Utilization of location and environment to improve recognition

Abstract

A portable terminal has a network interface that receives a set of instructions having a sequence of at least one location and audio properties associated with the at least one location from a server. An audio circuit receives audio signals picked up by a microphone and processes the audio signals in a manner defined by the audio properties associated with the at least one location. A speech recognition module receives processed signals from the audio circuit and carries out a speech recognition process thereupon.

Description

FIELD OF THE INVENTION

The present invention relates to improvements in speech recognition.

BACKGROUND

In environments where mobile devices are performing voice recognition, many factors in the environment can negatively impact speech recognition performance. For example, when such systems are utilized in an environment wherein the ambient noise level changes from location to location (e.g., on a factory or warehouse floor) the ability of the mobile device to perform accurate speech recognition can vary depending upon the user's proximity to noise sources such as production machinery.

Therefore, a need exists for a mechanism to cope with variable sources of audible noise that interferes with accurate speech recognition.

SUMMARY

Accordingly, in one aspect, the present invention embraces a mechanism for changing gain and other audio system characteristics based upon location of the portable device.

In an example embodiment, a device has a network interface that receives a set of instructions from a server, the instructions comprising a sequence of at least one location and audio properties associated with the at least one location. An audio circuit receives audio signals picked up by a microphone and processes the audio signals in a manner defined by the audio properties associated with the at least one location. A speech recognition module receives processed signals from the audio circuit and carries out a speech recognition process thereupon.

In accord with certain example embodiments, audio signals picked up by the microphone are stored and conveyed to a server. In accord with certain example embodiments, the speech recognition module utilizes a user template that characterizes speech of a particular user to enhance recognition accuracy. In accord with certain example embodiments, the audio circuit comprises an amplifier and where the gain of the amplifier is set by the audio properties for the at least one location. In accord with certain example embodiments, the audio circuit comprises a noise comparison circuit that compares the audio with a noise model defined by the audio properties, and where the audio from the microphone is discarded if the audio matches the noise model. In accord with certain example embodiments, the audio properties for the at least one location are loaded after receiving a confirmation that the terminal has arrived at the at least one location. In accord with certain example embodiments, the confirmation comprises an audio signal picked up by the microphone. In accord with certain example embodiments, a speech synthesizer synthesizes speech instruction from the set of instructions.

In another example embodiment, a portable terminal has a wireless network interface that receives a set of instructions from a server, the instructions comprising a sequence of at least one location and audio properties associated with the at least one location. An audio circuit receives audio signals picked up by a microphone and processes the audio signals in a manner defined by the audio properties associated with the at least one location. The audio circuit has an amplifier and the gain of the amplifier is set by the audio properties for the at least one location. The audio circuit may include a noise comparison circuit that compares the audio with a noise model defined by the audio properties, and where the audio is discarded if the audio matches the noise model. A speech recognition module receives processed signals from the audio circuit and carries out a speech recognition process thereupon. A speech synthesizer synthesizes speech instruction from the set of instructions.

In accord with certain example embodiments, audio signals picked up by the microphone are stored and conveyed to a server. In accord with certain example embodiments, the speech recognition module utilizes a user template that characterizes speech of a particular user to enhance recognition accuracy. In accord with certain example embodiments, the audio properties for the at least one location are loaded after receiving a confirmation that the terminal has arrived at the at least one location. In accord with certain example embodiments, the confirmation comprises an audio signal picked up by the microphone.

In another example embodiment, a method of processing speech signals at a portable terminal involves: receiving a set of instructions from a server; the set of instructions include at least one location, a set of actions to be carried out at the at least one location, and a set of audio processing parameters associated with the at least one location; synthesizing a speech command to proceed to the at least one location; receiving a speech signal from a microphone confirming arrival at the at least one location; loading the audio processing parameters associated with the at least one location; and processing speech signals received from the microphone using the audio processing parameters associated with the at least one location.

In certain example methods, audio signals picked up by the microphone are stored. In accord with certain example embodiments, the speech recognition module utilizes a user template that characterizes speech of a particular user to enhance speech recognition accuracy. In accord with certain example embodiments, the audio processing parameters include an amplifier gain, and where the amplifier gain establishes the gain of an amplifier that amplifies signals from the microphone. In accord with certain example embodiments, the method further involves comparing audio signals received at the microphone with a noise model defined by the audio processing parameters, and where the audio from the microphone is discarded if the audio matches the noise model. In accord with certain example embodiments, the audio processing parameters include at least one of a compression value, and a frequency response parameter that processes signals from the microphone. In accord with certain example embodiments, the audio properties for the at least one location are loaded after receiving a confirmation that the terminal has arrived at the at least one location.

The foregoing illustrative summary, as well as other exemplary objectives and/or advantages of the invention, and the manner in which the same are accomplished, are further explained within the following detailed description and its accompanying drawings.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 depicts an example system consistent with certain illustrative embodiments.

FIG. 2 depicts an example of a set of pick instructions consistent with certain illustrative embodiments.

FIG. 3 depicts an example flow chart of overall operation consistent with certain illustrative embodiments.

FIG. 4 depicts an example flow chart consistent with certain illustrative embodiments.

FIG. 5 depicts an example flow chart for update of noise models consistent with certain illustrative embodiments.

FIG. 6 depicts an example block diagram of a portable terminal consistent with certain illustrative embodiments.

DETAILED DESCRIPTION

The present invention embraces a mechanism for utilizing workflow progression information to control various audio characteristics for processing a received speech signal from a user for further processing by speech recognition components.

In an exemplary embodiment, a system such as the Vocollect™ system produced by Honeywell International, Inc. (e.g., including a portable device) is utilized to conduct various transactions. In one example, as depicted by system 10 in FIG. 1, a user 14 utilizes a wireless portable terminal 18 that is coupled by a wireless network 22 to a server 26. The wireless portable terminal is linked (e.g., via a wired or wireless connection such as a BlueTooth™ connection) to a headset 30 or other earpiece arrangement that incorporates a microphone 34. Unfortunately, while microphone 34 is used for the user 14 to convey information to the wireless portable terminal 18, microphone 34 is also susceptible to receiving ambient noises that may change from location to location. The present teachings address this issue.

In one example, the system 10 may be utilized in a warehouse or production floor to provide working instructions for user 14. For example, user 14 may be responsible for picking items from shelves in a warehouse to help fulfill a customer's order. In another example, user 14 may be responsible for picking production parts and delivering them to other workers on a factory floor. In either case, the user works from “pick instructions” conveyed by the terminal 18 to the user 14.

While in the usage area (e.g., a warehouse), the wireless portable terminal 18 communicates with server 26 to transfer many types of information. If the terminal 18 knows its location or workflow progression at all times, it can relay information about its location along with the aforementioned data. One example of this data tagged with this location information could be the local noise levels or an actual audio sampling of the noise.

As user 14 operates and moves about the area, the system can ‘learn’ where the noise levels are highest and lowest, as well as what the characteristics of that noise are, and adapt itself accordingly to improve recognition. For instance, knowing that a certain area is particularly noisy, the system can automatically adjust the input gain applied to signals from microphone 34 and/or adjust a noise model to better cope with the ambient noise levels in the environment.

In one example embodiment that is common for use of this type of system, the user 14 starts off receiving a set of pick instructions from the server which might include, for example, the task of picking three items as follows:

Pick quantity 2 from aisle 7, bin 4.

Pick quantity 1 from aisle 8, bin 43.

Pick quantity 3 from aisle 12, bin 77.

It is noted that the present teachings are not limited to “pick instructions” per se, but rather are applicable to any set of instructions that are used to direct a user 14 about to accomplish a task or to any situation where a user is moving around and utilizing speech recognition. Returning to this example, this pick information is conveyed to the wireless portable terminal 18 which aids the user 14 in completing the pick by first telling the user (by speech synthesis and/or display) to first proceed to aisle 7. The message might be “go to aisle 7 and then say ‘ready’”. The user 14 can then proceed to aisle 7 and acknowledge arrival at that location (isle 7) by saying “ready” into microphone 34. At this point, the wireless portable terminal 18 will know that the user is at aisle 7. In one embodiment, at this point the terminal 18 can monitor the ambient sounds for use in characterizing the environment of aisle 7. Data representing the ambient noise at aisle 7 can be stored for later transmission back to the server 26 or may be immediately sent back to server 26 if the network connection is solid, or queued to be sent later.

Also, once the user has confirmed the location (isle 7), if the location is known to have a high background noise level, the terminal 18 can reduce the audio gain, adjust frequency response, adjust compression or utilize one or more a noise models to improve the quality of the speech recognition. This knowledge, in certain examples, comes as a part of the pick instructions directing the user 14 to each particular location.

Once the user 14 has confirmed his or her location at aisle 7, terminal 18 can provide instructions to go to bin 4 with an instruction such as “go to bin 4 and then say ‘ready’”. The user acknowledges arrival by saying “ready”. When the user's location is refined (i.e., the user is now at bin 4), the audio characteristics may be further adjusted if desired (or, a single set of characteristics can be used for the entire aisle). For example, one end of aisle 7 may be close to a noisy machine while the other end of the aisle may be considerably quiet. In other examples, an average can be used for each general location or the noise level can be characterized with any degree of precision desired.

Once the user has acknowledged arrival by saying “ready”, the terminal 18 provides the instruction “pick quantity 2 and then say ‘ready’”. When the user says “ready”, the terminal 18 proceeds to the second location (isle 8, bin 43) and after that provides a similar set of instructions for the third location (isle 12, bin 77). After the pick is completed, the user may receive a final instruction to deliver all items to a particular location. Once that is accomplished, the user may again say “ready” and a new pick instruction set will be downloaded to the terminal 18 from the server 26.

When one or more noise models are used in the above example, the noise model(s) may define the characteristics of noise present at a particular location in such a manner that when the terminal 18 receives an audio signal the signal is first checked against the noise model. If there is a match to the noise model, the audio is presumed invalid and is marked as noise and not interpreted as spoken words.

While ideally, every possible location might be characterized, in practice it may be that significant benefit is only obtained by characterizing a few of the noisier locations in a particular environment.

With reference to FIG. 2, an example set of pick instructions is depicted as 50. As previously noted, these instructions can be received prior to the user beginning the pick operation. The pick instructions as shown include one or more locations such as 54 (e.g., aisle 4); a set of instructions 54 (e.g., pick 4 from bin 7); and settings as they relate to each individual location in the instruction set. As depicted, two settings are shown for each of the three locations A, B and C. Each location has a gain 62 which represents the gain or gain adjustment that should be applied to the microphone audio and a noise model 66 that characterizes the noise at each location. This information can be updated each time a worker visits a particular location or may remain relatively static over time.

It is noted that the changes that can be made to adapt to various locations is not limited to gain settings or a single noise model. Gain, frequency response, compression settings, and noise models are among the options of characteristics of audio processing that can be manipulated in accord with the present teachings. Moreover, even within a noise model, variables might be adjusted, as opposed to replacing the complete model (though that could be considered equivalent). Even in the search algorithms of the recognizer the weighting of noise models relative to the rest of the words that are being matched can be adjusted to make it more likely that a noise model will be accepted as a “match” to audio overall, even if one did not change anything about the noise model.

The word “terminal” as used herein can be interpreted as a wireless headset that is connected to a processor that is not portable. In such example, the microphone is moving around with the user, but not the processer (recognizer or dialog engine). In other embodiments, a similar system could be implemented without WiFi, in which case the user plugs a headset in at the start, get the information, do your route, then plug in afterwards to upload the results of the route. Many variations will occur to those skilled in the art without departing from the present teachings.

FIG. 3 shows an example of a process 100 flow chart for the process described above starting at 102. The portable terminal 18 is booted up at 106 and initialized to be prepared for normal operation. In one example implementation, the speech recognition system can be rendered highly reliable by being individualized to each user 14 and utilize a limited vocabulary. In such a system, the user 14 trains the terminal 18 and if the device is shared, each user enters an identifier that identifies the user to the terminal 18. The terminal can then download a template representing the speech pattern of each particular user.

Speech recognition can also be made more reliable by using a limited vocabulary—for example, “start”, “ready”, “complete”, “back” and numerical digits 0-9 and perhaps a few additional commands.

Since the reliability of the speech recognition is desirably very high, and further desirably carried out at the portable terminal 18, limited vocabulary and individualized training are desirable, but should not be considered limiting on the present teachings.

If the system is individualized to each user, the user's particular speech recognition template that characterizes the user's speech can be downloaded at 110 from the server to the portable device. After this, a set of pick instructions (or other instructions containing locations and audio settings relating to each or certain of the locations is downloaded at 114. The pick operation (for example) can then begin starting with the first destination at 118. At 122, the portable terminal generates a speech (and/or displayed) instructions for the user that instructs the user to go to this destination. The user can then proceed to go to the designation location and confirms arrival at that location when he or she arrives at 126.

Now that the terminal 18 knows that it has arrived at the designated location, terminal 18 can load and apply gain and noise model information from the pick instructions at 130 for use until the user moves to a new location. The portable terminal and the user can now proceed with a dialog in which the terminal 18 conveys instructions to the user 14 at 134 in the form of speech and/or displayed text telling the user 14 what operation(s) to carry out at the location and in which the user provides confirmations that are used to confirm completion of actions at 138. The sequence of 134 and 138 may repeated as the user proceeds through the dialog.

Once the user has completed the pick operation and has acknowledged such (e.g., by saying “ready”), the portable terminal determines if the destination is the last in the pick instruction at 142. If not, the process proceeds to the next destination at 146 and control passes back to 122 to advance to the next destination. But, if the last destination has been processed at 142, the terminal generates instructions to return to a designated area (e.g., a shipping department) with the picked items at 150. Further instructions may be generated as required for a particular setting. At this point, the user may also receive a new set of pick instructions at 154 and the process begins again for the new pick instructions starting at 114. Many variations will occur to those skilled in the art upon consideration of the present teachings.

Turning now to FIG. 4, as previously discussed the portable terminal 18 reads and parses the pick instructions to determine a sequence of destinations and gain and noise models for each location at 204. Then, for each location at 208, speech is synthesized at 212 to instruct the user to go to the current location. The audio processing parameters are then set to the associated gain and noise models for the location at 216. A dialog based sequence of speech synthesis and speech recognition can then be carried out at 220 to complete the operation at the current location. If this is not the last location at 224, the next location is similarly processed starting at 212 as shown at 228. If the last destination has been reached at 224, the process returns at 232.

In the present examples, gain and noise model processing has been described, but other audio processing could also be implemented and adjusted by location (e.g., equalization, amplitude compression, filtering, etc.) without limitation.

Referring to FIG. 5, it is noted that in some example audio environments the noise may change based on any number of factors. For example, in a manufacturing environment certain machinery may only operate during certain times. If the times can be reliably predicted, this can be used to determine how to best process the audio. In other instances, the noise may gradually change over time and it is useful to dynamically modify the audio processing based upon the most recently gathered data. This can be accomplished in a number of ways including, as shown in FIG. 5, at 250 detecting audio from the microphone. This audio can be sent to the server (or stored for later transmission to the server) at 254 so that the server can refine the gain and noise model (and any other audio characteristics) for use by the user or users. The audio can be time stamped to allow for associating a time to a noise environment seen at that particular time. The audio that is received by the microphone is also compared to the current noise model at 258 to determine if the audio appears to match noise at 262. If so, the audio can be discarded at 266 and the process returns to 250. If no match at 262, the audio can be further processed by the current gain and other processing including speech recognition and control returns to 250.

In carrying out this process, the currently received audio can be used locally at the portable terminal 18 in the processing by calculating a gain and noise model, for example, based on the currently received audio. This calculated gain and noise model can be used if significantly different than that stored for the particular location in certain embodiments. In other embodiments, the actual gain may be the average of that calculated and that received with the pick instruction. The noise model used may similarly be a combination of the noise model saved with the pick instructions and the currently calculated noise model. Many variations will occur to those skilled in the art upon consideration of the present teachings.

FIG. 6 depicts a functional block diagram of an example of a portable wireless terminal 18 coupled via a Bluetooth transceiver or other wireless or wired transceiver 302 to a paired headset 30 with microphone 34. The terminal 18 includes a processor unit (e.g., a CPU) 308 having associated non-volatile memory 312 and Random Access Memory (RAM) 316 via one or more bus connections 320. The bus 320 is further connected to a WiFi transceiver 324 for communication with the wireless network 22. A user interface 328 is also provided which may include a variety of user controls and displays as is appropriate to the device.

The functions discussed above are carried out by processor 308 utilizing programming stored in the memory 312 and 316. In this example, particular functional modules are depicted in RAM 316 that represent various functions discussed. Operating system 350 carries out the functions normally associated with an operating system (e.g., Linux or Android). The speech recognition module 354 carries out speech processing to convert speech received via the microphone 34 to a message understood by the terminal 18. The speech synthesis module 358 generates synthesized speech that is conveyed to the user via headset 30. The user template 362 provides information that is used by the speech recognition module 354 to improve the accuracy of recognition of speech by a particular user. Pick instructions are stored as data at 366 for use as described by parsing the instructions to generate speech and to load various audio processing parameters used by audio processing module 370 in conjunction with other audio circuits such as 374 to affect gain, noise model, etc. The speech recognition module may be implemented as a hardware module or as a processor utilizing speech recognition processes defined by 354. Many variations are possible without departing from the present teachings.

In the present embodiments, the location information is first provided by the server in the pick instructions and confirmed by the user upon arrival at the location. In certain embodiments, the location information can also be provided by or supplemented by GPS data using a GPS receiver forming a part of the terminal 18 (not shown) or other position determination mechanisms without limitation. The GPS information can be used to enhance the accuracy of the user's location or can be used independently without limitation.

In accord with certain embodiments, each location may not have to be characterized for audio parameters. The audio parameters may be represented as deviations from a normal setting (e.g., instructions on how much gain to add or subtract from normal), and the normal setting (e.g., gain) may be suitable for a wide variety of inputs.

In certain example embodiments, the usual workflow is that the terminal prompts “go to aisle X and then say ready” and then “go to bin Y and then say ready”. The audio characteristics are applied according to one example at the location after the user confirms that location. However, variations can be implemented without departing from the present teachings.

To supplement the present disclosure, this application incorporates entirely by reference the following commonly assigned patents, patent application publications, and patent applications:

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While the present discussion uses example embodiments shown as flow charts, equivalent hardware equivalents are also possible. Also, the order of certain operations of the flow charts may be modified without departing from the present teachings.

In the specification and/or figures, typical embodiments of the invention have been disclosed. The present invention is not limited to such exemplary embodiments. The use of the term “and/or” includes any and all combinations of one or more of the associated listed items. The figures are schematic representations and so are not necessarily drawn to scale. Unless otherwise noted, specific terms have been used in a generic and descriptive sense and not for purposes of limitation.

Claims

1. A portable terminal, comprising: a wireless network interface configured to receive, from a server, a set of instructions comprising at least one location, a set of actions to be carried out by a user at the at least one location, and a set of audio processing parameters associated with the at least one location;a speech synthesizer configured to synthesize a speech command to proceed to the at least one location;an audio circuit configured to receive audio signals picked up by a microphone and processes the audio signals;a speech recognition module configured to receive processed signals from the audio circuit and carry out a speech recognition process thereupon to confirm arrival of the user at the at least one location; anda processor configured to, in response to the speech recognition module carrying out the speech recognition process to confirm the arrival of the user at the at least one location, load the set of audio processing parameters associated with the at least one location, so that speech signals received from the microphone are processed using the set of audio processing parameters associated with the at least one location.

2. The terminal according to claim 1, where audio signals picked up by the microphone are stored and conveyed to a server.

3. The terminal according to claim 1, where the speech recognition module utilizes a user template that characterizes speech of a particular user to enhance recognition accuracy.

4. A method of processing speech signals at a portable terminal, comprising: receiving a set of instructions from a server, the set of instructions comprising at least one location, a set of actions to be carried out at the at least one location, and a set of audio processing parameters associated with the at least one location;synthesizing a speech command to proceed to the at least one location;receiving a speech signal from a microphone confirming arrival at the at least one location;loading the audio processing parameters associated with the at least one location; andprocessing speech signals received from the microphone using the audio processing parameters associated with the at least one location.

5. The method according to claim 4, where audio signals picked up by the microphone are stored.

6. The method according to claim 4, where the speech recognition module utilizes a user template that characterizes speech of a particular user to enhance speech recognition accuracy.

7. The method according to claim 4, where the audio processing parameters include an amplifier gain, and where the amplifier gain establishes the gain of an amplifier that amplifies signals from the microphone.

8. The method according to claim 4, further comprising comparing audio signals received at the microphone with a noise model defined by the audio processing parameters, and where the audio from the microphone is discarded if the audio matches the noise model.

9. The method according to claim 4, where the audio processing parameters include at least one of a compression value, and a frequency response parameter that processes signals from the microphone.

10. The method according to claim 4, where the audio properties for the at least one location are loaded after receiving a confirmation that the terminal has arrived at the at least one location.

11. A method of processing speech signals at a portable terminal, comprising: receiving a set of instructions from a server, the set of instructions comprising at least one location, a set of actions to be carried out at the at least one location, and a set of audio processing parameters associated with the at least one location;synthesizing a speech command to proceed to the at least one location;receiving a speech signal from a microphone confirming arrival at the at least one location;loading, in response to the receiving of the speech signal from the microphone confirming arrival at the at least one location, the audio processing parameters associated with the at least one location; andthen processing speech signals received from the microphone using the audio processing parameters associated with the at least one location.

12. The method according to claim 11, where audio signals picked up by the microphone are stored.

13. The method according to claim 11, where the speech recognition module utilizes a user template that characterizes speech of a particular user to enhance speech recognition accuracy.

14. The method according to claim 11, where the audio processing parameters include an amplifier gain, and where the amplifier gain establishes the gain of an amplifier that amplifies signals from the microphone.

15. The method according to claim 11, further comprising comparing audio signals received at the microphone with a noise model defined by the audio processing parameters, and where the audio from the microphone is discarded if the audio matches the noise model.

16. The method according to claim 11, where the audio processing parameters include at least one of a compression value, and a frequency response parameter that processes signals from the microphone.

17. The method according to claim 11, where the audio properties for the at least one location are loaded after receiving a confirmation that the terminal has arrived at the at least one location.