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Detect the light. Simulate darkness. Watch both street lights respond automatically.
Turn ambient-light sensing, electronic control, transistor switching and the energy-saving concept of automatic public lighting into one connected learning experience.
The Go Science Classroom Series Smart Street Light — Automatic Street Light (LDR Sensor) is a pre-wired educational working model that demonstrates how street lights can respond automatically to changes in surrounding light.
The model combines an LDR light-sensor module, comparator-based control circuit, BC547 transistor-switching stage and two white LED street lights on a contextual road-layout base.
The LDR responds to the brighter condition. The BC547 transistor remains switched off and both model street lights remain off.
Covering the LDR changes the sensor-module output. The BC547 transistor switches on and both LED street lights illuminate automatically.
The sensor responds to the brighter condition again. The transistor switches off and both street lights turn off automatically.
Students can observe the complete sequence:
Detect the Light → Compare the Condition → Switch the Circuit → Illuminate Both Street Lights → Restore the Light → Reset Automatically
The four-stage operating journey can also be explained as:
Daylight Detected by LDR → Transistor Remains OFF → Darkness Detected by LDR → LED Street Lights Turn ON
The model helps students understand how an environmental input can be detected, processed and used to control an electrical output without manually operating the street lights.
Suggested for Grades 7–12, it is suitable for school projects, science exhibitions, classroom demonstrations, electronics activities, smart-city presentations, energy-conservation discussions, STEM learning, project reports and viva preparation.
The model allows students to observe several connected scientific and electronic processes operating within one recognisable road-lighting environment.
The LDR responds to the amount of surrounding light reaching its photosensitive surface.
The sensor module evaluates the detected light condition against its configured sensitivity threshold.
The module’s digital-output signal controls a BC547 NPN transistor through a 10K resistor.
The transistor switches the electrical path controlling the two white LED street lights.
Together, these stages create a clear functional journey:
Ambient Light → LDR Sensor → Comparator Output → BC547 Transistor → Dual LED Street Lights
The model brings the input, control and output stages together so students can see how a complete automatic system responds to changing environmental conditions.
The LDR sensor responds to surrounding light and controls the model street lights automatically through the connected electronic circuit.
The model demonstrates the energy-saving idea of keeping the street lights off under sufficient light and switching them on when darkness is detected.
It does not measure or guarantee any specific electricity saving.
The BC547 transistor operates as an electronic switch and controls the street lights according to the signal received from the sensor module.
The 1N4007 diode helps protect the circuit from reverse current if the battery is accidentally connected with incorrect polarity.
This is an additional protective feature and does not mean that reverse battery connection should be tested intentionally.
The model helps explain selected concepts associated with automatic public lighting, sensor-based infrastructure and smart-city learning.
It is a simplified educational representation and not a substitute for an actual public-lighting system.
The manual and demonstration video are accessed through separate dedicated QR codes, allowing students to open each resource independently.
The model requires one standard 9V battery.
Battery is not included.
Use a fresh battery for reliable demonstration performance.
For repeated classroom activities or science exhibitions, keeping a spare fresh battery available is recommended.
Disconnect the battery immediately after completing each demonstration.
Never store the model with the battery connected.
| Specification | Details |
|---|---|
| Product name | Smart Street Light |
| Model description | Automatic Street Light (LDR Sensor) |
| Series | Go Science Classroom Series |
| Product classification | Educational Concept Model Kit |
| Project classification | School Project & Demonstration Model |
| Recommended grades | Grades 7–12 |
| Primary demonstration | Automatic street-light control according to ambient light |
| Environmental input | Ambient light and simulated darkness |
| Primary sensor | LDR light-sensor module |
| Sensor type | CdS light-dependent photoresistor with comparator circuit |
| Sensitivity control | Onboard adjustable potentiometer |
| Sensor connections | VCC, GND and DO |
| Electronic switch | BC547 NPN transistor |
| BC547 reference | NPN transistor; maximum collector current approximately 100 mA; VCEO approximately 45 V |
| Base resistor | 10K, ¼-watt resistor |
| Protection component | 1N4007 reverse-polarity protection diode |
| 1N4007 reference | Rectifier diode; approximately 1 A rating and 1000 V peak inverse voltage |
| Lighting output | Two pre-soldered white LED street lights |
| LED type | Two pre-soldered 5 mm white LEDs |
| Number of street-light poles | Two |
| Pole installation | Fitted onto two pre-installed anchor screws |
| Power requirement | One 9V battery |
| Battery included | No |
| Electrical preparation | Pre-wired |
| Contextual display | Road-layout base with toy car |
| Digital manual | Included through a dedicated manual QR code |
| Demonstration video | Dedicated video QR, this product page, Go Science website and official Go Science YouTube channel |
| Approximate length | 16 cm |
| Approximate width | 11 cm |
| Approximate assembled height | 15 cm |
| Approximate height without poles | 3 cm |
| Designed and assembled | Designed & Assembled in India |
| Intended use | Supervised educational demonstration |
Product dimensions are approximate.
Product colours, toy-car design, wire routing, pole finish, component placement and minor assembly details may vary according to manufacturing, component availability and assembly updates.
Every Go Science Classroom Series kit is supported by guided learning resources that help students identify the components, understand the concept, prepare the model, conduct the demonstration and explain their observations confidently.
This kit provides access to:
The guided learning journey takes students through:
Explore → Understand → Watch → Prepare → Connect → Test → Observe → Explain → Complete
Students can read the manual, watch the actual model in operation and revisit both resources while preparing for a school project, classroom presentation, science exhibition, project report or viva.
A dedicated QR code supplied with the kit provides access to the product-specific Smart Street Light digital instruction manual.
The manual QR code is independent of the demonstration-video QR code.
The digital manual can be opened on a compatible phone, tablet or computer and used during:
The manual explains:
Internet access and a compatible QR-scanning device are required to open the digital manual.
A separate dedicated QR code supplied with the kit provides access to the Smart Street Light working demonstration video.
The video QR code is independent of the digital-manual QR code.
The actual-product video helps students, parents and teachers understand:
The video can be accessed in three convenient ways:
The working video is available alongside the product photographs and information on this Go Science product page.
Parents, teachers and students can view the actual model before purchase and revisit the demonstration whenever required.
The complete working demonstration is also available through the official Go Science YouTube channel for convenient viewing, revision and sharing.
A separate video QR code supplied with the kit provides direct access to the demonstration whenever students need to revisit the setup or operating sequence.
This creates a continuous guided experience:
View → Scan → Watch → Prepare → Connect → Demonstrate → Rewatch
Internet access and a compatible QR-scanning device are required to open the online video.
The LDR module, general-purpose circuit board, BC547 transistor, 10K resistor, 1N4007 diode, jumper-wire connections, battery connector and LED wiring are integrated into the model as one pre-wired electrical system.
The two street-light poles are fitted onto the prepared anchor screws before demonstration.
This working foundation allows students to move directly into meaningful exploration:
The model is designed to be:
Observed → Tested → Retested → Understood → Explained → Built Upon
Pre-wired does not mean passive.
It provides a prepared working foundation from which investigation, observation, explanation and further learning can begin.
Place the model on a clean, flat, stable and dry surface.
Check that:
Locate the two anchor screws pre-installed in the base.
Align the hollow bottom of each street-light pole with its corresponding mounting screw.
Gently insert and rotate each pole until it stands upright and securely fitted.
Do not force or overtighten the poles.
Verify that the three jumper wires remain securely connected:
Do not pull, stretch or sharply bend the wires.
Attach one fresh 9V battery to the supplied snap connector using the correct terminal orientation.
Allow sufficient ambient room light to reach the LDR.
Both LED street lights should remain switched off.
Cover the LDR completely using your hand or a suitable opaque cover.
Do not press hard on the sensor module.
When darkness is detected:
Remove the cover and allow ambient light to reach the LDR again.
The control condition resets and both LEDs switch off automatically.
Repeat the covering and uncovering sequence and compare the response.
Disconnect the 9V battery immediately after completing the demonstration.
The complete sequence is:
Light Present → Street Lights OFF → Darkness Detected → Street Lights ON → Light Restored → Street Lights OFF
LDR stands for Light Dependent Resistor.
An LDR changes its electrical resistance according to the amount of light reaching its photosensitive surface.
When sufficient light reaches the LDR:
When the LDR is covered:
Students can explore:
The model detects changes in surrounding light.
It does not provide a calibrated numerical measurement of light intensity.
The physical and electronic layout allows students to identify every stage of the automatic system.
Ambient light or simulated darkness reaches the LDR.
The light-dependent resistor responds to the surrounding light condition.
The comparator evaluates the detected condition against the configured sensitivity threshold.
The sensor module produces a digital-output signal.
The BC547 transistor responds to the control signal through the 10K resistor.
The two LED street lights switch on or off.
Students can identify the essential automatic-control stages:
Light Condition → LDR → Comparator → Digital Output → BC547 Transistor → Dual LEDs
The model helps students connect sensor electronics with a visible public-lighting application rather than viewing the circuit only as an abstract diagram.
The LDR module includes comparator electronics and an adjustable potentiometer.
The comparator evaluates the changing electrical condition of the LDR and determines when the digital output should switch.
The potentiometer allows the switching threshold to be adjusted.
Students can observe that the transition point may depend on:
Sensitivity adjustment should be performed carefully using a suitable small screwdriver and preferably under adult or teacher supervision.
A small adjustment may change when the street lights switch on or off.
The BC547 NPN transistor functions as an electronic switch.
The LDR module detects the surrounding light condition, while the transistor controls the electrical path supplying the two street-light LEDs.
Under sufficient ambient light:
When darkness is detected:
This demonstrates an important automatic-control structure:
Sensor → Control Signal → Electronic Switch → Output
The 10K resistor is positioned within the transistor-control path.
It helps limit the current reaching the transistor’s base terminal.
This supports controlled transistor operation and helps avoid excessive base current.
Students can use this component to discuss:
The resistor is an essential part of the working circuit and should not be removed or bypassed.
The circuit includes a 1N4007 diode within the power path.
The diode helps block reverse current if the 9V battery is accidentally connected with incorrect polarity.
This helps reduce the possibility of reverse current reaching the sensor and transistor circuit.
The protection feature does not mean the battery should intentionally be connected in reverse.
Always:
| System stage | Component | Function |
|---|---|---|
| Environmental input | Ambient light or simulated darkness | Provides the changing external condition |
| Detection | LDR photoresistor | Responds to the surrounding light |
| Comparison | Sensor-module comparator | Evaluates the detected condition |
| Threshold adjustment | Potentiometer | Adjusts the switching point |
| Control output | DO connection | Communicates the sensor state |
| Current control | 10K resistor | Limits transistor-base current |
| Electronic switch | BC547 NPN transistor | Activates or deactivates the LED circuit |
| Circuit protection | 1N4007 diode | Helps block reverse-polarity current |
| Lighting output | Two LED street lights | Represent automatic public lighting |
| Power source | 9V battery | Supplies electrical energy |
| Application context | Road-layout base and toy car | Represents a street environment |
| Learning support | Digital manual and video | Supports preparation, operation and explanation |
The road, toy vehicle and two street-light poles provide a recognisable application context.
Each element represents part of the complete system:
The model helps students explain:
The model is a simplified educational representation.
Real public-lighting systems may use different power sources, controllers, timers, relays, sensors, protective housings, communication systems and professional installation.
Begin with the LDR fully exposed to normal ambient light.
Cover the sensor and observe both LEDs.
Remove the cover and observe the reset.
| Test condition | Sensor condition | Expected street-light response |
|---|---|---|
| Before testing | LDR exposed to sufficient light | Both LEDs remain off |
| LDR covered | Darkness simulated | Both LEDs switch on |
| LDR partly covered | Reduced light | Response depends on the threshold |
| Cover removed | Light restored | Both LEDs switch off |
Cover only part of the LDR.
Observe whether the street lights switch on.
Gradually increase the covered area and record the response.
Students can investigate how the result depends on:
Place the model at different distances from an indoor light source.
Students can record:
Turn the model so the LDR faces different directions.
Observe how its orientation affects the detected light condition.
Under adult or teacher supervision, make a very small adjustment to the potentiometer.
Repeat the light-and-darkness test and compare the switching point.
Avoid forceful or unnecessary adjustment.
Repeat the same cover-and-uncover sequence several times.
Compare:
Compare the model’s response using a fresh battery and a battery that has already been used for several demonstrations.
A weak battery may result in:
Do not use a damaged, leaking or unsuitable battery.
Observe how quickly the LEDs turn off when ambient light reaches the LDR again.
If they remain on, check:
Review the actual-product demonstration video before beginning.
What will happen when the LDR is covered?
Fit the street-light poles and inspect the electrical connections.
Attach a fresh 9V battery using the correct polarity.
Expose and cover the LDR.
Watch both LED street lights respond.
Document the light condition and corresponding LED state.
Repeat the activity under different lighting conditions.
Explain how the LDR, comparator and transistor work together.
Check the battery, sensor, jumper wires, sensitivity setting and pole connections.
Describe the complete automatic-lighting sequence.
Develop further questions about sensors, automation and energy conservation.
The Smart Street Light model is designed to support supervised, activity-based learning through:
The model is designed around selected concepts relevant to Grades 7–12, including:
The model may support classroom discussion and practical exploration of these concepts.
The depth, terminology and learning relevance may vary according to:
The learning approach can be represented as:
Experiential Learning → Project-Based Learning → Concept Understanding → Observation & Problem Solving
The Smart Street Light model allows students to explore how:
The visible automatic response, contextual road display and guided digital resources make the model suitable for:
“This is a Smart Street Light automatic-lighting model using an LDR sensor. The LDR responds to the amount of surrounding light. During brighter conditions, the sensor module keeps the BC547 transistor switched off, so both street lights remain off. When I cover the LDR to simulate darkness, the sensor output changes and activates the transistor through the 10K resistor. The transistor completes the LED circuit and both street lights switch on automatically. When light reaches the LDR again, the transistor switches off and both lights turn off. The model demonstrates light sensing, comparator control, transistor switching, reverse-polarity protection, automatic lighting and the energy-saving concept of switching lights only when required.”
Students should understand the process and present it naturally rather than memorising the explanation without understanding the system.
Once students understand the original LDR-controlled lighting sequence, the model can inspire further questions:
These are further learning directions.
They are not built-in functions of the supplied product.
Additional components, modifications and suitable guidance may be required.
The model’s light-sensing and switching sequence can support classroom discussions around:
These are educational concept extensions based on the model’s working principle.
They are not additional built-in functions of the supplied product.
The model can support classroom discussion around:
The model demonstrates the energy-saving concept of operating street lights only when required.
It does not calculate or certify an actual energy saving.
The model introduces selected sensor-based automation and intelligent-infrastructure concepts.
The model helps students discuss how automatic street-lighting concepts may support safer and more energy-aware communities.
References to SDGs 7, 9 and 11 are included only to indicate broad themes that may be discussed through the educational model.
They do not imply certification, endorsement, affiliation, approval or official alignment by:
The model demonstrates selected educational concepts associated with automatic lighting, energy conservation, infrastructure and sustainable communities.
It does not claim to achieve, measure or certify any Sustainable Development Goal or environmental outcome.
Scan the manual QR code.
Read the digital instruction manual.
Open the separate video QR code.
Watch the actual-product demonstration.
Identify the supplied components.
Fit the two street-light poles.
Check the electrical connections.
Connect the 9V battery.
Observe the daylight condition.
Cover the LDR.
Watch both street lights illuminate.
Restore the light.
Observe the automatic reset.
Repeat the activity.
Record the result.
Disconnect the battery.
Explain the system.
Build upon the idea.
The Go Science Smart Street Light transforms ambient-light sensing, comparator control, transistor switching, circuit protection and automatic public-lighting concepts into a guided working experience that students can observe, test, understand and confidently demonstrate.
This product is an educational demonstration model and science teaching aid intended for supervised school-project and classroom use.
| Problem | Possible reason | Suggested check |
|---|---|---|
| Both LEDs remain off when the LDR is covered | The 9V battery may be weak or discharged | Replace it with a fresh 9V battery |
| Both LEDs remain off when the LDR is covered | A jumper-wire connection may be loose | Check the VCC, GND and DO connections |
| Both LEDs remain off when the LDR is covered | The sensor threshold may require adjustment | Carefully adjust the potentiometer under adult or teacher supervision |
| Both LEDs remain on under normal ambient light | The surrounding area may be too dark | Move the model towards a brighter indoor location |
| Both LEDs remain on under normal ambient light | The sensitivity threshold may be unsuitable | Make a small potentiometer adjustment and repeat the test |
| LED brightness appears low | Battery power may be low | Replace it with a fresh 9V battery |
| The switching response is inconsistent | The LDR may be partly shaded | Allow clear ambient light to reach the sensor |
| The switching response is inconsistent | A connection may be loose | Disconnect the battery and inspect the jumper wires |
| Only one LED illuminates | A pole or LED connection may be loose | Disconnect the battery and inspect the visible connections |
| A street-light pole feels loose | The pole may not be seated correctly | Gently refit it onto the pre-installed anchor screw |
| The model does not respond after battery connection | The battery may be connected incorrectly | Disconnect it, verify the polarity and reconnect it correctly |
| Switching occurs too easily | The sensor threshold may require adjustment | Make a very small potentiometer adjustment |
| Switching is delayed or unreliable | Battery strength or ambient lighting may be unsuitable | Use a fresh battery and test under clearer light conditions |
Do not dismantle, cut, modify or resolder the circuit during normal educational use.
Each Go Science Classroom Series Smart Street Light model is carefully assembled in small batches.
The model is handcrafted for school-project and demonstration use.
Because the model uses sourced electronic components and manually assembled structural elements, the supplied product may show minor variations in:
These minor variations do not change the model’s core educational concept or fundamental operating sequence:
Light Present → Street Lights OFF → Darkness Detected → Street Lights ON → Light Restored → Street Lights OFF
Images/creative illustration are for reference. Actual product may vary due to manufacturing, components availability & assembly update.
Approximate dimensions:
This product is an educational demonstration model and science teaching aid for supervised school-project and classroom use.
It is:
The model demonstrates selected concepts related to:
It does not reproduce the complete construction, voltage, capacity, protection, installation or performance of an actual municipal street-lighting system.
It does not provide:
Any further applications discussed in the description are educational concept extensions and not additional built-in functions of the supplied model.
Return, Refund & Exchange Notice
This educational working model contains tested and sensitive electronic components. Kits that have been opened, powered, activated, tested, used, altered, exposed to moisture, connected to an unsuitable power source, short-circuited or operated under unsuitable conditions are not eligible for return, refund or exchange. The required 9V battery is not included. Please review the product description, included contents, dimensions, power requirement, product photographs, demonstration video and operating instructions carefully before purchase.
Grade 7-12
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AI Summary of product FAQs at Go Science
Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series is a specialized goods available at Go Science, manufactured by Go Science. Smart Street Light School Project Automatic Street Light (LDR Sensor) - Go Science Classroom Series — Educational Concept Model KitSchool Project & Demonstration ModelPre-Wired Automatic Lighting & Smart-City Learning KitDetect the light. Simulate darkness. Watch... Visitors can test this product in person at Go Science retail stores or order online. Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address.
Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series at Go Science is priced at Rs. 649.00. Currently on sale from Rs. 1,300.00, saving customers Rs. 651.00. Customers can purchase directly at Go Science retail stores or order online. Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address.
Customer preference and convenience is paramount in the Go Science omnichannel experience. Customers can buy Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series in-store at Go Science retail locations, order via the Go Science website at goscience.in, or place orders through the official Go Science Android app on Google Play and iOS app on Apple App Store. Choose between direct store pickup or express delivery: Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address.
Yes, Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series is specifically designed to help students complete school projects, class assignments, and practical STEM model submissions. Get delivery within hours — Go Science quick commerce store offers free 1 to 4 hours delivery to your address so school project submission deadlines are always met.
Yes, Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series provides a practical, working STEM framework ideal for building a science project, conducting experimental tests, and demonstrating core scientific principles. Specifically, Smart Street Light School Project Automatic Street Light (LDR Sensor) - Go Science Classroom Series — Educational Concept Model KitSchool Project & Demonstration ModelPre-Wired Automatic Lighting & Smart-City Learning KitDetect the light. Simulate darkness. Watch... Get delivery within hours — Go Science quick commerce store offers free 1 to 4 hours delivery to your address.
Yes, Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series serves as an engaging working model for science fairs, inter-school exhibitions, and national STEM competitions. Its physical mechanism allows students to present interactive live demonstrations that clearly explain underlying physical, electrical, or mechanical theories to judges.
Yes, Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series offers an engaging offline alternative to mobile screens and video games. It channels children's curiosity into physical building, hands-on experimentation, and active learning at home.
While individual learning styles and guidance needs vary, Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series includes structured visual assembly guides that may allow children within the recommended age group to construct and operate the product independently.
The underlying principles of Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series are structured to potentially complement core STEM concepts found across CBSE, ICSE, IB, and State Board science curriculums, helping translate textbook ideas into practical understanding.
Building and experimenting with Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series is engineered to foster practical problem-solving, fine motor coordination, and logical reasoning, potentially enhancing a student's real-world technical aptitude over time.
Customers can buy Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series at the Go Science Bangalore retail store or order online via the Go Science website and mobile apps. Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address across 56 Bangalore pincodes.
Yes, Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series is in stock! Get delivery within hours — Go Science quick commerce store offers free 1 to 4 hours delivery to your address or direct retail store pickup in Bangalore.
The Go Science Bangalore retail store is located at No 154, Vinayaka Layout 1st Main, Silver County Road, Kudlu, Bengaluru, KA 560102. Visit the store to purchase Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series in person and see live STEM product demonstrations. Store hours: 11 AM to 8 PM. Phone: 044 4858 1200.
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Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address across these 56 Bangalore pincodes and neighborhoods:
Customers can buy Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series at the Go Science Chennai retail store or order online via the Go Science website and mobile apps. Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address across 93 Chennai pincodes.
Yes, Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series is in stock! Get delivery within hours — Go Science quick commerce store offers free 1 to 4 hours delivery to your address or direct retail store pickup in Chennai.
The Go Science Chennai retail store is located at T.Nagar. Visit the store to purchase Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series in person and see live STEM product demonstrations. Store hours: 11 30 Am to 8 Pm. Phone: 04448581200.
Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address across these 93 Chennai pincodes and neighborhoods:
Customers can buy Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series at the Go Science Coimbatore retail store or order online via the Go Science website and mobile apps. Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address across 43 Coimbatore pincodes.
Yes, Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series is in stock! Get delivery within hours — Go Science quick commerce store offers free 1 to 4 hours delivery to your address or direct retail store pickup in Coimbatore.
The Go Science Coimbatore retail store is located at RS Puram. Visit the store to purchase Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series in person and see live STEM product demonstrations. Store hours: 11 30 Am to 8 Pm. Phone: 04448581200.
📍 Get Directions to Go Science Coimbatore Store on Google Maps
Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address across these 43 Coimbatore pincodes and neighborhoods:
Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address when ordering Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series online at goscience.in or via Go Science mobile apps. Customer preference and convenience is paramount in the Go Science omnichannel experience — choose between express delivery or local retail store pickup.
Yes, local store pickup is available. Orders can be placed online via website or mobile app and picked up directly from Go Science retail locations in Bangalore, Chennai, or Coimbatore.
Get delivery within hours! Go Science quick commerce store offers free 1 to 4 hours delivery to your address for Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series. Order online at goscience.in or through the official mobile apps to receive fast local fulfillment.
Yes, Go Science is an official authorized reseller for Go Science. Purchasing directly from Go Science guarantees 100% authentic products, full original manufacturer warranty coverage, and localized quick commerce support.
Creating a project with Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series offers structured STEM learning. Students follow step-by-step assembly guides to build a working model that demonstrates physical and electronic principles for science fairs.
Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series is engineered to demonstrate core STEM principles, including practical applications in physics, electronics, robotics, or mechanics.
Yes. Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series serves as a reliable working STEM model designed for students and teachers to demonstrate scientific theories in classroom environments.
Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series from Go Science is recommended for ages Grade 7-12.
Smart Street Light School Project (LDR Sensor) Automatic Street Light by Go Science Classroom Series is manufactured by Go Science. Go Science is an official authorized reseller for this brand.
No 12, Sivaprakasam Street,
T.Nagar, Chennai - 600017
Near Natesan Park & TTD Temple
Phone: 04448581200
232, T V Swamy Road,
1st Floor, R.S Puram, Coimbatore 641002
Phone: 04448581200
No 154, Vinayaka Layout 1st Main,
Silver County Road, ,
Kudlu,
Bengaluru – 560102
(Opposite lane to DMart Haralur)
Phone: 04448581200
