Inter(connected) -Net(work) Research Booklet

INTER (CONNECTED) NET (WORK)

INTER(CONNECTED)-NET(WORK) The Internet, once a network limited to linking only a few universities in the United States, now connects over 4.57 billion people across every continent only 50 years later. Now more than ever people rely on the Internet for everything including socializing, entertainment, shopping, banking, and employment. As the number of people connected to the internet is increasing, the number of “things” connected is expanding as well, including light bulbs, motion sensors, smartphones, watches, and kitchen appliances, totalling to 50 billion in 2020.

However, across the globe not all countries have equal access to these advancements with various internet adoption barriers preventing it. Within the population, Internet use may be low due to unaffordability, low perceived benefit, and lack of capability with technology. To address this, we first need to tackle the supply issue: the insufficient access to mobile internet coverage and fixed broadband, as well as the electricity that powers the internet infrastructure.

We must first provide the population with the Internet at low costs, for them to build the skills to take advantage of the digital realm and thus to create relevant content for themselves. Therefore this digital divide between countries is primarily an infrastructure divide.

Currently the concentration of Internet infrastructure and connectivity is between North America and Europe, with the rest of the world paying huge fees to access their data centers and IXPs through lengthy submarine cables to those distant countries. How can we improve the current internet infrastructure system which currently benefits first world countries, to better serve towards the advancements of developing countries? Can we design solutions for the Internet that are affordable and accessible, and will benefit the country on a whole?

In order to reach the user, Internet infrastructure begins at the “first mile”, where the submarine cables enter the country or continent at the shore. Submarine cables transfer 99% of all data and so we start by studying the root to redefine the system. By locating other elements of internet infrastructure such as the data center in the realm of the ocean, we start to see many opportunities arise such as reducing the cooling loads for the equipment, proximity to renewable marine energy, creating an ecosystem to encourage marine life, and reduced latency with over half of the world population is living within 200km from the ocean.

Certain developing countries have unstable social, political, and economic landscapes that dictate their lack of internet penetration. In contrast, the Internet is a universal and ubiquitous force that is rarely confined to borders or boundaries. By having Internet infrastructure as a neutral entity, owned and funded by the collective global whole to be located in international waters where it is free and open to all mankind, it becomes a public project for universal access rather than a profit oriented capitalist venture.

Locations with virtually no Internet infrastructure currently is an opportunity to rethink the current methods of connectivity. A new typology arises: the universal relay station in the ocean, integrated across the globe with the submarine cable network, acting as a sustainable marine energy generation station, a vibrant marine habitat, and a data center servicing countries affected by internet access inequality.

Julianne Guevara Rogier Tamminga Yanchen Wang

TABLE OF CONTENTS RESEARCH The Digital Divide The Infrastructure Divide The First Mile The Undersea Environment DESIGN Re-wired First Mile and a New Paradigm for the Digital Future

RESEARCH

THE EXPANSIVENESS OF THE INTERNET The Opte Project Barrett Lyon (2003)

THE DIGITAL DIVIDE

THE UBIQUITY OF THE INTERNET AND THE DIGITAL DIVIDE

4.57 billion people were active internet “4.57 billion people were active Although users as of April 2020, encompassing 59 percent internet users as of April 2020, of the global population, this means that still 41% the population hasn’t accessed the internet, and encompassing 59 percent of the of uneven internet distribution exists in the world. global population.”

The idea of the “digital divide” DIGITAL REPORT 2020 refers to the growing gap Mankind has entered a new age of information technology application, and the ubiquitous network between the underprivileged society is a new feature of this era, in which members of society, especially information technology will be highly developed and infinitely integrated. the poor, rural, elderly, and handicapped portion of the People can access things through the network, and correspondingly, the network system can access population who do not have people associated with things through the label, access to computers or the such as e-commerce, digital wallet, e-government, etc. At the same time, people can also contact each internet. other through the Internet without the restriction of the physical environment; and with the development of IoT (Internet of Things), interoperability between things, through the network to achieve the exchange of information between things, such as car navigation, logistics tracking, smart housing…

The era of big data is changing our information environment, allowing us to connect to the world and participate in society. However, not everyone has the opportunity to enter the Big Data era.

41% of the population is still left in the dark

By and large; the digital divide refers to inequality in access to, or ability to use, information and communication technologies. Such a divide may exist between populations and geographic areas in a given country or between countries. The global digital divide, often refers to the fact that the internet has not spread evenly throughout the world.

TIMELINE

The history of the internet starts in 1967, when Arpanet is founded in the USA. Since then, a few important moments further shape the internet. In 1988, for the first time an email crosses the ocean and arrives in Europe. In 1989, this leads to the world wide web, based on the communication and storing system that was developed by scientists in Cern. From 1993 until 2000, the few companies that now dominate the world were founded. In the year 2000, the internet bubble collapsed. In 2004, the way the internet was used changed enormously.

While previously the internet was mainly used for communication, the internet became a platform itself. It changed from the means to the end goal. Nowadays, there are a few big companies who have a large market share in the internet. These are Google, Amazon, Facebook, Alibaba and Tenscent.

1989 WorldWideWeb 1988 Transatlantic

Google 17.9% Others 32.7%

Tenscent 9.0%

1986 1st malware

“Web as platform” 1993 Lycos 1st search engine

1978 1st spam 1974 TCP/IP

1967 ARPAnet

1960

Amazon 17.9%

1970

2004 Web 2.0

Facebook 11.4%

2019 Market share of the six biggest internet companies

Iphone 2007 Mobile revolution

1997-2000 dot-com bubble

1982 EUnet

1980

1999 Banking

Alibaba 11.1%

1990

2000

2010 Internet in outer space

2010

2020

75% 59%

50%

25%

INTERNET PENETRATION

2030

INTERNET OF THINGS

Today, the Internet is a ubiquitous force.

An increasing amount of Things are being connected to the Internet every year in addition to people, and even more so. This reached to 50 billion Things in 2020.

“The new rule for the future is going to be, anything that can be connected, will be connected.”

Jacob Morgan, Forbes 2014

INFORMATION SOCIETY

We live in an information society where the Internet is an incredibly vital form of human engagement and connection today; a society where every single minute there are 190 million emails being exchanged across the globe.

190.000.000

19.000.000 Texts sent

Emails sent

59.000.000

400.000

Messages sent

Apps downloaded

764.000

4.100.000

Hours watched

Search queries

1.100.000

1.600.000

1

Dollars spent online

2.500.000

Swipes

1.400

minute on the Internet

Snaps created

Downloads

694.444

1.200.000

Scrolling Instagram

Views

194.444

2.500.000

People tweeting

Images viewed

1.300.000

4.700.000 Videos viewed

Logging in

305

Smart speakers shipped

Feb. 29 First U.S. Covid-19 death

COVID-19

Since the first Covid-19 death in the US on February 29th, the Internet usage across multiple platforms have skyrocketted. This is due to the increase of people staying home while needing to connect to people outside, as well as having more free time for entertainment. During this time more than ever, it is evident that the Internet has become a necessity rather than a choice in order to function in society.

Zoom

6M

Google Classroom

4M

Microsoft Teams 2M

VPN Super Unlimited Proxy Hangouts Meet by Google

0

Daily app sessions for popular remote work apps

4.8M

5.0M

170M

1.8M

+73.3%

26M

200M

+15.3%

+27.0%

+12.4%

+16.0% +79.4%

4.1M

3.5M

0.6M

120M

16M

Google Duo

Nextdoor.com

Houseparty

Facebook.com

Netflix.com

160M

Youtube.com

GLOBAL INTERNET PENETRATION AND BANDWIDTH MAPPING

Internet Penetration 100% 20%

Looking at the current state of the digital divide, although the number of Internet users have steadily increased over time, the map highlights regions of inequality where the bandwidth and Internet penetration levels remain especially low, such as several countries in Africa.

Global Internet Penetration & User Growth

Bandwidth

10.000 5000 2500 500 (Gbps)

Global Used International Bandwidth

GDP (PPP) per capita low high

INTERNET ADOPTION BARRIERS

A large proportion of the global population remains unconnected today, with each region facing unique challenges, some more than others. At the user level, barriers toward Internet use include affordability, relevance, and capability. However, one of the underlying causes of those issues would be poor access to supply, addressed through Internet infrastructure (including the electricity that powers it).

Commonwealth of Independent States

Europe

Asia-Pacific

Africa & Arab States The Americas

DEMAND

Affordability

Cost of end-user devices, services, access and ancillary costs.

Low income levels.

Relevance

Low perceived benefit, trust, and interest with being online.

Lack of relevant content, services, or apps.

SUPPLY

Capability

Low level of literacy and education.

Lack of proper information and communications technology (ICT) skills.

Infrastructure

Insufficient access to mobile Internet coverage and fixed broadband.

Lack of supporting infrastructure such as electricity.

REAL INTERNET

Jigjiga, Ethiopia Photo: Charles Roffey

“In a society where increasingly we are defined by access to information and what we earn is what we learn, if you don’t have access to technology, you’re going to be left in the digital dark ages.

That’s what the digital divide is all about.”

William Kennard, the Chair of the FCC

DATTO DATA CENTER

Photo: https://imgur.com/gallery/C8kAQ

THE INFRASTRUCTURE DIVIDE

Maka‘awa‘awa, Matt Rantanen, Triggs and Darrah Blackwater help the Nation of Hawai‘i set up a community broadband network.

Photo: Christopher Mitchell

THE DIGITAL DIVIDE IS AN INFRASTRUCTURE DIVIDE

“So, if the Digital Divide is anything, it is first an infrastructure divide. It has next to nothing to do with a shortage of information appliances and almost everything to do with the unglamorous, gritty, siltencrusted, and costly mélange of wires, conduits, poles, switches, and other assorted gear that make up the underbelly - or nervous system - of the much-touted ‘information society.’”

Robert G. Rogers, Executive Director, Global Information Infrastructure Commission Internet infrastructure is usually defined as the collection of hardware and software required to enable Internet applications. Critical software services like the Domain Name System (DNS), Email, website hosting, authentication and authorization, storage systems, and internet servers are considered critical components. And the digital information we receive is stored in every data center and transmitted

over physical cables and fibers, or over the satellite wireless propagation. Other types of hardware that support the Internet include routers, servers, cell phone towers, wireless transmission via satellite.

Radios, smartphones, and other devices.

Since the first undersea telegraph cable was laid in 1850 between England and France, then it extended to across the Atlantic Ocean in 1866, the most powerful continents were connected. With the development of communication technology. In the early Web era, the internet is regarded as a force for achieving knowledge equality, a way for the poor and the marginalized to gain power. However, the internet is creating a new divide in our society, between those who are part of the new economy and those who are not able to join in it.

Until today, where the level of economic activity is low, the distribution of Internet infrastructure remains relatively small and access levels relatively low. The number of submarine cables and communications satellites and the speed of broadband are also vastly different in developed and third world countries. the uneven distribution of Internet infrastructure creates and exacerbates the digital divide.

Internet infrastructures connect together in many different ways to form the digital network and have become linked to geographical economic development and social well-being. Large numbers of data centers and efficient submarine cables and satellites are in the hands of Internet giants and developed countries, leaving countries that cannot afford internet infrastructure in the digital dark or delayed networks.

INTERNET “MILES”

In relation to the country, we can categorize the infrastructure at 3 main levels: the first mile is where the Internet enters the country, the middle mile is where it passes through the country, and the last mile is where it reaches the end users. There is also the invisible mile which includes virtual elements that ensure the integrity of the network.

INFRASTRUCTURE NETWORK

In the physical environment, the traditional flow of data begins at the submarine cables, meets at the landing station, passes through a data center and IXP, then finally reaches our homes.

Cell Towers Users

Submarine Cables > 95%

Browsers 1. Send request 2. Corresponding

Light signals

Routers in Home

ISP in Data Centre

Satellite

Phone

Users

Internet Cables

Laptop

Light signals

< 5% DNS

Electromagnetic wave

Satellite Terminal

Electrical signals

SATELLITES VS SUBMARINE CABLES

Many wrongly assume that internet mainly travels via satellite when in fact 99% of data travels by submarine cables.

When comparing data transfer between satellites and submarine cables, cables are much faster due to higher capacity and shorter communication distance. In addition, satellites are often inhibited by unpredictable weather conditions

Dunant by Google

250 Tbps

Starlink by SpaceX

36.

000

km

24 Tbps

9.000 km

POPULATION DENSITY

Population density and internet infrastructure have a positive correlation.

However, it is also evident that there are regions with high population density that still lack many of these essential Internet infrastructures.

Internet Exchange Points

Submarine Cables

Terrestrial Cables

Population Density (persons per sqkm)

>1000

0

GDP (PPP) PER CAPITA

Similarly, regions with higher GDP tend to have more comprehensive Internet infrastructure networks. The regions with the lowest GDP are severely lacking in connectivity, for example, central Africa.

Internet Exchange Points

Submarine Cables

Terrestrial Cables

GDP (PPP) per captia in Int$

>50.000

35.000-50.000

20.000-35.000

10.000-20.000

5.000-10.000

2.000-5.000

<2.000

unknown

COUNTRY COMPARISON

Even within geographic proximity, there is an Internet divide between different countries. North America and Europe have an adequate number of satellites and cables and have the best Internet connections.

African countries have lower numbers and lower connection rates. In general, network penetration and broadband speeds in different countries are related to the number of communication facilities, especially submarine cables.

ENERGY PRODUCTION

An underlying requirement for Internet connectivity that is extremely essential is sufficient energy production. Looking at the global energy production levels clearly shows the international electricity disparity.

“70 percent of the population of subSaharan Africa has no access to an electric grid. So if you want to build a data center to bring cloud services closer to such a population, you’d probably need to provide electricity for it, too.”- Sarvesh Mathi

“Electricity is the lifeblood of our digital age, but, ironically, it has lagged behind our connected times.”

Tomas Kellner

ENERGY CONSUMPTION

Right now, the energy consumption of the whole internet infrastructure is responsible for 11% of the global energy consumption.

The biggest chunk of this infrastructure, being the datacenters, consumes almost six times as much energy per year than the whole of the Netherlands. This is only going to get more, in a worst case scenario the internet infrastructure will be responsible for over half of the total energy consumption.

11%

21%

51%

2020

2030 expected

2030 worst-case scenario

Energy consumed by the internet opposed to total energy consumption

667

2857 TWh/year

422

Energy usage, TWh/year 189 96

100

Laptops & PC’s

Mobile Networks

119

25

26260 TWh/year

Smartphones & Tablets

THE NETHERLANDS

WIFI

Wired Networks

Data Centers

TRADITIONAL DATA CENTERS

The design of land-based data centers heavily revolve around the human presence.

Recent data centers have been moving more towards AI-operation in order to reduce the requirement of these human spaces.

Hyperscale 10000m ² +

Large 5000-10000m ²

Medium sized 501-5000m ²

Small 101-500m ²

Electrical Room

Security Room

Office

Server Room 11-100m ²

Server Closets 10m ²

TW/h

TW/h

250

250 Infrastructure

200

Rasied Floor

Hot/Cold Aisle

Server Room

Storage

150 100

Hyperscale

200 150

Cloud (Non Hyperscale)

100

Servers

Traditional

50

50 2015

2016

2017

2018

2019

2020

Server Rack

Cable Tray

2015

2016

2017

2018

2019

2020

Global data center energy demand by end use

Energy Demand By Data Center Type

Global Gross Power

Global White Space 12.229.735 m²

18.034.04 kw Cooling Equipment

2021

2021

CABLE LANDING SITE Guam Photo: Nicole Starosielski

THE FIRST MILE

SUBMARINE CABLES

Articulated cast iron shells that protect, ballast, and stabilize subsea conducts (cables, pipes, etc.).

Photo: FMGC

THE FIRST MILE: SUBMARINE CABLES

Thus, there are several stages in the internet penetration in any country. Data centers, IXP’s, ISP’s, cell towers, satellite receivers and cable landing stations are all connected to each other. They are divided in different ‘miles’: a first mile, a middle mile, a last mile and an invisible mile. These names are corresponding to in which place in the whole system the infrastructure plays a part. Satellites and submarine cables bring the internet to a country, but while satellites are far away from the earth, cables are the fastest and most reliable option.

“But when we think of the internet, many wrongly assume that satellites in space keep us connected with different parts of the world. In reality, 99 percent of the data travels between countries and continents through undersea cables.”

Sarvesh Mathi

The infrastructure divide immediately becomes clear when looking at the map of internet infrastructure.

There is a huge difference in infrastructure density between Europe and the USA on the one hand, and Africa and South America on the other. The difference in GDP is also clear, but the difference in population is not related to this: there are areas with a large population and no internet infrastructure. This internet infrastructure becomes extra hard to manage when taking into account the energy infrastructure: the countries with a low energy production do not have a good internet infrastructure, and cannot set up a good internet infrastructure. The internet already consumes a large share of the global internet production. It becomes clear that data centers consume the most energy of all the internet infrastructure.

While all these are important, it starts with the first mile: submarine cables. Most data travels through these cables: they are the most effective means of communicating over long distances and their quality is in direct relation with the internet penetration, and the internet penetration growth of a country. The next part will further research the different aspects of these submarine cables: the cables themselves, how they are laid down, and how they are connected to the land network.

100% SUBMARINE CABLES AND INTERNET PENETRATION GROWTH

100%

It is evident in various countries that an implementation of high speed cables saw an increase in internet penetration levels.

By looking at the the internet penetration in four different areas and the submarine cable connection of these areas, there seems to be a correlation between the two. With a better cable connection, the internetInternet penetration grows. Without these, speed the internet penetration stays at a very low point. through cable

95%

The Netherlands

75%

95%

Internet speed through cable 1 Pbit/s 100

20 Tbit/s 5.2 Tbit/s

10

75%

9.38 Tbit/s

50%

1 Tbit/s 100

18 Gbit/s 10

25%

1 Gbit/s 100

1 Pbit/s

Internet penetration as % of population

10

1 Mbit/s

100

1990

2000

2010

2020

2030

20 Tbit/s

50%

5.2 Tbit/s

10

100%

9.38 Tbit/s

South Africa 75%

1 Tbit/s

Internet speed through cable 1 Pbit/s

100%

100

18 Gbit/s

~100 Tbit/s*

100 10

24 Tbit/s

1 Tbit/s

440 Gbit/s 640 Gbit/s

100

10

50%

4.72 Tbit/s

56%

10

25%

1 Gbit/s 100

1 Gbit/s

560 Mbit/s

25%

340 Gbit/s

Internet penetration as % of population

10

1 Mbit/s

1990

100

2000

2010

75% 10

2030

100%

Internet penetration as % of population

Sudan

1 Mbit/s

2020

75% Internet speed through cable 1 Pbit/s

1990

2000

100

2010 ~100 Tbit/s*

2020

10

1.28 Tbit/s

1 Tbit/s

2.56 Tbit/s

50%

4.72 Tbit/s

2030

100

50%

4.72 Tbit/s

56%

Internet penetration as % of population 100%

10

1 Mbit/s

1990

640 Gbit/s

25% 31%

100

24 Tbit/s 440 Gbit/s

10

1 Gbit/s

2000

2010

2020

Eritrea

2030

75%

Internet speed through cable 1 Pbit/s 100

25%

50%

10

1 Tbit/s 100

340 Gbit/s

10

25%

1 Gbit/s 100

Internet penetration as % of population 1990

10

Internet penetration as % of population

1.3%

1 Mbit/s

2000

2010

2020

2030

THE CABLE HISTORY

The first undersea telegraph cable was laid in 1850 between England and France. It then extended across the Atlantic Ocean in 1866. Other countries relied on the technical expertise and naval resources of the British. They formed many early systems with colonial transportation and trade routes. The cable station became a space to declare their foreign domination

The situation of cable colony changed in the coxial cable era, with the independence of former colonies. What is remarkable is that the cable stations were reconfigured as gateways to new nations. However, the existing system still could be perceived as a continuing intrusion of foreign power. In the 1960s, anti-British rioting in Indonesia cut communications to Malaysia and forced staff members to move.

In the fiber-optic era, the world situation is peaceful, the various countries begin to cooperate to develop the economy, and the globalization trend begins. Thus the undersea network field expands. “Law relating to the high seas,” affirmed the right of all States to lay submarine cable. Meanwhile the Government-owned and affiliated telecommunications companies were broken up, creating opportunities for new players to enter the industry.

AGING CABLES

Separating by date of service start, it is evident that a majority of submarine cables are relatively new. The majority of potential capacity on major cable routes will come from systems less than 5 years old.

Although many old cable systems have an abundance of untapped potential capacity, few have spare fiber pairs for bandwidth buyers to own exclusively. Additionally, older cables are becoming too expensive to maintain and cannot beat the economics of the modern systems. Thus the question arises, what will happen to all these aging submarine cables sitting at the bottom of the ocean?

Varying cable age on various routes Europe-Asia via Egypt 61%

31%

8%

Intra-Asia 26%

18%

14%

41%

US-Latin America 2

44%

36% %

19%

7%

21%

Trans Pacific 55%

18%

Trans Atlantic 14%

57%

29%

10+ years

10+ years

6-10 years

6-10 years

0-5 years

0-5 years

Planned

Planned

CABLE OWNERSHIP

The majority of submarine cables are owned by a consortium of telecom companies based in the various countries the cables serve. However, in recent years content providers are investing more in sole and part ownership of cables. Content providers use over half of international bandwidth, so it is obvious that they wish for exclusive access through submarine cables. Content provider networks have displaced internet backbones as the largest source of used international bandwidth. Google has the largest share in cable ownership out of any other content provider, and is the only one with sole ownership of multiple cables.

Bandwidth consumers 6% Other Internet 40% backbone providers

Comparison of content provider cable shares

Google 54%

Content Providers

102.362 km

Facebook

91.859 km

Amazon

30.557 km Data Center

Microsoft 2012

2013

2014

2015

2016

2017

2018

Submarine Cable

6.605 km 0

25.000

50.000

75.000

100.000

Planned Submarine Cable

SUBMARINE CABLES

Submarine cables transfer data as light through optical fibers, which are encased in various protective layers. The level of armor required decreases once further from the shore. Along the length on the cable, repeaters are needed to continually amplify the signal.

CABLE LAYING SHIP

Cable laying takes an immense amount of resources including time, personnel, and money, with projects costing up to $350 million. The cable ship featured below, the Subcom Reliance, was first deployed in 2001.

Cable drums and linear cable engine

Sea Plow Able to bury cable up to 3 m below the ocean floor.

Handling machinery includes two 30 ton cable drums and a 20 wheel pair linear cable engine.

80 crew members on board

Supplies for 60 days 200 loaves of bread 100 gallons of milk 500 cartons of a dozen eggs 800 pounds of beef 1200 pounds of chicken 1800 pounds of rice 300 rolls of paper towels 500 rolls of toilet paper 700 bars of soap 600 pounds of laundry detergent

140 m

Bridge Houses the latest technology in navigation, dynamic positioning and communication

Remotely Operated Vehicle Underwater robot used for various installation and repair tasks up to 2500 m depths.

Bow Thrusters Provides propulsion and maneuverability with 360 degree rotation.

Stern Thrusters Provides propulsion and maneuverability with 360 degree rotation.

Diesel Engine Generators 5 generators provide enough electrical power to propel the ship at a speed of 14 knots.

Cable Tanks 3 tanks hold over 5000 tons of cable, enough to cross the Atlantic Ocean.

CABLE TANK INTERIOR

Fiber-optic cable being loaded onto a ship owned

by SubCom, which is working with Google to build the world’s fastest undersea data connection.

Photo: Bill Gallery

CABLE LAYING

When planning the route for a submarine cable there are many factors to be considered. A thorough survey scan of the seafloor topography is done to create a 3D model that then accurately places the submarine cable is the safest position.

Multibeam echo-sounding can gather information from a swath of seabed 3-5 times the water depth. Cables must be carefully routed to avoid underwater landslides, currents, shipwrecks, and coral reefs.

Photos: Makai Ocean Engineering

CABLE FAULTS

Each submarine cable is designed to last 25 years, however repairs are often required throughout it’s lifetime. Approximately 100 cable faults occur annually world wide and tend to be located near land.

Proportion of cable faults by cause, from a database of 2162 records spanning 1959 - 2006.

Unknown 21.3% Other 4.8% Iceberg 0.1% Fish bite 0.5%

Fishing 44.4%

Dredge/drill/ pipeline 0.9% Geological 2.6%

Abrasion 3.7% Component 7.2% Anchor 14.6%

Cable Fault Locations, 1959 - 2006

Submarine Cables

CABLE+LAND INTERFACE

The exact location of the cable landing station is determined by several aspects.

The left chart show the submarine cables close to land and the marine activity in these areas. The right chart shows the soil type at the location of the cable landing station. Minimal marine activity and a sandy soil are the ideal circumstances for a cable landing station.

SANDY SOIL

MINIMAL MARINE ACTIVITY NORTHEAST ENGLAND

NORTHEAST ENGLAND

Leamy soil over rock Leamy or clayey soil Peaty surface and/or soil High activity Medium activity Low activity

Sand dune soil Cable landing station Submarine cable

CABLE LANDING STATION COMPONENTS

The cable landing station itself consists of several parts. The most important part are the telecommunication racks, these are responsible for the connection between the land and the sea network. These are powered by power generators, back-up power generators and back-up batteries.

These power generators maintain the racks to work, but also power the repeaters along the submarine cable. The rooms are very well regulated and secured, both from accidents like fire, but also for outsiders trying to break into the space.

Power generator

Fuel tank

Control room

Telecommunication racks Back up batteries

Ventilation units

Submarine cable network

Land cable network

Fire extinguishers, working with gas

MARINE LIFE IN AN OFF-SHORE OIL RIG Photo: Joe Platko

THE UNDERSEA ENVIRONMENT

MARINE LIFE IN AN OFF-SHORE OIL RIG

Photo: Getty Images

THE UNDERSEA ENVIRONMENT

“When it comes to the ocean, the vast majority of it is not just unmapped, but unknown”

shows opportunities for combining this ocean environment with the internet infrastructure. It is the prelude of our design concept: cherishing this important part of the world, and at the same time take the opportunity it offers.

Vicki Ferrini

“The ocean economy employed 31 million people full-time and generated $1.5 trillion each year. Maps – or the lack thereof – play a role in nearly every critical ocean issue, from sea level rise to ocean acidification to biodiversity.”

The submarine cable network is extensive, and includes the labour of many people. Both by laying down the cables on the seafloor, as well as controlling the many cable landing stations that are located all over the world. While this system has to deal with the undersea environment, the undersea environment also has to deal with the cable system.

The cable system have an impact on the oceans.

Nowadays, oceans still form a largely undiscovered part of the world. In the next part these oceans will be further examined. What can be discovered about these oceans? It dives into the different elements of the ocean environment, the natural processes, the depth, but also to the political situation. It then

OECD

UNDERSEA ENVIRONMENT

ATLANTIC

SUBMARINE CABLES

Much of what we know about the ocean today can be attributed to the strong effort towards cable laying in the early 20th century. As crews traversed the oceans environment in order to design cable routes, they also learned about its depths and helped develop a body of oceanic knowledge. Cable workers would send samples to marine scientists and helped compile an archive of the seafloor’s composition (Starosielski 2015).

MARINE LIFE

An effort called Census of Marine Life is documenting life found in the world ocean. The number of different species found, so far, in each area is indicated on this map – red/ orange meaning many ranging to dark blue/purple being few. The real message here is that discovery of life species in the ocean depends on the amount of research done, and most remote ocean areas still have little or no data. Scientists expect to find millions more species of life in the ocean. In fact, a major portion of the diversity of life on Earth probably lies undiscovered in the ocean depths.

(National Geographic)

Number of species observed 0 Submarine cable

PLATE TECTONICS

Major earthquakes and volcanic eruptions since 1990 are shown on this world map. Fifteen huge plates of ocean and continental crust move slowly but constantly around the surface of the Earth. Their movements and collisions create most of the world’s volcanoes and earthquakes along their boundaries.

(National Geographic)

4.000

8.000

12.000 16.000 19.600

No data

GLOBAL OCEAN OBSERVING SYSTEM NETWORK

International efforts to study the ocean are expanding, with an increasing number of data collecting systems – measuring water temperature, salinity, currents, tides, and weather -- being deployed worldwide. Such global observation systems will help predict El Nino and similar events, and provide evidence for global climate change.

(National Geographic)

Volcanic eruption

Surface drifters

Hot spot

Expendable BathyThermographs

Spreading boundary

Repeat hydrography

Divergent plate motion

Data buoys

UNDERSEA ENVIRONMENT

ATLANTIC

OCEAN CURRENTS

Major ocean currents dictate the flow of ocean water around the globe, generally moving in a single direction around the coast of various land masses that surround the North and South Atlantic Oceans.

These currents are constant and predictable.

CHLOROPHYLL LEVELS

Chlorophyll concentrations show the density in surface waters of tiny organisms called phytoplankton that convert sunlight into food for the rest of the ocean’s creatures.

Phytoplankton are limited by the availability of nutrients in surface waters. The highest chlorophyll concentrations worldwide are seen along coastlines, but winds and currents provide nutrients for moderate levels along the equator, along western continental coastlines, and in the polar regions during their summer months. Lowest levels of chlorophyll are typically seen in remote regions of the South Pacific gyre near Easter Island.

(National Geographic)

Chlorophyll (mg per m3) Currents

0,01 0,03 0,1

0,3

1

3

10 30 60

HUMAN IMPACT

SEA SURFACE TEMPERATURE

Level of impact

Sea surface temperature (oC)

A rigorous analysis published

by Benjamin Halpern and his colleagues in Science in 2008 assessed impacts on the ocean from 17 human activities – including pollution, fishing, shipping, oil and gas, development, climate change – on various types of coastal and ocean areas. They found the highest impacts in coastal areas, but also found that no part of the world ocean, however remote, is free of negative human impacts.

(National Geographic)

low

high

Sea surface temperature varies with seasons and climate. Warmest surface waters (red/orange) always occur around the Equator which receives direct sunlight; coldest (purple) at the Poles where sunlight is more indirect. Surface ocean currents then redistribute the ocean’s heat -- seen as cooler waters moving toward the Equator along the west coasts of North and South America, and in the bright orange jet of warm waters being moved north by the Gulf Stream along the east coasts of the U.S. and Canada.

(National Geographic)

-1

4

9

14

19

24

29

34

FREEDOM OF THE SEA

The freedom to lay submarine cables and pipelines was one of the most venerated high seas freedoms under the 1982 United Nations. The term “high seas” means all parts of the sea that are not included in the territorial sea or in the internal waters of a State. With the high seas being open to all nations, no State may validly purport to subject any part of them to its sovereignty.

Freedom of the high seas is exercised under the conditions laid down by these articles and by the other rules of international law.

High Seas

OCEAN DEPTHS

The ocean depths are home to an abundant and diverse marine ecosystem. The species found in the ocean change with depth as the temperature of the water and the sunlight penetration changes.

Characteristics

Ample light for photosynthesis. Large concentration of plants and animals such as plankton, floating seaweed, jellyfish, tuna, sharks and dolphins.

Swordfish, squid, cuttlefish, many bioluminescent fish.

Anglerfish, giant squid, dumbo octopus, sperm whales. No living plants.

Very few creatures, many which are transparent and eyeless. Cold temperatures and high pressures.

Rare ocean trenches.

Marine Habitats

Temperature Change

ENVIRONMENTAL IMPACT

Submarine cables have minimal environmental impact. Cables in operation are buried by sand and become indistinguishable from the natural seabed within 2 years. The total magnetic field associated with the operating cable showed a variation of <1% of the natural field as measured 5 m above the cable.

In some cases, submarine cables can even have a positive environmental impact, and generate new habitants for marine life. Coils of old undersea cables have been used to build artificial reefs and promote marine habitats. Through the biofouling process, hard surfaces can become encrusted by marine species similar to those inhabiting the natural reef—that process occurring within 3.5 years.

Biofouling Process

Particles of organic matter

Macroscopic fouling community

Primary colonizers

Secondary colonizers

Tertiary colonizers

Submerged hard surface 1 Dissolved organic matter is 2 A complex, multispecies adsorbed onto the material surface, creating a conditioning film.

Minutes

microbial biofilm is formed onto the organic layer.

Hours

3 Secondary colonizers arrive.

Frequently they are attracted by chemical cues produced by the microbial community.

Days

4 Eventually the substrate is colonized

by invertebrate larvae. Algae and invertebrates grow and develop a community of macroscopic individuals.

Weeks

Conditioning film Biofilm Macroscopic fouling

Months

REFERENCES

Books Servon, L. J. (2002). Bridging the digital divide: Technology, community, and public policy. Malden, MA: Blackwell Pub. Starosielski, N. (2015). The undersea network. Durham: Duke University Press.

Kennedy, P. M. (2014). The War plans of the great powers, 1880-1914 (RLE The First World War). Routledge.

Burnett, D. R., Beckman, R. C., & Davenport, T. M. (2014). Submarine cables: The handbook of law and policy. Leiden: M. Nijhoff.

Muschert, G. W., & Ragnedda, M. (2015). The digital divide: The internet and social inequality in international perspective.

Carter, L., Burnett, D., Drew, S., Marle, G., Hagadorn, L., Bartlett-McNeil, D., & Irvine, N. (2009) Submarine cables and the oceans: connecting the world. UNEP-WCMC Biodiversity Series No. 31. ICPC/UNEP/UNEP-WCMC. Journals Article 87 - Freedom of the High Seas (III). (n.d.). United Nations Convention on the Law of the Sea, 72-86. doi:10.1163/ ej.laos_9789041100351_072-086 Carter, L., & Burnett, D. R. (2015). Subsea Telecommunications. Routledge Handbook of Ocean Resources and Management, 349-365. doi:10.4324/9780203115398-24 CCDCOE (2019). Strategic importance of, and dependence on, undersea cables.

Eyupoglu, C., & Ali Aydin, M. (2015). Energy Efficiency in Backbone Networks. Procedia - Social and Behavioral Sciences 195: 1966-1970. Elsevier Ltd. Pärssinen, M., Kotila, M., Cuevas, R., Phansalkar, A., Manner, J. (2018). Environmental Impact Assessment of Online Advertising. Environmental Impact Assessment Review 73: 177-200

Rauscher, K. (2010) Rogucci ,The Report. Proceedings of the reliability of global undersea communication infrastructure. IEEE Communications Society.

Philbeck, I. (2017). Connecting The Unconnected. International Telecommunication Union. Retrieved from https://broadbandcommission.org/ Documents/ITU_discussion-paper_Davos2017.pdf The State of Broadband: Broadband as a Foundation for Sustainable Development. (2019). International Telecommunication Union. Retrieved from https://www.itu.int/dms_pub/itu-s/opb/pol/S-POL-BROADBAND.20-2019-PDF-E.pdf Connecting Africa Through Broadband: A strategy for doubling connectivity by 2021 and reaching universal access by 2030. (2019).

International Telecommunication Union. Retrieved from https://www.broadbandcommission.org/Documents/working-groups/ DigitalMoonshotforAfrica_Report.pdf Images and Information for Graphics Internet Minute https://www.allaccess.com/merge/archive/31294/infographic-what-happens-in-an-internet-minute Global Internet Infrastructure https://www.itu.int/itu-d/tnd-map-public/ Cable Catalog https://www.visualcapitalist.com/global-fiber-optic-network-explained/ https://www.submarinenetworks.com/en/systems https://github.com/telegeography/www.submarinecablemap.com/tree/master/public/api/v2/ready-for-service https://submarine-cable-map-2019.telegeography.com/ Cable Laying Ship https://www.nytimes.com/interactive/2019/03/10/technology/internet-cables-oceans.html

Websites

Cable Ownership https://blog.telegeography.com/telegeographys-content-providers-submarine-cable-holdings-list https://broadbandnow.com/report/google-content-providers-submarine-cable-ownership/ https://www.google.com/about/datacenters/locations/ https://www.datacenters.com/providers/facebook https://www.datacenters.com/providers/amazon-aws https://www.datacenters.com/providers/microsoft

Kai Hsin Hung Posted in future scenarios reports. (2017, March 09). Global Digital Divide & Solutions in 6 Graphics. Retrieved June 30, 2020, from https://technologyatwork.itcilo.org/global-digital-divide-solutions-in-6-graphics/

Cable Landing Station https://xsitemodular.com/critical-infrastructure/#design-build-process

Lavallée, B. (2019, February 05). The cable landing station is critical infrastructure. Retrieved June 30, 2020, from https://www.totaltele. com/502079/The-cable-landing-station-is-critical-infrastructure

Cover Photos https://www.moma.org/collection/works/110263 https://www.flickr.com/photos/charlesfred/2348769827 https://www.wired.com/2015/10/undersea-cable-maps/ https://www.windsystemsmag.com/the-latest-advancements-in-submarine-cables-protection/ https://www.wired.com/story/google-cramming-more-data-new-atlantic-cable/ https://imgur.com/gallery/C8kAQ https://www.makai.com/cable-software/dtm-module/ https://www.lamag.com/culturefiles/offshore-oil-rigs-to-reefs/ https://news.microsoft.com/features/under-the-sea-microsoft-tests-a-datacenter-thats-quick-to-deploy-could-provide-internet-connectivityfor-years/

Andrae, A.S.G., & Edler, T. (2015). On Global Electricity Usage of Communication Technology: Trends to 2030. Challenges 2015, 6, 117-157; doi:10.3390/challe6010117 OECD (2016) The Ocean Economy in 2030. OECD Publishing, Paris. DOI:https://dx.doi.org/10.1787/9789264251724-en

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