IP Library › Granted Patent US 12,432,242
Granted Patent B1
US 12,432,242 · App. 19/094,182 · Granted Sep 30, 2025

Anomaly detection in managed networks

Inventors: Justin Allan McCarthy (Redwood City, CA); Ravi Dilip Patel (Pflugerville, TX); Jess Henry Schmidt (Albert Lea, MN)
Assignee: strongDM, Inc.
H04L63/1425
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Quick Facts
Patent No.
US 12,432,242
App. No.
19/094,182
Granted
Sep 30, 2025
Kind
B1
Abstract

Embodiments detect anomalous activity in networks. Events may be generated based on an activity observed in a monitored network such that each event includes values associated with the activity. High dimensional event vectors may be generated by embedding based on the events and the values included in each event. Anomalous events may be determined based on detection models trained with a cluster of events associated with the high dimensional event vectors such that each anomalous event may correspond to a high dimensional event vector compared to conditions declared in the detection models and such that each anomalous event may be associated with a priority score or a confidence score. A user interface that displays a report that includes the anomalous events may be generated and arranged based on the priority score, the confidence score, a user selected preference, feedback metrics associated with the user interface, or the like.

Claims (121)

1. A method for monitoring interactions with applications in a computing environment using one or more processors that are configured to execute instructions that cause performance of actions, comprising:

obtaining one or more events based on an activity that is observed in a monitored network, wherein each event includes one or more values associated with the activity;

embedding one or more high dimensional event vectors based on the one or more events and the one or more values included for each event;

collecting one or more anomalous events based on one or more detection models trained with a cluster of events associated with the one or more high dimensional event vectors, wherein each anomalous event corresponds to a high dimensional event vector compared to one or more conditions declared in the one or more detection models, and wherein each anomalous event is associated with one or more of a priority score or a confidence score;

collecting each detection model that exhibits model drift based on one or more false positives for one or more tests applied to the one or more detection models, wherein each model drifted detection model is removed from performing collection of the one or more anomalous events; and

obtaining a user interface for a display panel that displays a report that includes the one or more anomalous events and event information based on one or more of the priority score, the confidence score, a user selected preference, or one or more feedback metrics associated with the user interface, wherein an arrangement of the display panel and the display of the report are dynamically transformed for viewing by a user based on one or more of user interactions with the display panel.

2. The method of claim 1 , wherein collecting the one or more anomalous events, further comprises:

collecting one or more metrics that exceed a threshold value provided by a detection model based on the one or more high dimensional event vectors and one or more of a distance from a center of the detection model, a deviation from a probability curve provided by the detection model, or a similarity to a vector provided by the detection model and the high dimensional event vector; and

collecting the one or more anomalous events based on a portion of the one or more high dimensional event vectors associated with the one or more metrics that exceeded the one or more threshold values.

3. The method of claim 1 , further comprising:

collecting one or more training events based on one or more of an archive of one or more historical events or one or more synthetic events;

obtaining one or more training high dimensional event vectors based on the one or more training events; and

obtaining the one or more detection models based on the one or more training high dimensional event vectors.

4. The method of claim 1 , further comprising:

collecting one or more deficient detection models based on the one or more feedback metrics associated with the report, wherein the one or more feedback metrics indicate an ineffective collection of the one or more anomalous events; and

retraining the one or more deficient detection models based on one or more other events, wherein the one or more retrained detection models collect one or more other anomalous events.

5. The method of claim 1 , further comprising:

categorizing one or more training events based on one or more categories associated with one or more activity features, wherein the one or more activity features include one or more of an associated user, an associated user type, an associated resource, an associated resource type, an associated application, an associated application type, a geographic location, a time of day, a day of week, a time window, or an associated application command;

obtaining a portion of the one or more detection models based on the one or more categorized training events, wherein the portion of the one or more detection models are associated with the one or more categories; and

collecting one or more portions of the one or more anomalous events associated with the one or more categories based on the portion of one or more detection models and the one or more high dimensional event vectors.

6. The method of claim 1 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

collecting one or more other detection models that are included as sub-models of the one or more detection models based on the one or more detection models; and

comparing the one or more high dimensional event vectors to the one or more other detection models to collect the one or more anomalous events.

7. The method of claim 1 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

obtaining two or more detection models to evaluate the one or more high dimensional event vectors; and

collecting the one or more anomalous events based on a comparison of the two or more evaluations, wherein one or more differences in the evaluations indicate an anomalous event.

8. The method of claim 1 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

collecting the one or more detection models associated with the one or more anomalous events, wherein each of the one or more detection models is associated with one or more partial priority scores, and wherein each of the one or more detection models is associated with one or more partial confidence scores;

collecting a final priority score for each anomalous event based on a sum of the one or more partial priority scores; and

collecting a final confidence score for each anomalous event based on a sum of the one or more partial confidence scores.

9. A network computer for managing interactions with applications, comprising:

a memory that stores at least instructions; and

one or more processors that execute instructions that are configured to cause actions, including:

obtaining one or more events based on an activity that is observed in a monitored network, wherein each event includes one or more values associated with the activity;

embedding one or more high dimensional event vectors based on the one or more events and the one or more values included for each event;

collecting one or more anomalous events based on one or more detection models trained with a cluster of events associated with the one or more high dimensional event vectors, wherein each anomalous event corresponds to a high dimensional event vector compared to one or more conditions declared in the one or more detection models, and wherein each anomalous event is associated with one or more of a priority score or a confidence score;

collecting each detection model that exhibits model drift based on one or more false positives for one or more tests applied to the one or more detection models, wherein each model drifted detection model is removed from performing collection of the one or more anomalous events; and

obtaining a user interface for a display panel that displays a report that includes the one or more anomalous events and event information based on one or more of the priority score, the confidence score, a user selected preference, or one or more feedback metrics associated with the user interface, wherein an arrangement of the display panel and the display of the report are dynamically transformed for viewing by a user based on one or more of user interactions with the display panel.

10. The network computer of claim 9 , wherein collecting the one or more anomalous events, further comprises:

collecting one or more metrics that exceed a threshold value provided by a detection model based on the one or more high dimensional event vectors and one or more of a distance from a center of the detection model, a deviation from a probability curve provided by the detection model, or a similarity to a vector provided by the detection model and the high dimensional event vector; and

collecting the one or more anomalous events based on a portion of the one or more high dimensional event vectors associated with the one or more metrics that exceeded the one or more threshold values.

11. The network computer of claim 9 , wherein the one or more processors execute instructions that are configured to cause actions, further comprising:

collecting one or more training events based on one or more of an archive of one or more historical events or one or more synthetic events;

obtaining one or more training high dimensional event vectors based on the one or more training events; and

obtaining the one or more detection models based on the one or more training high dimensional event vectors.

12. The network computer of claim 9 , wherein the one or more processors execute instructions that are configured to cause actions, further comprising:

collecting one or more deficient detection models based on the one or more feedback metrics associated with the report, wherein the one or more feedback metrics indicate an ineffective collection of the one or more anomalous events; and

retraining the one or more deficient detection models based on one or more other events; wherein the one or more retrained detection models collect one or more other anomalous events.

13. The network computer of claim 9 , wherein the one or more processors execute instructions that are configured to cause actions, further comprising:

categorizing one or more training events based on one or more categories associated with one or more activity features, wherein the one or more activity features include one or more of an associated user, an associated user type, an associated resource, an associated resource type, an associated application, an associated application type, a geographic location, a time of day, a day of week, a time window, or an associated application command;

obtaining a portion of the one or more detection models based on the one or more categorized training events, wherein the portion of the one or more detection models are associated with the one or more categories; and

collecting one or more portions of the one or more anomalous events associated with the one or more categories based on the portion of one or more detection models and the one or more high dimensional event vectors.

14. The network computer of claim 9 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

collecting one or more other detection models that are included as sub-models of the one or more detection models based on the one or more detection models; and

comparing the one or more high dimensional event vectors to the one or more other detection models to collect the one or more anomalous events.

15. The network computer of claim 9 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

employing two or more detection models to evaluate the one or more high dimensional event vectors; and

collecting the one or more anomalous events based on a comparison of the two or more evaluations, wherein one or more differences in the evaluations indicate an anomalous event.

16. A processor readable non-transitory storage media that includes instructions configured for managing interactions with applications in a computing environment, wherein execution of the instructions by one or more processors on one or more network computers causes performance of actions, comprising:

obtaining one or more events based on an activity that is observed in a monitored network, wherein each event includes one or more values associated with the activity;

embedding one or more high dimensional event vectors based on the one or more events and the one or more values included for each event;

collecting one or more anomalous events based on one or more detection models trained with a cluster of events associated with the one or more high dimensional event vectors, wherein each anomalous event corresponds to a high dimensional event vector compared to one or more conditions declared in the one or more detection models, and wherein each anomalous event is associated with one or more of a priority score or a confidence score;

collecting each detection model that exhibits model drift based on one or more false positives for one or more tests applied to the one or more detection models, wherein each model drifted detection model is removed from performing collection of the one or more anomalous events; and

obtaining a user interface for a display panel that displays a report that includes the one or more anomalous events and event information based on one or more of the priority score, the confidence score, a user selected preference, or one or more feedback metrics associated with the user interface, wherein an arrangement of the display panel and the display of the report are dynamically transformed for viewing by a user based on one or more of user interactions with the display panel.

17. The media of claim 16 , wherein collecting the one or more anomalous events, further comprises:

collecting one or more metrics that exceed a threshold value provided by a detection model based on the one or more high dimensional event vectors and one or more of a distance from a center of the detection model, a deviation from a probability curve provided by the detection model, or a similarity to a vector provided by the detection model and the high dimensional event vector; and

collecting the one or more anomalous events based on a portion of the one or more high dimensional event vectors associated with the one or more metrics that exceeded the one or more threshold values.

18. The media of claim 16 , further comprising:

collecting one or more training events based on one or more of an archive of one or more historical events or one or more synthetic events;

obtaining one or more training high dimensional event vectors based on the one or more training events; and

obtaining the one or more detection models based on the one or more training high dimensional event vectors.

19. The media of claim 16 , further comprising:

collecting one or more deficient detection models based on the one or more feedback metrics associated with the report, wherein the one or more feedback metrics indicate an ineffective collection of the one or more anomalous events; and

retraining the one or more deficient detection models based on one or more other events, wherein the one or more retrained detection models collect one or more other anomalous events.

20. The media of claim 16 , further comprising:

categorizing one or more training events based on one or more categories associated with one or more activity features, wherein the one or more activity features include one or more of an associated user, an associated user type, an associated resource, an associated resource type, an associated application, an associated application type, a geographic location, a time of day, a day of week, a time window, or an associated application command;

obtaining a portion of the one or more detection models based on the one or more categorized training events, wherein the portion of the one or more detection models are associated with the one or more categories; and

collecting one or more portions of the one or more anomalous events associated with the one or more categories based on the portion of one or more detection models and the one or more high dimensional event vectors.

21. The media of claim 16 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

collecting one or more other detection models that are included as sub-models of the one or more detection models based on the one or more detection models; and

comparing the one or more high dimensional event vectors to the one or more other detection models to collect the one or more anomalous events.

22. The media of claim 16 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

employing two or more detection models to evaluate the one or more high dimensional event vectors; and

collecting the one or more anomalous events based on a comparison of the two or more evaluations, wherein one or more differences in the evaluations indicate an anomalous event.

23. A system for method for managing interactions with applications, comprising:

a network computer, comprising:

a memory that stores at least instructions; and

one or more processors that execute instructions that are configured to cause actions, including:

obtaining one or more events based on an activity that is observed in a monitored network, wherein each event includes one or more values associated with the activity;

embedding one or more high dimensional event vectors based on the one or more events and the one or more values included for each event;

collecting one or more anomalous events based on one or more detection models trained with a cluster of events associated with the one or more high dimensional event vectors, wherein each anomalous event corresponds to a high dimensional event vector compared to one or more conditions declared in the one or more detection models, and wherein each anomalous event is associated with one or more of a priority score or a confidence score;

collecting each detection model that exhibits model drift based on one or more false positives for one or more tests applied to the one or more detection models, wherein each model drifted detection model is removed from performing collection of the one or more anomalous events; and

obtaining a user interface for a display panel that displays a report that includes the one or more anomalous events and event information based on one or more of the priority score, the confidence score, a user selected preference, or one or more feedback metrics associated with the user interface, wherein an arrangement of the display panel and the display of the report are dynamically transformed for viewing by a user based on one or more of user interactions with the display panel; and

a client computer, comprising:

another memory that stores at least instructions; and

one or more other processors that execute other instructions that are configured to cause actions, including:

communicating information associated with the observed activity to the network computer.

24. The system of claim 23 , wherein collecting the one or more anomalous events, further comprises:

collecting one or more metrics that exceed a threshold value provided by a detection model based on the one or more high dimensional event vectors and one or more of a distance from a center of the detection model, a deviation from a probability curve provided by the detection model, or a similarity to a vector provided by the detection model and the high dimensional event vector; and

collecting the one or more anomalous events based on a portion of the one or more high dimensional event vectors associated with the one or more metrics that exceeded the one or more threshold values.

25. The system of claim 23 , wherein the one or more processors of the network computer execute instructions that are configured to cause actions, further comprising:

collecting one or more training events based on one or more of an archive of one or more historical events or one or more synthetic events;

obtaining one or more training high dimensional event vectors based on the one or more training events; and

obtaining the one or more detection models based on the one or more training high dimensional event vectors.

26. The system of claim 23 , wherein the one or more processors of the network computer execute instructions that are configured to cause actions, further comprising:

collecting one or more deficient detection models based on the one or more feedback metrics associated with the report, wherein the one or more feedback metrics indicate an ineffective collection of the one or more anomalous events; and

retraining the one or more deficient detection models based on one or more other events, wherein the one or more retrained detection models collect one or more other anomalous events.

27. The system of claim 23 , wherein the one or more processors of the network computer execute instructions that are configured to cause actions, further comprising:

categorizing one or more training events based on one or more categories associated with one or more activity features, wherein the one or more activity features include one or more of an associated user, an associated user type, an associated resource, an associated resource type, an associated application, an associated application type, a geographic location, a time of day, a day of week, a time window, or an associated application command;

obtaining a portion of the one or more detection models based on the one or more categorized training events, wherein the portion of the one or more detection models are associated with the one or more categories; and

collecting one or more portions of the one or more anomalous events associated with the one or more categories based on the portion of one or more detection models and the one or more high dimensional event vectors.

28. The system of claim 23 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

collecting one or more other detection models that are included as sub-models of the one or more detection models based on the one or more detection models; and

comparing the one or more high dimensional event vectors to the one or more other detection models to collect the one or more anomalous events.

29. The system of claim 23 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

employing two or more detection models to evaluate the one or more high dimensional event vectors; and

collecting the one or more anomalous events based on a comparison of the two or more evaluations, wherein one or more differences in the evaluations indicate an anomalous event.

30. The system of claim 23 , wherein collecting the one or more anomalous events based on the one or more detection models, further comprises:

collecting the one or more detection models associated with the one or more anomalous events, wherein each of the one or more detection models is associated with one or more partial priority scores, and wherein each of the one or more detection models is associated with one or more partial confidence scores;

collecting a final priority score for each anomalous event based on a sum of the one or more partial priority scores; and

collecting a final confidence score for each anomalous event based on a sum of the one or more partial confidence scores.

Assignments (2)
MERGER Recorded May 26, 2026
From: STRONGDM, INC.
To: DELINEA INC.
Reel/Frame 074757/0685 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Mar 28, 2025
From: MCCARTHY, JUSTIN ALLAN; PATEL, RAVI DILIP; SCHMIDT, JESS HENRY
To: STRONGDM, INC.
Reel/Frame 070666/0780 →
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