Chemistry Laboratory Equipment refers to the durable items, glassware, power tools, and consumable tools that help in preparing, heating, storing, measuring and observing the chemical reactions that take place in a teaching/working laboratory. The full list of these items for a fully equipped laboratory is comprised of four different categories that act differently during procurement – support and heating items that have a life span of ten years, volumetric and measuring glassware that needs to be purchased depending on breakage rates, power tools which use power and come with warranties, and finally consumables which need to be ordered at the beginning of each term. The correct identification of all these items depends on sizing them according to your practical classes and parallel benches being operated. The range of chemistry lab equipment includes all these in the following sub-categories.
| What chemistry laboratory equipment does a well-equipped laboratory need? A well-equipped chemistry laboratory needs four groups of equipment. First, support and heating hardware: retort stands, rods, bosses, clamps, rings, burners or spirit lamps, tripods, wire gauzes, tongs, spatulas and test-tube stands. Second, volumetric and measuring glassware: beakers, conical and volumetric flasks, measuring cylinders, burettes, pipettes, test tubes, funnels, reagent bottles, condensers and watch glasses. Third, powered instruments: a balance, a pH meter, a hot plate or water bath, a drying oven, and — for senior and college work — a colorimeter or spectrophotometer, a centrifuge and a distillation still. Fourth, consumables and safety: stoppers and corks, indicator papers, spin bars, brushes, eye protection, gloves, a fume hood or fume cupboard, spill and first-aid provision. Build the quantities from your bench count and your prescribed practicals, then request an itemised bill of quantities. Browse the apparatus range, the glassware range and the porcelain range to see how these split on this site. |
What counts as chemistry laboratory equipment — and what sits in a different budget line
The chemistry lab equipment comprises of apparatus, glassware, instruments, and consumables, and mixing up the four is the most common reason behind under-specifying the purchase order. The apparatus is the hard-wearing equipment used for positioning and heating the reaction; these include the retort stand, rods, boss, clamp, ring, burner, tripod, gauze, tongs, and spatula. Glassware includes equipment for holding and measuring the chemicals; these include the beakers, flasks, cylinders, burette, pipette, test tube, condenser, and funnel. Instruments are the powered equipment used for producing a reading or performing a process; these include the balance, pH meter, hot plate, oven, colorimeter, centrifuge, and still.
The distinction matters because each group has a different lifespan, a different failure mode and a different accounting treatment. Apparatus is a capital item with a decade-long life and a corrosion or plating failure mode. Glassware is a mixed capital-and-breakage line whose annual cost is driven by how many hands touch it. Instruments carry electrical safety, calibration and warranty obligations that apparatus does not. Consumables are an operating cost that a first-year budget almost always understates. On this site the split is visible in the navigation: apparatus and teaching aids sit under the chemistry hub, while beakers, flasks, burettes, pipettes and condensers sit in the separate glassware range, and crucibles, evaporating dishes and mortars sit under porcelain ware.
Three things are frequently mistaken for chemistry laboratory equipment and belong in a different budget line entirely. Laboratory furniture — benches, fume-cupboard carcasses, sinks, service runs and storage — is a civil and fit-out cost, not an equipment cost, and is usually tendered separately. Reagents and chemicals are a controlled, shelf-life-limited purchase with their own storage, licensing and disposal requirements. Personal protective equipment and first-aid provision are a statutory safety obligation that should be funded whether or not the equipment budget survives review. Keeping these out of the equipment BOQ makes the equipment BOQ comparable across suppliers, which is the entire point of writing one.
The Four-Line Chemistry BOQ: a framework for building the list
The Four-Line Chemistry BOQ is a procurement framework that splits any chemistry laboratory equipment list into four purchase lines, each sized by a different driver. Line 1, Support and Heating, is sized by bench count. Line 2, Volumetric and Measuring, is sized by student pairs plus a breakage allowance. Line 3, Instruments and Powered Equipment, is sized by the highest-level practical you run, not by class size. Line 4, Consumables and Safety, is sized by terms per year. Once a list is written this way, quantities stop being guesswork and quotations from different suppliers become directly comparable, because each supplier is pricing the same four blocks against the same drivers.
| BOQ line | Sizing driver | Typical life | First failure mode | Key RFQ question |
| Line 1 — Support and Heating | Number of working benches | 8-15 years | Plating or paint failure at the boss screw; base corrosion | Base material, plating or coating type, rod diameter and length in mm |
| Line 2 — Volumetric and Measuring | Student pairs, plus 15-25% breakage allowance | 1-5 years, breakage-driven | Chipped rims, abraded graduations, cracked bases | Glass type, tolerance class, graduation durability, pack size |
| Line 3 — Instruments and Powered | Highest-level practical run, not class size | 5-10 years | Calibration drift; heating element or display failure | Mains voltage and frequency, calibration method, warranty period, spares availability |
| Line 4 — Consumables and Safety | Terms or sessions per year | One term to one year | Depletion; perished rubber; expired first-aid stock | Pack size, re-order lead time, shelf life |
The Four-Line Chemistry BOQ — how each purchase line is sized, what fails first, and what to ask a supplier.
Two rules follow from the framework and are worth stating on their own. Rule one: never size Line 2 from bench count. A laboratory with twelve benches but twenty-four students working in pairs needs volumetric glassware for twenty-four hands, plus a breakage allowance on top, and sizing it from the bench number is how departments run out of measuring cylinders by the second term. Rule two: never size Line 3 from class size. One good analytical balance serves a whole cohort in rotation; buying four mediocre ones because there are four benches is the single most common way a chemistry equipment budget is wasted.
The framework also tells you where to spend a constrained budget. Line 1 is the cheapest place to buy quality, because support hardware is simple, long-lived and expensive to replace once a boss screw strips. Line 3 is the most dangerous place to economise, because a balance that drifts or a hot plate that fails mid-session costs teaching time and can cost safety. Line 2 is where a breakage allowance, not a premium grade, is the right investment for teaching work. Line 4 is where a first-year budget is almost always short, because nobody counts stoppers.
Line 1 — Support and heating hardware: the core of the list
Support and heating hardware is the equipment that holds apparatus in position and supplies controlled heat, and it is the part of a chemistry laboratory equipment list that a buyer should specify most tightly. Every titration, distillation, filtration and heating practical depends on a stand that does not rack, a boss that grips without stripping, and a heat source that can be set and left. These items are also the cheapest to over-specify usefully: the difference between a light stand and a heavy chrome-plated one is small at purchase and very large over ten years of student handling.
The catalogue items below are listed on the Jainco Lab apparatus category with their published product codes and the construction detail shown on the site. Sizes and materials are quoted as the supplier states them and should be confirmed on the individual datasheet before a purchase order is raised. Where a size is not published, the table says so rather than guessing.
| Item | Catalogue code | Published construction detail | Priority | Suggested sizing rule |
| Retort stand set (base, rod, clamp, boss head) | JA-CE-4312 | Set of 3 items; 4-finger clamp and boss head | Essential | 1 per bench, minimum |
| Retort stand, superior — heavy base and rod | JA-CE-4313 | Rod 600 mm x 10 mm, chrome plated; base 8 x 5, mild steel sheet | Essential | 1 per bench for distillation and burette work |
| Retort rod | JA-CE-4324 | Sold separately from base | Recommended | 2-3 spares per 10 benches |
| Retort clamp | JA-CE-4315 | Available in a range of sizes and specifications | Essential | 2 per bench |
| Universal clamp | JA-CE-4328 | General-purpose pattern | Recommended | 1 per bench |
| Four prong clamp | JA-CE-4333 | Zinc plating, black powder coating or nickel plating | Recommended | 1 per bench for round-bottom work |
| Double adjustable two/three prong clamp | JA-CE-4332 | With boss head, nickel plating | Recommended | 1 per 2 benches |
| Clamp holder / boss head | JA-CE-4335 | Black powder coating or zinc plating | Essential | 2 per bench |
| Square boss head | JA-CE-4336 | Black texture powder coating | Recommended | 1 per bench |
| Revolving boss head | JA-CE-4323 | Grey coating | Optional | As required |
| Retort ring with boss head | JA-CE-4325 | Ring and boss supplied together | Essential | 1 per bench for funnel and gauze work |
| Retort plate, side cut | JA-CE-4337 | Side-cut plate pattern | Optional | As required |
| Bunsen burner | JA-CE-4299 | Fabricated from iron and steel | Essential | 1 per bench where piped gas is available |
| Spirit lamp | JA-CE-4319 | Stainless steel, die-pressed sheet, woven wick in metal holder, screw-on cap | Essential | 1 per bench where gas is not available |
| Gas taps | JA-CE-4303 | Bench gas control | Conditional | 1 per gas outlet; fit-out item |
| Copper water bath | JA-CE-4309 | Copper construction | Recommended | 1-2 per laboratory |
| Tongs for crucibles | JA-CE-4311 | Design keeps hands clear of the hot surface | Essential | 1 per bench |
| Beaker tong | JA-CE-4308 | General-purpose beaker handling | Essential | 1 per bench |
| Handle spatula | JA-CE-4306 | Finished and shaped to order specification | Essential | 2 per bench |
| Z test tube stand | JA-CE-4322 | 19 holes, assorted sizes | Essential | 1 per bench |
| Hoffman screw clip | JA-CE-4304 | Tubing control clip | Recommended | 2-4 per bench for gas practicals |
Line 1 — support and heating hardware, with catalogue codes as published on the Jainco Lab chemistry apparatus category in August 2026. Specifications are manufacturer-stated; confirm on the datasheet.
Three items on that list deserve a comment a catalogue will not give you. The heavy retort stand at 600 mm x 10 mm is the right rod length for burette and condenser work; a shorter rod forces the clamp too low and makes a titration awkward to read at eye level. Where a laboratory has no piped gas, the stainless spirit lamp is not a downgrade but a different practical envelope — it will not reach the temperatures a Bunsen burner reaches, and heating-rate-dependent practicals need re-timing accordingly. And boss heads are the single highest-turnover item in Line 1: the screw thread is what fails, so buying two per bench rather than one is a false economy avoided cheaply.
For the fume-handling and larger heating side of Line 1, the shared equipment sits in separate ranges on this site: fume hoods for reactions producing harmful vapour, and general laboratory heating instruments for mantles, hot plates and warming tables. Fume-handling is the item most often deferred and least often safely deferred — if the practical syllabus includes anything producing an irritant or toxic vapour, the extraction provision has to be in the first purchase, not the second.
Line 2 — Volumetric and measuring glassware: sized by hands, not benches
Volumetric and measuring glassware is the glass and plastic that contains, transfers and measures chemicals, and it is the line that determines whether a practical can run at all. A chemistry laboratory can survive a week with one fewer retort stand than it needs; it cannot run a volumetric analysis practical with fewer burettes than working pairs. This is why Line 2 is sized from student pairs plus a breakage allowance rather than from bench count, and why a first-year order should carry a deliberate over-order on the highest-handling items.
| Item | Typical teaching sizes | Range on this site | Priority | Sizing rule |
| Beakers, low form, graduated | 50, 100, 250, 500, 1000 ml | Beakers and Flasks | Essential | 3-4 per student pair across sizes |
| Conical (Erlenmeyer) flasks | 100, 250 ml | Beakers and Flasks | Essential | 2 per pair for titration |
| Volumetric flasks, one-mark, stoppered | 100, 250, 500, 1000 ml | Beakers and Flasks | Essential | 1 per pair, plus stock preparation set |
| Measuring cylinders, graduated | 10, 25, 50, 100, 250 ml | Lab Glassware | Essential | 2 per pair across sizes |
| Burettes, with stopcock | 25, 50 ml | Lab Glassware | Essential | 1 per pair; the binding constraint on titration practicals |
| Pipettes, one-mark and graduated | 10, 20, 25 ml | Lab Glassware | Essential | 1-2 per pair, plus safety fillers |
| Test tubes and thermometer pockets | Assorted, rimmed and unrimmed | Test Tubes and Thermometer Pockets | Essential | 10-12 per pair; highest breakage item on the list |
| Funnels, plain and filtering | 60, 75, 100 mm | Lab Glassware | Essential | 1-2 per pair |
| Dropping funnel | 50 ml, interchangeable joint (JA-CE-9468) | Chemistry Equipment | Recommended | 1 per 2 pairs |
| Condensers | Liebig and coil patterns | Condenser | Essential from senior secondary | 1 per 2 benches |
| Distillation glassware and joints | Assorted ground-glass sets | Distillation | Recommended | 2-4 sets per laboratory |
| Reagent bottles, screw cap and stoppered | 125, 250, 500 ml | Screw Caps, Stoppers and Stopcocks | Essential | Per reagent held, plus 20% spare |
| Watch glasses | 50, 75, 100 mm | Lab Glassware | Essential | 2 per pair |
| Crucibles with lid, high temperature | Assorted | Porcelain Ware | Essential | 1 per pair for gravimetric work |
| Evaporating dishes | Assorted | Porcelain Ware | Essential | 1 per pair |
| Mortar and pestle | Assorted | Porcelain Ware | Essential | 1 per 2 pairs |
| Buchner funnels | Assorted | Porcelain Ware | Recommended | 2-4 per laboratory |
| Volumetric plasticware | Cylinders, beakers, funnels | Lab Plasticware | Recommended | Substitute for junior classes and field work |
Line 2 — volumetric and measuring glassware for a general chemistry teaching laboratory, with the site range each item sits in.
Two substitutions are worth knowing. For junior and middle-school work where accuracy requirements are modest and breakage rates are high, plastic volumetric ware is a legitimate substitute for glass and materially reduces the annual replacement bill — the site lists a plastic 100 ml beaker under code SCL-CE-12455 as an example of this. For senior secondary and college volumetric analysis, plastic is not a substitute: tolerance class and thermal behaviour matter, and glass is the correct specification. The decision rule is simple — if the reading is assessed, buy glass; if the vessel only contains, plastic will do.
On standards for this line, four ISO volumetric glassware standards are the ones buyers most often name in a specification: ISO 4788 for graduated measuring cylinders, ISO 385 for burettes, ISO 1042 for one-mark volumetric flasks and ISO 648 for single-volume pipettes. Cite them only where you intend to hold the supplier to them, ask for the tolerance class in writing, and confirm the current edition of each standard before it goes into a tender document — standards are revised, and an outdated edition number in a specification is a live audit finding. Bureau of Indian Standards publications should be checked at the BIS portal for the Indian equivalents.
Line 3 — Instruments and powered equipment: sized by your highest practical
Instruments are the powered devices that produce a reading or run a process, and they are sized by the most demanding practical on the syllabus rather than by how many students are in the room. A single analytical balance in a weighing alcove serves an entire cohort working in rotation. A single drying oven serves a whole department. The design question is not how many, but which class of instrument the syllabus actually requires — and that is set by the highest-level practical, not the average one.
| Instrument | Catalogue code where listed | School (up to Class 10) | Senior secondary (11-12) | College / research | Key specification to confirm |
| Physical balance, beam type | JA-CE-6184 | Essential | Useful | Teaching only | Capacity and least count |
| Digital analytical balance | JA-CE-6143 | Optional | Essential | Essential | Readability, calibration method, draught shield |
| Precision balance | JA-CE-6155 | Recommended | Essential | Essential | Capacity, readability, weighing units |
| Dispensing balance | JA-CE-6180 | Optional | Recommended | Recommended | Published as weighing to within 15 mg up to 100 g |
| Laboratory weight set | JA-CE-6177 | Essential | Essential | Essential | Published as 304 stainless steel; confirm class |
| pH meter, bench | JA-CE-6282 | Optional | Essential | Essential | Electrode type, buffer calibration, replacement electrode price |
| Hot plate / warming table | Range page | Recommended | Essential | Essential | Wattage, plate material, thermostat range |
| Water bath | JA-CE-4309 (copper) and range page | Recommended | Essential | Essential | Capacity, temperature range and stability |
| Drying oven | Range page | Optional | Recommended | Essential | Chamber volume, maximum temperature, uniformity |
| Electric water still | JA-CE-4301 | Optional | Recommended | Essential | Output litres per hour, feed water quality |
| Colorimeter | JA-CE-6288 | Not required | Recommended | Essential | Filter set, display, transmission and optical density modes |
| Spectrophotometer | Range page | Not required | Optional | Essential | Wavelength range in nm, bandwidth, cuvette type |
| Laboratory centrifuge | JA-CE-6124 | Not required | Optional | Essential | Maximum speed in rpm, rotor and adaptor options, imbalance protection |
| Karl Fischer titrator | JA-CE-6283 | Not required | Not required | Conditional | Only where moisture determination is on the syllabus |
| Kjeldahl distillation and digestion unit | JA-CE-4001 | Not required | Optional | Essential | Published as withstanding up to 350 degrees C; confirm number of positions |
| Maximum-minimum thermometer | JA-CE-4338 | Recommended | Recommended | Recommended | Range and graduation in degrees C |
Line 3 — instruments and powered equipment by institution level, with catalogue codes where the item is published on this site.
Four specification questions decide whether a Line 3 purchase succeeds. What is the mains voltage and frequency the instrument is built for — a detail that matters enormously on export orders and is the most common cause of an instrument arriving unusable. How is it calibrated, by internal weight, external weight or against a certified reference, and who does it after the first year. What exactly does the warranty cover, and does it cover the consumable part such as a pH electrode or a heating element. And are spares and the replacement electrode or element available separately, at a stated lead time. Ask all four in the RFQ, in writing, per instrument.
Reviewer’s note — Arvind Kumar, Lab Equipment Specialist: “In twelve years of pre-dispatch inspection, the two faults I see most on institutional chemistry consignments are boss-head screws that strip on the first ten turns and burette stopcocks that seize because they were packed dry and stored hot. Both are inspection findings, not manufacturing mysteries — spend the ten minutes on them before the container is sealed.”
One caution on brand attribution. When you review any supplier’s instrument listings — this site included — check whether the description names a third-party manufacturer. Some entries in this catalogue carry third-party brand text inside a page presented under the supplier’s own product code, which in a tender file creates an unanswerable question about who the actual manufacturer is. Ask the supplier to confirm, per line item, whether they manufacture, assemble or resell the instrument, and to say so on the quotation. That single question resolves most OEM-authorisation disputes before they start.
Line 4 — Consumables, safety provision and teaching aids
Consumables are the items a chemistry laboratory uses up, and they are the line a first-year budget almost always understates because nobody counts them. Stoppers perish, indicator paper is torn off a leaf at a time, filter papers go by the box, spin bars vanish, and brushes wear out. Sizing this line from terms per year rather than from a one-off list is what stops a laboratory running a practical without the one twenty-rupee item that makes it work.
| Item | Catalogue code where listed | Category | Re-order cycle | Note |
| Rubber corks / rubber stoppers, assorted | JA-CE-4317 | Consumable | Annual | Perish with heat and age; buy assorted sizes |
| Rubber stopper, solid | JA-CE-8484 | Consumable | Annual | Keep a size range on hand |
| Two-hole rubber stopper | JA-CE-8488 | Consumable | Annual | For gas generation and delivery practicals |
| pH indicator paper, 200 leaves | JA-CE-6281 | Consumable | Per term | Pack size published as 200 leaves |
| Magnetic spin bars | JA-CE-9469 | Consumable | Annual | Published in 20 mm and 30 mm lengths |
| Filter papers, assorted grades | Not separately listed | Consumable | Per term | Specify grade and diameter in the RFQ |
| Test tube and burette brushes | Not separately listed | Consumable | Annual | Sized to the vessel; often omitted from BOQs |
| Screw caps, stoppers and stopcocks | Range page | Consumable / spare | Annual | Stopcock spares prevent burettes being written off |
| Eye protection, gloves, lab coats | Not listed on this site | Safety | Per cohort | Source separately; fund independently of the equipment line |
| Fume hood or fume cupboard | Range page | Safety (capital) | One-off | Must be in the first purchase if the syllabus needs it |
| Chemistry wall charts | Range page | Teaching aid | One-off | Low-cost support for demonstration teaching |
| Molecular model sets | Range page | Teaching aid | 3-5 years | For structure and bonding topics |
| Demonstration equipment | Range page | Teaching aid | 5+ years | Whole-class demonstration apparatus |
| Micro-scale chemistry kits | Range page | Teaching aid / apparatus | 3-5 years | Reduces reagent consumption and waste volume |
Line 4 — consumables, safety provision and teaching aids, with catalogue codes where published.
Micro-scale chemistry deserves a specific mention because it changes the arithmetic of the whole list. Micro-scale and small-scale techniques run the same reactions in far smaller volumes, which cuts reagent consumption, cuts waste-disposal volume and reduces the exposure risk of a crowded teaching laboratory. Where a syllabus permits it — and the CBSE Class 12 practical syllabus explicitly notes that micro-chemical methods are available for several of the listed experiments and should be used where possible — a micro-scale kit can be the highest-return line in a constrained budget. The related green chemistry and environmental chemistry ranges extend the same logic to lower-solvent methods and to water, soil and air testing practicals.
Teaching aids are the cheapest part of the list and the first thing cut, usually wrongly. Molecular model sets do work that no amount of glassware can do, because bonding and stereochemistry are spatial ideas that students cannot see in a beaker. Chemistry wall charts cost a fraction of an instrument and stay useful for a decade. Demonstration apparatus lets one teacher show a reaction that thirty students cannot each safely run. If a budget has to be cut, cut a duplicate instrument before you cut the model sets and the demonstration range.
Two routes to a chemistry laboratory: build the BOQ or start from a curriculum package
There are two legitimate ways to buy a chemistry laboratory, and the right one depends on how much your requirement deviates from a standard board syllabus. Route one is to build the four-line bill of quantities yourself, which is the correct approach when the laboratory serves a mixed syllabus, an unusual bench layout, an existing part-stocked room, or a tender specification that names its own items. Route two is to start from a pre-bundled curriculum package and add to it, which is faster and less error-prone when the laboratory is a standard school fit-out against a recognised board syllabus.
Jainco Lab publishes curriculum lab packages with fixed product codes on its tenders and OEM page, including a CBSE Chemistry Lab Equipment Package for School under code SCL-SK-12338 covering Class XI and XII CBSE chemistry practicals, and an ISC Chemistry Lab Equipment Package under code SCL-SK-12339. Equivalent physics and biology packages are listed under codes SCL-SK-12336, 12337, 12340 and 12341. These sit in the science kit range. Ask for the itemised contents list of any package before ordering, because a package is only a saving if it matches your practical list — and compare that contents list against your own four-line BOQ so you can see exactly what the package leaves you to buy separately.
| Decision factor | Build your own four-line BOQ | Start from a curriculum package |
| Syllabus | Mixed, state-board, international or non-standard | Standard CBSE or ISC school fit-out |
| Existing stock | Room is part-stocked and needs topping up | New laboratory starting from empty |
| Tender specification | Tender names its own items and quantities | Tender permits a supplier-defined package |
| Time available | Longer — every line specified and quantified | Shorter — one line item, contents list attached |
| Comparability across bidders | High — every bidder prices your line structure | Lower — packages differ between suppliers |
| Risk | Omission of an item nobody thought of | Paying for items you already have |
| Recommended action either way | Request the package contents list and reconcile it against your own four-line BOQ before ordering | Same |
Choosing between a self-built bill of quantities and a pre-bundled curriculum package.
Mapping the equipment list to the CBSE practical assessment
For an Indian school buying to a board syllabus, the most reliable way to build a chemistry equipment list is backwards from the assessment. The CBSE senior secondary Chemistry course (Code 043) is examined as 70 marks of theory plus 30 marks of practical, and the practical 30 is itself broken into named components: Volumetric Analysis 8 marks, Salt Analysis 8 marks, Content-Based Experiment 6 marks, Project Work 4 marks, and Class Record and Viva 4 marks, with 60 periods allotted to the practical syllabus (Source: CBSE Senior Secondary Curriculum, Chemistry Code 043, 2026-27 session; verified against published curriculum documents as of August 2026 — confirm the current edition at cbseacademic.nic.in before tender use).
That breakdown is a procurement instruction if you read it as one. Sixteen of the thirty practical marks — volumetric analysis and salt analysis together — depend on two narrow equipment sets. If a laboratory is short of burettes, pipettes and volumetric flasks, or short of test tubes and reagent-holding glassware for qualitative analysis, it is short on the majority of the assessed practical component. That is the argument to make to a purchase committee, and it is far stronger than a general appeal for better equipment.
| Practical component | Marks | Equipment it depends on | BOQ line | Sizing note |
| Volumetric analysis (titration) | 8 | Burettes with stopcocks, pipettes and safety fillers, conical flasks, volumetric flasks, funnels, retort stands with burette clamps, wash bottles | Lines 1 and 2 | One burette per working pair is the binding constraint |
| Salt analysis (qualitative) | 8 | Test tubes and stands, test tube holders and brushes, spirit lamp or burner, watch glasses, evaporating dishes, spatulas, dropping bottles, filtration funnels and papers | Lines 1, 2 and 4 | Test tubes are the highest-breakage item; over-order deliberately |
| Content-based experiment | 6 | Depends on the experiment set: hot plate or water bath for kinetics and surface chemistry, chromatography materials, filtration and heating apparatus, thermometers | Lines 1, 2 and 3 | Sized by the experiment chosen, not by class size |
| Project work | 4 | Varies by project; a shared instrument such as a pH meter or colorimeter is usually the enabling item | Line 3 | One shared instrument in rotation is sufficient |
| Class record and viva | 4 | No equipment; requires practical notebooks and record-keeping provision | Not an equipment line | Budget separately from stationery |
CBSE Class 12 Chemistry practical components mapped to the equipment each requires. Marks as published in the curriculum document; verify the current edition before tender use.
Two cautions on curriculum-linked buying. First, the CBSE practical syllabus explicitly notes that micro-chemical methods are available for several of the listed experiments and that such techniques should be used wherever possible — so a micro-scale kit is a syllabus-aligned purchase, not a substitute for one. Second, board syllabi are revised, sometimes annually and sometimes with topics rationalised out. Before a curriculum claim goes into a tender document or a purchase justification, download the current session’s curriculum PDF from the board’s own site and cite its edition. The equivalent NCERT laboratory manuals are worth reading alongside it, because they describe the apparatus each experiment assumes.
The wider Indian context is worth knowing when you are arguing for a budget. India’s school education system covers roughly 14.72 lakh schools and 24.8 crore students according to UDISE+ 2023-24 data published by the Ministry of Education and cited in the Economic Survey 2024-25. Digital infrastructure has moved quickly — the Ministry’s UDISE+ 2024-25 release of 28 August 2025 reported schools with computer access rising from 57.2 per cent in 2023-24 to 64.7 per cent in 2024-25 — while integrated science laboratory coverage has moved more slowly. An independent analysis of the UDISE+ 2024-25 tables published by Education for All in India in November 2025 counts 290,950 schools with secondary sections reporting an integrated science laboratory, against 286,000 the previous year. Verify that figure against the primary UDISE+ tables before quoting it in a tender or funding submission.
How many of each: sizing the list to your laboratory
Quantities are where equipment lists go wrong, and the fix is to classify every item as shared, per-bench, per-pair or consumable before you count anything. Shared items serve the whole laboratory in rotation. Per-bench items are one per working station. Per-pair items are one per two students because chemistry practicals are almost always run in pairs. Consumables are counted per term. Applying those four labels to the list first turns quantity-setting from an argument into arithmetic.
| Classification | Definition | Example items | Quantity rule | Worked example (12 benches, 24 students) |
| Shared | Serves the whole laboratory in rotation | Analytical balance, drying oven, fume hood, water still, centrifuge, colorimeter | 1-2 per laboratory regardless of class size | 1 of each; 2 balances only if weighing is a bottleneck |
| Per bench | One per working station | Retort stand, burner or spirit lamp, boss heads, clamps, test tube stand | 1 x bench count, plus 10% spares | 12 units + 1-2 spares each |
| Per pair | One per two students | Burette, pipette, conical flask, volumetric flask, measuring cylinder, crucible | 1 x (students / 2), plus breakage allowance | 12 units + 15-25% = 14-15 units |
| Per student | One each, personal issue | Eye protection, practical notebook | 1 x student count | 24 units |
| Consumable | Depleted and re-ordered | Stoppers, indicator paper, filter paper, spin bars, brushes | Estimated per term x terms per year | Order a full year, review after term one |
Quantity classification and worked example for a laboratory with 12 benches and 24 students working in pairs.
The breakage allowance is the number most often left out, and the honest answer is that it is specific to your laboratory rather than a universal figure. It depends on the age of the students, how much of the handling is unsupervised, the storage arrangement, and whether glassware is washed by students or by a technician. Rather than adopting a number from an article, count your own: record replacements for one full academic year against opening stock, and you will have a defensible replacement rate for every budget cycle afterwards. Until you have that figure, order a visible margin on test tubes, measuring cylinders and burette stopcocks, which are consistently the three items a chemistry department runs short of first.
Where the money goes: a budget allocation model, not a price list
This guide publishes no price figures, for a specific reason: chemistry apparatus is quoted against material grade, finish, capacity, tolerance class, pack size and order volume, so any single band printed here would be wrong for most readers and stale for all of them within a year. What is portable across buyers is the shape of the spend — the proportion of a first fit-out that each BOQ line typically absorbs. The shares below are a planning heuristic for structuring an RFQ and sense-checking a quotation, not a market statistic and not a substitute for a dated quotation from your supplier.
| BOQ line | Indicative share of first fit-out | Recurring cost after year one | Where over-spend usually happens | Where under-spend usually hurts |
| Line 1 — Support and heating | Moderate share | Low — replacement only | Buying decorative variants of the same clamp | Under-buying boss heads and clamps |
| Line 2 — Volumetric and measuring | Largest single share | High — breakage-driven | Over-specifying tolerance class for junior classes | No breakage allowance in year one |
| Line 3 — Instruments and powered | Large share, concentrated in few items | Moderate — calibration and spares | Duplicating instruments per bench | Buying an instrument the syllabus outgrows in two years |
| Line 4 — Consumables and safety | Smallest share at purchase | Highest as a proportion of annual spend | Rarely over-spent | Almost universally under-budgeted in year one |
| Excluded — furniture and fit-out | Not in this BOQ | Not applicable | Mixing fit-out into the equipment tender | Assuming benches and services exist |
| Excluded — reagents and chemicals | Not in this BOQ | Recurring, licensed | Ordering before storage is ready | Ignoring shelf life and disposal cost |
Budget allocation model for a first chemistry laboratory fit-out. Shares are a planning assumption for RFQ structuring, not sourced market data.
Two structural points follow. Keep furniture, services and reagents out of the equipment tender so that quotations remain directly comparable — the moment a fit-out cost enters one bidder’s price and not another’s, the comparison is dead. And budget the recurring line explicitly from year one, because a chemistry laboratory that is fully equipped and has no consumables budget stops working within two terms. If the total available budget will not cover all four lines, the guidance on setting up a laboratory on a constrained budget is a useful companion read.
Standards, certifications and export compliance to verify before you buy
Standards belong in a chemistry equipment specification only where you intend to hold the supplier to them, and every one you name should be checked for scope and current edition before it goes into a document. Naming a standard you have not read is worse than naming none, because it creates an obligation that neither side can evaluate. The table below lists the references most often relevant to a chemistry laboratory purchase, with what each actually covers.
| Reference | What it covers | When it applies | What to ask for |
| ISO 4788 | Graduated measuring cylinders | Volumetric glassware purchases | Tolerance class stated per item on the quotation |
| ISO 385 | Burettes | Titration glassware | Class and graduation durability confirmation |
| ISO 1042 | One-mark volumetric flasks | Solution preparation glassware | Class, capacity and stopper type |
| ISO 648 | Single-volume (one-mark) pipettes | Volumetric transfer | Class and delivery time |
| IEC 61010-1 | Safety of electrical equipment for measurement, control and laboratory use | Any mains-powered instrument | Declaration of conformity and the specific part number applied |
| ISO 9001 | Quality management systems | Supplier-level assurance | Current certificate with scope and expiry; verify with the certification body |
| ISO 14001 | Environmental management systems | Supplier-level assurance | Current certificate with scope and expiry |
| CE marking | Conformity with applicable EU directives | Instruments sold into or specified against EU requirements | The specific directive claimed, and the technical file reference |
| Minamata Convention on Mercury | Phase-out of listed mercury-added products, including mercury-containing non-electronic measuring devices such as thermometers | Any order including mercury-filled thermometers or similar devices | Written confirmation of the destination country’s position before shipment |
| Legal Metrology (India) | Verification and stamping of weights and measures used in trade and commerce | Weighing equipment where the use is commercial rather than purely instructional | Confirmation of whether the intended use brings the instrument into scope |
Standards and compliance references relevant to chemistry laboratory equipment. Confirm scope and current edition before citing in a tender.
On this supplier’s own certifications, the position stated on the site should be reported exactly as stated and then verified. Jainco Lab states on its chemistry category pages that it operates ISO 9001 quality management and ISO 14001 environmental management systems and applies CE-marked safety design. These are manufacturer-stated claims. Ask for the certificate number, the certification body, the scope of certification and the expiry date, and check the certificate against the issuing body’s register before relying on it in a tender submission. A certificate that covers a different scope than the product you are buying is a common and easily missed problem.
Do not accept — from any supplier — an unevidenced claim of affiliation with UN agencies, multilateral development banks or international funding bodies as a substitute for a certificate. Such affiliations, where genuine, are documented and verifiable. If a claim of that kind appears in marketing material and cannot be traced to a published document, treat it as unsubstantiated for procurement purposes and rely on the ISO certificates, the technical file and the product datasheets instead.
For export orders specifically, three checks belong in the pre-order stage rather than the pre-shipment stage. Confirm the destination country’s position on any mercury-containing device in the consignment. Confirm the mains voltage and frequency the instruments are built for against the destination supply. And confirm which documents the destination customs authority and the buying institution each require — an Importer-Exporter Code, a packing list, a certificate of origin and per-item datasheets are the usual minimum, and Indian exporters should check current requirements at the DGFT portal. For Indian government buyers, listing and specification conventions on the GeM portal are worth reading before the specification is finalised, because a specification that cannot be expressed in the portal’s item structure will slow the process considerably.
Original asset: the chemistry apparatus pre-dispatch and acceptance checklist
This checklist is the original proof asset of this article. It is written for the person who opens the cartons — a laboratory technician, a stores officer or a tender inspection committee member — and it is ordered by what actually goes wrong on chemistry consignments rather than by catalogue sequence. Run items 1 to 6 before the consignment is sealed if you can inspect at the supplier’s premises, and run the whole list within seven working days of delivery, because most contractual claim windows are short. Record a pass, fail or not-applicable against every line and keep the sheet with the purchase order.
| # | Check | Applies to | Method | Fail criterion |
| 1 | Item count against the bill of quantities | Whole consignment | Count each line against the BOQ and the packing list | Any line short, or any substitution not agreed in writing |
| 2 | Boss head and clamp screw thread | Line 1 hardware | Turn each screw fully in and out ten times by hand | Thread strips, binds or the screw will not seat |
| 3 | Retort base flatness and rod fit | Line 1 hardware | Stand on a flat bench; fit the rod and press the top laterally | Base rocks, or the rod is loose or cross-threaded in the base |
| 4 | Plating and coating integrity | Line 1 hardware | Visual inspection at the base weld, the rod ends and the clamp jaws | Bare metal exposed, flaking, or rust bloom present on arrival |
| 5 | Burette stopcock free movement | Line 2 glassware | Rotate every stopcock through its full travel | Seized, gritty, or leaks under a water fill |
| 6 | Glassware rim and base condition | Line 2 glassware | Run a fingertip around every rim; hold each base to the light | Chip, flake, star crack or visible strain at the base |
| 7 | Graduation legibility and durability | Line 2 volumetric ware | Read graduations at arm’s length; rub one marking firmly with a damp cloth | Graduations unreadable, or marking lifts under a damp cloth |
| 8 | Tolerance class marking | Line 2 volumetric ware | Check the class and capacity marking on each vessel against the order | Class not marked, or lower class than ordered |
| 9 | Ground-glass joint fit | Condensers, distillation sets | Assemble each joint dry and separate it | Joint binds, rocks, or will not seat |
| 10 | Burner and lamp function | Line 1 heating | Light each burner or lamp; adjust through its full air or wick range | Will not light, will not hold a flame, or air control is seized |
| 11 | Mains voltage and frequency marking | Line 3 instruments | Read the rating plate on every powered item | Rating does not match the site supply |
| 12 | Instrument power-up and self-test | Line 3 instruments | Power each instrument on and run its start-up sequence | Fails to start, error code, or display fault |
| 13 | Balance calibration check | Balances | Calibrate per the manual, then weigh a known reference mass three times | Reading outside the stated readability, or fails to repeat |
| 14 | pH meter buffer response | pH meters | Calibrate against two buffers and re-read one | Fails to hold calibration or responds sluggishly |
| 15 | Heating equipment thermostat check | Ovens, baths, hot plates | Set a mid-range setpoint and confirm with an independent thermometer | Reaches setpoint but will not hold it, or overshoots substantially |
| 16 | Accessory and spare completeness | Whole consignment | Check every kit list, adaptor, rotor, electrode, cable and spare against the order | Any listed accessory absent |
| 17 | Documentation set | Whole consignment | Confirm datasheets, manuals, warranty cards, calibration records and compliance declarations are enclosed | Any document promised in the quotation missing |
| 18 | Marking and traceability | Whole consignment | Confirm product codes on the items match the codes on the invoice and BOQ | Codes do not reconcile |
| 19 | Packing adequacy for onward storage | Whole consignment | Assess whether cartons and sleeving protect items until they are shelved | Glassware unsleeved or loose in the carton |
| 20 | Damage and shortage report raised | Whole consignment | Photograph and log every fail; issue a written report to the supplier | Claim window closes before the report is issued |
Pre-dispatch and acceptance checklist for chemistry laboratory apparatus, glassware and instruments. Original to this guide.
Two procedural points make the checklist stick. Do the inspection against the bill of quantities rather than against the invoice, because the BOQ is what you specified and the invoice is what the supplier decided to send — the difference between the two is exactly what an acceptance check exists to find. And issue the damage and shortage report in writing on the day the inspection finishes, even if the list is short, because a verbal report to a sales contact has no standing when a claim is disputed three weeks later.
Running the RFQ: what to send, what to demand back
A chemistry equipment RFQ succeeds or fails on what you send out, not on how you compare what comes back. Send the four-line bill of quantities with a description, a size or capacity with units, a quantity and a classification against every item. Send the practical syllabus or the list of experiments the laboratory must support. State the bench count, the student count and the mains voltage and frequency. Name any standard you intend to hold the supplier to, with its edition. And state the format you want the quotation in, because a quotation that does not follow your line structure cannot be compared with one that does.
| Evaluation criterion | Suggested weight | What evidence to require | Common failure |
| Specification compliance, line by line | 30% | Item-by-item response against your BOQ, with deviations declared | A blanket ‘as per specification’ with no line detail |
| Price against a like-for-like scope | 25% | Itemised pricing, with taxes, freight and packing shown separately | A lump sum that hides scope differences |
| Manufacturing status and traceability | 12% | Written statement per line of manufacture, assembly or resale; OEM authorisation where required | Third-party brand text under the supplier’s own product code |
| Quality evidence | 10% | Current ISO certificates with scope and expiry; per-item datasheets; declarations of conformity | Certificates whose scope does not cover the items quoted |
| Warranty, spares and after-sales | 10% | Warranty period per line, what it excludes, spares price list and lead time | Warranty on the instrument but not the electrode or element |
| Lead time and delivery commitment | 8% | Dated delivery schedule and a partial-delivery position | An indicative lead time with no commitment |
| Packing and export readiness | 5% | Packing method per item class, carton marking, documentation set | Glassware packed to domestic standards for an export consignment |
Vendor evaluation matrix for a chemistry laboratory equipment tender. Weightings are a suggested starting point; adjust to your institution’s policy.
| Sample specification clause you can adaptThe Supplier shall furnish a dated, itemised Bill of Quantities separating (a) support and heating hardware, (b) volumetric and measuring glassware, (c) powered instruments, and (d) consumables and safety items. Each line shall state the item description, construction material and finish, size or capacity with units, tolerance class where the item is volumetric, quantity, pack size, mains voltage and frequency where the item is powered, warranty period, and lead time. The Supplier shall state against each line whether the item is manufactured, assembled or resold by the Supplier. Prices shall be shown item by item, with taxes, packing and freight itemised separately. Any deviation from the specification shall be declared in writing at the time of quotation; undeclared deviations shall be grounds for rejection at acceptance inspection. |
Ask for the quotation to be dated and to carry a validity period. Chemistry apparatus pricing moves with metal, glass and freight costs, and a quotation with no date and no validity window is not a commercial document — it is a marketing sheet. On this site, a quotation and catalogue request is raised through the tenders and OEM page or the contact page, and the published FAQ page is worth reading first for the supplier’s own stated scope of supply.
Six procurement mistakes that spoil a chemistry laboratory purchase
1. Sizing volumetric glassware from bench count
Benches are furniture; students are the users. A twelve-bench laboratory running twenty-four students in pairs needs twelve burettes at absolute minimum and realistically fourteen or fifteen once a breakage allowance is applied. Ordering twelve of everything because there are twelve benches leaves no margin at all, and the shortfall appears in the middle of the titration term when replacements take weeks to arrive.
2. Duplicating instruments per bench instead of buying one good shared unit
The most expensive mistake in a chemistry equipment budget is buying four adequate balances instead of one good one and a rotation schedule. Shared instruments are shared for a reason: their throughput per session is far higher than their duty cycle in any single practical. Size Line 3 from the most demanding practical on the syllabus and from queueing, not from the number of workstations.
3. Leaving consumables and safety provision out of year one
Stoppers, indicator papers, filter papers, brushes, spin bars and burette stopcock spares are individually trivial and collectively decisive. A laboratory that has every instrument and no consumables budget stops running practicals within two terms. Fund the recurring line from the first year and set a re-order cycle, and fund personal protective equipment independently of the equipment budget so that it survives a budget cut.
4. Naming standards that have not been read or checked for edition
A specification that cites a standard by number without checking its scope or current edition creates an obligation neither party can evaluate, and an outdated edition number in a tender document is a live audit finding. Cite a standard only where you will hold the supplier to it, confirm the edition on the issuing body’s site, and ask for the tolerance class or conformity declaration in writing rather than relying on the standard number alone.
5. Accepting a lump-sum quotation for a multi-line purchase
A single figure for a whole laboratory cannot be compared with another single figure, because the two will not cover the same scope. Insist on itemised pricing against your own line structure, with taxes, packing and freight shown separately, and with any deviation declared at quotation stage. This one requirement does more to protect an institutional purchase than any amount of negotiation afterwards.
6. Skipping acceptance inspection because the cartons look fine
Most claim windows are short, and most chemistry consignment faults — stripped boss threads, seized stopcocks, chipped rims, mismatched voltage ratings — are invisible until someone handles the item. Run the acceptance checklist within seven working days, record a result against every line, and issue the shortage and damage report in writing. An inspection that finds nothing is still worth the afternoon it takes, because it converts a delivery into an accepted delivery.
Related guides
→ What is the most common scientific laboratory equipment?
→ What are the 5 pieces of scientific laboratory safety equipment?
→ How do you maintain laboratory equipment to extend its life?
→ How do I set up a low-cost science lab for a rural school?
→ What is good scientific laboratory equipment made of?
→ Exploring all essential equipment in a physics laboratory
Frequently asked questions
What chemistry lab equipment is essential for a well-equipped laboratory?
A well-equipped chemistry laboratory needs support and heating hardware, volumetric and measuring glassware, a small number of shared powered instruments, and a funded consumables and safety line. In practice that means retort stands, rods, bosses, clamps and rings; burners or spirit lamps, tripods and gauzes; tongs, spatulas and test-tube stands; beakers, conical and volumetric flasks, measuring cylinders, burettes, pipettes, test tubes, funnels, condensers and watch glasses; a balance, a pH meter, a hot plate or water bath and a drying oven; and stoppers, indicator papers, filter papers and eye protection. The apparatus side sits in the chemistry equipment range on this site and the glass side in the lab glassware range.
Which chemistry lab equipment is needed for school compared with college laboratories?
School laboratories need the full support, heating and glassware set but only a small instrument set, while college laboratories add analytical instruments and higher-tolerance glassware. A school up to Class 10 can run its syllabus on stands, burners or spirit lamps, general glassware, a physical balance and a hot plate. Senior secondary work adds burettes and pipettes in quantity, a digital analytical balance, a pH meter and a water bath, because volumetric and salt analysis dominate the assessed practical. College and research laboratories add a colorimeter or spectrophotometer, a centrifuge, a drying oven, a water still and distillation or digestion units. Confirm the current session’s curriculum document before finalising the list.
Are chemistry laboratory chemicals and reagents included in an equipment list?
No — reagents and chemicals should be tendered and budgeted separately from equipment, and so should laboratory furniture. Chemicals carry shelf-life, storage, licensing and disposal obligations that equipment does not, and mixing them into an equipment bill of quantities makes competing quotations impossible to compare. Keep three separate lines: equipment, consumables, and reagents. Personal protective equipment and first-aid provision should also be funded independently so that a safety line is not cut when an equipment budget is trimmed. The safety equipment guide on this site covers the provision side in more detail.
How much does it cost to equip a chemistry laboratory in India?
There is no single reliable figure, because chemistry apparatus is quoted against material grade, finish, capacity, tolerance class, pack size and order volume, and those vary independently. Any price band published in an article will be wrong for most laboratories and out of date for all of them within a year. The dependable approach is to structure the request as a four-line bill of quantities — support and heating, volumetric and measuring, instruments, and consumables — and obtain a dated, itemised quotation with taxes, packing and freight shown separately. Request a bill of quantities against your own syllabus and bench count through the tenders and OEM page.
How do I maintain chemistry laboratory equipment and what fails first?
The three items that fail first in a teaching chemistry laboratory are boss-head screw threads, burette stopcocks and test tubes, so maintenance should start there. Keep boss screws clean and lightly lubricated and retire any that bind rather than forcing them. Store burettes with stopcocks slightly open and lightly greased where the design calls for it, so they do not seize in storage. Wash and dry glassware promptly, store it supported rather than stacked, and inspect rims for chips before every practical. Have balances and pH meters calibrated on a schedule and keep the records. The dedicated maintenance guide covers the routine in more depth.
What is the difference between micro-scale chemistry equipment and standard apparatus?
Micro-scale chemistry equipment runs the same reactions in much smaller volumes, which cuts reagent consumption, waste volume and exposure risk without changing the chemistry being taught. Standard apparatus works at conventional bench volumes and suits demonstrations, gravimetric work and any practical where the assessed measurement needs a full-size vessel. Micro-scale kits suit crowded teaching laboratories, constrained reagent budgets and schools with limited waste-disposal provision, and the CBSE practical syllabus notes that micro-chemical methods should be used where they are available. Most departments run both: micro-scale for routine reaction work, standard apparatus for volumetric analysis and demonstrations. See the micro chemistry and green chemistry ranges.
Key takeaways
1. A complete chemistry laboratory equipment list has four purchase lines — support and heating hardware, volumetric and measuring glassware, powered instruments, and consumables and safety — and each is sized by a different driver.
2. Size volumetric glassware from student pairs plus a breakage allowance, never from bench count; a twelve-bench laboratory with twenty-four students needs roughly fourteen to fifteen burettes, not twelve.
3. Size instruments from the most demanding practical on the syllabus, not from class size: one good shared analytical balance outperforms four mediocre ones bought per bench.
4. For CBSE senior secondary chemistry, volumetric analysis and salt analysis together carry 16 of the 30 practical marks (CBSE Senior Secondary Curriculum, Chemistry Code 043, 2026-27; verified August 2026), so burettes, pipettes, volumetric flasks and test tubes are the highest-leverage items on the list.
5. Keep furniture, reagents and personal protective equipment out of the equipment bill of quantities so that competing quotations remain directly comparable, and fund the consumables line from year one.
6. Treat every supplier certification as manufacturer-stated until you have the certificate number, scope and expiry, and run a written acceptance inspection within seven working days of delivery. Request a dated, itemised bill of quantities against your own syllabus.
About Jainco Lab
Jainco Lab manufactures, supplies and exports laboratory and educational equipment from Ambala Cantt, Haryana, India, and states on its chemistry category pages that it was established in 1982. The office address published on the site is Jain Scientific Suppliers, 2475-84, Hargolal Road, Ambala Cantt, Haryana. The published range spans chemistry apparatus and teaching aids, laboratory glassware, porcelain ware and plasticware, physics, biology and educational laboratory equipment, analytical and engineering instruments, and vocational training equipment, supplied to schools, colleges, universities, research laboratories, dealers and export buyers across South Asia, the Middle East, Africa, Europe and North America. The company states that it operates ISO 9001 quality management and ISO 14001 environmental management systems and applies CE-marked safety design; these are manufacturer-stated and should be verified against current certificates before a tender submission. Quotations, catalogues and bills of quantities are requested through the tenders and OEM page or the contact page.
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