Hyperloop Product Specifications

An overview describing the components of the hyperloop product in terms of its general characteristics and specification
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Disclaimer This document describes the vision of the hyperloop as proposed by Hardt Hyperloop at the time of writing. As hyperloop technology is still under development, the design choices presented here are preliminary and subject to change.

General Hyperloop Characteristics

Characteristic
Performance
Guideway capacity
11.000 Pax/h/dir (at 700 kph) (multipliable with platooning)
Vehicle capacity
40 Passengers ; 12 Euro Pallets
Design capacity
1000 kph max. ; 700 kph cruise
Operational pressure
1 mbar
Operating temperature
-25 °C to 75 °C (can be tailored to location)
Average energy consumption
42 Wh/pax-km - determined for a reference route including vacuum energy consumption (70% occupancy, 60% cruising & 40% acc. & dec.)
Vehicle power consumption
3.3 MW at max. acceleration ; 665 kW at cruising speed (700 kph)
Propulsion power
3 MW
Levitation airgap
15 mm
Vehicle length
24 m
Vehicle Internal diameter
2.5 m
Tube internal diameter
3.5 m
Blockage ratio
60%
Guideway material
Steel
Substructure material
Concrete
Longitudinal acceleration
0.11 g or 1.1 m/s² average ; 0.2 g or 2.0 m/s² peak
Deceleration
Operational braking = 0.15 g or 1.5 m/s² Emergency braking = 0.8 g or 8 m/s²
Cant (guideway)
13°
Tilt (vehicle)
6° (technology underdevelopment, expected between 0° and 13°)
Banking angle
19° (depending on tilting technology, between 13° and 26°)
Equivalent angle deficiency
7.5° (depending on tilting technology, between 0° and 13°)
(uncompensated) Lateral acceleration
0.15 g or 1.5 m/s²
Total corner acceleration
0.5 g or 5.0 m/s² (made possible by 19° banking with 0.15 g max. lateral acceleration on pax)
Min. turning radius
200 m
Max. Lateral jerk
0.05 g/s in linear guideway ; 0.2 g/s in switch box
Max. Longitudinal jerk
0.1 g/s or 1.0 m/s²
Max. Gradient
10%
Max. Upward acceleration
0.06 g or 0.6 m/s²
Max. Downward acceleration
0.12 g or 1.2 m/s²
A bidirectional Hyperloop guideway integrated in the spatial environment.
A bidirectional Hyperloop guideway integrated in the spatial environment.
Performance by speed [kph]
100
200
300
400
500
600
700
1000
Capacity [pax/h/dir] (x 10,000)
52.6
32.2
23.2
17.1
14.9
12.6
10.9
7.87
On ramp length [km]
0.2
0.8
1.8
3.7
6.6
9.3
12.6
25.4
Off ramp length [km]
0.3
1.0
2.3
4.1
6.4
9.3
12.6
25.7
Curvature (turning radius) [km]
0.2
0.6
1.4
2.5
3.9
5.6
7.7
15.3
Guideway connection angle [deg]
2.72
1.83
0.81
0.46
0.29
0.20
0.15
0.07
Switch box length [m]
60
120
180
220
280
340
400
560
Transition curve length [m]
83
167
250
333
417
500
583
833

1. Guideway

1.1 Linear Guideway

Characteristic
Performance
Production
Off-site manufacturing and assembly of 20-m segments
Material
Steel
Segment length
20 m (location dependent - landscape)
Blockage ratio
60%
Operating pressure
1 mbar
Min. turning radius
200 m
Cant (guideway)
13°
Max. gradient
10%
Max. lateral jerk
0.2 g/s
Specification
Value
Internal tube diameter
3.5 m
Length
20 m
Pipe thickness
20 mm
Flange thickness
280 mm
Total weight
49 t (per 20-m segment)
Performance by speed [kph]
100
200
300
400
500
600
700
1000
Capacity [pax/h/dir] (x 10,000)
52.6
32.2
23.2
17.1
14.9
12.6
10.9
7.87
On ramp length [km]
0.2
0.8
1.8
3.7
6.6
9.3
12.6
25.4
Off ramp length [km]
0.3
1.0
2.3
4.1
6.4
9.3
12.6
25.7
Curvature (turning radius) [km]
0.2
0.6
1.4
2.5
3.9
5.6
7.7
15.3
Guideway connection angle [deg]
2.72
1.83
0.81
0.46
0.29
0.20
0.15
0.07
Switch box length [m]
60
120
180
220
280
340
400
560
Transition curve length [m]
83
167
250
333
417
500
583
833
A conceptual 3D model of a Linear Guideway.
A conceptual 3D model of a Linear Guideway.

1.2 Switch Guideway

Characteristic
Performance
Production
Off-site manufacturing and assembly of 20-m segments
Material
Steel
Segment length
20 m
Blockage ratio
Min. = 25% ; Max. = 60%
Operation pressure
1 mbar
Max. lateral jerk
0.2 g/s in switch box
Specification
Value
Width
Internal: Min. = 3.5 m ; Max. = 7 m
Height
Internal: 3.5 m
Pipe thickness
20 mm
Flange thickness
280 mm
Total weight
~130 tons (per 20-m segment)
A conceptual 3D model of a 60m Switch Guideway.
A conceptual 3D model of a 60m Switch Guideway.
A conceptual 3D model of a 100m Switch Guideway.
A conceptual 3D model of a 100m Switch Guideway.
Performance by speed [kph]
100
200
300
400
500
600
700
1000
Pipe segments
3
6
9
11
14
17
20
28
Switch box length [m]
60
120
180
220
280
340
400
560

1.3 Terminal Switch Guideway

Characteristic
Performance
Production
Off-site manufacturing and assembly of 20-m segments
Segment length
20 m (location dependent - landscape)
Operating pressure
1 mbar
Max lateral jerk
0.2 g/s in switch box
Max. speed
100 km/h
Specification
Value
Length
160 m
Diameter
Internal: Min. = 3.5. m ; Max. = 7 m
Height
Internal: 3.5 m
Pipe thickness
20 mm
Flange thickness
280 mm
Total weight
1330 tons
A conceptual 3D model of a Terminal Switch Guideway.
A conceptual 3D model of a Terminal Switch Guideway.

1.4 Evacuation system

Specification
Value
Operating pressure
1 mbar
Material
Steel
Interface guideway type
Passenger Hub
Cargo Hub
Depot Hub
Airdocks [#]
4
1
1 (airlock)
Turnaround time [min]
4
6
n/a
Capacity [veh/h]
15
10
n/a
Leakage volume [m³/veh]
1.2
0.6
80
A conceptual 3D model of a Passenger Interface Guideway.
A conceptual 3D model of a Passenger Interface Guideway.
A sketch of the Cargo dock concept including the Cargo Interface Guideway.
A sketch of the Cargo dock concept including the Cargo Interface Guideway.

1.4 Guideway Connections

General characteristic
Performance
Operational temperature
Min. = - 36 °C ; Max. = 73 °C
Turning angle
5.73° (required to achieve a 200-m radius with 20-m guideway section)
Expansion joint
Value
Material
Steel & Stainless Steel
Linear exp. joint
2,875 kg
Switch exp. joint mass
4,000 - 6,000 kg
Length
550 mm
Linear exp. joint diameter
Internal = 3.5 m ; External = 4.1 m
Switch exp. joint width
External = 4.6 - 7.9 m
Switch exp. join height
External = 4.4 m
Gasket
Value
Material
Rubber
Gasket thickness
8 cm
Gasket length
16 cm
Gasket weight
5.6 - 8.6 kg
Linear gasket diameter
Internal = 3.78 m ; External = 3.86 m
Switch gasket width
Internal 3.98 - 7.27 m ; External = 4.06 - 7.36 m
Switch gasket height
Internal 3.78 m ; External = 3.86 m
Interface connections
Value
Material
Steel, Stainless Steel & Composite
Standard interface weight
2 x 112 kg
Standard interface dimensions
L = 0.5 m ; W = 0.3 m
Expansion joint interface weight
2 x 212 kg
Expansion joint interface dimensions
L = 1.1 m ; W = 0.3 m
A linear guideway connection composed of two end-flanges and a gasket connects two linear guideway segments to each other and to the substructure
A linear guideway connection composed of two end-flanges and a gasket connects two linear guideway segments to each other and to the substructure

1.6 Guideway Power, Communication and Electronics

Characteristic
Performance
Communication network
Fiber optics and antenna’s
Vehicle charging
Contactless Inductive Power Transfer (IPT)
IPT substation power
Installed to supply approx. 2 MW per km
IPT substation intermediate distance
Context dependent
Specification
Value
Medium voltage power lines
52 kV
Low voltage power lines
230 V
IPT substation dimensions
H = 1 m ; W = 1 m ; L = 0.5 m
A schematic of an IPT substation connected to a linear guideway.
A schematic of an IPT substation connected to a linear guideway.

1.7 Vacuum Pumps

Characteristic
Performance
Pump power
1 kW/km for retention ; 22 kW/km for pump down
Pump down time
15 hours
Intermediate pump station distance
1 every 35 km for retention ; 1 every 1 km for pump down pump down stations can be employed as mobile units
Operating pressure
1 mbar
Leak rate
660 Pa*L/s (Guideway = 50% ; Airlocks = 50%)
Pump rate (retention)
660 Pa*L/s
*All values consider a one-way linear guideway
Specification
Value
Pump down station dimensions
L = 6 m ; H = 2.5 m ; W = 2.5 m (Half container)
Pump down station weight
6,000 kg
Retention station dimensions
L = 6 m ; H = 2.5 m ; W = 2.5 m (Half container)
Retention station weight
6,000 kg
A drawing of a vacuum station connected to the end of a tube.
A drawing of a vacuum station connected to the end of a tube.

1.7 Emergency Exit

Characteristic
Performance
Intermediate distance
500 m
Guideway pressurization time (from 0.001 bar)
4 s to 0.063 bar (6.3 kPa Armstrong limit) 35 - 40 s to 0.6 bar (breathing without masks) 60 - 90 s to 1 bar
Emergency deceleration
0.8 g or 8 m/s²
Segmentation doors placement
Segmentation doors are placed at the outputs of a switch. This is done to: 1. keep other route segments operational, 2. allow vehicles in the route segment that has an emergency, to travel towards a nearby hub.
Segmentation doors intermediate distance
*Context dependent
Requirement per segment
Each segment requires a vacuum station Each segment requires (a) release valve(s)
*All values consider a one-way linear guideway
Specification
Value
Segmentation doors diameter
Internal = 3.5 m ; External = Unknown
Emergency exit doors dimensions
H = 2.2 m ; W = 1.42 m
Release valves
30 per km
Valve inlet size
15 cm
A 3D conceptual model of a Linear Guideway with an Emergency Exit door.
A 3D conceptual model of a Linear Guideway with an Emergency Exit door.
A 3D conceptual model showing the evacuation of passengers from the tube.
A 3D conceptual model showing the evacuation of passengers from the tube.

2. Civil Infrastructure

A description of Civil Infrastructure Components
Disclaimer: The engineering related to the civil infrastructure is NOT part of Hardt’s core focus. In practice, the engineering and development of the required civil infrastructures will be out-sourced to civil engineering firms. For completeness, an indicative representation of the required civil infrastructure components is provided here.

2.1 Emergency Exit

Characteristic
Performance
Material
Concrete
Span
<20 m
Construction method
Off-site production in molds
Specification
Value
Type
One-way
Two-way
Weight
15 tons
30 tons
Width
2 m
2 m
Length
4 m
8 m
Height
1 m
1 m
Volume
8 m²
16 m²
A 3D conceptual model of a one-way piling cap.
A 3D conceptual model of a one-way piling cap.
A 3D conceptual model a two-way piling cap.
A 3D conceptual model a two-way piling cap.

2.2 Elevated

Characteristic
Performance
Material
Concrete
Span
<20 m
Crossing height
5 m (vehicle below 5 m can cross)
Max. height
10 m
Construction method
All components except for the pillar are produced off-site in molds
Specification
Value
Type
One-way
Two-way
Total weight (H = 5 m)
80 tons
200 tons
Pillar diameter
1.8 m
1.5 m
Width (Elevated Section)
4 m
8 m
Length (Elevated Section)
2 m
2 m
Height (Elevated Section)
~1 m
~2 m
A 3D conceptual model of a one-way elevated substructure.
A 3D conceptual model of a one-way elevated substructure.
A 3D conceptual model a two-way elevated substructure.
A 3D conceptual model a two-way elevated substructure.

2.3 Bridge & Tunnel

Bridge Characteristic
Performance
Span
>20 m
Height
>10 m
Material
Concrete & Steel
Bridge type
Bridges are custom and will be designed depending on the location and obstacle
Construction method
Location dependent
Tunnel Characteristic
Performance
Segment length
20 m
Lining material
Concrete
Construction method
Location dependent (cut-and-cover or boring machines)
Tunnel Characteristics
Performance
Tunnel Type
One-way
Two-way
Internal Diameter
4.2 m
10 m
Internal Diameter
10 m
11 m
Wall Thickness
0.4 m
0.5 m
A 3D conceptual model a 40 m span bridge structure.
A 3D conceptual model a 40 m span bridge structure.
A 3D conceptual model of a 20-meter-long one-way tunnel structure.
A 3D conceptual model of a 20-meter-long one-way tunnel structure.

2.4 Electric Infrastructure

Characteristic
Performance
Transmission tower intermediate distance
~500 m
Electrical substation intermediate distance
~50 km
Main power consumer
IPT substations
Specification
Value
Substation power electronics
~380 kV to ~52 kV
High voltage power lines
~380 kV
Medium voltage power lines
~52 kV
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3. Vehicle

The design and specifications of Vehicle Components

3.1 Passenger Vehicle

Characteristic
Performance
Payload
40 Passengers
Doors
6 (4 embarking and 2 emergency doors)
Turnaround time
4 min
Vehicle operation
Autonomous
Propulsion power
3 MW
Propulsion efficiency
~90%
Cruising power consumption
665 KW (at 700 kph)
Operational drag (at 700 kph)
3100 N (Aerodynamic - 1450 N ; Magnetic = 1650 N)
Battery power
640 kWh
Acceleration
Max. 2.0 m/s² ; Avr. 1.1 m/s² (to 700 km/h)
Deceleration
Max. 8.0 m/s² ; Avr. 1.5 m/s²
Vehicle tilt angle
6 °C (technology under development, expected between 0° and 13°)
Operational airgap
15 mm
Magnetic lift-over-drag
150
Operational pressure
1 mbar
Cabin pressure
1 bar
Monocoque material
Carbon Fiber
Bogies material
Aluminium
Specification
Performance
Total length
24 m
Total weight
25,000 kg
External diameter
2.5 m
Frontal area
5.73 m²
Door dimensions
H = 2.2 m ; W = 1.4 m
Mass Breakdown
Value
Total weight
25,000 kg
Payload - subtotal
8,600 kg (incl. cabin)
Main body - subtotal
3,200 kg
Monocoque
1,100 kg (1 x 1,100 kg)
Bogies
2,100 kg (7 x 300 kg)
Tractive system - subtotal
10,000 kg
Levitation
3,400 kg (42 x 80 kg)
Propulsion
1,700 kg (28 x 60 kg)
Guidance
1,700 kg (42 x 40 kg)
Emergency breaking
3,200 kg (26 x 120 kg)
Battery - subtotal
3,200 kg

3.1 Passenger Vehicle

Characteristic
Performance
Payload
14 Euro Pallets
Doors
2
Turnaround time
6 min
Vehicle operation
Autonomous
Propulsion power
3 MW
Propulsion efficiency
~90%
Cruising power consumption
665 KW (at 700 kph)
Operational drag (at 700 kph)
3100 N (Aerodynamic - 1450 N ; Magnetic = 1650 N)
Battery power
640 kWh
Acceleration
Max. 2.0 m/s² ; Avr. 1.1 m/s² (to 700 km/h)
Deceleration
Max. 8.0 m/s² ; Avr. 1.5 m/s²
Vehicle tilt angle
6 °C (technology under development, expected between 0° and 13°)
Operational airgap
15 mm
Magnetic lift-over-drag
150
Operational pressure
1 mbar
Cabin pressure
1 bar
Monocoque material
Carbon Fiber
Bogies material
Aluminium
Specification
Performance
Total length
24 m
Total weight
25,000 kg
External diameter
2.5 m
Frontal area
5.73 m²
Door dimensions
H = 2.2 m ; W = 1.8 m
Mass Breakdown
Value
Total weight
25,000 kg
Payload - subtotal
8,600 kg (incl. cabin)
Main body - subtotal
3,200 kg
Monocoque
1,100 kg (1 x 1,100 kg)
Bogies
2,100 kg (7 x 300 kg)
Tractive system - subtotal
10,000 kg
Levitation
3,400 kg (42 x 80 kg)
Propulsion
1,700 kg (28 x 60 kg)
Guidance
1,700 kg (42 x 40 kg)
Emergency breaking
3,200 kg (26 x 120 kg)
Battery - subtotal
3,200 kg

4. Hubs

The design and specifications of Hub Components

4.1 Passenger Hub

Characteristics
Performance
Terminal switch length
160 m
Delta length
60 m to 90 m
Platforms per delta
2
Operating pressure
100 Pa
Platform length
40 m
Platform width
7 m
Interface guideway type
Passenger Hub
Cargo Hub
Depot Hub
Amount of airlocks
4
1
1
total turn-around time
4 min
6 min
n/a
Arrival process
1 min
1 min
1 min
(Dis-)embarking / (Un-)loading process
2 min
4 min
4 min
Departure process
1 min
1 min
1 min
Capacity per platform
15 veh/h
10 veh/h
10 veh/h
Concept of a large-scale passenger hyperloop hub and surrounding precinct.
Concept of a large-scale passenger hyperloop hub and surrounding precinct.
An overview of the connection between the guideway and the hyperloop platforms for different station sizes.
An overview of the connection between the guideway and the hyperloop platforms for different station sizes.

Acknowledgements

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