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Rescuing the Trans-Regional Multimodal Land Bridge (TR-MLC) | ISCEA Global Case Competition

Lfkinji · 1,028 words · 5 min read

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0:00Good morning everyone. Our presentation

0:02is called Operation Crossroads and it

0:04focuses on securing the region, the

0:07Trans-Regional Multimodal Land Bridge or

0:10TRMLC.

0:12This corridor connects Arabian Gulf

0:14ports through

0:15Jordan and Palestine into Turkey and

0:17then forward European industrial

0:19markets. The purpose of our project is

0:22to make this important supply chain more

0:24resilient against major disruptions. We

0:27focus on four mains areas:

0:30cybersecurity, logistics, energy, and

0:32cross

0:33cross-border coordination. In our

0:36scenario, the corridor experiences three

0:38major disruptions at the same time. A

0:41cyber-kinetic attack, an energy

0:43deficient, and irregularities stalemate.

0:46These disruptions affect the movement of

0:49goods and create a major supply chain

0:52bottleneck. I will explain now these

0:54three shock and their impact.

0:57This crisis is called the triple shock

1:00because three problems happened this

1:02simultaneously.

1:04First, there is cyber-kinetic

1:05disruption. A zero-day malware attack

1:09disables 40% of automated port

1:11equipment, while GPS and AIS signals

1:15are spoofed. As a result, port

1:18turnaround times increase from 14 hours

1:21to 58 hours. Second, there is an energy

1:24deficient. The corridor loses 4,200 MW

1:29from its original 14,000 MW grid,

1:33representing a 30% reduction in

1:36available power. Third, there is a

1:38regularity stalemate

1:41called the silicon iron curtain. Western

1:44controllers manage around 50% of cargo

1:47volume, while

1:48East Asian providers own around 40% of

1:52the infrastructure, creating conflicts

1:55over technology, data, and coordination.

1:58Together, these three shocks severely

2:00reduce the corridor's ability to move

2:04around cargo efficiently.

2:07The result of these disruptions is a

2:08major supply chain bottleneck. Under

2:11normal conditions, the port can handle

2:1310,000 TEU per day with a 14-hour

2:17turnaround. After this disruption,

2:19turnaround increases to 58 hours,

2:21reducing the adjusted capacity to

2:24approximately 2,173

2:27TEU per day.

2:28This creates a daily gap of

2:3110,000 - 2,173

2:34= 7,827

2:37TEU per day. This means 7,827

2:42TEU cannot be handled by the primarily

2:45primary port each day. To prevent

2:47congestion,

2:49the strategy is to redirect cargo

2:52through inland dry inland dry ports and

2:56rail connections. The remaining primary

2:59port capacity is prioritized for

3:01critical shipments such as

3:03pharmaceutical, cold chain food, and

3:06defense equipment. So, the key issue we

3:09need to solve is the 7,827

3:12TEU daily bottleneck.

3:14>> Moving on to our cyber defense

3:16architecture,

3:18the main goal is to protect the

3:19corridor's important system from cyber

3:21attacks. We use a zero trust approach,

3:24which means that every user and device

3:27has to be verified before getting

3:28access. The system protects important

3:31equipment, including automated cranes,

3:33guided vehicles, and equipment used at

3:36dry ports. We divide the system into two

3:39channels. The first is an automated

3:41channel, which only used by verified

3:44operators, ministries, and shippers. It

3:48uses an encrypted gateway to keep

3:50commanders and location data secured.

3:53The second is a decoy channel. If an

3:56attacker tries to enter the system, they

3:59receive fake location and fake data

4:01instead of the real information. So,

4:03overall, the system protects the real

4:05logistic operations while making it

4:08harder for the attackers to access or

4:11understand the actual system.

4:14Next, we have navigation without GPS.

4:17GPS can be blocked or manipulated, so we

4:20need another way to track and guide the

4:22cargo. We use ground-based positioning

4:25through the eLoran and RTK mesh. It

4:29gives us an accurate positioning along

4:31the rail and highway routes. We use

4:34optical RFID

4:36and OCR systems to identify containers

4:40at dry port checkpoints. This allows us

4:43to check the containers, identify, and

4:46make sure it movements

4:49through the corridor is properly

4:51tracked. The main advantage is that the

4:53system does not need a satellite signal.

4:56So, if the GPS is unavailable, the

4:59corridor can continue operating and

5:02tracking the cargo. Moving on, we need

5:04to close the 7,827

5:08TEU per day gap. To do this, we move the

5:12cargo from the main ports to inland dry

5:16ports using rail. With 24 trains per day

5:20and 160 TEU per train, we need to clear

5:253,840

5:27TEU per day.

5:29We also have 5-day emergency buffer of

5:3339,135

5:36TEU. Meanwhile, the main port prioritize

5:40critical cargo and pharmaceuticals

5:43and cold chain food and defense

5:46equipments.

5:48This helps reduce the pressure on the

5:50main ports and keeps cargo moving.

5:53>> Emergency energy strategy. Here the

5:56crisis

5:57uh caused a 30% power loss. So, the

5:59available power drops from 14,000

6:03to 9,800 MW. So, we need to use the

6:06remaining power for the most important

6:09operations first.

6:10This will include the port and the LNG

6:13cooling.

6:15Also, clean energy can provide extra

6:18power.

6:19Then we have the chief power allocation.

6:22Here we divide we divide the power into

6:25three levels based on importance.

6:27Uh tier one gets full power.

6:30Tier two has 30% and uh tier three has a

6:3450% cut.

6:37This helps us to protect the most

6:39important operations first. With solar

6:41energy and batteries, we can keep

6:44productivity at about 94.4

6:48uh percent.

6:49Solving the silicon iron curtain. The

6:52main problem here is that the technology

6:54and the data controlled by different

6:55groups. So, we use ZKP and encryption to

6:58protect uh important information. This

7:02allows the different group to check the

7:04information without seeing private data

7:07data.

7:09So, the system can stay secure while

7:11everyone continues working together.

7:14>> In this slide, we will be discussing the

7:16smart governance and the rules.

7:18Everything is automated through smart

7:20contracts. So, if there are any delays,

7:23financial penalties happen

7:25automatically. For example, customer

7:28clearance must take 45 minutes or less.

7:32And container transfer must take under

7:3590 minutes. We also guarantee 100%

7:39non-stop power and fast reliable data

7:43pipelines.

7:44And for our strategic road map from 2026

7:48till 2030,

7:49we have three phases.

7:51Phase one, we secure our navigation

7:54system and set up energy storage to

7:57handle emergencies.

7:58Phase two, we protect our infrastructure

8:02by moving the main power lines and

8:04internet cables underground. And for our

8:07final phase, we create a full green

8:10corridor with electric trains, clean

8:13power, and hydrogen stations.

8:16And finally, we bring everything

8:18together by connecting five main areas:

8:22cyber, logistics, energy, governance,

8:26and infrastructure.

8:28Our goal is to build a safe, green, and

8:32reliable logistics network that keeps

8:34moving no matter what are the

8:37disruptions that are happening.

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