Scrap Auction
Turning Surplus Into Value.
About this SERVICE
Creating Value From What Remains
At ELD Solution, our scrap auction services help businesses and organizations manage surplus, obsolete, and unused materials through a structured and transparent auction process. We aim to make the disposal of scrap simple while helping clients recover value from assets that are no longer required.
We focus on responsible handling, clear processes, and connecting available materials with suitable buyers. From collection and assessment to auction and completion, we work to ensure each transaction is handled efficiently and professionally.
OUR APPROACH
Transparent Processes. Better Value.
We believe a successful scrap auction begins with a clear understanding of the materials involved. We carefully assess, categorize, and document scrap and surplus assets before they are presented for auction, helping ensure that buyers have accurate information and clients can make informed decisions throughout the process.
From initial assessment and valuation to auction coordination and final completion, we maintain a structured and transparent process. Our focus is on efficient execution, fair transactions, responsible handling, and maximizing the value recovered from surplus materials, while making the overall experience straightforward for both clients and buyers.
OUR WORK AND ACHIEVEMENTS
PROJECT STORIES IN THIS FIELD
Project story 1
August 2026 | Meghalaya, India
Improving Connectivity in Remote Communities
In late 2024, Global Connect Telecom launched Project Horizon, an ambitious multi-national infrastructure overhaul aimed at modernizing aging transoceanic subsea fiber-optic cable landing stations and core routing nodes. The initiative was designed to address severe bandwidth bottlenecks driven by the explosive growth of edge computing, cloud-native enterprise services, and high-density video streaming across North America and Western Europe. By replacing legacy Dense Wavelength Division Multiplexing (DWDM) equipment with state-of-the-art coherent optical transponders, the project sought to dramatically scale backhaul capacity without the exorbitant costs of laying new physical underwater cables.
Executing Project Horizon required a seamless, multi-phased deployment strategy across seven international landing facilities while maintaining continuous network availability. The project team orchestrated complex hot-swaps of optical line systems, implemented unified open-API network management software, and integrated advanced AI-driven telemetry for real-time fault detection. Overcoming severe logistics constraints, strict maritime regulatory compliance, and tight maintenance windows during low-traffic overnight hours, engineering teams migrated high-volume carrier traffic across redundant paths with zero unplanned downtime for downstream enterprise clients.
The achievements of Project Horizon transformed the carrier’s operational landscape. Total network throughput surged from 8 Tbps to an unprecedented 32 Tbps per fiber pair, effectively quadrupling capacity while reducing power consumption per bit by 42%. Additionally, automated optical routing shortened transatlantic round-trip latency to sub-35 milliseconds, while maintaining 99.999% carrier-grade uptime. Beyond immediate metrics, the upgraded infrastructure laid a robust foundation for future 800G and 1.2T wavelength deployments, securing the operator’s position as a market leader and enabling ultra-reliable, high-speed connectivity for millions of end-users worldwide.
Project story 2
July 2026 | Meghalaya, India
Improving Connectivity in Remote Communities
In late 2024, Global Connect Telecom launched Project Horizon, an ambitious multi-national infrastructure overhaul aimed at modernizing aging transoceanic subsea fiber-optic cable landing stations and core routing nodes. The initiative was designed to address severe bandwidth bottlenecks driven by the explosive growth of edge computing, cloud-native enterprise services, and high-density video streaming across North America and Western Europe. By replacing legacy Dense Wavelength Division Multiplexing (DWDM) equipment with state-of-the-art coherent optical transponders, the project sought to dramatically scale backhaul capacity without the exorbitant costs of laying new physical underwater cables.
Executing Project Horizon required a seamless, multi-phased deployment strategy across seven international landing facilities while maintaining continuous network availability. The project team orchestrated complex hot-swaps of optical line systems, implemented unified open-API network management software, and integrated advanced AI-driven telemetry for real-time fault detection. Overcoming severe logistics constraints, strict maritime regulatory compliance, and tight maintenance windows during low-traffic overnight hours, engineering teams migrated high-volume carrier traffic across redundant paths with zero unplanned downtime for downstream enterprise clients.
The achievements of Project Horizon transformed the carrier’s operational landscape. Total network throughput surged from 8 Tbps to an unprecedented 32 Tbps per fiber pair, effectively quadrupling capacity while reducing power consumption per bit by 42%. Additionally, automated optical routing shortened transatlantic round-trip latency to sub-35 milliseconds, while maintaining 99.999% carrier-grade uptime. Beyond immediate metrics, the upgraded infrastructure laid a robust foundation for future 800G and 1.2T wavelength deployments, securing the operator’s position as a market leader and enabling ultra-reliable, high-speed connectivity for millions of end-users worldwide.
Project story 3
June 2026 | Meghalaya, India
Improving Connectivity in Remote Communities
In late 2024, Global Connect Telecom launched Project Horizon, an ambitious multi-national infrastructure overhaul aimed at modernizing aging transoceanic subsea fiber-optic cable landing stations and core routing nodes. The initiative was designed to address severe bandwidth bottlenecks driven by the explosive growth of edge computing, cloud-native enterprise services, and high-density video streaming across North America and Western Europe. By replacing legacy Dense Wavelength Division Multiplexing (DWDM) equipment with state-of-the-art coherent optical transponders, the project sought to dramatically scale backhaul capacity without the exorbitant costs of laying new physical underwater cables.
Executing Project Horizon required a seamless, multi-phased deployment strategy across seven international landing facilities while maintaining continuous network availability. The project team orchestrated complex hot-swaps of optical line systems, implemented unified open-API network management software, and integrated advanced AI-driven telemetry for real-time fault detection. Overcoming severe logistics constraints, strict maritime regulatory compliance, and tight maintenance windows during low-traffic overnight hours, engineering teams migrated high-volume carrier traffic across redundant paths with zero unplanned downtime for downstream enterprise clients.
The achievements of Project Horizon transformed the carrier’s operational landscape. Total network throughput surged from 8 Tbps to an unprecedented 32 Tbps per fiber pair, effectively quadrupling capacity while reducing power consumption per bit by 42%. Additionally, automated optical routing shortened transatlantic round-trip latency to sub-35 milliseconds, while maintaining 99.999% carrier-grade uptime. Beyond immediate metrics, the upgraded infrastructure laid a robust foundation for future 800G and 1.2T wavelength deployments, securing the operator’s position as a market leader and enabling ultra-reliable, high-speed connectivity for millions of end-users worldwide.
Project story 4
May 2026 | Meghalaya, India
Improving Connectivity in Remote Communities
In late 2024, Global Connect Telecom launched Project Horizon, an ambitious multi-national infrastructure overhaul aimed at modernizing aging transoceanic subsea fiber-optic cable landing stations and core routing nodes. The initiative was designed to address severe bandwidth bottlenecks driven by the explosive growth of edge computing, cloud-native enterprise services, and high-density video streaming across North America and Western Europe. By replacing legacy Dense Wavelength Division Multiplexing (DWDM) equipment with state-of-the-art coherent optical transponders, the project sought to dramatically scale backhaul capacity without the exorbitant costs of laying new physical underwater cables.
Executing Project Horizon required a seamless, multi-phased deployment strategy across seven international landing facilities while maintaining continuous network availability. The project team orchestrated complex hot-swaps of optical line systems, implemented unified open-API network management software, and integrated advanced AI-driven telemetry for real-time fault detection. Overcoming severe logistics constraints, strict maritime regulatory compliance, and tight maintenance windows during low-traffic overnight hours, engineering teams migrated high-volume carrier traffic across redundant paths with zero unplanned downtime for downstream enterprise clients.
The achievements of Project Horizon transformed the carrier’s operational landscape. Total network throughput surged from 8 Tbps to an unprecedented 32 Tbps per fiber pair, effectively quadrupling capacity while reducing power consumption per bit by 42%. Additionally, automated optical routing shortened transatlantic round-trip latency to sub-35 milliseconds, while maintaining 99.999% carrier-grade uptime. Beyond immediate metrics, the upgraded infrastructure laid a robust foundation for future 800G and 1.2T wavelength deployments, securing the operator’s position as a market leader and enabling ultra-reliable, high-speed connectivity for millions of end-users worldwide.