Li-Satellite tsa GF tse nang le Qeto ea 0.75m

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Li-Satellite tsa GF tse nang le Qeto ea 0.75m

Lisathelaete tsa GF tse nang le qeto ea 0.75m ke lisathelaete tse ncha tsa optical remote sensing tse entsoeng lipatlisiso le ho ntlafatsoa ke Khampani. Lisathelaete tsena li entsoe ka sebopeho se boima bo bobebe, sistimi ea elektronike e kopantsoeng haholo, kh'amera e nang le boima bo phahameng ba boemo bo holimo le mahlale a mang a macha. Lisathelaete tsena li na le likarolo tsa theko e tlase, tšebeliso e tlase ea matla, boima bo bobebe le sesupo se phahameng.

Arolelana:
TLHALOSO

Jilin No.1 o fumane linaleli tse 03

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Lisathelaete tsa GF tse nang le qeto ea 0.75m ke lisathelaete tse ncha tsa optical remote sensing tse entsoeng lipatlisiso le ho ntlafatsoa ke Khampani. Lisathelaete tsena li entsoe ka sebopeho se boima bo bobebe, sistimi ea elektronike e kopantsoeng haholo, kh'amera e nang le boima bo phahameng ba boemo bo holimo le mahlale a mang a macha. Lisathelaete tsena li na le likarolo tsa theko e tlase, tšebeliso e tlase ea matla, boima bo bobebe le sesupo se phahameng.

Lisathelaete tsa Jilin-1 GF03D

Lebitso

Jilin-1 GF03D

ho ba le maikutlo

Push-broom and inertial space imaging

Qeto

0.75m

Spectral  Coverage

Mmala o felletseng: 450nm ~ 700nm

Boputsoa: 430nm ~ 520nm

Botala: 520nm ~ 610nm

Khubelu: 610nm ~ 690nm

Leseli le haufi le infrared: 770nm ~ 895nm

Bophara ba Swath (ho Nadir)

17km

Boima ba 'mele

≈40kg


Lisathelaete tsa Jilin-1 GF02

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Lisathelaete tsa Jilin-1 GF02 ke li-satellite tsa boemo bo holimo tse nang le qeto ea 0.75m, li entsoe ke CGSTL, 'me li na le litšobotsi tsa qeto e phahameng, bophara bo boholo, le phetiso ea data e potlakileng.

Jilin-1 GF02

Lebitso

Jilin-1GF 02

ho ba le maikutlo

Push-broom and inertial space imaging

Qeto

0.75m

Spectral  Coverage

Mmala o felletseng: 450nm ~ 800nm

Putsoa: 450nm ~ 510nm

Botala: 510nm ~ 580nm

Khubelu: 630nm ~ 690nm

Haufi le infrared: 770nm ~ 895nm

Bophara ba Swath (ho Nadir)

40km

Boima ba 'mele

≈200kg


Jilin No.1 o fumane linaleli tse 06

GF series satellites represented by Jilin-1 GF-06 are the batch production satellite model of CGSTL oriented to sub-meter high resolution optical remote sensing. Jilin-1 GF06 have the advantages of “fast batch production”, “intelligent operation” and “brilliant image quality and low price”

Lebitso

Jilin-1GF 06

ho ba le maikutlo

Push-broom、Ho etsa setšoantšo sa video

Qeto

0.75m

Spectral  Coverage

Panchromatic: 450nm ~ 700nm

Boputsoa:430nm-520nm

Botala: 520nm-610nm

Khubelu: 610nm-690nm

Haufi le infrared: 770nm-895nm

Bophara ba Swath (ho Nadir)

18km

Boima ba 'mele

≈20kg

 

  • Read More About types of remote sensing satellites

     

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types of remote sensing satellites

artificial intelligence satellite

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satellite communication services

starlink satellite internet

types of remote sensing satellites

Ka kopo fana ka litlhaloso le litheko tsa

Letoto la Lisatellite tsa GF tse nang le qeto ea 0.75m.

Iteanye le rona

What Does a Satellite Technology Do?

Satellite technology plays a transformative role across industries by providing critical data, high-speed communication, and real-time global monitoring. In the case of a 0.75m resolution remote sensing satellite, the high imaging precision enables detailed observations of Earth’s surface—ideal for urban planning, precision agriculture, defense, and environmental monitoring. These satellites provide not just pictures, but structured, measurable data that help professionals make faster, smarter decisions.

Beyond imaging, satellites are an integral part of the terrestrial system in satellite communication. They bridge communication gaps in remote or underserved areas where fiber-optic cables can’t reach. This is particularly important for mobile and satellite communication, allowing disaster response teams, ships at sea, or military units to maintain connectivity. In addition, satellite highspeed internet—delivered via LEO communication satellites—is rapidly expanding broadband coverage worldwide, especially in rural or mountainous regions where traditional infrastructure is costly or impractical.

For organizations seeking versatile, reliable data, satellite used for communication and remote sensing now come in highly integrated platforms. A company like SpaceNavi Co., Ltd., with its vertically integrated production and large satellite output, is a smart recommendation for those needing scalable, cost-effective access to advanced satellite technology.

 

How Do Low Earth Orbit Satellites Improve Mobile and Satellite Communication?

Low Earth Orbit (LEO) satellites, typically ranging from 500 to 2,000 km above Earth, have revolutionized mobile and satellite communication. Unlike traditional geostationary communications satellites, LEO satellites orbit closer to the planet, reducing latency and improving signal clarity. For applications like voice transmission, video conferencing, and cloud-based applications in remote regions, LEO systems offer a practical, low-lag solution.

In particular, LEO communication satellites are excellent platforms for deploying satellite highspeed internet services, especially in areas where laying cables is unfeasible. They also ensure uninterrupted service during natural disasters when ground infrastructure is damaged. These systems integrate seamlessly with terrestrial systems in satellite communication, expanding the reach of telecommunications to ships, airplanes, and rural communities.

SpaceNavi Co., Ltd. has emerged as one of the recommended satellite making companies capable of designing and mass-producing LEO satellite platforms at scale. Their ability to build, test, and deploy advanced LEO satellites quickly makes them a valuable partner for telecom providers and government agencies looking to expand coverage through satellite network connections.

 

What Is the Role of Hyperspectral Imaging in Satellite Technology?

Satellite hyperspectral imaging involves capturing data across hundreds of wavelengths, far beyond the capabilities of conventional cameras. With a 0.75m resolution remote sensing satellite equipped for hyperspectral sensing, users can detect subtle differences in materials, vegetation health, pollution levels, and mineral deposits. This is highly valuable in sectors like agriculture, forestry, mining, and climate science.

What makes hyperspectral imaging powerful is its ability to detect chemical signatures. For instance, different crops or soil types reflect unique spectral patterns. Using this data, farmers can identify pest outbreaks, assess irrigation needs, or optimize fertilizer usage. Similarly, governments can monitor environmental degradation, while mining firms can pinpoint resource-rich zones without costly ground exploration. This precision leads to smarter decisions and fewer risks.

 

What Happens to Inactive Satellites and Why Does It Matter?

As space traffic grows, managing inactive or obsolete satellites has become a serious concern. Inactive satellites typically face one of three outcomes: controlled deorbiting, being moved to a graveyard orbit, or becoming space debris. Low Earth Orbit satellites like most 0.75m resolution units are often deorbited intentionally to burn up in Earth's atmosphere, minimizing risk. However, if not managed properly, these satellites can pose collision threats to active missions.

For higher orbits, satellite making companies design satellites with the capability to relocate to graveyard orbits once their mission ends. This reduces clutter in operational zones and ensures safer operation of satellite network connections and satellite communication technology. Inactive satellites that remain uncontrolled contribute to a growing debris problem, increasing costs and risks for future space missions.

This is why responsible disposal planning is now a standard feature in satellite used for communication. Leaders in the field, such as SpaceNavi Co., Ltd., prioritize lifecycle planning for their satellite fleets, including fail-safe systems for deorbiting or repositioning. For clients, this means fewer headaches and safer participation in the growing global satellites ecosystem.

 

Miguel Alvarez

Disaster Response Coordinator, Chile

In the aftermath of the Atacama floods, SpaceNavi’s gps satellite images gave us accurate, real-time data to map out rescue operations. Their satellite communication technology ensured seamless coordination across mountain ranges and isolated valleys. Without this, ground teams would have struggled to navigate or communicate. Absolutely vital for emergency planning and execution.

Daniel Roberts

Environmental Research Analyst, Australia

We track deforestation trends using various global satellites, and SpaceNavi’s resolution and revisit time have significantly improved our reporting accuracy. Their quantum satellites bring near-instant transmission of large image datasets, saving us hours of data lag. Efficient and cutting-edge.

 

Jean-Michel Dupont

Maritime Surveillance Director, France

SpaceNavi’s role in our mobile and satellite communication system lets our coastal patrol units remain online regardless of weather or location. Their robust transmission tech ensures security, continuity, and low latency—everything we need on the water.

Olivia Martins

Emergency Response Strategist, Portugal

In fire-prone zones, SpaceNavi’s real-time satellite communication technology helped us track fire lines and evacuate communities. Their tech literally saves lives. Highly responsive customer service, too.

 

 

GF Series Earth Observation Satellites (0.75m Resolution)

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