Data transmitter and data receiver with low latency for the telegram splitting transfer method

A communication apparatus, comprising:

• a data transceiver comprising one or more processors or electronic circuits, wherein the data transceiver is configured to channel-encode data and to divide the channel-encoded data onto a plurality of sub-data packets and to transmit the plurality of sub-data packets according to a hopping pattern;
• wherein the data transceiver is configured to channel-encode the data and to divide the channel-encoded data onto the plurality of sub-data packets such that, in a faultless transfer, only a first group of sub-data packets is needed to successfully decode the data, wherein transmission pauses between the sub-data packets of the first group of sub-data packets are smaller than transmission pauses between sub-data packets of a second group of sub-data packets transmitted after the first group of sub-data packets;
• wherein transmission pauses between the sub-data packets of the first group of sub-data packets are smaller than transmission pauses between sub-data packets of a second group of sub-data packets transmitted after the first group of sub-data packets;
• wherein the data transceiver is configured to distribute the channel-encoded data of the first class onto the first plurality of sub-data packets such that, in a faulty transfer, a higher coding gain is achieved through a combination of the first group of sub-data packets and the second group of sub-data packets.

A communication apparatus, comprising:

• a data transceiver comprising one or more processors or electronic circuits, wherein the data transceiver is configured to receive channel-encoded data, wherein the channel-encoded data is divided onto a plurality of sub-data packets and transferred distributed according to a hopping pattern, wherein the data is channel-encoded and divided onto the plurality of sub-data packets such that, in a faultless transfer, only a first group of sub-data packets is needed to successfully decode the data, wherein transmission pauses between the sub-data packets of the first group of sub-data packets are smaller than transmission pauses between sub-data packets of a second group of sub-data packets transmitted after the first group of sub-data packets;
• wherein the data transceiver is configured to receive at least the first group of sub-data packets, and to decode a part of the channel-encoded data received with the first group of sub-data packets in order to acquire the data;
• wherein the data transceiver is configured to, if decoding the data has not been successful, combine, for achieving a higher coding gain, at least a second part of the channel-encoded data received with at least a second group of sub-data packets with the first part of the channel-encoded data and to decode the combination of the first part of the channel-encoded data and the at least second part of the channel-encoded data in order to acquire the data.

A non-transitory digital storage medium having a computer program stored thereon to perform a method for transmitting data, the method comprising:

• transmitting data of a first class from a data transmitter to a data receiver, wherein the data of the first class is transmitted divided onto a first plurality of sub-data packets using a first hopping pattern;
• transmitting data of a second class from the data transmitter or a different data transmitter to the data receiver, wherein the data of the second class is transmitted divided onto a second plurality of sub-data packets using a second hopping pattern;
• wherein transmission pauses between sub-data packets transmitted according to the first hopping pattern are smaller than transmission pauses between sub-data packets transmitted according to the second hopping pattern,
• when said computer program is run by a computer.

A communication apparatus, comprising:

• a data transmitter comprising one or more processors or electronic circuits, wherein the data transmitter is configured to transmit, distributed in time and/or frequency according to a hopping pattern, data divided onto a plurality of sub-data packets, wherein the hopping pattern is a time hopping pattern, a frequency hopping pattern or a combination of the time hopping pattern and the frequency hopping pattern, wherein the time hopping pattern is the time hopping pattern with 24 hops indicated in the following table:
• # of sub-data packets in the core frame SC
• No.
• 1
• 2
• 3
• 4
• 5
• 6
• 7
• 8
• 9
• 10
• 11
• 12
• 13
• 14
• 15
• 16
• 17
• 18
• 19
• 20
• 21
• 22
• 23
• 1
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 123
• 66
• 66
• 66
• 66
• 60
• 66
• 66
• 198
• 66
• 66
• 255
• 66
• 66
• wherein the line in the table is the time hopping pattern, wherein each column in the table is a hop of the time hopping pattern starting from a second hop so that each time hopping pattern comprises 24 hops, wherein each cell in the table indicates a temporal interval of a reference point of the respective hop to a same reference point of an immediately subsequent hop in—advantageously multiples of—symbol durations;
• wherein the frequency hopping pattern is the frequency hopping pattern with 24 hops indicated in the following table:
• # of sub-data packets in the core frame SC
• No.
• 1
• 2
• 3
• 4
• 5
• 6
• 7
• 8
• 9
• 10
• 11
• 12
• 13
• 14
• 15
• 16
• 17
• 18
• 19
• 20
• 21
• 22
• 23
• 24
• 1
• 1
• 5
• 4
• 3
• 2
• 17
• 21
• 20
• 19
• 18
• 9
• 13
• 12
• 11
• 10
• 6
• 0
• 7
• 22
• 16
• 23
• 14
• 8
• 15
• wherein the line in the table is the frequency hopping pattern, wherein each column in the table is a hop of the frequency hopping pattern, wherein each cell in the table indicates a transmission frequency of the respective hop of the frequency hopping pattern in carriers from 0 to 23 of an uplink carrier group.

A communication apparatus, comprising:

• a data receiver comprising one or more processors or electronic circuits, wherein the data receiver is configured to receive data transferred divided onto a plurality of sub-data packets and distributed in time and/or frequency according to a hopping pattern, wherein the hopping pattern is a time hopping pattern, a frequency hopping pattern or a combination of the time hopping pattern and the frequency hopping pattern, wherein the time hopping pattern is the time hopping pattern with 24 hops indicated in the following table:
• # of sub-data packets in the core frame SC
• No.
• 1
• 2
• 3
• 4
• 5
• 6
• 7
• 8
• 9
• 10
• 11
• 12
• 13
• 14
• 15
• 16
• 17
• 18
• 19
• 20
• 21
• 22
• 23
• 1
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 123
• 66
• 66
• 66
• 66
• 60
• 66
• 66
• 198
• 66
• 66
• 255
• 66
• 66
• wherein the line in the table is the time hopping pattern, wherein each column in the table is a hop of the time hopping pattern starting from a second hop so that each time hopping pattern comprises 24 hops, wherein each cell in the table indicates a temporal interval of a reference point of the respective hop to a same reference point of an immediately subsequent hop in—advantageously multiples of—symbol durations;
• wherein the frequency hopping pattern is the frequency hopping pattern with 24 hops indicated in the following table:
• # of sub-data packets in the core frame SC
• No.
• 1
• 2
• 3
• 4
• 5
• 6
• 7
• 8
• 9
• 10
• 11
• 12
• 13
• 14
• 15
• 16
• 17
• 18
• 19
• 20
• 21
• 22
• 23
• 24
• 1
• 1
• 5
• 4
• 3
• 2
• 17
• 21
• 20
• 19
• 18
• 9
• 13
• 12
• 11
• 10
• 6
• 0
• 7
• 22
• 16
• 23
• 14
• 8
• 15
• wherein the line in the table is the frequency hopping pattern, wherein each column in the table is a hop of the frequency hopping pattern, wherein each cell in the table indicates a transmission frequency of the respective hop of the frequency hopping pattern in carriers from 0 to 23 of an uplink carrier group.

A method for transmitting data, the method comprising:

• transmitting data using a hopping pattern,
• wherein the hopping pattern is a time hopping pattern, a frequency hopping pattern or a combination of the time hopping pattern and the frequency hopping pattern,
• wherein the time hopping pattern is the time hopping pattern with 24 hops indicated in the following table:
• # of sub-data packets in the core frame SC
• No.
• 1
• 2
• 3
• 4
• 5
• 6
• 7
• 8
• 9
• 10
• 11
• 12
• 13
• 14
• 15
• 16
• 17
• 18
• 19
• 20
• 21
• 22
• 23
• 1
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 123
• 66
• 66
• 66
• 66
• 60
• 66
• 66
• 198
• 66
• 66
• 255
• 66
• 66
• wherein the line in the table is the time hopping pattern, wherein each column in the table is a hop of the time hopping pattern starting from a second hop so that each time hopping pattern comprises 24 hops, wherein each cell in the table indicates a temporal interval of a reference point of the respective hop to a same reference point of an immediately subsequent hop in—advantageously multiples of—symbol durations;
• wherein the frequency hopping pattern is the frequency hopping pattern with 24 hops indicated in the following table:
• # of sub-data packets in the core frame SC
• No.
• 1
• 2
• 3
• 4
• 5
• 6
• 7
• 8
• 9
• 10
• 11
• 12
• 13
• 14
• 15
• 16
• 17
• 18
• 19
• 20
• 21
• 22
• 23
• 24
• 1
• 1
• 5
• 4
• 3
• 2
• 17
• 21
• 20
• 19
• 18
• 9
• 13
• 12
• 11
• 10
• 6
• 0
• 7
• 22
• 16
• 23
• 14
• 8
• 15
• wherein the line in the table is the frequency hopping pattern, wherein each column in the table is a hop of the frequency hopping pattern, wherein each cell in the table indicates a transmission frequency of the respective hop of the frequency hopping pattern in carriers from 0 to 23 of an uplink carrier group.

A method for receiving data, the method comprising:

• receiving data using a hopping pattern,
• wherein the hopping pattern is a time hopping pattern, a frequency hopping pattern or a combination of the time hopping pattern and the frequency hopping pattern,
• wherein the time hopping pattern is the time hopping pattern with 24 hops indicated in the following table:
• # of sub-data packets in the core frame SC
• No.
• 1
• 2
• 3
• 4
• 5
• 6
• 7
• 8
• 9
• 10
• 11
• 12
• 13
• 14
• 15
• 16
• 17
• 18
• 19
• 20
• 21
• 22
• 23
• 1
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 66
• 123
• 66
• 66
• 66
• 66
• 60
• 66
• 66
• 198
• 66
• 66
• 255
• 66
• 66
• wherein the line in the table is the time hopping pattern, wherein each column in the table is a hop of the time hopping pattern starting from a second hop so that each time hopping pattern comprises 24 hops, wherein each cell in the table indicates a temporal interval of a reference point of the respective hop to a same reference point of an immediately subsequent hop in—advantageously multiples of—symbol durations;
• wherein the frequency hopping pattern is the frequency hopping pattern with 24 hops indicated in the following table:
• # of sub-data packets in the core frame SC
• No.
• 1
• 2
• 3
• 4
• 5
• 6
• 7
• 8
• 9
• 10
• 11
• 12
• 13
• 14
• 15
• 16
• 17
• 18
• 19
• 20
• 21
• 22
• 23
• 24
• 1
• 1
• 5
• 4
• 3
• 2
• 17
• 21
• 20
• 19
• 18
• 9
• 13
• 12
• 11
• 10
• 6
• 0
• 7
• 22
• 16
• 23
• 14
• 8
• 15
• wherein the line in the table is the frequency hopping pattern, wherein each column in the table is a hop of the frequency hopping pattern, wherein each cell in the table indicates a transmission frequency of the respective hop of the frequency hopping pattern in carriers from 0 to 23 of an uplink carrier group.

A communication apparatus, comprising:

• a data transmitter comprising one or more processors or electronic circuits, wherein the data transmitter is configured to divide data of a first class onto a first plurality of sub-data packets and to transmit the first plurality of sub-data packets using a first hopping pattern, wherein the data transmitter is configured to divide data of a second class onto a second plurality of sub-data packets and to transmit the second plurality of sub-data packets using a second hopping pattern,
• wherein transmission pauses between sub-data packets transmitted according to the first hopping pattern are smaller than transmission pauses between sub-data packets transmitted according to the second hopping pattern, and/or wherein sub-data packets transmitted according to the first hopping pattern are shorter than sub-data packets transmitted according to the second hopping pattern;
• wherein the data transmitter is configured to channel-encode the data of the first class and transmit the channel-encoded data of the first class using the first hopping pattern, wherein the data transmitter is configured to distribute the channel-encoded data of the first class onto the first plurality of sub-data packets such that, in a faultless transfer, only a first group of sub-data packets is needed to successfully decode the data of the first class, and such that, in a faulty transfer, a higher coding gain is achieved through a combination of the first group of sub-data packets and a second group of sub-data packets, wherein the first group of sub-data packets is transmitted temporally before the second group of sub-data packets.

A communication apparatus, comprising:

• a data receiver comprising one or more processors or electronic circuits, the data receiver configured to receive, using a first hopping pattern, data of a first class transferred divided onto a first plurality of sub-data packets, wherein the data receiver is configured to receive, using a second hopping pattern, data of a second class transferred divided onto a second plurality of sub-data packets;
• wherein transmission pauses between sub-data packets received according to the first hopping pattern are smaller than transmission pauses between sub-data packets received according to the second hopping pattern, and/or wherein sub-data packets transmitted according to the first hopping pattern are shorter than sub-data packets transmitted according to the second hopping pattern;
• wherein the data of the first class is channel-encoded, wherein the channel-encoded data of the first class is distributed onto the first plurality of sub-data packets such that, in a faultless transfer, only a first group of sub-data packets is needed to successfully decode the data of the first class, and such that, in a faulty transfer, a higher coding gain is achieved through a combination of the first group of sub-data packets and a second group of sub-data packets, wherein the first group of sub-data packets is transferred temporally before the second group of sub-data packet;
• wherein the data receiver is configured to decode a first part of the channel-encoded data received with the first group of sub-data packets in order to acquire the data of the first class, and, if decoding the data of the first class has not been successful, to combine, for achieving a higher coding gain, at least a second part of the channel-encoded data received with at least a second group of sub-data packets with the first part of the channel-encoded data and to decode the first part of the channel-encoded data and the at least second part of the channel-encoded data in order to acquire the data of the first class.