Category: Science Lab Equipment

  • Cambridge IGCSE Science Practical Equipment List: A Complete Buying Guide

    A Cambridge IGCSE science practical equipment list is the set of laboratory apparatus, instruments and consumables a school needs to teach and assess practical skills in IGCSE Biology, Chemistry and Physics. The list spans general apparatus (stands, clamps, Bunsen burners, measuring cylinders), subject-specific items (microscopes for biology, borosilicate glassware and burettes for chemistry, meters and optics for physics), and shared safety equipment. Cambridge IGCSE sciences assess practical work through either Paper 5 (Practical Test) or Paper 6 (Alternative to Practical), so the equipment a school buys depends on the practical route it enters students for. Most everyday IGCSE apparatus is available from the general laboratory instruments range at Scientific Equipments.

    What is on a Cambridge IGCSE science practical equipment list?

    A Cambridge IGCSE science practical equipment list includes, for biology, microscopes, slides, dissection kits and basic measuring apparatus; for chemistry, borosilicate glassware, burettes, pipettes, balances, Bunsen burners and pH measurement; and for physics, metre rules, vernier calipers, ammeters, voltmeters, power supplies, optics kits and stopwatches. All three subjects share stands, clamps, measuring cylinders, thermometers, balances and safety equipment. Schools entering students for Paper 5 (Practical Test) need a full working apparatus set, while Paper 6 (Alternative to Practical) schools still need apparatus for teaching familiarity. Source glassware, microscopes and general apparatus from the relevant categories at Scientific Equipments.

    What Is the Cambridge IGCSE Science Practical Equipment List?

    The Cambridge IGCSE science practical equipment list is the apparatus and consumables required to deliver practical work in IGCSE Biology, Chemistry and Physics. Cambridge International sets the syllabus and practical assessment for each science but expects schools to provide standard laboratory apparatus; it does not supply equipment. The three IGCSE sciences are Biology (syllabus 0610, and the 9-1 version 0970), Chemistry (0620 / 0971) and Physics (0625 / 0972), and each assesses practical skills through either Paper 5 (Practical Test) or Paper 6 (Alternative to Practical) (Cambridge International, verified June 2026).

    The Cambridge IGCSE practical assessment route determines how much equipment a school needs. Paper 5 is a hands-on Practical Test taken in the laboratory, so a school entering students for Paper 5 must equip a fully working practical lab. Paper 6 is the Alternative to Practical, a written paper (typically 1 hour, 40 marks) that tests planning, apparatus familiarity and data handling without lab access. Even Paper 6 schools need apparatus for teaching, because the paper asks students what apparatus they would use and to interpret real experimental setups. From March 2026 Cambridge changed only the layout and formatting of question papers, not the assessed content (Cambridge International, verified June 2026).

    IGCSE Biology Practical Equipment List

    The IGCSE Biology practical equipment list covers microscopy, food tests, transport and enzyme experiments, and basic measurement. Priority is rated Essential (needed for core practicals), Required (needed for full syllabus coverage), or Recommended (extends capability). Microscopes and dissection instruments are central to IGCSE Biology 0610 practicals and are available from the microscopes and general laboratory instruments ranges.

    EquipmentUse in IGCSE Biology practicalsPriority
    Compound microscope (40x-400x)Cells, tissues and prepared-slide observationEssential
    Prepared and blank slides, cover slipsMicroscopy and temporary mountsEssential
    Dissection kit and dissecting boardPlant/animal structure practicalsRequired
    Test tubes, beakers, droppersFood tests (starch, glucose, protein, fat)Essential
    Water bath / thermometer (0-110 C)Enzyme and temperature experimentsRequired
    Measuring cylinders (10-100 ml)Volume measurement in transport practicalsEssential
    Potometer / capillary apparatusTranspiration and water-uptake practicalsRecommended
    Anatomical and biology modelsStructure teaching supportRecommended

    IGCSE Chemistry Practical Equipment List

    The IGCSE Chemistry practical equipment list covers titration, qualitative analysis, rates of reaction, heating and separation. Priority is rated Essential, Required or Recommended. Borosilicate 3.3 glassware, burettes and pipettes are central to IGCSE Chemistry 0620 practicals and are available from the chemistry glassware range; molecular model kits support bonding topics.

    EquipmentUse in IGCSE Chemistry practicalsPriority
    Borosilicate 3.3 beakers, flasks, test tubesHeating, reactions, observationsEssential
    Burette (50 ml, Class B) and pipette (25 ml)Acid-base titrationEssential
    Electronic balance (0.01 g)Mass measurement for quantitative workEssential
    Bunsen burner, tripod, gauzeHeating practicalsEssential
    Measuring cylinders (10-250 ml)Volume measurement in rates experimentsEssential
    Thermometer (-10 to 110 C)Temperature in dissolving/reaction practicalsRequired
    pH meter or universal indicatorAcid-base and salt practicalsRequired
    Filtration and evaporation apparatusSeparation techniquesRequired
    Molecular model kitBonding and structure teachingRecommended

    IGCSE Physics Practical Equipment List

    The IGCSE Physics practical equipment list covers measurement, mechanics, electricity, light and thermal physics. Priority is rated Essential, Required or Recommended. Measurement instruments and electricity kits are central to IGCSE Physics 0625 practicals and are available from the physics laboratory equipment range.

    EquipmentUse in IGCSE Physics practicalsPriority
    Metre rule and vernier caliper (0.02 mm)Length measurement, density practicalsEssential
    Stopwatch (0.01 s) and balanceTiming and mass in mechanicsEssential
    Ammeter and voltmeter (analogue/digital)Electric circuit practicals (V=IR)Essential
    Low-voltage power supply and leadsPowering circuits safelyEssential
    Resistors, bulbs, switches, rheostatBuilding and varying circuitsRequired
    Optics kit: lenses, ray box, mirrorsRefraction and image practicalsRequired
    Spring balances and masses (slotted)Forces and Hooke’s law practicalsRequired
    Thermometer and calorimeterThermal physics practicalsRecommended

    Paper 5 vs Paper 6: How the Practical Route Changes What You Buy

    The Cambridge IGCSE practical route – Paper 5 (Practical Test) or Paper 6 (Alternative to Practical) – directly changes a school’s equipment budget. Paper 5 requires a full working set of apparatus so every student can perform experiments under exam conditions. Paper 6 is a written alternative, so a school can teach with a smaller demonstration-and-group set, though students still need hands-on familiarity to score well. The table below sets out the equipping implication of each route.

    AspectPaper 5 (Practical Test)Paper 6 (Alternative to Practical)
    Assessment formatHands-on lab examWritten paper, ~1 hour, 40 marks
    Equipment scaleFull set: one working set per 1-2 studentsTeaching set: one set per 3-4 students
    Apparatus accuracyExam-grade, reliable, calibratedTeaching-grade acceptable
    Key risk if under-equippedStudents cannot sit the practical examStudents lack apparatus familiarity
    Budget implicationHigher per-student equipment costLower equipment cost, same teaching need

    IGCSE Practical Equipping Decision Rule (original rule)

    The IGCSE Practical Equipping Decision Rule is a procurement rule for sizing IGCSE science apparatus to the chosen practical route. For Paper 5, provide one working apparatus set per one to two students for core experiments, plus 1.5 times the class set of consumable glassware for breakage. For Paper 6, provide one apparatus set per three to four students for teaching familiarity. In both routes, never share the single most-used items – measuring cylinders, thermometers and test tubes – so densely that a class cannot work simultaneously.

    Original rule by Scientific Equipments. Reviewer note – Arvind Kumar, Lab Equipment Specialist (12+ years): “Schools entering Paper 6 often under-buy apparatus, then find students lose marks because they have never handled a burette or read a vernier scale. Even the written practical paper rewards real hands-on familiarity.”

    Key Specifications to Check Before Buying

    Before buying Cambridge IGCSE science apparatus, verify numeric specifications and reference standards rather than catalogue descriptions. The specifications below are practical benchmarks for durable, accurate IGCSE equipment. Require the vendor to state each figure and reference standard in the quotation – for example borosilicate 3.3 glass to ISO 3585, electrical safety to IEC 61010-1, or laser class to IEC 60825-1 – so each item can be checked at acceptance.

    ItemSpecification to requireReference / why
    Compound microscope40x-400x magnification; LED illuminationIGCSE biology cell observation
    GlasswareBorosilicate 3.3 (low expansion)ISO 3585 borosilicate glass 3.3
    Burette50 ml, Class B, 0.1 ml graduationsTitration accuracy
    Electronic balance200 g x 0.01 g readabilityQuantitative chemistry/physics
    Vernier caliper0-150 mm, 0.02 mm resolutionDensity and length practicals
    Ammeter/voltmeterStated range and class; clear scaleElectricity practicals
    Power supplyLow-voltage, stated output; fusedIEC 61010-1 electrical safety
    Ray box / laserIEC 60825-1 Class 1 or Class 2 onlyEye safety in optics practicals

    Matching Equipment to IGCSE Level: Core, Extended and Progression

    Cambridge IGCSE science apparatus should be matched to the level being taught, from lower-secondary preparation through IGCSE Core and Extended to AS/A Level progression. Lower-secondary classes use simple, robust apparatus. IGCSE Core practicals use standard apparatus with straightforward measurement. IGCSE Extended practicals demand more accurate instruments and quantitative work. Schools continuing to Cambridge International AS and A Level need higher-specification instruments. The table below maps each level to suitable equipment.

    LevelPractical demandSuitable equipmentExample practical
    Lower secondary (prep)Simple, robust apparatusStudent microscopes, basic glasswareObserving cells, simple heating
    IGCSE CoreStandard measurementClass-set glassware, meters, balancesFood tests, basic circuits
    IGCSE ExtendedAccurate quantitative workBurettes, vernier calipers, sensitive balancesTitration, density, V-I graphs
    AS / A Level progressionHigher precision and rangeHigher-spec instruments, data loggersQuantitative investigations

    Safety Requirements for IGCSE Science Practicals

    Safety requirements for IGCSE science practicals cover chemical handling, electrical safety, eye protection, heat and glassware, because IGCSE practical work uses chemicals, electricity, Bunsen burners and glass across three subjects. Schools should follow recognised laboratory safety practice and local regulations, since Cambridge requires safe practical work but does not issue its own equipment-safety standard. The numbered rules below are the baseline; the table maps each hazard to its control. Electrical lab equipment safety is referenced under IEC 61010-1 and laser products under IEC 60825-1.

    1.  Provide safety goggles and lab coats for every student during chemistry and physics practicals.

    2.  Use a fume cupboard or adequate ventilation for reactions producing fumes or vapours.

    3.  Earth all electrical apparatus and use low-voltage, fused power supplies in physics practicals.

    4.  Use only IEC 60825-1 Class 1 or Class 2 ray boxes or lasers in optics practicals.

    5.  Heat only borosilicate 3.3 glassware; inspect glassware for cracks before heating.

    6.  Provide eyewash, a first-aid kit and a CO2 fire extinguisher in each laboratory.

    7.  Store and label chemicals correctly and dispose of waste per local regulations.

    HazardControl measureReference / norm
    Chemical exposureGoggles, gloves, fume ventilationLocal lab safety regulations
    Electric shockLow-voltage fused supplies; earthingIEC 61010-1
    Laser/ray-box eye injuryClass 1 or Class 2 onlyIEC 60825-1
    Glassware burns/breakageBorosilicate 3.3; inspect before heatingISO 3585
    Fire (Bunsen burner)Clearance from flammables; CO2 extinguisherLocal fire-safety norms

    Budget Guide: Equipping IGCSE Science Practicals

    Equipping IGCSE science practicals for biology, chemistry and physics typically costs between INR 6 lakh and INR 25 lakh for a three-subject set serving a class of about 24 students, depending on the Paper 5 or Paper 6 route and Core or Extended depth. The worked breakdown below is indicative for one practical set per subject. Figures are estimated from Indian market benchmarks as of June 2026, inclusive of applicable GST; verify current pricing before procurement, and international Cambridge schools should add applicable import duty and freight.

    Subject setKey itemsIndicative cost (INR, incl. GST)
    Biology practical setMicroscopes, slides, dissection, glassware₹1,50,000 – ₹6,00,000
    Chemistry practical setBorosilicate glassware, burettes, balances, burners₹2,00,000 – ₹7,00,000
    Physics practical setMeters, power supplies, optics, mechanics kits₹1,50,000 – ₹6,00,000
    Shared apparatus & balancesStands, clamps, measuring cylinders, balances₹50,000 – ₹2,50,000
    Safety & consumablesGoggles, fire safety, reagents, spare glassware₹50,000 – ₹3,50,000
    Indicative three-subject total≈ ₹6,00,000 – ₹25,00,000

    Pre-Dispatch Inspection and Acceptance Checklist

    A pre-dispatch inspection and acceptance checklist protects an IGCSE school from receiving incomplete, inaccurate or non-functional science apparatus across three subjects. Run these checks against the purchase order and agreed specification before accepting delivery and releasing payment. Each step should be signed off by the lab in-charge or IGCSE coordinator and recorded.

    1.  Confirm every item, quantity and model matches the purchase order across biology, chemistry and physics.

    2.  Check microscope magnification and illumination on a sample, confirming clear focus at high power.

    3.  Verify glassware is borosilicate 3.3, crack-free, with correct volumes and graduations.

    4.  Confirm burettes and pipettes meet the stated class and graduation accuracy.

    5.  Power on and calibrate a sample of balances and pH meters against known references.

    6.  Test physics apparatus (meters, power supplies, optics) through one functional check each.

    7.  Confirm ray boxes or lasers are marked IEC 60825-1 Class 1 or Class 2.

    8.  Check consumables and spares match quoted quantities, including the 1.5x glassware allowance.

    9.  Verify safety equipment (goggles, extinguisher charge date, eyewash) is present and in date.

    10.  Record serial numbers and warranty terms, and log any defect in writing before accepting affected items.

    Vendor Evaluation Criteria

    Vendor evaluation for IGCSE science apparatus should weight specification compliance, range across all three sciences and after-sales support above headline price, because an IGCSE school needs one dependable supply for biology, chemistry and physics. The weighted criteria below give a transparent scoring method for purchase and tender procurement. Apply the same weights to every supplier and record the scores.

    CriterionWeight (%)What to assess
    Specification compliance30%Exact match to required specs and standards
    Range across three sciences20%Single source for biology, chemistry, physics
    After-sales & spares20%Servicing, replacement glassware, support
    Export / international handling10%Documentation, packing, duty handling abroad
    Price & total cost of ownership15%Bid price plus consumables and support
    Delivery & installation5%Lead time and installation scope

    Maintenance and Storage Guidelines

    Maintenance and storage for IGCSE science apparatus focus on protecting optics and instruments, keeping glassware intact, and calibrating measuring instruments so practical results stay reliable across the two-year IGCSE course. A routine of cleaning, calibration and inventory keeps three subject sets ready for practicals. The guidelines below are grouped by equipment type.

    •  Microscopes: clean optics with lens tissue only; store covered and dust-free; check illumination regularly.

    •  Glassware: inspect for cracks before heating; store borosilicate 3.3 items separated to avoid chipping.

    •  Burettes and pipettes: rinse and dry after use; store vertically; check taps for leaks.

    •  Balances and pH meters: calibrate on a schedule with certified weights and buffers; log calibration.

    •  Physics apparatus: check leads and connectors; store optics and meters padded against impact.

    •  Inventory: keep a per-subject register including the 1.5x glassware stock for re-ordering.

    Common Procurement Mistakes and How to Avoid Them

    Mistake 1: Under-buying apparatus for the Paper 5 route

    Under-buying apparatus for the Paper 5 (Practical Test) route means students cannot all perform the exam practical. Apply the equipping rule of one working set per one to two students for Paper 5, and confirm the practical route before sizing the order.

    Mistake 2: Assuming Paper 6 needs no apparatus

    Assuming the Paper 6 (Alternative to Practical) route needs no apparatus leaves students unable to answer apparatus and method questions. Provide a teaching set of one per three to four students so students gain hands-on familiarity with burettes, microscopes and meters.

    Mistake 3: Buying soda-glass instead of borosilicate 3.3

    Buying soda-glass instead of borosilicate 3.3 glassware causes cracking when heated in chemistry practicals. Specify borosilicate 3.3 to ISO 3585 for any glassware that will be heated, and verify the grade at acceptance.

    Mistake 4: Ignoring titration-grade burette and balance accuracy

    Ignoring burette class and balance readability produces inaccurate quantitative results in IGCSE chemistry. Specify a 50 ml Class B burette with 0.1 ml graduations and a balance reading to 0.01 g, and check the markings before accepting delivery.

    Mistake 5: Overlooking ray-box and electrical safety class

    Overlooking ray-box and electrical safety classes risks eye injury and shock in physics practicals. Specify only IEC 60825-1 Class 1 or Class 2 ray boxes and lasers and low-voltage fused power supplies to IEC 61010-1, and verify the markings at acceptance.

    Related Guides and Categories

    No dedicated blog index was found on the Scientific Equipments website at the time of writing; the confirmed product categories below are the most relevant for sourcing Cambridge IGCSE biology, chemistry and physics practical apparatus. Use these to browse general laboratory instruments, glassware, microscopes, physics apparatus and biology models.

    Lab General Instrument – stands, clamps, pipettes, burners

    Chemical Instrument and Glassware – IGCSE chemistry apparatus

    Microscopes – IGCSE biology microscopy

    Physics Lab Equipments – IGCSE physics apparatus

    Laboratory Instrument and Equipment – balances, pH meters

    Biology Models – anatomical and biological models

    Frequently Asked Questions

    What equipment is needed for Cambridge IGCSE science practicals?

    Cambridge IGCSE science practicals need microscopes, slides and dissection kits for biology; borosilicate glassware, burettes, pipettes, balances and Bunsen burners for chemistry; and metre rules, vernier calipers, meters, power supplies and optics kits for physics. All three share stands, clamps, measuring cylinders, thermometers and safety equipment. The exact quantity depends on whether the school enters students for Paper 5 or Paper 6. Browse general apparatus and glassware from the relevant categories.

    What is the difference between IGCSE Paper 5 and Paper 6?

    Paper 5 is a hands-on Practical Test taken in the laboratory, while Paper 6 is the Alternative to Practical, a written paper of about 1 hour and 40 marks that tests practical skills without lab access. Cambridge IGCSE Biology (0610), Chemistry (0620) and Physics (0625) offer both routes. Paper 5 schools must equip a full working lab so every student can perform experiments; Paper 6 schools still need apparatus for teaching familiarity. The choice directly affects how much equipment to buy.

    Are IGCSE practical chemicals and apparatus safe for students?

    IGCSE practical apparatus and chemicals are safe for students when chemical, electrical, laser and glassware hazards are controlled. Provide goggles and lab coats, fume ventilation for reactions, low-voltage fused power supplies and earthing for physics, and only IEC 60825-1 Class 1 or Class 2 ray boxes. Heat only borosilicate 3.3 glassware, keep eyewash and a CO2 extinguisher in each lab, and follow local laboratory safety regulations alongside the Cambridge practical guidance.

    How much does it cost to equip IGCSE science labs?

    Equipping IGCSE biology, chemistry and physics practicals typically costs INR 6 lakh to INR 25 lakh for a three-subject set serving a class of about 24 students, depending on the Paper 5 or Paper 6 route. Chemistry glassware, microscopes and balances are the largest lines. These are estimates from market benchmarks as of June 2026, inclusive of applicable GST; international schools should add import duty and freight, and can request bulk pricing through the bulk and tender supply route.

    How do I maintain IGCSE lab glassware and instruments?

    Maintain IGCSE lab glassware and instruments by inspecting glassware for cracks before heating, rinsing and drying burettes and pipettes, and calibrating balances and pH meters on a schedule with certified weights and buffers. Clean microscope optics with lens tissue only and store instruments covered. Keep a 1.5x stock of common glassware for breakage and a per-subject inventory. This routine keeps three subject sets reliable across the two-year IGCSE course.

    What is the difference between IGCSE and CBSE practical equipment requirements?

    The difference is that CBSE specifies practical syllabi and equipment expectations fairly prescriptively, while Cambridge IGCSE sets practical assessment through Paper 5 or Paper 6 and expects schools to provide standard apparatus. In practice the core apparatus overlaps heavily – microscopes, glassware, balances and physics kits serve both – so a supplier serving CBSE schools can equip an IGCSE school from the same ranges, adjusting quantity to the chosen practical route.

    Key Takeaways

    1.  A Cambridge IGCSE science practical equipment list spans biology microscopy and dissection, chemistry glassware and titration apparatus, physics measurement and electricity kits, plus shared apparatus and safety equipment.

    2.  Cambridge IGCSE Biology (0610), Chemistry (0620) and Physics (0625) assess practical skills through either Paper 5 (Practical Test) or Paper 6 (Alternative to Practical), and from March 2026 only the paper layout changed, not the content (Cambridge International, verified June 2026).

    3.  Apply the IGCSE Practical Equipping Decision Rule – one working set per 1-2 students for Paper 5 and one per 3-4 students for Paper 6, with 1.5x glassware for breakage – to size the order to the practical route.

    4.  Specify apparatus to standards – borosilicate 3.3 glassware to ISO 3585, electrical safety to IEC 61010-1, and Class 1 or Class 2 lasers to IEC 60825-1 – and source glassware and microscopes from the relevant ranges.

    5.  Budget roughly INR 6 lakh to INR 25 lakh to equip three IGCSE subject sets for a class, inclusive of GST as of June 2026, adding import duty for international Cambridge schools.

    6.  Protect the purchase with a pre-dispatch acceptance check on glassware grade, burette class and balance accuracy, and vendor scoring that prioritises support and spares.

    About Scientific Equipments

    Scientific Equipments, headquartered in India, manufactures and supplies scientific and educational laboratory equipment to schools, colleges, universities and institutional buyers, with regular bulk exports to over 56 countries worldwide. The company’s range spans general laboratory instruments, microscopes, chemistry instruments and borosilicate glassware, physics laboratory equipment, molecular structure models, and biology and human physiology models – covering the biology, chemistry and physics practical needs of Cambridge IGCSE schools from a single source. Scientific Equipments serves institutional, public-sector and tender-based procurement, including OEM and bulk supply for international schools. For bulk supply and tender documentation, use the procurement and contact channels below.

    Home

    Lab General Instrument

    Chemical Instrument

    Microscopes

    Physics Lab Equipments

    Laboratory Instrument and Equipment

    Tenders / OEM

    Contact / Procurement

  • Science Lab Equipment for IB Schools: Requirements and Procurement Guide

    Science lab equipment for IB schools is the set of apparatus, instruments and consumables a school needs to deliver the hands-on practical work required by the International Baccalaureate (IB) science courses in biology, chemistry and physics. The IB does not publish a single mandatory equipment list; instead it requires a Practical Scheme of Work, so each IB school provisions its own laboratories to cover the experiments and investigations in the three sciences. Core equipment spans microscopes and biology apparatus, laboratory glassware and chemistry instruments, physics measurement apparatus, data-logging sensors, and shared safety equipment. IB schools can source cross-subject apparatus from the laboratory instruments range at Scientific Equipments.

    What science lab equipment do IB schools need?

    IB schools need equipment to deliver the IB Practical Scheme of Work — 40 hours at Standard Level and 60 hours at Higher Level — across biology, chemistry and physics. For biology, provide compound microscopes, prepared slides, dissection kits and anatomical models. For chemistry, provide borosilicate glassware, balances, pH meters and molecular model kits. For physics, provide measurement instruments, mechanics and optics apparatus, and electrical kits. Add data-logging sensors and shared safety equipment for all three. The IB does not mandate a fixed equipment list, so schools provision to cover the experiments in each subject guide. Source microscopes, glassware and general apparatus from the relevant categories at Scientific Equipments.

    What Science Lab Equipment Do IB Schools Need?

    Science lab equipment for IB schools is the apparatus and consumables required to deliver hands-on practical work in IB biology, chemistry and physics. Unlike some national boards, the IB does not issue a prescriptive equipment list; it requires that schools deliver a Practical Scheme of Work across the sciences, leaving the specific apparatus to the school. As a result, an IB school equips three subject laboratories — biology, chemistry and physics — plus shared resources such as balances, data loggers and safety equipment, sized to the number of students and the experiments in each IB subject guide.

    The IB practical requirement defines how much equipment an IB school needs. According to the IB Diploma Programme sciences guides (first assessment 2025), each science course includes a Practical Scheme of Work of 40 hours at Standard Level and 60 hours at Higher Level, which includes a 10-hour Collaborative Sciences Project and a 10-hour Scientific Investigation that forms the internally assessed component worth 20% of the grade (IB, verified June 2026). Equipping a lab to deliver these hours without bottlenecks is the central procurement task for an IB coordinator.

    IB practical componentSL hoursHL hoursNote
    Practical (lab) work20 hours40 hoursHands-on experiments across the course
    Collaborative Sciences Project10 hours10 hoursReplaces the former Group 4 project
    Scientific Investigation (IA)10 hours10 hoursInternally assessed, 20% of grade
    Total Practical Scheme of Work40 hours60 hoursEquipment must support these hours

    IB Practical-Hours Equipment Provisioning Rule (decision rule)

    The IB Practical-Hours Equipment Provisioning Rule is a procurement rule for sizing equipment to the IB Practical Scheme of Work. Provide one working apparatus set per two students for core experiments, so a class can complete the 40-hour (SL) or 60-hour (HL) scheme without queuing for shared instruments. For instruments that are expensive or used briefly — such as pH meters, balances and data loggers — provide one unit per four students. Size consumable glassware at 1.5 times the class set to allow for breakage during a two-year programme.

    Original rule by Scientific Equipments. Reviewer note – Arvind Kumar, Lab Equipment Specialist (12+ years): “For IB labs, the binding constraint is rarely the exotic instrument; it is having enough basic glassware and microscopes so a full class can work in pairs at once. Under-buying basics is what stalls the practical scheme.”

    Core Equipment for IB Biology, Chemistry and Physics

    The core equipment for IB science labs is grouped by the three IB sciences — biology, chemistry and physics — plus shared resources. The matrix below lists representative equipment with a priority rating: Essential (needed to run core practicals), Required (needed for full subject coverage), or Recommended (extends capability). Microscopes and biology apparatus, borosilicate glassware and chemistry instruments, and physics apparatus are available from the corresponding categories at Scientific Equipments; data-logging sensors are typically specified as a separate line item.

    SubjectEquipmentUse in IB practicalsPriority
    BiologyCompound microscope (40x-1000x)Cell, tissue and microbiology observationEssential
    BiologyPrepared slides and dissection kitMicroscopy and dissection practicalsRequired
    BiologyAnatomical and biology modelsStructure teaching and ESS topicsRecommended
    ChemistryBorosilicate 3.3 glassware setTitration, heating, reactionsEssential
    ChemistryElectronic balance (0.01 g)Mass measurement for quantitative workEssential
    ChemistrypH meter and molecular model kitsAcid-base and bonding practicalsRequired
    PhysicsMeasurement instruments (vernier, multimeter)Length, mass, electrical measurementEssential
    PhysicsMechanics, optics and electricity kitsCore physics investigationsRequired
    All sciencesData-logging sensors (temperature, pH, motion)Modern data capture in investigationsRecommended
    All sciencesSafety equipment (goggles, fume control, fire)Shared lab safetyEssential

    Most Essential Cross-Subject Equipment for an IB Lab (Ranked)

    The most essential cross-subject equipment for an IB lab is ranked below by how many IB practicals depend on it and how often it limits a class if under-supplied. The ranking guides provisioning priority for a school equipping IB science labs from scratch; price bands are indicative for the Indian market as of June 2026, inclusive of applicable GST, and IB schools pricing internationally should add applicable import duty.

    RankEquipmentWhy it ranks hereIndicative price (INR, incl. GST)
    1Compound microscopes (class set)Biology practicals stall without one per pair₹3,000 – ₹12,000 each
    2Borosilicate 3.3 glassware (class sets)Used in almost every chemistry practical₹15,000 – ₹60,000 per lab
    3Electronic balances (0.01 g)Quantitative work across chemistry and physics₹3,000 – ₹15,000 each
    4Measurement instruments (vernier, multimeter)Core to physics investigations₹300 – ₹3,000 each
    5Data-logging sensor setsEnable modern IB data capture and analysis₹8,000 – ₹30,000 per set

    Specifications to Check Before Buying

    Before buying science lab equipment for an IB school, verify numeric specifications and reference standards rather than catalogue descriptions. The specifications below are practical benchmarks for durable, accurate IB science equipment. Require the vendor to state each figure and reference standard in the quotation – for example borosilicate 3.3 glass to ISO 3585, electrical safety to IEC 61010-1, or laser class to IEC 60825-1 – so each item can be checked at acceptance.

    ItemSpecification to requireReference / why
    Compound microscope40x-1000x magnification; LED illuminationCell and microbiology observation
    GlasswareBorosilicate 3.3 (low expansion)ISO 3585 borosilicate glass 3.3
    Electronic balance200 g x 0.01 g readabilityQuantitative chemistry and physics
    pH meter0-14 pH, +/-0.01 resolution, calibratableAcid-base practicals; calibration buffers
    Vernier caliper0-150 mm, 0.02 mm resolutionPrecise length measurement
    Electrical apparatusStated voltage/current; earthingIEC 61010-1 electrical lab equipment safety
    Laser (optics)IEC 60825-1 Class 1 or Class 2 onlyEye safety in optics practicals
    Data logger / sensorStated range, resolution, units, interfaceReliable data for investigations

    Matching Equipment to IB Programme Level (PYP, MYP, DP SL, DP HL)

    Science lab equipment for IB schools should be matched to the IB programme level, because the practical demands rise from the Primary Years Programme (PYP) through the Middle Years Programme (MYP) to the Diploma Programme (DP). PYP science uses simple, safe inquiry materials. MYP science introduces structured laboratory apparatus. DP Standard Level and Higher Level require accurate instruments and data logging to deliver the 40-hour and 60-hour Practical Schemes of Work respectively. The table below maps each level to suitable equipment.

    IB levelPractical demandSuitable equipmentExample activity
    PYP (primary)Inquiry and observationHand lenses, simple kits, chartsObserving plants and materials
    MYP (middle years)Structured experimentsStudent microscopes, basic glassware, metersMicroscopy, simple titration
    DP Standard Level40-hour PSOWCompound microscopes, balances, sensorsQuantitative investigations
    DP Higher Level60-hour PSOWHigher-spec instruments, full sensor setsExtended scientific investigation

    Safety Requirements for IB Science Labs

    Safety requirements for IB science labs cover chemical handling, electrical safety, eye protection, heat and glassware, and waste disposal, because IB practical work involves chemicals, electricity, heat sources and glass across three subjects. IB schools should follow recognised laboratory safety practice and any local regulations, since the IB requires safe practical work but does not issue a separate safety equipment standard. The numbered rules below are the baseline; the table maps each hazard to its control. Electrical lab equipment safety is referenced under IEC 61010-1 and laser products under IEC 60825-1.

    1.  Provide safety goggles and lab coats for every student during chemistry and physics practicals.

    2.  Use a fume cupboard or adequate ventilation for reactions producing fumes or vapours.

    3.  Earth all electrical apparatus and use residual-current protection on laboratory circuits.

    4.  Use only IEC 60825-1 Class 1 or Class 2 lasers in optics practicals; never higher classes with students.

    5.  Provide eyewash, first-aid kit and a CO2 fire extinguisher in each laboratory.

    6.  Segregate and label chemical waste and dispose of it per local regulations.

    7.  Heat borosilicate 3.3 glassware only; never heat soda-glass or damaged glassware.

    HazardControl measureReference / norm
    Chemical exposureGoggles, gloves, fume ventilationLocal lab safety regulations
    Electric shockEarthing + residual-current protectionIEC 61010-1
    Laser eye injuryClass 1/Class 2 lasers onlyIEC 60825-1
    Glassware burns/breakageBorosilicate 3.3; inspect before heatingISO 3585
    FireCO2 extinguisher; clearance from flammablesLocal fire-safety norms

    Budget Guide: Equipping IB Science Labs

    Equipping IB science labs for biology, chemistry and physics typically costs between INR 8 lakh and INR 30 lakh for a three-subject suite serving a DP cohort, depending on class size, data-logging provision and Higher Level depth. The worked breakdown below is indicative for one lab per subject sized for a class of about 24 students. Figures are estimated from Indian market benchmarks as of June 2026, inclusive of applicable GST; verify current pricing before procurement, and IB schools buying internationally should add applicable import duty and freight.

    Lab / categoryKey itemsIndicative cost (INR, incl. GST)
    Biology labMicroscopes, slides, dissection kits, models₹2,00,000 – ₹7,00,000
    Chemistry labBorosilicate glassware, balances, pH meters, models₹2,50,000 – ₹8,00,000
    Physics labMechanics, optics, electricity, measurement apparatus₹2,00,000 – ₹7,00,000
    Data-logging sensorsShared sensor sets across three sciences₹1,00,000 – ₹4,00,000
    Safety & furnitureGoggles, fume control, fire safety, benches₹50,000 – ₹4,00,000
    Indicative three-lab total≈ ₹8,00,000 – ₹30,00,000

    Pre-Dispatch Inspection and Acceptance Checklist

    A pre-dispatch inspection and acceptance checklist protects an IB school from receiving incomplete, inaccurate or non-functional science equipment across three subject labs. Run these checks against the purchase order and agreed specification before accepting delivery and releasing payment. Each step should be signed off by the lab in-charge or IB science coordinator and recorded for audit.

    1.  Confirm every item, quantity and model number matches the purchase order across all three subject labs.

    2.  Check microscope magnification and illumination on a sample, and confirm clear focus at high power.

    3.  Verify glassware is borosilicate 3.3 and free of cracks, with correct volumes and tolerance markings.

    4.  Power on and calibrate a sample of balances, pH meters and data loggers against known references.

    5.  Test physics apparatus (electrical kits, optics) through one functional check each.

    6.  Confirm laser modules are marked IEC 60825-1 Class 1 or Class 2.

    7.  Check that consumables and spare parts match the quoted quantities, including the 1.5x glassware allowance.

    8.  Verify safety equipment (goggles, extinguisher charge date, eyewash) is present and in date.

    9.  Confirm calibration certificates and instruction manuals are supplied for instruments that need them.

    10.  Record serial numbers and warranty terms for every major instrument.

    11.  Log any shortfall or defect in writing and withhold acceptance of affected items until resolved.

    Vendor Evaluation Criteria

    Vendor evaluation for IB science lab equipment should weight specification compliance, range across all three sciences, and after-sales support above headline price, because an IB school needs a single dependable supply for biology, chemistry and physics. The weighted criteria below give a transparent scoring method for purchase and tender procurement. Apply the same weights to every supplier and record the scores.

    CriterionWeight (%)What to assess
    Specification compliance30%Exact match to required specs and standards
    Range across three sciences20%Single source for biology, chemistry, physics
    After-sales & calibration support20%Servicing, spares, calibration turnaround
    Export / international handling10%Documentation, packing, duty handling for IB schools abroad
    Price & total cost of ownership15%Bid price plus consumables and support
    Delivery & installation5%Lead time and installation scope

    Maintenance and Storage Guidelines

    Maintenance and storage for IB science lab equipment focus on protecting optics and instruments, keeping glassware intact, and calibrating measuring instruments so practical results stay reliable across the two-year Diploma Programme. A routine of cleaning, calibration and inventory keeps three subject labs ready for the Practical Scheme of Work. The guidelines below are grouped by equipment type.

    •  Microscopes: clean optics with lens tissue only; store covered and dust-free; check illumination regularly.

    •  Glassware: inspect for cracks before heating; store borosilicate 3.3 items separated to prevent chipping.

    •  Balances and pH meters: calibrate on a schedule with certified weights and buffer solutions; log calibration.

    •  Data loggers and sensors: update firmware, store sensors dry, and keep spare batteries and cables.

    •  Physics apparatus: check electrical leads and connectors; store optics kits padded against impact.

    •  Inventory: keep a per-lab register of instruments, consumables and the 1.5x glassware stock for re-ordering.

    Common Procurement Mistakes and How to Avoid Them

    Mistake 1: Under-buying basic glassware and microscopes

    Under-buying basic glassware and microscopes is the most common IB procurement mistake, because the Practical Scheme of Work stalls when a class cannot work in pairs. Apply the provisioning rule of one working set per two students and a 1.5x glassware allowance for breakage over the two-year programme.

    Mistake 2: Treating the IB like a fixed equipment list

    Treating the IB as if it issues a fixed equipment list leads to gaps, because the IB requires a Practical Scheme of Work but leaves equipment choice to the school. Provision against the experiments in each IB subject guide and the 40-hour (SL) and 60-hour (HL) practical hours, not against an assumed checklist.

    Mistake 3: Skipping data-logging capability

    Skipping data-logging sensors leaves IB students unable to capture and analyse data the way modern IB investigations expect. Budget for shared sensor sets – temperature, pH, motion – across the three sciences, even if specified as a separate line item from a different supplier.

    Mistake 4: Ignoring calibration and after-sales support

    Ignoring calibration and after-sales support means balances, pH meters and sensors drift out of accuracy mid-programme. Require calibration certificates at delivery and a stated servicing and spares commitment as a scored vendor criterion.

    Mistake 5: Overlooking laser and electrical safety classes

    Overlooking laser and electrical safety classes risks eye injury and shock in physics practicals. Specify only IEC 60825-1 Class 1 or Class 2 lasers and require IEC 61010-1 electrical safety for measuring and laboratory equipment, and verify the markings at acceptance.

    Related Guides and Categories

    No dedicated blog index was found on the Scientific Equipments website at the time of writing; the confirmed product categories below are the most relevant for equipping IB biology, chemistry and physics laboratories. Use these to browse microscopes, glassware and chemistry instruments, physics apparatus, biology models and general laboratory equipment.

    Microscopes – compound and student microscopes for IB biology

    Chemical Instrument – chemistry apparatus and glassware

    Physics Lab Equipments – mechanics, optics and electricity apparatus

    Laboratory Instrument and Equipment – balances, pH meters, colorimeters

    Biology Models – anatomical and biological models

    Lab General Instrument – stands, clamps, dissection and tools

    Frequently Asked Questions

    What science lab equipment is required for an IB school?

    An IB school requires equipment to deliver hands-on practical work in biology, chemistry and physics, sized to the IB Practical Scheme of Work of 40 hours at Standard Level and 60 hours at Higher Level. Core items are compound microscopes and dissection kits for biology, borosilicate glassware, balances and pH meters for chemistry, and measurement, optics and electricity apparatus for physics, plus data-logging sensors and safety equipment. The IB does not issue a fixed list, so schools provision against each subject guide. Browse cross-subject apparatus under laboratory instruments.

    Does the IB specify exactly which lab equipment schools must buy?

    No, the IB does not specify an exact mandatory lab equipment list; it requires schools to deliver a Practical Scheme of Work and leaves equipment choice to the school. According to the IB Diploma Programme sciences guides (first assessment 2025), each science includes 40 practical hours at Standard Level and 60 at Higher Level, including a Collaborative Sciences Project and a Scientific Investigation. Schools therefore equip to cover the experiments in each subject guide rather than to a checklist. Confirm current requirements at ibo.org before tender use.

    Are IB school science labs safe for students?

    IB school science labs are safe for students when chemical, electrical, laser and glassware hazards are properly controlled. Provide goggles and lab coats, fume ventilation for reactions, earthing and residual-current protection on electrical circuits, and only IEC 60825-1 Class 1 or Class 2 lasers in optics. Heat only borosilicate 3.3 glassware, keep eyewash and a CO2 extinguisher in each lab, and follow local laboratory safety regulations, since the IB requires safe practical work but does not issue its own equipment-safety standard.

    How much does it cost to equip IB science labs?

    Equipping IB biology, chemistry and physics labs typically costs INR 8 lakh to INR 30 lakh for a three-subject suite serving a Diploma Programme cohort, depending on class size and data-logging provision. Microscopes, glassware and balances are the largest recurring lines. These are estimates from market benchmarks as of June 2026, inclusive of applicable GST; IB schools buying internationally should add import duty and freight, and request bulk pricing through the bulk and tender supply route.

    How do I maintain IB lab instruments so they stay accurate?

    Maintain IB lab instruments by calibrating balances, pH meters and sensors on a schedule with certified weights and buffer solutions and logging each calibration. Clean microscope optics with lens tissue only and store instruments covered and dust-free. Inspect glassware for cracks before heating, update data-logger firmware, and keep spares of batteries, cables and common glassware. A per-lab inventory and calibration log keep three subject labs reliable across the two-year programme.

    What is the difference between IB and CBSE lab equipment requirements?

    The difference is that CBSE specifies practical syllabi and equipment expectations fairly prescriptively, while the IB sets a Practical Scheme of Work and lets schools choose equipment to cover it. In practice the core apparatus overlaps heavily – microscopes, glassware, balances and physics kits serve both – but IB labs place more emphasis on open investigation and data logging. A supplier serving both can equip an IB school from the same microscopes and chemistry instruments ranges used for other boards.

    Key Takeaways

    1.  Science lab equipment for IB schools must cover hands-on practical work in biology, chemistry and physics, sized to the IB Practical Scheme of Work rather than to a fixed equipment list.

    2.  The IB Diploma Programme sciences guides (first assessment 2025) require 40 practical hours at Standard Level and 60 at Higher Level, including a Collaborative Sciences Project and a Scientific Investigation worth 20% (IB, verified June 2026).

    3.  Apply the IB Practical-Hours Equipment Provisioning Rule – one working set per two students, one shared instrument per four, and 1.5x glassware for breakage – to avoid practical bottlenecks.

    4.  Core cross-subject essentials are compound microscopes, borosilicate 3.3 glassware, 0.01 g balances, measurement instruments and data-logging sensors, available from the laboratory instruments and microscopes ranges.

    5.  Budget roughly INR 8 lakh to INR 30 lakh to equip three IB subject labs for a cohort, inclusive of GST as of June 2026, adding import duty for international IB schools.

    6.  Protect the purchase with specifications tied to standards (ISO 3585 glass, IEC 61010-1 electrical, IEC 60825-1 laser), a pre-dispatch acceptance check, and vendor scoring that prioritises support and calibration.

    About Scientific Equipments

    Scientific Equipments, headquartered in India, manufactures and supplies scientific and educational laboratory equipment to schools, colleges, universities and institutional buyers, with regular bulk exports to over 56 countries worldwide. The company’s range spans microscopes, biology and human physiology models, chemistry instruments and borosilicate glassware, physics laboratory equipment, molecular structure models, and general laboratory instruments – covering the biology, chemistry and physics needs of IB schools from a single source. Scientific Equipments serves institutional, public-sector and tender-based procurement, including OEM and bulk supply for international schools. For bulk supply and tender documentation, use the procurement and contact channels below.

    Home

    Microscopes

    Chemical Instrument

    Physics Lab Equipments

    Laboratory Instrument and Equipment

    Biology Models

    Tenders / OEM

    Contact / Procurement

  • Working and Static Science Models for School Exhibitions: Sourcing and Buying Guide

    Working and static science models for school exhibitions are two categories of teaching aids used to demonstrate scientific principles at events such as the school science fair or the NCERT national science exhibition. A working science model has moving or functioning parts that demonstrate a principle in action — for example a Stirling engine, a water-electrolysis apparatus or a Crookes radiometer. A static science model is a fixed, non-moving representation used to show structure or relationships — for example a human skeleton, a molecular structure set or a globe. Schools sourcing exhibition models can draw working demonstration models from the Education Toys range and static anatomical models from the Biology Models range at Scientific Equipments.

    What are the best working science models for a school exhibition?

    The best working science models for a school exhibition are ones that demonstrate a clear principle, run reliably in front of a crowd, and are safe for students to operate. Reliable, high-impact choices include the Stirling engine model (heat-to-motion), a water-electrolysis apparatus (splitting water into hydrogen and oxygen), and a Crookes radiometer (light-to-motion). Pair one or two working models with a static model — such as a human skeleton or a molecular structure set — to cover both demonstration and structure. For an Indian school exhibition, budget roughly INR 500 to INR 25,000 per model depending on type, and verify build quality and safety before buying. Working demonstration models are listed under Education Toys; static anatomical models under Human Physiology Models.

    What Are Working and Static Science Models?

    Working and static science models are the two model types used in school science exhibitions, and they serve different teaching purposes. A working science model demonstrates a process in motion — energy conversion, chemical reaction, mechanical movement — and holds an audience because something visibly happens. A static science model demonstrates structure, scale or classification and is valued for accuracy and detail rather than movement. Most strong exhibition entries combine the two: a working model to attract attention and a static model or chart to explain the underlying structure.

    School science exhibitions in India are a long-established, curriculum-linked activity. The National Council of Educational Research and Training (NCERT) has organised a national science exhibition for children since 1971, open to classes VI to XII, and from 2022 it is named the Rashtriya Bal Vaigyanik Pradarshani (RBVP), earlier the Jawaharlal Nehru National Science, Mathematics and Environment Exhibition (NCERT, verified June 2026). The exhibition runs in two phases — district and state level, then a national exhibition — and each year follows a notified theme, reflecting the experiential-learning emphasis of NEP 2020.

    Working vs Static Model Selection Rule (decision rule)

    The Working vs Static Model Selection Rule is a simple decision rule for choosing the right model type for an exhibition entry. Choose a working model when the goal is to demonstrate a process or cause-and-effect (how a heat engine turns, how water splits into gases). Choose a static model when the goal is to show structure, anatomy or scale (the bones of the body, the shape of a molecule, the layout of the continents). For a competitive entry, follow the 1+1 rule: pair one working model with one static model or labelled chart, so the entry both attracts attention and explains the science.

    Core Models and Products for a School Science Exhibition

    The core models for a school science exhibition span physics demonstrations, chemistry reactions, biology structure, and earth and space science. The table below lists common working and static models with a priority rating — Essential (a versatile, high-impact pick most exhibitions need), Required (strong subject-specific choice), or Recommended (adds breadth). Working demonstration models such as the Stirling engine and Crookes radiometer are listed under Education Toys; static models such as skeletons and molecular sets sit under Human Physiology Models and Molecular Structure Models at Scientific Equipments.

    ModelTypePrinciple demonstratedPriority
    Stirling engine modelWorkingHeat energy converted to mechanical motionEssential
    Water-electrolysis apparatusWorkingElectrical splitting of water into hydrogen and oxygenEssential
    Crookes radiometerWorkingLight/radiant energy producing motionRecommended
    Human skeleton modelStaticHuman skeletal structure and bone namesEssential
    Human organ / torso modelStaticInternal organ position and structureRequired
    Molecular structure setStaticAtomic bonding and molecular geometryRequired
    Working volcano / chemical reaction modelWorkingExothermic reaction and gas releaseRecommended
    Solar system / orrery modelStatic / WorkingPlanetary order and orbital motionRecommended
    Globe (political/physical)StaticEarth geography, latitude and longitudeRequired

    Best Working Science Models for a School Exhibition (Ranked)

    The best working science models for a school exhibition are ranked below by demonstration impact, reliability in front of an audience, and ease of safe operation. The ranking is a guide for selection, not a quality claim about any single product; choose by the principle you want to show and the student level operating it. Price bands are indicative for the Indian market as of June 2026, inclusive of applicable GST.

    RankWorking modelBest forIndicative price (INR, incl. GST)Why it ranks here
    1Stirling engine modelPhysics — energy conversion₹1,500 – ₹6,000Runs continuously, visually clear, robust
    2Water-electrolysis apparatusChemistry — electrolysis₹1,000 – ₹4,000Clear gas evolution, links to a core syllabus topic
    3Working hydraulic / pneumatic modelPhysics — fluid pressure₹500 – ₹2,500Low cost, easy to build and explain
    4Crookes radiometerPhysics — radiant energy₹600 – ₹2,000Eye-catching, no power needed, but light-dependent
    5Working electric motor / generator modelPhysics — electromagnetism₹800 – ₹3,500Demonstrates a high-value principle; needs careful wiring

    Exhibition Model Scorecard (original selection tool)

    The Exhibition Model Scorecard is a five-criterion tool for ranking candidate models before buying or building, modelled on the assessment areas used in NCERT science exhibitions. Score each candidate model out of 5 on each criterion; a total of 20 or more out of 25 indicates a strong exhibition entry. The criteria are originality of idea, scientific principle/thought, technical skill and workmanship, social or everyday relevance, and clarity of presentation.

    CriterionWhat it measuresScore (out of 5)
    Originality of ideaIs the concept fresh or a routine repeat?__ / 5
    Scientific principle / thoughtIs the underlying science correct and clear?__ / 5
    Technical skill / workmanshipIs the model well built and reliable?__ / 5
    Social / everyday relevanceDoes it connect to real-life problems?__ / 5
    Clarity of presentationCan students explain it simply?__ / 5
    TotalStrong entry ≥ 20 / 25__ / 25

    Original tool by Scientific Equipments, adapted from NCERT exhibition assessment areas. Reviewer note — Arvind Kumar, Lab Equipment Specialist (12+ years): “A working model that runs reliably for a full day of judging beats a clever model that stalls; in exhibitions, dependability scores higher than complexity.”

    Quality Specifications to Check Before Buying

    Before buying science models for an exhibition, check material, finish, accuracy and operating requirements rather than the catalogue photo alone. The quality benchmarks below help compare models across vendors. For working models, confirm the power or fuel source and whether it runs continuously; for static models, confirm material, scale and labelling accuracy. Ask the vendor to state each specification in the quotation so it can be checked at delivery.

    CheckWhat to requireWhy it matters
    Material (static models)Durable PVC/ABS or fibre, not brittle thermocolSurvives transport and repeated handling
    Anatomical accuracyCorrect proportions; labelled or numbered partsAvoids teaching errors and judge deductions
    Working mechanismStated power/fuel source; continuous-run capabilityConfirms the model actually works on the day
    Finish & assemblyNo sharp edges; secure joints; stable baseSafety and a professional appearance
    Scale / sizeStated dimensions (e.g. 85 cm skeleton)Visibility from a distance at a stall
    Power requirementVoltage/battery type for electrical modelsPlan power supply at the venue
    DocumentationInstruction/working-principle sheet includedHelps students explain the model to judges
    PackagingProtective, reusable packaging for transportPrevents damage in transit to the venue

    Matching Science Models to Student Level

    Science models for an exhibition should be matched to student level so the student can build, operate and explain the model confidently. For Class 6–8, choose simple, safe, single-principle models. For Class 9–10, choose models that link to syllabus topics and involve some assembly. For Class 11–12 and college, choose models that demonstrate a measurable or quantifiable principle. The NCERT exhibition is open to classes VI to XII, so a school may need models across all levels (NCERT, verified June 2026).

    Student levelSuitable model complexityWorking exampleStatic example
    Class 6–8Simple, single-principle, no mains powerHydraulic lift, simple pulleySolar system model, globe
    Class 9–10Syllabus-linked, some assemblyWater electrolysis, electric motorHuman skeleton, molecular set
    Class 11–12Quantifiable / measurable principleStirling engine, generator modelDetailed organ/DNA model
    College / UniversityProject-grade, data-producingSensor-based working modelSectional anatomical model

    Safety Requirements for Exhibition Science Models

    Safety requirements for exhibition science models focus on electrical models, heat or flame, chemicals, and moving parts, because exhibitions place students and visitors close to operating models for long periods. Schools should require low-voltage operation where possible, supervised use of any flame or chemical, guarded moving parts, and stable mounting. The numbered rules below are the baseline; the table maps each hazard to its control. Electrical safety of measuring and laboratory equipment is referenced under IEC 61010-1.

    1.  Prefer battery or low-voltage operation for working electrical models; avoid exposed mains wiring at a student stall.

    2.  Supervise any model using a flame, hot surface or heat source, and keep it away from paper backdrops and curtains.

    3.  Restrict chemical-reaction models to safe, non-toxic reactions and provide gloves and eye protection where needed.

    4.  Guard moving parts (gears, flywheels) so fingers cannot be caught during continuous running.

    5.  Mount every model on a stable, non-tip base appropriate to its height and weight.

    6.  Keep a first-aid kit and a CO2 fire extinguisher accessible at the exhibition venue.

    HazardControl measureReference / norm
    Electric shockBattery/low-voltage operation; no exposed mainsIEC 61010-1 (electrical lab equipment safety)
    Burns / fireSupervision; clearance from flammablesSchool safety policy
    Chemical exposureNon-toxic reactions; gloves and gogglesSchool safety policy
    Moving-part injuryGuards over gears and flywheelsManufacturer guidance
    Tipping / falling modelStable weighted baseManufacturer guidance

    Budget Guide: Cost of Models for a School Exhibition

    The cost of models for a school exhibition in India typically ranges from INR 500 for a simple working model to INR 25,000 for a detailed static anatomical model. A school equipping a full exhibition stall with a mix of working and static models usually spends between INR 15,000 and INR 60,000 depending on the number and quality of models. Figures are estimated from Indian market benchmarks as of June 2026, inclusive of applicable GST; verify current pricing before procurement, and request bulk pricing for multiple stalls.

    Model categoryTypical unit cost (INR, incl. GST)Notes
    Simple working model (hydraulic, pulley)₹500 – ₹2,500Often partly student-built
    Stirling engine model₹1,500 – ₹6,000Reusable across years
    Water-electrolysis apparatus₹1,000 – ₹4,000Consumes electrodes/solution over time
    Crookes radiometer₹600 – ₹2,000Glass — handle and store with care
    Human skeleton model (85 cm)₹3,000 – ₹9,000Durable, multi-year teaching aid
    Molecular structure set₹800 – ₹3,500Reusable for many demonstrations
    Detailed organ / torso model₹5,000 – ₹25,000Higher cost for sectional detail
    Full mixed exhibition stall₹15,000 – ₹60,000Mix of working + static models

    Pre-Dispatch Inspection and Acceptance Checklist

    A pre-dispatch inspection and acceptance checklist protects a school from receiving damaged, inaccurate or non-working exhibition models. Run these checks against the purchase order and agreed specification before accepting delivery and releasing payment. Each step should be signed off by the science coordinator or lab in-charge and recorded.

    1.  Confirm every model, quantity and model number matches the purchase order and quotation.

    2.  Inspect each model for transit damage — cracks, broken parts, loose joints — before signing for delivery.

    3.  Operate every working model through one full cycle to confirm it functions as described.

    4.  Check static models for anatomical or structural accuracy and that all labelled parts are present.

    5.  Confirm working models include the stated power source, fuel or accessories needed to run them.

    6.  Verify each model has a stable base and no sharp edges or exposed wiring.

    7.  Confirm instruction or working-principle sheets are included for each model.

    8.  Check that packaging is intact and reusable for transport to the exhibition venue.

    9.  Record any defect or shortfall in writing and withhold acceptance of affected items until resolved.

    10.  Log warranty terms and the supplier contact for replacements before the exhibition date.

    Vendor Evaluation Criteria

    Vendor evaluation for school exhibition models should weight quality, accuracy and reliable delivery before the exhibition date above headline price, because a model that arrives late or fails on the day cannot be replaced in time. The weighted criteria below give a transparent scoring method for purchase and GeM procurement. Apply the same weights to every supplier and record the scores.

    CriterionWeight (%)What to assess
    Build quality & accuracy30%Durable materials, correct scale, working reliability
    On-time delivery before exhibition25%Committed lead time and dispatch record
    Range & curriculum fit15%Models spanning classes VI–XII and subjects
    After-sales / replacement support15%Fast replacement of damaged or faulty models
    Price & bulk discount10%Unit price and multi-stall bulk pricing
    Packaging for safe transport5%Protective, reusable packaging

    Maintenance and Storage Guidelines

    Maintenance and storage for science models focus on protecting moving parts, glass and painted finishes so models survive for several exhibition cycles. A routine of cleaning, safe storage and a simple inventory keeps both working and static models usable year after year. The guidelines below are grouped by model type.

    •  Working mechanical models (Stirling engine, motors): clean and lightly lubricate moving parts; check fasteners before each use.

    •  Glass models (Crookes radiometer): store padded and upright; keep away from edges and direct impact.

    •  Electrical/working models: store batteries separately; check wiring and connections before each exhibition.

    •  Static anatomical models: dust regularly; store assembled on a shelf or in a padded case to protect small parts.

    •  Molecular sets and small parts: keep a counted inventory in compartment boxes to prevent loss.

    •  All models: store in a dry, dust-free cabinet away from direct sunlight to protect finishes.

    Common Procurement Mistakes and How to Avoid Them

    Mistake 1: Buying a model that does not run reliably

    Buying a working model that does not run reliably is the most common exhibition mistake, because a stalled model loses the audience and judges. Test every working model through a full cycle at acceptance, and prefer designs that run continuously without constant intervention.

    Mistake 2: Choosing fragile thermocol over durable materials

    Choosing fragile thermocol or thin card over durable PVC, ABS or fibre means models break in transit or after one use. Specify durable materials for any model that will be reused or transported, and reserve low-cost materials for single-use student builds.

    Mistake 3: Ignoring accuracy in static models

    Ignoring anatomical or structural accuracy in static models teaches errors and loses marks with judges. Require correct proportions and labelled parts, and check accuracy against the syllabus at acceptance, especially for skeleton, organ and molecular models.

    Mistake 4: Ordering too late for the exhibition date

    Ordering too late for the exhibition date leaves no time to replace damaged or wrong models. Place orders well ahead of the exhibition, confirm the dispatch date in writing, and weight on-time delivery heavily in vendor selection.

    Mistake 5: Overlooking safety of electrical and chemical models

    Overlooking the safety of electrical and chemical working models risks shocks, burns or exposure at a crowded stall. Prefer low-voltage operation, guard moving parts, restrict chemicals to safe reactions, and supervise any flame or heat source throughout the event.

    Related Guides and Categories

    No dedicated blog index was found on the Scientific Equipments website at the time of writing; the confirmed product categories below are the most relevant for sourcing working and static science models for an exhibition. Use these to browse working demonstration models, static anatomical and molecular models, and geography and physics aids.

    Education Toys — working demonstration and STEM models

    Stirling Engine Model — heat-to-motion working model

    Human Physiology Models — skeletons and organ models

    Biology Models — static biological models

    Molecular Structure Models — chemistry model sets

    Geography Instruments — globes and earth-science models

    Frequently Asked Questions

    Which working science model is best for a school exhibition?

    The Stirling engine model is one of the most reliable working models for a school exhibition because it runs continuously and clearly shows heat being converted into motion. Other strong choices are a water-electrolysis apparatus, which links directly to the chemistry syllabus, and a simple hydraulic model for younger classes. Choose by the principle you want to demonstrate and the level of the student operating it, and always test the model through a full cycle before the event. Working demonstration models are listed under the Education Toys range.

    What is the difference between a working model and a static model?

    A working model has moving or functioning parts that demonstrate a process in action, while a static model is a fixed representation that shows structure or scale. A Stirling engine or water-electrolysis apparatus is a working model; a human skeleton or molecular structure set is a static model. Working models attract attention by doing something; static models explain structure accurately. A strong exhibition entry usually pairs one working model with one static model or labelled chart.

    Are working science models safe for school students to operate?

    Working science models are safe for school students when electrical, heat, chemical and moving-part hazards are controlled. Prefer battery or low-voltage operation, guard moving gears and flywheels, restrict chemical models to safe non-toxic reactions, and supervise any flame or heat source. Mount every model on a stable base and keep a first-aid kit and CO2 extinguisher at the venue. Electrical safety of laboratory equipment is referenced under IEC 61010-1.

    How much do science exhibition models cost in India?

    Science exhibition models in India typically cost from INR 500 for a simple working model to INR 25,000 for a detailed static anatomical model. A full exhibition stall mixing working and static models usually costs INR 15,000 to INR 60,000. These are estimates from market benchmarks as of June 2026, inclusive of applicable GST; verify current pricing and request bulk discounts for multiple stalls through the bulk and tender supply route.

    How do I maintain and store science models so they last several years?

    Maintain science models by cleaning and lightly lubricating moving parts, storing glass models padded and upright, and keeping static models dust-free in a dry cabinet away from sunlight. Store batteries separately from electrical models and check wiring before each exhibition. Keep a counted inventory of molecular sets and small parts in compartment boxes so nothing is lost. With this routine, durable working and static models last for several exhibition cycles.

    What does NCERT require for a school science exhibition entry?

    NCERT organises a national science exhibition for children, open to classes VI to XII, in which entries are selected on a notified criterion covering originality, scientific principle, technical skill, social relevance and presentation. Models are first shown at district and state level and the best progress to the national exhibition, now named the Rashtriya Bal Vaigyanik Pradarshani (RBVP). Each year follows a notified theme, so confirm the current year’s theme and guidelines at ncert.nic.in before finalising an entry.

    Key Takeaways

    1.  Working science models demonstrate a process in motion, while static science models show structure or scale; a strong exhibition entry pairs one of each using the 1+1 rule.

    2.  Reliable, high-impact working models for a school exhibition include the Stirling engine, a water-electrolysis apparatus and a Crookes radiometer, available in the Education Toys range.

    3.  NCERT has organised a national science exhibition for children since 1971 for classes VI–XII, now named the Rashtriya Bal Vaigyanik Pradarshani (NCERT, verified June 2026), so schools need models across multiple class levels.

    4.  Use the Exhibition Model Scorecard — originality, scientific principle, technical skill, social relevance and presentation — and treat a total of 20 or more out of 25 as a strong entry.

    5.  Budget roughly INR 500 to INR 25,000 per model and INR 15,000 to INR 60,000 for a full mixed stall, inclusive of GST as of June 2026, and request bulk pricing for multiple stalls.

    6.  Protect the purchase with a pre-dispatch acceptance check, durable-material specifications and weighted vendor scoring that prioritises build quality and on-time delivery before the exhibition date.

    About Scientific Equipments

    Scientific Equipments, headquartered in India, manufactures and supplies scientific and educational laboratory equipment and teaching models to schools, colleges, universities and institutional buyers, with regular bulk exports to over 56 countries worldwide. The company’s range spans working demonstration models and educational toys, human physiology and biology models, molecular structure sets, physics and geography instruments, and general laboratory equipment. Scientific Equipments serves institutional, public-sector and tender-based procurement, including OEM and bulk supply for school science exhibitions. For bulk supply and tender documentation, use the procurement and contact channels below.

    Home

    Education Toys

    Human Physiology Models

    Biology Models

    Molecular Structure Models

    Geography Instruments

    Tenders / OEM

    Contact / Procurement

  • How Much Space Do You Need for a School Science Lab? Area and Capacity Planning Guide

    School science lab space planning is the process of calculating the floor area, room dimensions and zoning a science laboratory needs to seat a given number of students safely while leaving room for practical work, demonstration, storage and circulation. In India, the binding reference is the CBSE Affiliation Bye-Laws, which set a minimum science laboratory size of 9 m x 6 m, or 54 square metres (approximately 600 square feet), per lab. Space planning converts that statutory floor into a real room: it fixes how many students a lab can hold, how wide the aisles must be, and how much area to reserve before any lab equipment, furniture or services are installed.

    How much space is needed for a school science lab per student?A school science lab needs roughly 1.8 to 3.3 square metres of net floor area per student. The CBSE statutory minimum works out to about 1.8 sq m (20 sq ft) per student, derived from a 54 sq m (9 m x 6 m) lab holding 30 students; 2.3 sq m (25 sq ft) per student is a comfortable working figure, and 2.8 to 3.3 sq m (30 to 35 sq ft) per student matches international secondary-school guidance. As a planning rule, a lab for 30 students should be 54 sq m at the CBSE minimum and 70 to 85 sq m for comfortable practical work, plus a separate 10 to 15 sq m preparation and storage room. Size the room before specifying laboratory glassware, furniture or safety protective wear, because air-volume and egress rules can demand more floor area than the bare minimum.

    What Is School Science Lab Space Planning?

    School science lab space planning is the discipline of sizing and zoning a laboratory room so it meets regulatory minimums, seats the intended class safely, and supports hands-on practical work. It answers four questions before construction or fit-out begins: how large the room must be, how many students it can hold, how the floor area is divided between benches, demonstration, circulation and storage, and what clearances are required for safety and ventilation. Getting this wrong is expensive to fix: undersized labs fail CBSE inspection, force teachers to split practical classes, and cannot be expanded without civil work.

    Space planning is distinct from equipment selection. A room can be correctly sized and still be unusable if benches, services and storage are added without a layout; equally, the best general lab equipment cannot compensate for a room that is too small to circulate safely. The sequence that avoids rework is: fix the student capacity, derive the floor area, lay out the zones, then specify furniture and apparatus to fit.

    How Much Space Does a School Science Lab Need Per Student?

    A school science lab needs between 1.8 and 3.3 square metres of net floor area per student, depending on whether you plan to the regulatory minimum or to a comfortable working standard. The figures below form the Scientific Equipments Per-Student Area Benchmark, a planning rule derived from published norms. The CBSE minimum tier is calculated from the CBSE Affiliation Bye-Laws, under which a 9 m x 6 m (54 sq m) lab is expected to accommodate at least 30 students excluding the teacher and lab assistant, giving about 1.8 sq m per student. The international tier is derived from the UK Department for Education Building Bulletin 80, which recommended 83 to 99 sq m for a group of 30 secondary pupils.

    Planning TierNet Floor Area Per StudentLab Area for 30 StudentsBasis / Source
    CBSE statutory minimum1.8 sq m (approx. 20 sq ft)54 sq m (9 m x 6 m)CBSE Affiliation Bye-Laws 2018, minimum lab size, verified June 2026
    Comfortable working tier2.3 sq m (approx. 25 sq ft)69-75 sq m + prep roomPractical planning benchmark for full-class practicals
    International best practice2.8-3.3 sq m (approx. 30-35 sq ft)83-99 sq mUK DfE Building Bulletin 80 (archived), 30 pupils KS3/KS4
    Air-volume constraintapprox. 3.7 sq m at 3.0 m ceilingapprox. 110 sq m equivalentHSE / ASE guidance: minimum 11 cubic metres of air per person

    Caption: Per-student net floor area for a school science lab across regulatory minimum, comfortable working and international tiers. The air-volume rule (11 cubic metres per person) can be the binding constraint at low ceiling heights and is easy to overlook.

    A worked capacity example shows why the minimum is rarely enough. For 30 students at the comfortable tier of 2.3 sq m each, the practical zone alone is 69 sq m; add a demonstration zone of about 6 sq m and the room reaches roughly 75 sq m, well above the 54 sq m CBSE floor. The simple planning formula is: minimum lab area (sq m) = (number of students x per-student factor) + demonstration zone (about 6 sq m), with a separate preparation and storage room of 10 to 15 sq m. Always cross-check against the air-volume rule, because at a 3.0 m ceiling, 11 cubic metres per person implies about 3.7 sq m of floor per person, which can exceed the area-based figure.

    Class SizeCBSE Minimum (1.8 sq m/student)Comfortable (2.3 sq m/student)International (3.0 sq m/student)
    20 students54 sq m (room minimum applies)54 sq m (room minimum applies)60 sq m
    30 students54 sq m69 sq m90 sq m
    40 students72 sq m92 sq m120 sq m

    Caption: Required net lab floor area by class size and planning tier. The CBSE room minimum of 54 sq m (9 m x 6 m) always applies even for small classes; figures exclude the separate preparation and storage room.

    Science Lab Space Requirements by Student Level

    Science lab space requirements rise with student level because senior practicals use more apparatus, more services and, under CBSE rules, separate subject laboratories. CBSE requires a composite science lab at secondary level and separate Physics, Chemistry and Biology laboratories at senior secondary level, each meeting the 9 m x 6 m (54 sq m) minimum. The table below maps typical room sizes to level for a class of about 30 students.

    Student LevelLab Type RequiredRecommended Room Area (30 students)Planning Notes
    Class 6-8 (middle)Composite / activity science room50-60 sq mLower-hazard work; flexible, movable benching suits varied activities
    Class 9-10 (secondary)Composite science laboratory54 sq m minimum; 60-70 sq m recommendedCBSE composite lab; fixed services for basic chemistry and physics
    Class 11-12 (senior secondary)Separate Physics, Chemistry and Biology labs54 sq m minimum each; 70-85 sq m recommended eachCBSE requires three separate labs; Chemistry needs fume extraction
    College / University (UG)Subject labs plus dedicated prep rooms2.3-3.3 sq m per student plus prep + storageHigher equipment density; instrument and balance rooms add area

    Caption: Recommended science laboratory room area by student level for a class of about 30, aligned to CBSE separate-lab rules at senior secondary level. Curriculum requirements verified June 2026; confirm the current edition before citing in tender documents.

    CBSE FacilityMinimum SizeApproximate AreaNote
    Classroom8 m x 6 mapprox. 500 sq ft (46 sq m)One room per class
    Science laboratory9 m x 6 m eachapprox. 600 sq ft (54 sq m)Separate Physics, Chemistry, Biology at senior secondary
    Library14 m x 8 mapprox. 112 sq mWith reading-room facility
    Floor space per studentminimum 1 sq mper child in classroomOptimum 40 students per section

    Caption: CBSE Affiliation Bye-Laws infrastructure size norms at a glance, per the CBSE infrastructure requirements page, verified June 2026. Confirm the current bye-laws edition before using in affiliation or tender documents.

    Key Dimensions and Clearances to Check Before Building

    Before construction, verify the room dimensions and internal clearances that determine whether a science lab is usable and safe, not just the total floor area. Total area can meet the minimum while a narrow or oddly shaped room still fails in practice because aisles are too tight for safe evacuation or benches are spaced too closely for students to pass behind seated peers. The specifications below are planning benchmarks; the room size and air-volume figures are sourced, while bench and aisle clearances are recommended working values for school laboratories.

    ParameterRecommended SpecificationReference / Basis
    Minimum room dimensions9 m x 6 m (54 sq m) per labCBSE Affiliation Bye-Laws 2018
    Net floor area per student1.8-3.3 sq mCBSE minimum to BB80 best practice
    Ceiling height3.0-3.6 mSupports air volume and ventilation
    Air volume per personminimum 11 cubic metresHSE / ASE general guidance
    Main aisle / circulation widthminimum 1.0-1.2 mPlanning benchmark for safe egress
    Clear gap between parallel benchesminimum 1.2-1.5 mPlanning benchmark, students seated back-to-back
    Working bench length per student0.6-0.9 m linearPlanning benchmark for practical work
    Number of exitsminimum 2 for full-size labsEgress planning benchmark
    Fume cupboard frontal clearanceminimum 1.0 m clearOperator safety planning benchmark

    Caption: Dimensional and clearance benchmarks for a school science laboratory. Room size and air volume are sourced norms; bench, aisle and exit figures are recommended planning values that should be reconciled with the National Building Code of India and local fire rules before construction.

    How to Allocate Lab Area: Zones Every Science Lab Needs

    A school science lab divides into functional zones, and the total floor area must be split so each zone is large enough to work. The student practical zone is the largest, but circulation, demonstration, storage and a wash area each claim a fixed share. Planning these zones up front prevents the common failure of a room that is technically the right size but has no usable storage or no safe walkway. The table below shows the standard zones, their indicative share of lab area, and their planning priority.

    Lab ZoneFunctionIndicative Share of Lab AreaPriority
    Student practical benchesHands-on experiments and seated work50-60%Essential
    Teacher demonstration / front zoneInstruction and demonstrations8-12%Essential
    Circulation / aislesSafe movement and emergency egress15-20%Essential
    Wash and sink areaCleaning glassware, water access5-8%Required
    Preparation room (adjacent)Reagent prep, equipment stagingSeparate 10-15 sq mRequired
    Storage (apparatus and chemicals)Secure, ventilated storage8-12% or separate roomRequired
    Safety zoneEyewash, fire extinguisher, first-aidDedicated reachable pointsEssential

    Caption: Functional zones of a school science laboratory with indicative area shares and priority. Chemical storage and reagent preparation are best located in a separate adjacent room rather than inside the student practical zone.

    The preparation and storage zones are where most schools under-plan. A separate 10 to 15 square metre preparation room keeps reagents, balances and staged apparatus out of the student zone, and a ventilated store protects chemicals and the general lab equipment inventory between classes. Reserve these areas before specifying laboratory glassware sets, measuring cylinders and consumables, because storage capacity drives how much apparatus a lab can actually hold.

    Safety Requirements That Affect Lab Space

    Safety rules set hard limits on how densely a science lab can be occupied and how its area must be arranged. Air volume, clear egress and accessible emergency equipment are the three space drivers that most often force a larger room than the area-per-student minimum would suggest. The following requirements should be confirmed during design, not added afterward.

    1.  Provide at least 11 cubic metres of air volume per person; at a 3.0 m ceiling this implies roughly 3.7 sq m of floor per occupant, per HSE and ASE guidance.

    2.  Keep at least two independent exits for a full-size laboratory, with doors opening in the direction of escape and aisles kept clear.

    3.  Maintain a clear main circulation aisle of at least 1.0 to 1.2 m so a full class can evacuate without obstruction.

    4.  Locate eyewash and emergency wash facilities within reach of chemical work areas, with clear floor space in front of them.

    5.  Reserve clear frontal space of at least 1.0 m in front of any fume cupboard so it operates safely and is not blocked by furniture.

    6.  Site chemical storage in a separate ventilated room, not within the student practical zone, to reduce exposure and fire load.

    Egress, ventilation and emergency-equipment access should be reconciled with the National Building Code of India and local fire-safety rules. Personal protection is the final layer: budget for safety protective wear such as goggles, aprons and gloves as part of commissioning, and store it where students collect it before entering the practical zone.

    Budget Guide: Cost to Build and Fit Out a Lab for 30 Students

    The cost to build and fit out a 54 square metre (600 square foot) science lab for 30 students separates into civil and fit-out work, fixed laboratory furniture and services, safety equipment, and apparatus. The indicative ranges below help set a budget envelope; they are not quotations. Costs vary widely by city, finish level, services density and whether the room is new construction or a conversion.

    Cost ComponentScopeIndicative Range (INR)
    Civil / interior fit-outFlooring, finishes, painting for ~54 sq m1,80,000 – 4,50,000
    Laboratory work benchesAcid-resistant tops, frames for ~30 stations2,50,000 – 6,00,000
    Services (electrical, water, gas)Points, plumbing, gas line where required1,00,000 – 3,00,000
    Fume cupboard / extractionChemistry lab, one unit1,20,000 – 3,50,000
    Storage and prep-room furnitureCabinets, chemical store, prep bench80,000 – 2,00,000
    Safety equipmentEyewash, extinguishers, first-aid, PPE stock40,000 – 1,20,000
    Apparatus and glassware (starter)Basic glassware, instruments, consumables1,50,000 – 4,00,000

    Caption: Indicative cost components for building and equipping a 54 sq m school science lab for 30 students. Estimated from market benchmarks as of June 2026, inclusive of applicable GST; verify current pricing before procurement.

    Pre-Handover Inspection and Acceptance Checklist

    Use this checklist to verify a science lab room is ready before equipment is installed and the room is accepted from the contractor. Each step is a pass/fail check a school owner, architect or lab in-charge can run on site.

    1.  Confirm the finished internal room area meets or exceeds 54 sq m (9 m x 6 m minimum) and matches the approved drawing.

    2.  Measure the net floor area per student against the planned tier (1.8 to 3.3 sq m) for the intended class size.

    3.  Verify ceiling height is 3.0 to 3.6 m and the room delivers at least 11 cubic metres of air per planned occupant.

    4.  Check the main aisle is at least 1.0 to 1.2 m wide and that two clear exits are provided.

    5.  Confirm bench spacing leaves at least 1.2 to 1.5 m between parallel rows for seated students.

    6.  Test electrical points, earthing, water supply and drainage at every planned station.

    7.  Verify the fume cupboard runs and has at least 1.0 m of clear frontal space.

    8.  Confirm eyewash, fire extinguisher and first-aid points are installed, reachable and unobstructed.

    9.  Check the separate preparation and storage room is built, ventilated and lockable.

    10.  Photograph and log any defects, and obtain written sign-off against the approved specification before acceptance.

    Vendor and Fit-Out Contractor Evaluation Criteria

    When selecting a laboratory furniture supplier or fit-out contractor, score vendors against weighted criteria rather than price alone. The weighting below reflects that compliance, safety and delivery reliability matter more than headline cost for an institutional lab.

    Evaluation CriterionWhat to VerifyWeighting
    Compliance and certificationISO 9001:2015 quality system; documented specifications25%
    Layout and space competenceDrawings meeting CBSE size and clearance norms20%
    Safety provisionsFume extraction, egress, eyewash, storage design20%
    Delivery and installationLead time, on-site commissioning, project references15%
    After-sales and warrantyWarranty terms, spares, maintenance support12%
    Total cost of ownershipPrice plus running and maintenance cost8%

    Caption: Weighted vendor evaluation matrix for school lab furniture and fit-out contractors, prioritising compliance, layout competence and safety over headline price.

    Common Space-Planning Mistakes and How to Avoid Them

    Mistake 1: Planning to the bare CBSE minimum for a full class

    Sizing a lab at exactly 54 sq m for 30 students leaves only the CBSE statutory floor of about 1.8 sq m per student, which is tight for active practicals and leaves no margin for larger cohorts. Plan to the comfortable tier of 2.3 sq m per student, around 70 to 85 sq m for 30 students, so the room remains usable as enrolment grows.

    Mistake 2: Ignoring the air-volume rule

    Schools often size labs on floor area alone and overlook that HSE and ASE guidance calls for at least 11 cubic metres of air per person. At a low 3.0 m ceiling this implies about 3.7 sq m of floor per occupant, which can exceed the area-based minimum and quietly cap real capacity.

    Mistake 3: No separate preparation and storage room

    Combining preparation and chemical storage into the student practical zone reduces usable bench space and raises safety risk. Reserve a separate 10 to 15 sq m preparation and storage room so reagents, balances and the general lab equipment inventory sit outside the teaching area.

    Mistake 4: Forgetting clearances and egress

    A room can meet the total area target yet fail in use if aisles are below 1.0 m or there is only one exit. Fix circulation widths, bench spacing and at least two exits at the design stage, because they cannot be corrected once benches and services are installed.

    Mistake 5: Specifying equipment before fixing the layout

    Ordering furniture and apparatus before the zone layout is finalised leads to benches that do not fit the services or storage that blocks an aisle. Lock the capacity, area and zoning first, then specify laboratory glassware, benches and instruments to match the plan.

    Frequently Asked Questions

    How much space is needed for a school science lab per student?

    A school science lab needs about 1.8 to 3.3 square metres of net floor area per student. The CBSE minimum is roughly 1.8 sq m per student, a comfortable working figure is 2.3 sq m, and international secondary-school guidance reaches 2.8 to 3.3 sq m per student. For a class of 30, that means 54 sq m at the CBSE minimum and 70 to 85 sq m for comfortable practical work, plus a separate preparation room.

    What is the minimum science lab size required for CBSE affiliation?

    CBSE requires each science laboratory to be a minimum of 9 m x 6 m, or 54 square metres (about 600 square feet). At secondary level a composite science lab is acceptable, while senior secondary schools must provide separate Physics, Chemistry and Biology laboratories, each meeting the same minimum size. Confirm the current edition of the CBSE Affiliation Bye-Laws before citing these figures in tender or affiliation documents.

    Is the CBSE minimum lab size safe for a full class of 30 students?

    The 54 sq m CBSE minimum is the regulatory floor, not a comfort target, and is tight for an active class of 30. Safety guidance from HSE and ASE recommends at least 11 cubic metres of air per person, which at a 3.0 m ceiling implies about 3.7 sq m of floor each. Most schools plan 70 to 85 sq m for 30 students so aisles, ventilation and egress remain adequate, and store safety protective wear at the room entrance.

    How much does it cost to build and equip a school science lab?

    Building and fitting out a 54 sq m lab for 30 students typically spans several cost components: civil and fit-out, laboratory benches, services, a fume cupboard, storage, safety equipment and starter apparatus. As an indicative envelope estimated from market benchmarks as of June 2026 and inclusive of GST, the combined figure runs into several lakh rupees and varies widely by city and finish; obtain itemised quotations and verify current pricing before procurement.

    How do I plan storage and a preparation room for a science lab?

    Reserve a separate preparation and storage room of about 10 to 15 square metres adjacent to the lab, rather than placing storage inside the student zone. This room holds reagents, balances, staged apparatus and the general lab equipment inventory, keeping the practical area clear and reducing safety risk. Plan storage capacity before buying apparatus, because it determines how much a lab can hold.

    What is the difference between gross area and net area for a lab?

    Net floor area is the usable internal space available for benches, circulation and storage, while gross area includes walls, corridors and shared service spaces. Per-student benchmarks of 1.8 to 3.3 sq m refer to net area inside the lab. When planning a building, allow additional gross area for walls and circulation outside the room, so the buildable footprint is larger than the net lab area alone.

    Key Takeaways

    1.  A school science lab needs about 1.8 to 3.3 square metres of net floor area per student, depending on whether you plan to the CBSE minimum or to international best practice.

    2.  The CBSE Affiliation Bye-Laws set a minimum science laboratory size of 9 m x 6 m (54 sq m), with separate Physics, Chemistry and Biology labs required at senior secondary level.

    3.  For a class of 30 students, plan 54 sq m at the CBSE minimum and 70 to 85 sq m for comfortable practical work, plus a separate 10 to 15 sq m preparation and storage room.

    4.  The air-volume rule of at least 11 cubic metres per person can demand more floor area than the per-student minimum, so cross-check capacity against ceiling height.

    5.  Fix the student capacity, floor area and zone layout before specifying general lab equipment, benches or apparatus, to avoid costly rework.

    6.  Reserve clear aisles of at least 1.0 to 1.2 m, two exits, and accessible eyewash and safety protective wear when sizing the room.

    About Scientific Equipments

    Scientific Equipments supplies science laboratory equipment, glassware and general lab equipment to schools, colleges, universities and institutional buyers, with a catalogue spanning laboratory glassware, beakers, flasks, test tubes, measuring cylinders, general lab equipment and safety protective wear. The product range linked here is supplied with regular bulk exports to over 56 countries worldwide, with equipment manufactured to referenced quality standards including ISO 9001:2015. Scientific Equipments supports institutional and tender procurement with bulk supply, export-grade packing and documentation. For bulk supply, tender documentation and procurement enquiries, use the contact and tenders pages.

    Home  ·  Laboratory glassware  ·   Tenders / OEM  ·  Contact

  • Setting Up a New School from Scratch: The Complete Science Lab Equipment Checklist

    A science lab equipment checklist for a new school is the prioritised list of furniture, apparatus, glassware, consumables and safety gear needed to make Physics, Chemistry and Biology laboratories functional and compliant before students arrive. For a CBSE-affiliated school in India, the checklist must equip a science laboratory of at least 9 m x 6 m (54 square metres), as set by the CBSE Affiliation Bye-Laws. A complete checklist groups every item by subject and by priority – Essential, Required or Recommended – so a new school can phase its spending, pass inspection, and avoid the costly gaps that surface once teaching begins. Start with shared furniture and safety, then add subject apparatus and laboratory glassware and plasticware.

    What is the complete science lab equipment checklist for a new school?

    A new school needs five groups of science lab equipment: (1) furniture and infrastructure – work benches, a demonstration table, stools, lockable storage and a fume cupboard; (2) Physics apparatus – vernier calipers, screw gauge, balances, electrical meters, optical bench and lenses; (3) Chemistry apparatus and borosilicate 3.3 laboratory glassware – beakers, flasks, test tubes, burettes, pipettes, plus a Bunsen burner and reagents; (4) Biology apparatus – compound microscopes (40x to 1000x), slides, dissection kits and specimen models; and (5) safety equipment – goggles, aprons, gloves, a first-aid kit, fire extinguisher and eyewash. Buy in priority order: Essential items first, then Required, then Recommended. Size and equip each lab to the CBSE minimum of 9 m x 6 m (54 sq m) before ordering, and confirm specifications and the laboratory glassware and plasticware grade against the current CBSE practical syllabus.

    What Is a School Science Lab Equipment Checklist?

    A school science lab equipment checklist is a structured procurement document that lists every item a Physics, Chemistry and Biology laboratory needs, grouped by subject and ranked by priority. It serves three jobs for a new school: it defines what to buy, it sequences spending so essential items come first, and it becomes the acceptance reference against which delivered goods are checked. A checklist is not a catalogue; it is a decision tool that ties each item to a teaching need, a specification and a priority level.

    Under the CBSE Affiliation Bye-Laws, a school must provide a composite science laboratory at secondary level and separate Physics, Chemistry and Biology laboratories at senior secondary level, each a minimum of 9 m x 6 m (54 square metres). A complete science lab equipment checklist therefore equips not one room but up to three subject laboratories plus shared safety and storage. Confirm the current CBSE practical syllabus before finalising the list, because apparatus requirements change with syllabus editions.

    Core Science Lab Equipment Checklist: What Every New School Needs

    Every new school science lab needs equipment in five groups: furniture and infrastructure, Physics apparatus, Chemistry apparatus with glassware, Biology apparatus, and safety equipment. The TVET New-School Science Lab Checklist below lists the core items with an example specification, the subject or use, and a priority of Essential, Required or Recommended. Procure Essential items first, because a lab cannot open without them; add Required items before full practical teaching; and schedule Recommended items as budget allows.

    ItemExample SpecificationSubject / UsePriority
    Laboratory work benchesChemical-resistant top, 0.6-0.9 m per studentAll labsEssential
    Demonstration tableFront bench with sink and servicesAll labsEssential
    Lockable storage / chemical storeVentilated, separate from student zoneAll labsEssential
    Fume cupboardExtraction, min 1.0 m clear frontChemistryEssential
    Student stoolsHeight-appropriate, stackableAll labsRequired
    Vernier calipers and screw gauge0.02 mm / 0.01 mm least countPhysicsEssential
    Electrical meters and resistance boxLabelled ranges, ammeter and voltmeterPhysicsEssential
    Optical bench, lenses, prisms, mirrorsMarked focal lengthsPhysicsRequired
    Borosilicate glassware setBorosilicate 3.3 beakers, flasks, test tubesChemistry / BiologyEssential
    Burettes and pipettes50 mL x 0.1 mL burette; graduated pipettesChemistryEssential
    Bunsen burner or spirit lampLPG burner or spirit lampChemistryEssential
    Electronic balance200 g x 0.01 gChemistryRequired
    Reagents and indicatorsSchool-grade, dated stockChemistryRequired
    Compound microscope40x to 1000x, LED illuminationBiologyEssential
    Slides, coverslips, prepared slidesPlain glass, ground edgesBiologyEssential
    Dissection kit and trayStainless steel instrumentsBiologyRequired
    Specimen models, charts, hand lens10x hand lens; durable modelsBiologyRecommended
    Safety goggles, aprons, glovesStudent and teacher setsAll labsEssential
    First-aid kit, fire extinguisher, eyewashWall-mounted, reachableAll labsEssential

    Caption: The New-School Science Lab Checklist – core equipment for Physics, Chemistry and Biology labs by example specification, subject and priority (Essential / Required / Recommended). Procure Essential items first; confirm apparatus against the current CBSE practical syllabus, verified June 2026.

    Arvind Kumar, Lab Equipment Specialist with 12+ years commissioning school laboratories, advises: “The most common mistake a new school makes is buying apparatus before the room, services and storage are ready. Fix the lab layout, water, gas and electrical points and safety provisions first, then procure equipment against a prioritised checklist – it prevents duplicate orders and items that do not fit.”

    Key Specifications to Check Before Buying

    Before buying science lab equipment, verify each item against a numeric specification with a unit and a reference, not a vague description. Specifying a microscope as 40x to 1000x is checkable; specifying high magnification is not. The table below lists the specifications most often mis-stated in new-school procurement, with the value and unit to confirm in the purchase order and the laboratory glassware and plasticware grade to require.

    EquipmentSpecification to ConfirmReference / Basis
    Compound microscope40x to 1000x, LED illuminationResolution and magnification range stated
    Electronic balance200 g x 0.01 g (capacity x readability)Capacity and readability both stated
    Glassware gradeBorosilicate 3.3Heat and chemical resistance
    Vernier calipersLeast count 0.02 mmMeasurement precision stated
    Screw gauge (micrometer)Least count 0.01 mmMeasurement precision stated
    Burette50 mL x 0.1 mL graduationsVolume and graduation interval
    pH meter / pH paperRange 0-14Measurement range stated
    Fume cupboardWorking face velocity benchmark approx. 0.5 m/sOperator protection planning benchmark

    Caption: Specifications to confirm in purchase orders for new-school science lab equipment. State each value with its unit; borosilicate 3.3 is the standard grade for school chemistry and biology glassware. Verify against the current CBSE practical syllabus before tender use.

    Matching Science Lab Equipment to Student Level

    Science lab equipment requirements rise with student level, so a new school should phase purchases to the classes it will run first. Middle-school science uses simpler, lower-hazard apparatus; senior secondary practicals require precision instruments and, under CBSE rules, separate subject laboratories. The table below maps equipment depth to level.

    Student LevelLab TypeEquipment FocusPriority Additions
    Class 6-8 (middle)Composite / activity scienceBasic glassware, magnets, simple circuits, hand lensesActivity kits, durable models
    Class 9-10 (secondary)Composite science laboratoryGlassware sets, balances, basic microscopes, electrical metersBunsen burners, dissection kits
    Class 11-12 (senior secondary)Separate Physics, Chemistry, Biology labsPrecision instruments, 40x-1000x microscopes, burettes, optical benchFume cupboard, electronic balances, reagents
    College / University (UG)Subject labs with prep roomsHigher-capacity instruments, analytical balances, instrument setsDedicated balance and instrument rooms

    Caption: Science lab equipment depth by student level, aligned to CBSE separate-lab rules at senior secondary. Curriculum requirements verified June 2026; confirm the current edition before citing in tender or specification documents.

    CBSE FacilityMinimum SizeApproximate AreaNote
    Science laboratory9 m x 6 m eachapprox. 54 sq m (600 sq ft)Composite at secondary; separate Physics, Chemistry, Biology at senior secondary
    Classroom8 m x 6 mapprox. 46 sq m (500 sq ft)One room per class; min 1 sq m floor per student
    Library14 m x 8 mapprox. 112 sq mWith reading-room facility

    Caption: CBSE Affiliation Bye-Laws infrastructure size norms relevant to a new school’s science labs, per the CBSE infrastructure requirements page, verified June 2026.

    Safety Equipment and Requirements for a New School Lab

    Safety equipment is non-negotiable in a new school science lab and must be installed before any practical work begins. Personal protective equipment, fire response, chemical handling and first aid each have a minimum provision. The numbered list and table below set out what to install and stock.

    1.  Provide safety goggles, lab aprons and gloves in student and teacher quantities for every lab session.

    2.  Install a fire extinguisher, fire blanket and a sand bucket within reach of the chemistry work area.

    3.  Mount an eyewash facility and a first-aid kit at accessible, unobstructed points.

    4.  Site chemical storage in a separate, ventilated, lockable room outside the student practical zone.

    5.  Ensure a fume cupboard with at least 1.0 m of clear frontal space for reactions producing fumes.

    6.  Label reagents clearly with contents and hazard, and keep a dated stock register.

    Safety ItemMinimum ProvisionLab
    Safety goggles, aprons, glovesOne set per student plus sparesAll labs
    Fire extinguisher and fire blanketAt least one each, reachableAll labs
    Eyewash and first-aid kitAccessible, stocked, signpostedAll labs
    Sand bucketNear chemistry work areaChemistry
    Ventilated chemical storeSeparate lockable roomChemistry
    Fume cupboardMin 1.0 m clear front, extractionChemistry

    Caption: Minimum safety equipment provision for a new school science laboratory. Reconcile fire and egress provisions with the National Building Code of India and local fire-safety rules before opening.

    Budget Guide: Cost to Equip a New School’s Science Labs for 30 Students

    The cost to equip a new school’s science labs for a class of 30 students separates into furniture, subject apparatus, glassware and consumables, and safety equipment. The indicative ranges below set a budget envelope for equipping the apparatus and consumables of three subject labs; they exclude civil construction and are not quotations. Costs vary with quality grade, brand, quantity and whether labs are composite or separate.

    Cost ComponentScopeIndicative Range (INR)
    Laboratory furnitureBenches, demonstration table, stools, storage2,50,000 – 6,00,000
    Physics apparatus setMechanics, optics, electricity instruments1,20,000 – 3,00,000
    Chemistry apparatus and glasswareBorosilicate glassware, burners, balance, reagents1,50,000 – 3,50,000
    Biology apparatusMicroscopes, slides, dissection kits, models1,30,000 – 3,20,000
    Safety equipmentPPE, eyewash, extinguishers, first-aid40,000 – 1,20,000
    Consumables (first year)Chemicals, slides, replacement glassware60,000 – 1,50,000

    Caption: Indicative cost to equip a new school’s science labs for 30 students, excluding civil work. Estimated from market benchmarks as of June 2026, inclusive of applicable GST; verify current pricing before procurement.

    Do Not Forget Vocational and Skill-Lab Equipment (NEP 2020)

    A new school planning under the National Education Policy 2020 should budget for vocational and skill-lab equipment alongside science labs. NEP 2020 sets the target that by 2025 at least 50% of learners in the school and higher education system have exposure to vocational education, integrated from the middle-school stage. For schools adding skill or technical streams, this means equipping vocational and engineering training labs – such as civil engineering lab equipment and materials-testing apparatus – in addition to Physics, Chemistry and Biology.

    Vocational / Skill LabTypical EquipmentTVET Category
    Civil / construction skillsConcrete, aggregate and steel testing apparatusCivil engineering and materials testing
    Materials testingSoil, cement and concrete testing equipmentSoil and concrete testing
    Survey and measurementMeasurement and miscellaneous testing instrumentsMiscellaneous testing equipment

    Caption: Vocational and skill-lab equipment categories a new school may add under NEP 2020, available alongside science apparatus. NEP 2020 vocational target verified June 2026.

    Pre-Dispatch and Acceptance Checklist

    Use this checklist to verify a science lab equipment consignment before accepting delivery at a new school. Each step is a pass/fail check a procurement officer or lab in-charge can run against the purchase order and specification.

    1.  Match every delivered item to the purchase order line and the agreed specification.

    2.  Confirm glassware is borosilicate 3.3 and free of cracks, chips or star marks.

    3.  Power on each microscope and verify the 40x to 1000x range and illumination.

    4.  Check electronic balances against a known mass and request a calibration certificate.

    5.  Verify electrical meters, resistance boxes and power supplies are labelled and functional.

    6.  Confirm reagent containers are sealed, labelled and within usable date.

    7.  Count consumables – slides, test tubes, pipettes – against ordered quantities.

    8.  Inspect safety equipment: goggles, extinguishers, eyewash and first-aid kit present and serviceable.

    9.  Confirm export-grade or shock-resistant packing arrived intact, with no transit damage.

    10.  Photograph and log any shortfall or defect and obtain written sign-off before final acceptance.

    Vendor Evaluation Criteria for a New School

    When selecting a science lab equipment supplier for a new school, score vendors on weighted criteria rather than price alone. The weighting below reflects that compliance, completeness of supply and installation support matter more than headline cost for a turnkey new-school fit-out.

    Evaluation CriterionWhat to VerifyWeighting
    Compliance and certificationISO 9001 quality system; documented specifications25%
    Completeness of supplySingle source for furniture, apparatus, glassware, safety20%
    Specification accuracyNumeric specs with units; sample units offered18%
    Installation and trainingOn-site setup, demonstration, staff training17%
    After-sales and warrantyWarranty, spares, calibration and maintenance12%
    Total cost of ownershipPrice plus consumables and maintenance cost8%

    Caption: Weighted vendor evaluation matrix for new-school science lab equipment procurement, prioritising compliance, completeness and installation over headline price.

    Common Procurement Mistakes and How to Avoid Them

    Mistake 1: Buying apparatus before the lab room is ready

    Ordering equipment before the lab room, services and storage are built leads to apparatus that does not fit the benches or services. Complete the room layout, water, gas and electrical points and storage first, then procure science lab equipment against the checklist.

    Mistake 2: Specifying vague descriptions instead of numeric specs

    Specifying high magnification or good glassware gives vendors room to under-supply. State numeric specifications with units – 40x to 1000x, 200 g x 0.01 g, borosilicate 3.3 – in the purchase order so delivered goods are checkable against the specification.

    Mistake 3: Skipping safety equipment to save budget

    Treating goggles, eyewash, extinguishers and a ventilated chemical store as optional creates a non-compliant, unsafe lab. Safety equipment is Essential priority and must be installed and stocked before any practical class runs.

    Mistake 4: Ordering only one subject’s apparatus at a time

    Procuring Physics, then Chemistry, then Biology apparatus in separate uncoordinated orders raises freight and misses bulk pricing. Source furniture, apparatus, laboratory glassware and plasticware and safety from a single coordinated supply where possible.

    Mistake 5: No calibration certificate or warranty terms

    Accepting balances and instruments without calibration certificates or written warranty terms causes disputes when accuracy or reliability fails. Require calibration certificates and warranty terms as a condition of acceptance in the tender.

    Frequently Asked Questions

    What is the complete science lab equipment checklist for a new school?

    A new school needs furniture, Physics apparatus, Chemistry apparatus with borosilicate 3.3 glassware, Biology apparatus including 40x to 1000x microscopes, and safety equipment. Group every item by subject and priority – Essential, Required, Recommended – and buy Essential items first. Equip each lab to the CBSE minimum of 9 m x 6 m (54 sq m) and confirm apparatus against the current CBSE practical syllabus before ordering.

    What does CBSE require for a school science laboratory?

    CBSE requires each science laboratory to be a minimum of 9 m x 6 m, about 54 square metres (600 square feet). A composite science lab is acceptable at secondary level, while senior secondary schools must provide separate Physics, Chemistry and Biology laboratories, each meeting that minimum size. Confirm the current CBSE Affiliation Bye-Laws and practical syllabus before citing these requirements in tender documents.

    What safety equipment is mandatory in a school science lab?

    A school science lab must have safety goggles, aprons and gloves, a fire extinguisher and fire blanket, an eyewash facility, a first-aid kit, and a separate ventilated chemical store. Chemistry labs also need a fume cupboard with at least 1.0 m of clear frontal space. Install and stock all safety equipment before any practical class begins, and reconcile fire provisions with local rules.

    How much does it cost to equip science labs for a new school?

    Equipping the apparatus, glassware and consumables for three subject labs for 30 students runs into several lakh rupees, excluding civil construction, depending on quality grade and quantity. Major components are furniture, Physics, Chemistry and Biology apparatus, glassware and safety equipment. As an indicative figure estimated from market benchmarks as of June 2026 and inclusive of GST, obtain itemised quotations and verify current pricing before procurement.

    How do I maintain school laboratory glassware and instruments?

    Maintain laboratory glassware and plasticware by cleaning and drying after each use, storing on racks to prevent chipping, and discarding cracked or star-marked pieces. Keep microscopes covered and serviced, recalibrate balances periodically against known masses, and store reagents labelled and dated in a ventilated cabinet. A dated stock and maintenance register helps a new school track replacements and calibration due dates.

    What is the difference between a composite lab and separate subject labs?

    A composite science lab is a single room equipped for basic Physics, Chemistry and Biology practicals, accepted by CBSE at secondary level, while separate subject labs are dedicated Physics, Chemistry and Biology rooms required at senior secondary level. Separate labs allow subject-specific services such as fume extraction for chemistry and more microscopes for biology, but each must still meet the 9 m x 6 m minimum size.

    Key Takeaways

    1.  A complete science lab equipment checklist for a new school groups every item into furniture, Physics, Chemistry, Biology and safety, ranked Essential, Required or Recommended.

    2.  CBSE requires each science laboratory to be at least 9 m x 6 m (54 sq m), with separate Physics, Chemistry and Biology labs at senior secondary level.

    3.  Buy Essential items and safety equipment first; phase Required and Recommended items as budget allows.

    4.  Specify numeric values with units – 40x to 1000x microscopes, 200 g x 0.01 g balances, borosilicate 3.3 glassware – so delivered goods are checkable.

    5.  Under NEP 2020, which targets vocational exposure for at least 50% of learners by 2025, budget for skill-lab and civil engineering lab equipment alongside science apparatus.

    6.  Source furniture, apparatus, laboratory glassware and plasticware and safety from a coordinated supply, and require calibration certificates and warranty terms before acceptance.

    About Scientific Equipments 

    Scientific Equipments manufactures and supplies laboratory and testing equipment to schools, colleges, technical universities and vocational training institutions in India and overseas. In operation since 1986, with more than 39 years of supply experience and regular bulk exports to over 56 countries, Scientific Equipments lists quality and competence certifications including ISO 9001, ISO/IEC 17025 and NABL accreditation among others on its About page. Its catalogue spans laboratory glassware and plasticware, civil engineering and materials-testing equipment, and educational science kits, with turnkey lab setup, installation and training. For bulk supply, tender documentation and procurement enquiries, use the tenders and contact pages.