Analysis Instruments

Product Description

Ø  Also called : Tank level indicator, tank gauge stick, dip rod for barrel, container level gauge, level gauge for steel tank, tank level gauge, tank level measuring, tank level indicator, tank level measurement tool, dip rod for drum.

Ø  Analysis Instruments dip rods and dipsticks are manufactured from Aluminium, Brass, Stainless Steel SS304 / SS316, Laser/GRP making them durable, flexible and spark proof and hence suitable for use in solvent, petroleum, diesel and other storage tanks and in demanding services.

Ø  Analysis Instruments dip rod and dipsticks are calibrated to suit dimensions of your storage tank, vats and barrels meaning that they provide highly accurate liquid volume measurements and calibrations traceable to NABL standards.

Ø  Analysis Instruments dipsticks marked in Litter, Meter, Centimetre, Millimetre and inches.

Ø  Analysis Instruments dip rods and dipsticks Lengths are available as per customer requirement.

Ø  Analysis Instruments dip rods and dipsticks are calibrated to suit your needs: litres, M3, US gallons or regular height in: millimetres/inches.

Ø  Analysis Instruments dip rods and dipsticks are suitable for all liquids: oil, diesel, petrol, paraffin, kerosene, hydraulic fluid and other oils and other liquids.

Ø  Analysis Instruments Dip Rods are used for Liquid specially Petroleum products Like LDO, HSD, Kerosene, Furnace Oil, Bio Diesel Etc. functions equally in static or mobile conditions in Urban, Suburban & Rural Areas.

Features

Ø  To check the liquid level in the tank / container.

Ø  This dip rod is made of square metal bar and calibrated in mm with engraved and inked graduations.

Ø  It has a metal loop handle for comfortable handling. And the stainless steel body with mirror buff finish ensures easy cleaning of the rod.

Ø  Length can be custom made as per customer requirement in meters.

Ø  Dip rod for tanks to manually check the level of liquid content left inside.

Ø  Dip Rod Liquid Level Measurement Gauge Stick.

Ø  Smooth flat surface with precision of measures, Accurate measurements of liquid.

Ø  Accurate measurements of liquid

Technical Parameter

Construction and Material

The sieves are made from stainless steel (SS 316) and have sturdy joint less rim from perfect fitment and to retain an accurate diameter.

The sieves have been designed to have now raw edges.

The mesh is evenly tensioned and welded and has no solder in it (lead free). It contains no crevices to trap the sieved material during the sieving process thus preventing contamination.

All sieves are manufactured to the strictest engineering standards to ensure accuracy and the highest quality. Sieves are individually laser marked with a unique serial number and specifications for easier traceability.

Inspection and Compliance Certificate

Sieving remains unchallenged as the latest expensive method of particle size analysis. However, with the introduction of increasingly stringent quality assurance specifications , user are demanding higher precision from the technique.

Calibration Certificate (Optional)

To calibrate the mesh opening and wire diameter, We  calibrate by using microscope with software which allows capturing and process/measuring as well as analyzing of mesh opening and wire diameter. The system also prints out a calibration certificate showing the results of average aperture size (wrap and weft)  ,wire diameter and standard deviation separately for the wrap and weft direction.

The calibration of entire system is done against an ensured traceable standard.

• The weights provided meet weighing requirements of most analytical laboratories and include following weights: 10mg(0.01gm),20mg(0.02gm),100mg(0.1gm),200mg(0.2gm), 500mg(0.5gm),0.10gm,0.20gm,0.50gm, 1.00gm, 2.00gm,5.00gm,10.00gm,20.00gm,50gm and 100gm.

The accuracy class for weights used as standards for the verification of weights or weighing instruments should be in accordance with the requirements of the relevant OIML Recommendations.

The letter “E” for Classes E1 and E2 refers to EXTRA FINE where the letter “F” for Classes F1 and F2 refers FINE.

The Class F1 and F2 weight bear number indicating the nominal value, but E1 & E2 unmarked.

Duplicated weights are marked with a dot and weight composition is according to OIML recommendations mainly 5-2-2-1 composition.

Weights of class F1 shall not bear any class reference.

Weights equal to or greater than 1 g shall bear, by burnishing or engraving, the indication of their nominal value (not followed by the name or symbol of the unit).

Weights of class F2 equal to or greater than 1 g shall bear their reference class in the form “F” together with the indication of their nominal value.

Class E2

Application:

• E2 Class weights are recommended for the calibration of micro, semi-micro & analytical balances where very high accuracy is required.

E2 Class weights also can use to calibrate F1 Class weights.

We can Provide Calibration Certificate from NABL Accredited Lab (Charges applicable)

Construction and Material

The sieves are made from Brass and have sturdy joint less rim from perfect fitment and to retain an accurate diameter.

The sieves have been designed to have now raw edges.

The mesh is evenly tensioned and welded and has no solder in it (lead free). It contains no crevices to trap the sieved material during the sieving process thus preventing contamination.

All sieves are manufactured to the strictest engineering standards to ensure accuracy and the highest quality. Sieves are individually laser marked with a unique serial number and specifications for easier traceability.

Inspection and Compliance Certificate

Sieving remains unchallenged as the latest expensive method of particle size analysis. However, with the introduction of increasingly stringent quality assurance specifications , user are demanding higher precision from the technique.

Calibration Certificate (Optional)

To calibrate the mesh opening and wire diameter, We  calibrate by using microscope with software which allows capturing and process/measuring as well as analyzing of mesh opening and wire diameter. The system also prints out a calibration certificate showing the results of average aperture size (wrap and weft)  ,wire diameter and standard deviation separately for the wrap and weft direction.

The calibration of entire system is done against an ensured traceable standard.

Construction and Material

The sieves are made from stainless steel (SS 304) and have sturdy joint less rim from perfect fitment and to retain an accurate diameter.

The sieves have been designed to have now raw edges.

The mesh is evenly tensioned and welded and has no solder in it (lead free). It contains no crevices to trap the sieved material during the sieving process thus preventing contamination.

All sieves are manufactured to the strictest engineering standards to ensure accuracy and the highest quality. Sieves are individually laser marked with a unique serial number and specifications for easier traceability.

Inspection and Compliance Certificate

Sieving remains unchallenged as the latest expensive method of particle size analysis. However, with the introduction of increasingly stringent quality assurance specifications , user are demanding higher precision from the technique.

Calibration Certificate (Optional)

To calibrate the mesh opening and wire diameter, We  calibrate by using microscope with software which allows capturing and process/measuring as well as analyzing of mesh opening and wire diameter. The system also prints out a calibration certificate showing the results of average aperture size (wrap and weft)  ,wire diameter and standard deviation separately for the wrap and weft direction.

The calibration of entire system is done against an ensured traceable standard.

We are offering a quality range Test Sieves, which are widely appreciated for high consistency, fit and stable functions. These are sourced from reliable vendors of the industry and are offered in customized solutions to meet client's requirements and specifications. Our range of Test Sieves are manufactured for various Household and Industrial usages.

The foam swab is used to clean the print heads and capping area of the different printers ( for printing cleaning procedures).

Get your capping station detailed with these cleaning swabs it will get the dirt out of tight spaces.

Lint-free fiber, will not leave fibers or dust behind.

Head material: High-density sponge.

Foam will work with both Aqueous and Solvent inks as well as cleaning solutions.

1.Petri dish is made of high quality polystyrene. It is for fungus, bacteria and other microorganism culture.

2.Compatible with most industrial and non-industrial automatic agar-pouring machines

3.Vented design aids air flow and gaseous exchange; Non-vented dishes have flat lids that prevent evaporation to encourage a longer incubation period for anaerobic applications.

4.E.O or Gamma radiation sterile available.

Cellulose Nitrate Membrane Filter (CN)

Sterile single pack or disperser-ready membranes can be used for colony counting, particle testing, sterility testing and microscopy. The membrane filters are made of cellulose nitrate (mixed cellulose ester), cellulose acetate or regenerated cellulose. Choose between single pack sterile membranes without crate or crate, with or without hydrophobic edge.

Cellulose nitrate, 0.45µm, white | black, 47 mm, 100 membranes per box

Available Sterile and Non Sterile Membrane

Sterile crate membrane filters are widely used in routine microbiological quality control due to the benefits they offer. Whether in simple packaging or ready for disperser, the membrane filters are ready to use and each filter is individually packaged, offering the highest security while saving preparation time. Each individual envelope is marked with the filter identification and batch number.

Membrane filters are available in different pore sizes and three different types of materials. Cellulose nitrate filters (mixed cellulose ester) contains a mixture of cellulose nitrate and cellulose acetate, a material that guarantees effective retention combined with high flow rates and optimal colony growth. Cellulose acetate combines high flow rates and thermal stability with very low adsorption characteristics. The various filter allow for the best possible contrast of the colonies for easy and reliable quantification and identification.

• Exceptional recovery rates for microorganisms
• 0.45 µm filters according to ISO 7704
• High flow membranes available
• Three different colors
• Various pore sizes
• Certified quality
• Irradiated with gamma, 25 kGray
• The membrane filters comply with the following standards: ISO 7704, ISO 7899-2, ISO 8199, ISO 9308-1 and EN 12780.

Most commonly used Die for IR/FTIR for solid sampling of 13 mm pallet size consist of Anvil & Plunger, Top & Bottom Die Port. Extractor Ring, O ring. Other sires like 10mm, 20mm also available.

We are leading manufacturer and supplier of KBR die set. Most commonly used die set for IR/FTIR for solid sampling of 13mm pallet size. These KBR die set are available at market competitive price.

• Digital Humidity, Temperature, Time & Calendar Meter.
• Large LCD Display showing Temp, Humidity & Time(Two Modes 12/24) at same time.
• Recording Max/Min Humidity & Temperature value automatically.
• Two modes for temperature showing: deg C or deg F.
• Alarm function and Calendar function.
• Jumbo Display.

Disposable, Anti-Static Weighing Boats

• Flat bottom avoids tipping
• Sloping sides provide accurate transfer
• Temperature resistant up to 70 °C

These boats feature smooth surfaces to enable accurate pour-out with minimal sample loss. Biologically inert and resistant to dilute and weak acids, aqueous solutions, alcohols and bases. These flexible boats bend at points to form pouring spouts.

Packaging: These weighing boats are produced and packaged in plastic bags in a cleanroom.

Manufactured And Packaged In A Clean Room:

• Select white, black, or blue for best color contrast to ensure sample is completely removed.
• Biologically inert and resistant to dilute and weak acids, aqueous solutions, alcohols, and bases temperature range -10 to 70°C (14 to 158°F)
• Can be used with microwave moisture analyzers
• Boats are shallow with a wide, flat bottom to resist tipping.
• Rounded corners simplify transfer
• Made from FDA food grade polystyrene
• Antistatic material
• Colors Available: White, Blue or Black

• Memory of last measure 
• Low battery sensation and dispiay.
• 10 minutes auto shutdoen for power saving (option).
• C and F display selectable

PRODUCT DESCRIPTION :

Temperature Sensor is a supervised Active RFID Tag that provides wireless remote monitoring of environmental sensitive assets or environments that require precision temperature range compliance.

The sensor reports real-time location based temperature data which is received and relayed over the Elpas infrastructure to a host RTLS application or an integrated 3rd party platform for regulatory compliance, temperature-range alerting or usage trend analysis.

The temperature sensor features wireless call-button functionality to report preconfigured maintenance messages plus remote device supervision to ensure field reliability.

Plastic and glass labware are essential tools in any laboratory, each with distinct properties and applications. Choosing between them depends on factors like chemical compatibility, durability, cost, and the type of experiments being conducted. Here's a comparison and overview of common types of plastic and glass labware:

Advantages:

• Chemical Resistance: Generally more resistant to acids, bases, and solvents.
• Transparency: Allows for easy visualization of contents and processes.
• Reusability: Can be cleaned and sterilized repeatedly, making it suitable for high-precision tasks.

Disadvantages:

• Fragility: Glass is prone to breakage and can be hazardous if shattered.
• Cost: Typically more expensive than plastic labware.
• Weight: Heavier and less convenient to handle compared to plastic.

Common Types:

1. Beakers: Used for mixing, heating, and holding liquids. They are usually graduated for approximate measurements.
2. Flasks: Includes Erlenmeyer flasks (used for mixing and heating), volumetric flasks (for precise measurements), and round-bottom flasks (used in distillation).
3. Pipettes: For precise liquid measurements, available in graduated or volumetric types.
4. Test Tubes: For holding, mixing, or heating small quantities of substances.
5. Petri Dishes: Used for growing cultures and examining microbial growth.

Advantages:

• Durability: Generally more resistant to breakage than glass.
• Cost: Usually less expensive than glassware.
• Lightweight: Easier to handle and transport.

Disadvantages:

• Chemical Resistance: Some plastics may not be resistant to all chemicals and solvents.
• Not Suitable for High Temperatures: Most plastics can’t withstand high temperatures, limiting their use in certain applications.

Common Types:

1. Pipettes and Micropipettes: Available for various volumes and used for precise liquid transfers.
2. Centrifuge Tubes: Used in centrifugation processes; available in various sizes and types like conical or round-bottomed.
3. Beakers and Flasks: Generally used for mixing and storing solutions, but not suitable for high-temperature processes.
4. Petri Dishes: Used similarly to glass dishes for microbial cultures.
5. Graduated Cylinders: For measuring liquid volumes, usually made from clear plastic for visibility.

1. Chemical Compatibility: Ensure the material of the labware is compatible with the substances you’re working with. For example, some plastics may react with solvents or acids, while glass generally has better chemical resistance.

2. Temperature Range: Consider whether the labware needs to withstand high temperatures (e.g., heating processes) or if it needs to be stored in a cold environment (e.g., refrigerated samples).

3. Sterilization Requirements: Glass can typically be autoclaved, whereas many plastics cannot. For experiments requiring sterility, this may influence your choice.

4. Cost and Budget: Plastic labware is generally more cost-effective but may need to be replaced more frequently than glass.

5. Durability and Safety: Choose labware based on the handling and safety needs of your specific application. Plastic is less likely to break, but glass offers greater precision and durability in some scenarios.