameter must fit within the motor's chuck bore (confirm before ordering). Thicker shafts (10 mm to 12 mm) are more rigid and reduce wobble at high speed; thin shafts (6 mm) suit small-volume vessels and lower-torque motors.
Material: stainless steel vs. PTFE
Stainless steel (316L is preferred for chemical resistance over 304) is the standard for shafts and impellers in aqueous buffers, culture media, alcohols, and mild organic solvents. PTFE shafts and impellers are required for corrosive acids, bases (concentrated NaOH, HCl, HF), halogenated solvents, and any application where metal ion contamination of the sample must be avoided. Stainless steel and PTFE impellers are not interchangeable from a torque-transfer standpoint; PTFE is softer and suitable for lower-torque applications.
Support stands and clamps.
Support stands must be rigid enough to prevent shaft wobble at maximum operating speed. Confirm that the stand's vertical travel range accommodates the vessel height plus the motor unit. Crossbar clamp assemblies allow the motor unit to be raised and lowered without removing the shaft from the vessel. Heavy-duty stands with a wide base footprint are recommended for motors above 40 Ncm and for operation above 500 rpm.
Chuck and collet adapters
Motors accept shafts with a specific bore range. Collet adapters reduce or increase the effective chuck bore to fit a different shaft diameter. Confirm the motor's chuck diameter (manufacturer-specific) and the shaft outer diameter before ordering a collet or chuck adapter; a mismatched fit can cause shaft slippage during mixing.
&nbsp;
<h2>Specifications Context</h2>
&nbsp;
Impeller diameter should be 30 to 50% of the vessel inner diameter for most mixing regimes. A blade diameter that is too small leaves dead zones at the vessel wall; too large generates excessive shear and can damage shear-sensitive samples. For autoclave-compatible setups, confirm that the shaft, impeller, and any sealing sleeve are rated for 121 degrees C steam sterilization. Shaft straightness should be verified at the stated operating speed; a bent or unbalanced shaft generates vibration that compounds with any sample viscosity increase to stress the motor bearings.&nbsp;
&nbsp;
Looking for the right propeller for your process? Explore our overhead stirrer accessories and <a href="https://mbpinc.net/contact-us">reach out to the MBP team</a> for a quote today.

Overhead Stirrer Accessories

Included propeller, stainless steel 4 arm

IPS2050-P-S4 by Benchmark Scientific is the 316 stainless steel 4-arm propeller (400 mm length, 50 mm diameter, 8 mm shaft) included as standard with the Benchmark IPS2050 OS-20L and OS-40L overhead stirrers. Designed for mid to high-speed mixing, it generates strong radial flow across the IPS2050's 30–2,200 rpm operating range.

Length

Diameter

Shaft Diameter

Material

Shaking Incubator

<h2>What Are Shaking Incubators?</h2>
&nbsp;
A shaking incubator is a laboratory instrument that integrates a temperature-controlled incubation chamber with a motor-driven shaking platform, enabling simultaneous incubation and agitation of liquid cultures, enzyme reactions, and biochemical assays. The shaking motion distributes oxygen and nutrients throughout the culture, prevents cell settling, and promotes faster, more uniform growth than static incubation. Orbital (circular) motion is the standard for most biological culture applications; reciprocating (linear back-and-forth) motion is used for higher-viscosity samples or applications requiring more vigorous mixing. Shaking incubators are used in bacterial and yeast suspension culture, recombinant protein expression in E. coli or Pichia, hybridization and wash steps in molecular biology protocols, and solubility studies in pharmaceutical development. Advanced models include brushless DC motors for long-term maintenance-free operation, programmable step sequences for multi-phase culture protocols, and refrigeration capability for cold-temperature protein expression down to 4 degrees C. Choose a shaking incubator over a static incubator when your culture requires aeration, cells tend to settle, or your protocol specifies a defined agitation speed in rpm.
&nbsp;
<h2>What You Will Find</h2>
&nbsp;
<ul>
<li data-section-id="7gw372" data-start="0" data-end="178">Benchtop &amp; Refrigerated Shaking Incubators: Incu-Shaker&trade; Mini, 10L, 20L, refrigerated (10LR/20LR), and CO₂ models for temperature-controlled culture incubation and shaking.</li>
<li data-section-id="aipkwp" data-start="180" data-end="320">Microplate &amp; Tube Shakers: Orbi-Shaker&trade; and Incu-Mixer&trade; systems for efficient mixing of microplates, PCR plates, and laboratory tubes.</li>
<li data-section-id="x9v3pj" data-start="322" data-end="521">MultiTherm&trade; Heating &amp; Shaking Systems: MultiTherm&trade; and MultiTherm&trade; Touch shakers with interchangeable blocks for PCR plates, cryotubes, centrifuge tubes, deep-well plates, HPLC vials, and more.</li>
<li data-section-id="rno1mp" data-start="523" data-end="696">Platforms &amp; Flask Holders: Spring platforms, microplate platforms, MAGic Clamp&trade; flask clamps, shelves, heated lids, CO₂ regulators, and other configurable accessories.</li>
<li><a href="../../equipments/temperature-control-equipment/incubators/shaking-incubator/shaking-incubator-accessories">Shaking incubator accessories</a>: Including replacement platforms, adapters, tube blocks, clamps, shelves, heated lids, and other compatible accessories to expand the functionality of your shaking incubator system.</li>
</ul>
&nbsp;
<h2>How to Choose a Shaking Incubator</h2>
&nbsp;
Orbital vs. reciprocating motion
Orbital shakers move the platform in a horizontal circular path, providing gentle, uniform agitation suitable for most cell cultures, bacterial suspensions, and biochemical assays. Reciprocating shakers move the platform in a linear back-and-forth motion at variable stroke lengths, generating higher shear forces appropriate for viscous media and dense suspensions. For general microbiology and cell culture, specify orbital motion; for high-viscosity or industrial-scale applications, reciprocating motion may be preferred.
Temperature range and refrigeration
Standard shaking incubators heat from ambient + 5 degrees C to 60 degrees C. Refrigerated models add cooling capacity, extending the range down to 4 degrees C or below, which is critical for recombinant protein expression protocols in E. coli, where low temperature reduces inclusion body formation. Confirm whether the model supports both heating and cooling, or heating only.
Speed range and orbit size
Shaking speed is expressed in revolutions per minute (rpm); most models cover 30 to 300 rpm. Orbit size (the diameter of the circular motion, typically 19 mm or 25 mm, with large-capacity models reaching 50 mm) determines aeration efficiency. Larger orbits improve oxygen transfer to cultures at lower rpm, which is gentler on sensitive cells. Smaller orbits at higher rpm are preferred for microplate-scale applications.
Capacity: flask size and platform load
Platform capacity specifies how many flasks of a given volume the unit accommodates. A common benchmark: a benchtop unit holds four 2 L Erlenmeyer flasks or twenty 125 mL flasks simultaneously. Ensure the platform accepts interchangeable clamp systems for the flask sizes used in your lab, and verify total load capacity in kg; high-speed operation with heavy flasks can stress the drive mechanism.
Control system and connectivity
PID temperature controllers are standard; advanced models add touchscreen interfaces, programmable step sequences linking consecutive temperature and speed profiles, USB or RS-232 data logging, and STEP programming for timed multi-phase culture runs. For regulated workflows, look for password-protected parameter lockout.
&nbsp;
<h2>Specifications Context</h2>
&nbsp;
Temperature uniformity in shaking incubators is harder to achieve than in static incubators because the shaking motion creates air currents inside the chamber. Forced-air circulation combined with a well-insulated chamber maintains uniformity to plus or minus 0.5 degrees C at setpoint under normal conditions. Orbit size affects flask choice: a 19 mm orbit with standard Erlenmeyer flasks at 250 rpm is a common general-purpose configuration for E. coli culture. Review the manufacturer's maximum flask volume and load per platform position; overloading a platform at high speed is a common cause of drive failure in shaking incubators.
&nbsp;
Do you want to cultivate your liquid cultures more effectively? View our selection of shaking incubators and <a href="https://mbpinc.net/contact-us">get in touch with the MBP team</a> for a helpful quote right now.

Product Literature

Microtube Adapter, 20 x 1.5/2.0ml for microplate shakers BT1500 and H6004

Microtube Adapter, 20 x 0.5ml for microplate shakers BT1500 and H6004

Incu-Mixer™ MicroPlate Shakers

H6002 by Benchmark Scientific is the Incu-Mixer™ MP2, a heated microplate vortexer accepting two standard microplates simultaneously, with dual heated surfaces (base and lid) maintaining temperature from ambient +5°C to 70°C. Speed range is 100–1,200 RPM on a 2 mm orbit. Compatible with all standard plates up to 40 mm high and operates on a universal 100–240 VAC supply. Heated lid actively prevents condensation during extended incubation runs.

Temperature Range

Orbit

Mixing Speed (4-Plate)

Mixing Speed (2-Plate)

Temperature Increment

Temperature Accuracy

Temperature Uniformity

Speed Increment

Max. Plate Height (4-Plate)

Max. Plate Height (2-Plate)

Dimensions (4-Plate)

Dimensions (2-Plate)

Weight

Timer

Electrical (4-Plate)

Electrical (2-Plate)

Warranty

Incu-Mixer MP2™ Heated Plate Vortexer 115-240V (US Plug)

Incu-Mixer MP2™ Heated Plate Vortexer 115-240V European plug)

Incu-Mixer MP4™ Heated Plate Vortexer, 115V

Incu-Mixer MP4™ Heated Plate Vortexer, 230V

MAGic Clamp magnetic clamp, 3000mL Erlenmeyer (max. 4)

MAGic Clamp magnetic clamp, 2000mL Erlenmeyer (max. 5)

MAGic Clamp Tube rack, 30x15mL & 20x50mL tubes (max. 1)

MAGic Clamp magnetic clamp, 1000mL Erlenmeyer (max. 4)

MAGic Clamp magnetic clamp, 500mL Erlenmeyer (max. 6)

MAGic Clamp magnetic clamp, 250mL Erlenmeyer (max. 8)

MAGic Clamp magnetic clamp, 125mL Erlenmeyer (max. 12)

MAGic Clamp magnetic clamp, 50mL Erlenmeyer (max. 20)

MAGic Clamp magnetic clamp, 25mL Erlenmeyer

MAGic Clamp magnetic clamp, one microplate (max. 4)

MAGic Clamp™ Magnetic Clamps Accessories

MAGic Clamp™ Tube Rack, 30x15ml &20x50ml tubes (max. 4)

MAGic Clamp™ Tube Rack, 72x14mm culture tubes

MAGic Clamp™ Tube Rack, 32x15ml, tubes (max. 8)

MAGic Clamp™ Tube Rack, 15x50ml, tubes (max. 8)

MAGic Clamp™ Tube Rack, 4x500ml or 600ml conical bottles (max. 1)

MAGic Clamp™ Tube Rack, 12 x 1.5/2.0ml tubes, horizontal

MAGic Clamp™ Tube Rack, 4 x 15ml tubes, horizontal

MAGic Clamp™ Tube Rack, 2 x 50ml tubes, horizontal

MAGic Clamp™ tilted holder for 15mL and 50mL tube racks (max 8)

MAGic Clamp™ Tube Rack Accessories

Magic Clamp™ Patent Product

Incu-Shaker 20L with non-slip rubber mat

H3020 by Benchmark Scientific is the Incu-Shaker™ 20L, a high-throughput stackable shaking incubator with a 17.8 × 17.8 in. platform, 30–300 rpm orbital shaking (19 mm orbit), and a temperature range of ambient +5° to 60°C (±0.1°C accuracy). Holds up to four 5-liter Erlenmeyer flasks; stacks up to two units for doubled capacity. Touch-screen controls, non-slip rubber mat included. 115 V or 230 V, 480 W. 2-year warranty.

Speed

Temp. Range

Temp. Accuracy

Temp. Uniformity

Platform Dimensions

Dimensions

Height

Electrical

Incu-Shaker 20L with non-slip rubber mat, 115V

Incu-Shaker 20L with non-slip rubber mat, 230V

Incu-Shaker 20LR (Refrigerated) with non-slip rubber mat

H3022 by Benchmark Scientific is the Incu-Shaker™ 20LR, a refrigerated stackable shaking incubator with a temperature range of 4°C to 60°C (±0.1°C accuracy), 30–300 rpm orbital shaking on a 19 mm orbit, and a 17.8 × 17.8 in. (45 × 45 cm) platform holding up to four 5-liter Erlenmeyer flasks. Stacks up to 2 units. Brushless induction motor, touch-screen controls, non-slip rubber mat included. 115 V or 230 V, 480 W. 2-year warranty.

Incu-Shaker 20LR (Refrigerated) with non-slip rubber mat, 115V

Incu-Shaker 20LR (Refrigerated) with non-slip rubber mat, 230V

Incu-Shaker™ 10L with non-slip rubber mat

H2010 by Benchmark Scientific is the Incu-Shaker™ 10L stackable shaking incubator — 30–300 rpm, RT+5 to 60 °C (±0.1 °C accuracy), 45 × 45 cm platform, up to 5 × 2L flasks, 115/230V, 480W. 2-year warranty. Includes non-slip rubber mat.

Incu-Shaker™ 10L with non-slip rubber mat, 115V

Incu-Shaker™ 10L with non-slip rubber mat, 230V

Incu-Shaker™ 10LR (Refrigerated) with non-slip rubber mat

The H2012 Incu-Shaker™ 10LR by Benchmark Scientific is a refrigerated shaking incubator with a temperature range of ambient −12°C to 60°C, ±0.1°C accuracy, 30–300 rpm, 45 × 45 cm platform, and capacity for up to 5 × 2 L flasks. Includes MAGic Clamp™ system and non-slip rubber mat. 115V or 230V.

Weight (10LR)

Lid Open Height

Incu-Shaker™ 10LR with non-slip rubber mat, Refrigerated Shaking Incubator, 115V

Incu-Shaker™ 10LR with non-slip rubber mat, Refrigerated Shaking Incubator, 230V

Incu-Shaker™ Mini CO2 with non slip rubber mat

H3501 by Benchmark Scientific is the Incu-Shaker™ CO₂ Mini, a compact 46 L CO₂ incubator shaker combining orbital shaking (30–300 rpm, 19 mm orbit) with CO₂ control (0–20%, ±0.1% accuracy) and heating (ambient +5° to 60°C, ±0.5°C). Dual Beam IR CO₂ detection and six-side heating provide stable, uniform conditions for suspension cell culture. Includes non-slip rubber mat platform. 120 V or 230 V, 350 W.

Temperature Increments

Speed Range

Speed Increments

Mixing Orbit

CO2 Range

CO2 Increment

CO2 Accuracy

CO2 Sensor

Chamber Dimensions

Chamber Volume

Chamber Material

Exterior Dimensions

Incu-Shaker™ Mini CO2 with non slip rubber mat, 115V

Incu-Shaker™ Mini CO2 with non slip rubber mat, 230V

Incu-Shaker™ Mini Shaking Incubator

The H1001-M by Benchmark Scientific is the Incu-Shaker Mini, a compact shaking incubator with a 9.5 × 11.5 in platform, ambient +5°C to 70°C temperature range (±0.1°C accuracy), 30–300 RPM orbital shaking at 19 mm orbit, and a 48-hour programmable timer. At 11 × 18.8 × 13 in and 25 lb, it is the smallest benchtop shaking incubator in its class. 115 V or 230 V, 2-year warranty. Available from MBP Inc.