Approaches for evaluating call quality
Apparatus and methods concerning simulation of call quality are disclosed. In an example embodiment, computing server is communicatively coupled to a server. The computing server is configured to receive a first set of data which may include audio of a call routed by the server. The computing server also includes a processing circuit configured to characterize a post-transmission quality state of the first set of data. The processing circuit is also configured to generate a second set of data including audio that is different from the audio of the call and data including characteristics indicative of the post-transmission quality state of a first set of data. The processing circuitry may configured to use the second set of data to provide security, protect the confidentiality and privacy, and/or monitor changes of behavior/quality for different audio CODECs, encryption, bit-rate, etc.
1. An apparatus comprising:
a data-communications server communicatively coupled to a communication network and configured to receive a first set of data characterizing or representing media payload of a call made over the communication network; and
a processing circuit, coupled to the data-communications server to:
characterize a post-transmission quality state of the first set of data;
form a model data set by generating a second set of data including a characterization or representation of the media payload that is different from the first set of data, the second set of data including characteristics indicative of the post-transmission quality state of a first set of data based on a post-transmission process applied to the first set of data; and
simulate, in response, quality of the data characterizing or representing the media payload.
2. The apparatus of claim 1 , wherein
the processing circuit is further configured to:
generate a plurality of sets of data including the second set of data, each of the plurality of sets of data encoding a set of media payload, different from the media payload of the call;
provide a characterization of media payload quality, respectively, for each of the plurality of sets of data; and
prompt the data-communications server to encode media payload of the call based on at least one of the plurality of sets of data having a higher quality characterization.
3. The apparatus of claim 2 , wherein the processing circuit is further configured to quantify the first set of data characterizing or representing the media payload.
4. The apparatus of claim 1 , wherein the call is to be routed by the data-communications server for a connection over the communication network.
5. The apparatus of claim 1 , wherein:
the processing circuit is further configured to quantify a media payload quality of the set of media payload data;
the media payload of the call is encoded according to a first codec; and
the processing circuit is further configured to prompt the data-communications server to use a second codec to encode media payload in response to the media payload quality being less than a threshold value.
6. An apparatus comprising:
a data-communications server communicatively coupled to a communication network and configured to receive a first set of data including data characterizing or representing media payload of a call; and
a processing circuit communicatively, coupled to the data-communications server, to:
characterize a post-transmission quality state of the first set of data;
generate a second set of data including media payload that is different from the media payload of the call, the second set of data including characteristics indicative of the post-transmission quality state of a first set of data; and
simulate media payload quality of the call; wherein the second set of data is generated using a set of model payload, a set of data packets including the set of model payload, and wherein the set of data packets is include characteristics indicative of a post-transmission quality state of the first set of data.
7. The apparatus of claim 6 , wherein the characteristics indicative of a post-transmission quality state are based in part on a determination of dropped packets in a sequence of packets included in the first set of data.
8. The apparatus of claim 7 , wherein the processing circuit is to delete packets from the set of data packets corresponding to positions of the dropped packets in the sequence of packets included in the first set of data.
9. The apparatus of claim 6 , wherein the processing circuit is further configured to, in generating the second set of data, identify positions of error bits in the first set of data, and insert bits in the second set of data at the identified positions of bits in error.
10. The apparatus of claim 6 , wherein
a characterization of the post-transmission quality state of a first set of data, by the processing circuit, identifies an ordering of a sequence of packets included in the first set of data.
11. The apparatus of claim 10 , wherein the set of data packets is modified by the processing circuit for reordering a set of packets in the second set of data according to the identified ordering.
12. The apparatus of claim 11 , wherein the processing circuit is further configured to: perform forward-error-correction, demodulation, or combinations thereof, and quantify a media payload quality of the set of media payload data.
13. An apparatus comprising:
a data-communications server communicatively coupled to a communication network and configured to receive a first set of data characterizing or representing video content from a call made over the communication network; and
a processing circuit communicatively coupled to data-communications server and configured to simulate quality of the first set of data characterizing or representing the video content by performing operations including:
characterizing a post-transmission quality state of the first set of data; and
forming a model data set by generating a second set of data including a characterization or representation of the video content that is different from the first set of data, the second set of data including characteristics indicative of the post-transmission quality state of a first set of data based on a post-transmission process applied to the first set of data.
14. The apparatus of claim 13 , wherein
the processing circuit is further configured to:
generate a plurality of sets of data including the second set of data, each of the plurality of sets of data encoding a set of video content, different from the video content of the call;
provide a characterization of video content quality, respectively, for each of the plurality of sets of data; and
prompt the data-communications server to encode video content of the call based on at least one of the plurality of sets of data having a higher quality characterization.
15. The apparatus of claim 14 , wherein the processing circuit is further configured to quantify the first set of data characterizing or representing the video content.
16. The apparatus of claim 13 , wherein the video content includes data corresponding to video conferences and video media streaming services.
17. The apparatus of claim 13 , wherein
the video content of the call is to be encoded according to a configuration of a first codec; and
the processing circuit is further to prompt the data-communications server to use a second codec to encode video content in response to quality of the video content being less than a threshold value.
18. An apparatus comprising:
a data-communications server communicatively coupled to a communication network and configured to receive a first set of data including data characterizing or representing video content of a call; and
a processing circuit coupled to the data-communications server and configured to simulate video content quality of the call by performing operations including:
characterizing a post-transmission quality state of the first set of data;
generating a second set of data including video content that is different from the video content of the call, the second set of data including characteristics indicative of the post-transmission quality state of a first set of data; and
in generating the second set of data:
form a set of model payload;
generate a set of data packets including the set of model payload; and
modify the set of data packets to include characteristics indicative of a post-transmission quality state of the first set of data.
19. The apparatus of claim 18 , wherein the characteristics indicative of a post-transmission quality state are based in part on a determination of dropped packets in a sequence of packets included in the first set of data.
20. The apparatus of claim 19 , wherein the set of data packets, as modified by the processing circuit, deletes data packets from the set of data packets corresponding to positions of the dropped packets in the sequence of packets included in the first set of data.
21. A data storage device including instructions which, in response to being executed, prompt or cause a method of being carried out, the method comprising:
via a data-communications server and computer-processing circuitry,
receiving a first set of data including data characterizing or representing video content of a call; and
simulating video content quality of the call by performing operations that include:
characterizing a post-transmission quality state of the first set of data; and
generating a second set of data, including video content that is different from the video content of the call and characteristics indicative of the post-transmission quality state of a first set of data, by forming a set of model payload, generating a set of data packets including the set of model payload, and modifying the set of data packets to include characteristics indicative of a post-transmission quality state of the first set of data.