The present embodiments relate to a system and method associated with anomaly classification. The method comprises receiving a plurality of time-series data from one or more sensors associated with a machine. The time-series data may be automatically passed through a convolutional neural network to determine reduced dimension data. An anomaly based on classifying the reduced dimension data may be automatically determined. In a case that the anomaly is an unknown anomaly, the determined anomaly may be labeled and the determined anomaly and its associated label may be stored in an anomaly training database.
Please help me write a proper abstract based on the patent claims. CLAIM: 1. A method of determining an anomaly associated with a machine, the method comprising: receiving a plurality of time-series data from one or more sensors associated with a machine; automatically passing, via a processor, the time-series data through a convolutional neural network to determine reduced dimension data; automatically determining, via the processor, an anomaly based on classifying the reduced dimension data; and in a case that the anomaly is an unknown anomaly, labeling the determined anomaly and storing the determined anomaly and its associated label in an anomaly training database. 2. The method of claim 1, wherein passing the time-series data through a convolutional neural network to determine reduced dimension data; comprises: performing a first pass through the a first layer of the convolutional neural network to reduce a number of dimensions of the plurality of time-series data; pooling the outcome of performing the first pass as first pool data; performing a second pass through the a second layer of the convolutional neural network to reduce a number of dimensions of the first pool data; pooling the outcome of performing the second pass as second pool data; performing a third pass through the a third layer of the convolutional neural network to reduce a number of dimensions of the second pool data; pooling the outcome of performing the third pass as third pool data; and performing one or more inner products on the third pool data to create the reduced dimension data. 3. The method of claim 2, wherein automatically determining anomalies based on classifying the reduced dimension data comprises: receiving the reduced dimension data at a classifier; and determining (i) a probability that the reduced dimension data comprises an anomaly and (ii) a probability that the reduced dimension data does not comprise an anomaly. 4. The method of claim 3, wherein determining (i) the probability that the reduced dimension data comprises an anomaly and (ii) the probability that the reduced dimension data does not comprise an anomaly comprises: training a system to map the reduced dimension data to a plurality of labels by computation and optimization associated with a loss function. 5. The method of claim 4, wherein the one or more inner products comprise a first inner product performed on the third pool data and a second inner product performed on an output of the first inner product; and passing the reduced dimension data to the classifier to determine (i) the probability that the reduced dimension data comprises an anomaly and (ii) the probability that the reduced dimension data does not comprise an anomaly. 6. The method of claim 3, wherein the reduced dimension data comprises 64 dimensions. 7. A system comprising: a database server comprising an anomaly training database; and a processor in communication with a machine to: receive a plurality of time-series data from one or more sensors associated with the machine; automatically pass the time-series data through a plurality of layers of a convolutional neural network to determine reduced dimension data; automatically determine an anomaly based on classifying the reduced dimension data; label the determined anomaly; and store the determined anomaly and its associated label in the anomaly training database. 8. The system of claim 7, wherein passing the time-series data through a convolutional neural network to determine reduced dimension data; comprises: performing a first pass through the a first layer of the convolutional neural network to reduce a number of dimensions of the plurality of time-series data; pooling the outcome of performing the first pass as first pool data; performing a second pass through the a second layer of the convolutional neural network to reduce a number of dimensions of the first pool data; pooling the outcome of performing the second pass as second pool data; performing a third pass through the a third layer of the convolutional neural network to reduce a number of dimensions of the second pool data; pooling the outcome of performing the third pass as third pool data; and performing one or more inner products on the third pool data to create the reduced dimension data. 9. The system of claim 8, wherein automatically determining anomalies based on classifying the reduced dimension data comprises: receiving the reduced dimension data at a classifier; and determining (i) a probability that the reduced dimension data comprises an anomaly and (ii) a probability that the reduced dimension data does not comprise an anomaly. 10. The system of claim 9, wherein determining (i) the probability that the reduced dimension data comprises an anomaly and (ii) the probability that the reduced dimension data does not comprise an anomaly comprises: training a system to map the reduced dimension data to a plurality of labels by computation and optimization associated with a loss function. 11. The system of claim 10, wherein the one or more inner products comprise a first inner product performed on the third pool data and a second inner product performed on an output of the first inner product; and passing the reduced dimension data to the classifier to determine (i) the probability that the reduced dimension data comprises an anomaly and (ii) the probability that the reduced dimension data does not comprise an anomaly. 12. The system of claim 9, wherein the reduced dimension data comprises 64 dimensions. 13. A non-transitory computer-readable medium comprising instructions that when executed by a processor perform a method of anomaly detection, the method comprising: receiving a plurality of time-series data from one or more sensors associated with a machine; automatically passing, via a processor, the time-series data through a convolutional neural network to determine reduced dimension data; automatically determining, via the processor, an anomaly based on classifying the reduced dimension data based on a determined loss; labeling the determined anomaly; and storing the determined anomaly and its associated label in an anomaly training database. 14. The medium of claim 13, wherein passing the time-series data through a convolutional neural network to determine reduced dimension data; comprises: performing a first pass through the a first layer of the convolutional neural network to reduce a number of dimensions of the plurality of time-series data; pooling the outcome of performing the first pass as first pool data; performing a second pass through the a second layer of the convolutional neural network to reduce a number of dimensions of the first pool data; pooling the outcome of performing the second pass as second pool data; performing a third pass through the a third layer of the convolutional neural network to reduce a number of dimensions of the second pool data; pooling the outcome of performing the third pass as third pool data; and performing one or more inner products on the third pool data to create the reduced dimension data. 15. The medium of claim 14, wherein automatically determining anomalies based on classifying the reduced dimension data comprises: receiving the reduced dimension data at a classifier; and determining (i) a probability that the reduced dimension data comprises an anomaly and (ii) a probability that the reduced dimension data does not comprise an anomaly. 16. The medium of claim 15, wherein determining (i) the probability that the reduced dimension data comprises an anomaly and (ii) the probability that the reduced dimension data does not comprise an anomaly comprises: training a system to map the reduced dimension data to a plurality of labels by computation and optimization associated with a loss function. 17. The medium of claim 16, wherein the one or more inner products comprise a first inner product performed on the third pool data and a second inner product performed on an output of the first inner product; and passing the reduced dimension data to the classifier to determine (i) the probability that the reduced dimension data comprises an anomaly and (ii) the probability that the reduced dimension data does not comprise an anomaly. 18. The medium of claim 15, wherein the reduced dimension data comprises 64 dimensions.