Animals could provide a new source of training data for AI systems.
To train AI to think like a dog, the researchers first needed data. They collected this in the form of videos and motion information captured from a single dog, a Malamute named Kelp. A total of 380 short videos were taken from a GoPro camera mounted to the dog’s head, along with movement data from sensors on its legs and body.
They captured a dog going about its daily life — walking, playing fetch, and going to the park.
Researchers analyzed Kelp’s behavior using deep learning, an AI technique that can be used to sift patterns from data, matching the motion data of Kelp’s limbs and the visual data from the GoPro with various doggy activities.
The resulting neural network trained on this information could predict what a dog would do in certain situations. If it saw someone throwing a ball, for example, it would know that the reaction of a dog would be to turn and chase it.
The predictive capacity of their AI system was very accurate, but only in short bursts. In other words, if the video shows a set of stairs, then you can guess the dog is going to climb them. But beyond that, life is simply too varied to predict.
Dogs “clearly demonstrate visual intelligence, recognizing food, obstacles, other humans, and animals,” so does a neural network trained to act like a dog show the same cleverness?
It turns out yes.
Researchers applied two tests to the neural network, asking it to identify different scenes (e.g., indoors, outdoors, on stairs, on a balcony) and “walkable surfaces” (which are exactly what they sound like: places can walk). In both cases, the neural network was able to complete these tasks with decent accuracy using just the basic data it had of a dog’s movements and whereabouts.
about deconstructing existing functionality of entire Photo Archive and Sharing platforms.
to bring an awareness to the masses about corporate decisions to omit the advanced capabilities of cataloguing photos, object recognition, and advanced metadata tagging.
Backstory: The Asks / Needs
Every day my family takes tons of pictures, and the pictures are bulk loaded up to The Cloud using Cloud Storage Services, such as DropBox, OneDrive, Google Photos, or iCloud. A selected set of photos are uploaded to our favourite Social Networking platform (e.g. Facebook, Instagram, Snapchat, and/or Twitter).
Every so often, I will take pause, and create either a Photobook or print out pictures from the last several months. The kids may have a project for school to print out e.g. Family Portrait or just a picture of Mom and the kids. In order to find these photos, I have to manually go through our collection of photographs from our Cloud Storage Services, or identify the photos from our Social Network libraries.
Social Networking Platform Facebook
As far as I can remember the Social Networking platform Facebook has had the ability to tag faces in photos uploaded to the platform. There are restrictions, such as whom you can tag from the privacy side, but the capability still exists. The Facebook platform also automatically identifies faces within photos, i.e. places a box around faces in a photo to make the person tagging capability easier. So, in essence, there is an “intelligent capability” to identify faces in a photo. It seems like the Facebook platform allows you to see “Photos of You”, but what seems to be missing is to search for all photos of Fred Smith, a friend of yours, even if all his photos are public. By design, it sounds fit for the purpose of the networking platform.
Automatically upload new images in bulk or one at a time to a Cloud Storage Service ( with or without Online Printing Capabilities, e.g. Photobooks) and an automated curation process begins.
The Auto Curation process scans photos for:
“Commonly Identifiable Objects”, such as #Car, #Clock, #Fireworks, and #People
Auto Curation of new photos, based on previously tagged objects and faces in newly uploaded photos will be automatically tagged.
Once auto curation runs several times, and people are manually #taged, the auto curation process will “Learn” faces. Any new auto curation process executed should be able to recognize tagged people in new pictures.
Auto Curation process emails / notifies the library owners of the ingestion process results, e.g. Jane Doe and John Smith photographed at Disney World on Date / Time stamp. i.e. Report of executed ingestion, and auto curation process.
After upload, and auto curation process, optionally, it’s time to manually tag people’s faces, and any ‘objects’ which you would like to track, e.g. Car aficionado, #tag vehicle make/model with additional descriptive tags. Using the photo curator function on the Cloud Storage Service can tag any “objects” in the photo using Rectangle or Lasso Select.
Curation to Take Action
Once photo libraries are curated, the library owner(s) can:
Automatically build albums based one or more #tags
Smart Albums automatically update, e.g. after ingestion and Auto Curation. Albums are tag sensitive and update with new pics that contain certain people or objects. The user/ librarian may dictate logic for tags.
Where is this Functionality??
Why are may major companies not implementing facial (and object) recognition? Google and Microsoft seem to have the capability/size of the company to be able to produce the technology.
Is it possible Google and Microsoft are subject to more scrutiny than a Shutterfly? Do privacy concerns at the moment, leave others to become trailblazers in this area?
Protecting the Data Warehouse with Artificial Intelligence
Teleran is a middleware company who’s software monitors and governs OLAP activity between the Data Warehouse and Business Intelligence tools, like Business Objects and Cognos. Teleran’s suite of tools encompass a comprehensive analytical and monitoring solution called iSight. In addition, Teleran has a product that leverages artificial intelligence and machine learning to impose real-time query and data access controls. Architecture also allows for Teleran’s agent not to be on the same host as the database, for additional security and prevention of utilizing resources from the database host.
Key Features of iGuard:
Policy engine prevents “bad” queries before reaching database
Patented rule engine resides in-memory to evaluate queries at database protocol layer on TCP/IP network
Patented rule engine prevents inappropriate or long-running queries from reaching the data
70 Customizable Policy Templates
SQL Query Policies
Create policies using policy templates based on SQL Syntax:
Require JOIN to Security Table
Column Combination Restriction – Ex. Prevents combining customer name and social security #
Table JOIN restriction – Ex. Prevents joining two different tables in same query
Equi-literal Compare requirement – Tightly Constrains Query Ex. Prevents hunting for sensitive data by requiring ‘=‘ condition
By user or user groups and time of day (shift) (e.g. ETL)
Blocks connections to the database
White list or black list by
DB User Logins
OS User Logins
Applications (BI, Query Apps)
Rule Templates Contain Customizable Messages
Each of the “Policy Templates” has the ability to send the user querying the database a customized message based on the defined policy. The message back to the user from Teleran should be seamless to the application user’s experience.
Machine Learning: Curbing Inappropriate, or Long Running Queries
iGuard has the ability to analyze all of the historical SQL passed through to the Data Warehouse, and suggest new, customized policies to cancel queries with certain SQL characteristics. The Teleran administrator sets parameters such as rows or bytes returned, and then runs the induction process. New rules will be suggested which exceed these defined parameters. The induction engine is “smart” enough to look at the repository of queries holistically and not make determinations based on a single query.
Google may attempt to leapfrog their Digital Assistant competition by taking advantage of their ability to search against all Google products. The more personal data a Digital Assistant may access, the greater the potential for increased value per conversation.
As a first step, Google’s “Personal” Search tab in their Search UI has access to Google Calendar, Photos, and your Gmail data. No doubt other Google products are coming soon.
Big benefits are not just for the consumer to search through their Personal Goggle data, but provide that consolidated view to the AI Assistant. Does the Google [Digital] Assistant already have access to Google Keep data, for example. Is providing Google’s “Personal” search results a dependency to broadening the Digital Assistant’s access and usage? If so, these…
interactions are most likely based on a reactive model, rather than proactive dialogs, i.e. the Assistant initiating the conversation with the human.
“What you need, before you ask. Stay a step ahead with Now cards about traffic for your commute, news, birthdays, scores and more.”
I’m not sure how proactive the Google AI is built to provide, but most likely, it’s barely scratching the service of what’s possible.
Modeling Personal, AI + Human Interactions
Starting from N number of accessible data sources, searching for actionable data points, correlating these data points to others, and then escalating to the human as a dynamic or predefined Assistant Consumer Workflow (ACW). Proactive, AI Digital Assistant initiates human contact to engage in commerce without otherwise being triggered by the consumer.
Actionable data point correlations can trigger multiple goals in parallel. However, the execution of goal based rules would need to be managed. The consumer doesn’t want to be bombarded with AI Assistant suggestions, but at the same time, “choice” opportunities may be appropriate, as the Google [mobile] App has implemented ‘Cards’ of bite size data, consumable from the UI, at the user’s discretion.
As an ongoing ‘background’ AI / ML process, Digital Assistant ‘server side’ agent may derive correlations between one or more data source records to get a deeper perspective of the person’s life, and potentially be proactive about providing input to the consumer decision making process.
The proactive Google Assistant may suggest to book your annual fishing trip soon. Elevated Interaction to Consumer / User.
The Assistant may search Gmail records referring to an annual fishing trip ‘last year’ in August. AI background server side parameter / profile search. Predefined Assistant Consumer Workflow (ACW) – “Annual Events” Category. Building workflows that are ‘predefined’ for a core set of goals/rules.
AI Assistant may search user’s photo archive on the server side. Any photo metadata could be garnished from search, including date time stamps, abstracted to include ‘Season’ of Year, and other synonym tags.
Photos from around ‘August’ may be earmarked for Assistant use
Photos may be geo tagged, e.g. Lake Champlain, which is known for its fishing.
All objects in the image may be stored as image metadata. Using image object recognition against all photos in the consumer’s repository, goal / rule execution may occur against pictures from last August, the Assistant may identify the “fishing buddies” posing with a huge “Bass fish”.
In addition to the Assistant making the suggestion re: booking the trip, Google’s Assistant may bring up ‘highlighted’ photos from last fishing trip to ‘encourage’ the person to take the trip.
This type of interaction, the Assistant has the ability to proactively ‘coerce’ and influence the human decision making process. Building these interactive models of communication, and the ‘management’ process to govern the AI Assistant is within reach.
Predefined Assistant Consumer / User Workflows (ACW) may be created by third parties, such as Travel Agencies, or by industry groups, such as foods, “low hanging fruit” easy to implement the “time to get more milk” . Or, food may not be the best place to start, i.e. Amazon Dash