Content for TS 22.263 Word version: 17.3.0

6.1 Introduction 6.2 General performance requirements 6.2.1 Video and audio production applications 6.2.2 Medical applications 6.3 Multicast performance requirements 6.3.1 Audio and video production applications 6.3.2 Medical applications

6 Performance requirements

6.1 Introduction

This section presents tables of performance requirements, where each line of the tables is considered as individual requirements.

6.2 General performance requirements Word‑p. 12

6.2.1 Video and audio production applications

Table 6.2.1-1: Performance requirements of professional low-latency periodic deterministic audio transport service

Profile
# of active UEs
UE Speed
Service Area
E2E latency (Note 1)
Transfer interval (Note 1)
Packet error rate (Note 2, Note 3)
Data rate UL
Data rate DL

Music Festival
200
10 km/h
500 m x 500 m
750 μs
250 μs
10^-6
500 kbit/s
–

100
10 km/h
500 m x 500 m
750 μs
250 μs
10^-6
–
1 Mbit/s

Musical
30
50 km/h
50 m x 50 m
750 μs
250 μs
10^-6
500 kbit/s
–

20
50 km/h
50 m x 50 m
750 μs
250 μs
10^-6
–
1 Mbit/s

10
–
50 m x 50 m
750 μs
250 μs
10^-6
–
500 kbit/s

Semi-professional
10
5 km/h
5 m x 5 m
750 μs
250 μs
10^-6
100 kbit/s
–

10
5 km/h
5 m x 5 m
750 μs
250 μs
10^-6
–
200 kbit/s

2
–
5 m x 5 m
750 μs
250 μs
10^-6
–
100 kbit/s

AV production
20
5 km/h
30 m x 30 m
750 μs
250 μs
10-6
1.5 Mbit/s
–

10
5 km/h
30 m x 30 m
750 μs
250 μs
10^-6
–
3 Mbit/s

Audio Studio
30
–
10 m x 10 m
750 μs
250 μs
10^-6
5 Mbit/s
–

10
5 km/h
10 m x 10 m
750 μs
250 μs
10^-6
–
1 Mbit/s

NOTE 1:
Transfer interval refers to periodicity of the packet transfers. It has to be constant during the whole operation. The value given in the table is a typical one, however other transfer intervals are possible as long as the end-to-end latency is ≤ (1ms - Transfer interval).

NOTE 2:
Packet error rate is related to a packet size of (transfer interval × data rate). Packets that do not conform with the end-to-end latency are also accounted as error.

NOTE 3:
The given requirement for a packet error rate assumes a uniform error distribution. The requirement for packet error rate is stricter if packet errors occur in bursts.

Table 6.2-1-2: Performance requirements of low-latency periodic deterministic audio transport service in presentation use cases

Profile
# of active UEs
UE Speed
Service Area
E2E latency (Note 1)
Transfer interval (Note 1)
Packet error rate (Note 2, Note 3)
Data rate UL
Data rate DL

Ad hoc
20
5 km/h
300 m x 300 m
4 ms
1 ms
10^-5
200 kbit/s
–

8
stationary
300 m x 300 m
4 ms
1 ms
10^-5
–
200 kbit/s

Campus
1,000
5 km/h
2 km x 2 km
4 ms
1 ms
10^-5
200 kbit/s
–

Conference
10
5 km/h
100 m x 100 m
4 ms
1 ms
10^-5
1.5 Mbit/s
–

4
stationary
100 m x 100 m
4 ms
1 ms
10^-5
–
1.5 Mbit/s

Lecture room
4
5 km/h
10 m x 10 m
4 ms
1 ms
10^-5
50 kbit/s
–

2
stationary
10 m x 10 m
4 ms
1 ms
10^-5
–
50 kbit/s

NOTE 1:
Transfer interval refers to periodicity of the packet transfers. It has to be constant during the whole operation. The value given in the table is a typical one, however other transfer intervals are possible as long as the end-to-end latency is ≤ (5 ms - Transfer interval).

NOTE 2:
Packet error rate is related to a packet size of (Transfer interval × data rate). Packets that do not conform with the end-to-end latency are also accounted as error.

NOTE 3:
The given requirement for a packet error rate assumes a uniform error distribution. The requirement for packet error rate is stricter if packet errors occur in bursts.

Table 6.2.1-3: Performance requirements for low latency video.

Profile
# of active UEs
UE Speed
Service Area
E2E latency
Packet error rate (Note 1)
Data rate UL
Data rate DL

Uncompressed UHD video
1
0 km/h
1 km²
400 ms
10^-10 UL 10^-7 DL
12 Gbit/s
20 Mbit/s

Uncompressed HD video
1
0 km/h
1 km²
400 ms
10^-9 UL 10^-7 DL
3 .2 Gbit/s
20 Mbit/s

Mezzanine compression UHD video
5
0 km/h
1,000 m²
1 s
10^-9 UL 10^-7 DL
3 Gbit/s
20 Mbit/s

Mezzanine compression HD video
5
0 km/h
1,000 m²
1 s
10^-9 UL 10^-7 DL
1 Gbit/s
20 Mbit/s

Tier one events UHD
5
0 km/h
1,000 m²
1 s
10^-9 UL 10^-7 DL
500 Mbit/s
20 Mbit/s

Tier one events HD
5
0 km/h
1,000 m²
1 s
10^-8 UL 10^-7 DL
200 Mbit/s
20 Mbit/s

Tier two events UHD
5
7 km/h
1,000 m²
1 s
10^-8 UL 10^-7 DL
100 Mbit/s
20 Mbit/s

Tier two events HD
5
7 km/h
1,000 m²
1 s
10^-8 UL 10^-7 DL
80 Mbit/s
20 Mbit/s

Tier three events UHD (Note 2)
5
200 km/h
1,000 m²
1 s
10^-7 UL 10^-7 DL
20 Mbit/s
10 Mbit/s

Tier three events HD (Note 2)
5
200 km/h
1,000 m²
1 s
10^-7 UL 10^-7 DL
10 Mbit/s
10 Mbit/s

Remote OB
5
7 km/h
1,000 m²
6 ms
10^-8 UL 10^-7 DL
200 Mbit/s
20 Mbit/s

NOTE 1:
Packets that do not conform with the end-to-end latency are also accounted as error. The packet error rate requirement is calculated considering 1500 B packets, and 1 packet error per hour is 10^-5/(3x) , where x is the data rate in Mbps.

NOTE 2:
Could use either professional equipment or mobile phone equipped with dedicated newsgathering app

Table 6.2.1-4: Performance requirements for airborne base stations for NPN.

Profile
# of active UEs
UE Speed
Service Area
E2E latency
Packet error rate (Note 1)
Data rate UL
Data rate DL

NPN ground to air UHD up Link
10
500 km/h
700 km² x 6,000 m (Note 2)
40 ms
10^-8 UL 10^-7 DL
100 Mbit/s
20 Mbit/s

NPN ground to air HD up link
10
500 km/h
700 km² x 6,000 m (Note 2)
40 ms
10^-8 UL 10^-7 DL
80 Mbit/s
20 Mbit/s

NPN air to ground
UHD down Link
2
500 km/h
700 km² x 6,000 m (Note 2)
40 ms
10^-7 UL 10^-8 DL
20 Mbit/s
100 Mbit/s

NPN air to ground HD down link
2
500 km/h
700 km² x 6,000 m (Note 2)
40 ms
10^-7 UL 10^-8 DL
20 Mbit/s
80 Mbit/s

NPN radio Camera UHD
10
200 km/h
1 km²
3 ms
10^-8 UL 10^-7 DL
100 Mbit/s
20 Mbit/s

NPN radio camera HD
10
200 km/h
1 km²
3 ms
10^-8 UL 10^-7 DL
80 Mbit/s
20 Mbit/s

NOTE 1:
Packets that do not conform with the end-to-end latency are also accounted as error. The packet error rate requirement is calculated considering 1500 B packets, and 1 packet error per hour is 10^-5/(3x), where x is the data rate in Mbps.

NOTE 2:
6,000 m = height but in a cone formation (i.e. ground coverage with a circle of diameter 30 KM)

6.2.2 Medical applications Word‑p. 15

Table 6.2.2-1: Performance requirements for low latency ultra-reliable imaging/video traffic for medical applications

Profile
Characteristic parameter
Communication service availability: target value in %
Communication service reliability: Mean Time Between Failure
End-to-end latency: maximum
Bit rate
Direction
Influence quantity
Message Size [byte]
Survival time
UE speed (km/h)
# of active UEs connection
Service Area

UHD medical video over NPNs
>99.999 99
> 1 day
< 1 ms
< 50 Gbit/s
UL; DL
~1,500 - ~9,000 (note 1)
~8 ms
stationary
1
100 m²

Ultrasound images over NPNs
>99.999 9
> 1 year
< 10ms
500 Mbit/s - 4 Gbit/s (note 2)
UL; DL
~1,500
20-100 ms (note 2)
stationary
1
100 m²

UHD video for telesurgery over PLMNs
> 99.999 9
> 1 year
< 20 ms
< 6 Gbit/s
UL; DL
~1,500 - ~9,000 (note 1)
~16 ms
stationary
< 2 per 1,000 km²
< 400 km (note 3)

UHD video for medical examination over PLMNs
> 99.99
> 1 month
< 20 ms
< 4 Gbit/s
UL; DL
~1500 -9000
~16 ms
stationary
< 20 per 100 km²
< 50 km (note 3)

Ultrasound images over PLMNs
> 99.999
>> 1 month (< 1 year)
< 20 ms
< 200 Mbit/s
UL; DL
~1500
~16 ms
stationary
< 20 per 100 km²
< 50 km (note 3)

CT/MR real time scan over PLMNs
> 99.999
>> 1 month (< 1 year)
< 100ms
< 670 Mbit/s
UL, DL
~1,500
< 100 ms
< 150
< 20 per 100 km²
< 50 km (note 3)

NOTE 1:
MTU size of 1,500 bytes is not generally suitable to gigabits connections as it induces many interruptions and loads on CPUs. On the other hand, Ethernet jumbo frames of up to 9,000 bytes require all equipment on the forwarding path to support that size in order to avoid fragmentation.

NOTE 2:
lower values considered for 2D ultrasounds images and higher values for 3D ultrasound images

NOTE 3:
Maximum straight-line distance between UEs.

6.3 Multicast performance requirements Word‑p. 16

6.3.1 Audio and video production applications

Table 6.3.1-1: Performance requirements for low latency deterministic periodic traffic with multicast service.

Profile
# of active UEs
# of UL streams
# of DL streams
UE Speed
Service Area
E2E latency (Note 1)
Transfer interval (Note 1)
Packet error rate (Note 2, Note 3)
Data rate UL
Data rate DL

Integrated audience services
50,000
–
30 multicast streams
5 km/h
1.5 km x 1.5 km
7 ms DL
3 ms
10^-4
–
200 kbit/s

Intercom system
1000
240 (Note 4)
30 multicast streams
5 km/h
1.5 km x 1.5 km
7 ms DL 7 msUL
3 ms
10^-4
100 kbit/s
100 kbit/s

NOTE 1:
Transfer interval refers to periodicity of the packet transfers. It has to be constant during the whole operation. The value given in the table is a typical one, however other transfer intervals are possible as long as the end-to-end latency is ≤ (10 ms - Transfer interval).

NOTE 2:
Packet error rate is related to a packet size of (Transfer interval × data rate). Packets that do not conform with the end-to-end latency are also accounted as error.

NOTE 3:
The given requirement for a packet error rate assumes a uniform error distribution. The requirement for packet error rate is stricter if packet errors occur in bursts.

NOTE 4:
The UL stream originating from a UE may be the source of a DL multicast stream.

6.3.2 Medical applications Word‑p. 17

Table 6.3.2-1: Performance requirements for low latency ultra-reliable imaging/video multicast traffic for medical applications

Requirement
Characteristic parameter
Communication service availability: target value in %
Communication service reliability: Mean Time Between Failure
End-to-end latency: maximum
Bit rate
Direction
Influence quantity
Message Size [byte]
Survival time
UE speed (km/h)
# of UEs connection
Service Area

UHD medical video over NPNs
> 99.999 99
> 1 day
< 1 ms
< [50 Gbits/s]
DL
~1,500 - ~9,000 (note 1)
~8 ms
stationary
< 10
100 m²

UHD medical video over PLMNs
> 99.999 9
> 1 day
< 250 ms
< [2 Gbit/s]
DL
~1,500 - ~9,000 (note 1)
~16 ms
stationary
< 10
400 km

NOTE 1:
MTU size of 1500 bytes is not generally suitable to gigabits connections as it induces many interruptions and loads on CPUs. On the other hand, Ethernet jumbo frames of up to 9000 bytes require all equipment on the forwarding path to support that size in order to avoid fragmentation.

$ Change history Word‑p. 18