2015 01 24 Coding4Fun at Tajamar
•
1 like•1,364 views
The document compares two versions of the Kinect sensor. Kinect 2 has improved specs over Kinect 1, including higher resolution color and depth cameras, improved joint tracking, and USB 3.0 support. It also lists URLs for references and demos related to Kinect, Leap Motion, face recognition, and other sensor technologies.
Recommended
Recommended
More Related Content
What's hot
What's hot (20)
Viewers also liked
Viewers also liked (16)
Similar to 2015 01 24 Coding4Fun at Tajamar
Similar to 2015 01 24 Coding4Fun at Tajamar (20)
More from Bruno Capuano
More from Bruno Capuano (20)
Recently uploaded
Recently uploaded (20)
2015 01 24 Coding4Fun at Tajamar
- 18. Feature Kinect for Windows 1 Kinect for Windows 2 Color Camera 640 x 480 @30 fps 1920 x 1080 @30 fps Depth Camera 320 x 240 512 x 424 Max Depth Distance ~4.5 M ~4.5 M Min Depth Distance 40 cm in near mode 50 cm Horizontal Field of View 57 degrees 70 degrees Vertical Field of View 43 degrees 60 degrees Tilt Motor yes no Skeleton Joints Defined 20 joints 26 joints Full Skeletons Tracked 2 6 USB Standard 2.0 3.0 Supported OS Win 7, Win 8 Win 8 Price $299 TBD http://www.imaginativeuniversal.com/blog/post/2014/03/05/Quick-Reference-Kinect-1-vs-Kinect-2.aspx
- 25. USB Devices Demo
- 34. Leap C# Demo
- 37. “” The network of physical objects that contain embedded technology to communicate and interact with their internal states or the external environment. Source: Gartner
- 38. The Internet of Things starts with Your Things • Build on the infrastructure that already exists. • Add more devices to the ones you already own. • Get more from the data that you have. Start realizing the potential of the Internet of Your Things
- 39. Tap into data to gain better insights Connect to the cloud for scale and manageability Act on changes in the environment Intelligent devices at the point of impact
- 41. • X86 PC-like architecture • Win32 applications • Examples: ATM, MRI, thin client • Mobile ARM and x86 devices • Touch-first applications • Examples: Industry handheld, mobile POS • Diverse set of low-cost SOCs • Purpose-built device application • Examples: Consumer electronics, automotive systems • Smart connected sensors and actuators • Usually headless, resource constrained ARM • Examples: Wearables, fixed-use devices, microcontrollers • Components that require hubs or aggregators to connect to outside world • Perform transducer functions for taking measurements or initiating physical actions Source: IC Insights, Microsoft analysis, 2014 Data reflects 2017(e) shipments of CPU, MCU, SOC, and MEMS sensors / actu STANDARD 76 mu MOBILE 315 mu SMALL 1,031 mu MICRO 7,314 mu NANO 8,370 mu
- 45. $30 Investment!
- 46. • • Component Specification Clock Speed 16MHz Flash Memory 32K EEPROM 1K SRAM 2K Analog -> Digital 6Ch 10bit Communication SPI Digital 14 I/O PWM 6 Channel (Digital)
- 51. • Ejemplo void setup void loop
- 53. void setup() { >configure output pin >Led is OFF } void loop() { >LED is ON >Time delay >LED is ON >Time Delay } Configure Output pin start LED is off Time delay LED is on Time delay LED is off
- 54. int LED1Pin = 7; void setup() { pinMode(LED1Pin, OUTPUT); //Pin 7 is output pin digitalWrite(LED1Pin, LOW); //LED is initially low } void loop() { digitalWrite(LED1Pin, HIGH); //Turn on LED. delay(500); //Time delay for 0.5 second. digitalWrite(LED1Pin, LOW); //Turn off LED. delay(250); //Time delay for 0.25 second. }
- 55. Verify button
- 56. Note: Make sure USB-to-serial driver is installed first
- 58. Upload button
- 70. // Which pin to connect Cpu.Pin pin = Cpu.Pin.GPIO_Pin3; // Create a port connected to a pin InputPort port = new InputPort( pin, //CPU pin false, //no glitch filter Port.ResistorMode.PullUp //resistor mode is up ); // Read from the pin If (port.Read()) Debug.Print(“signal high”);
- 71. • • • •
Editor's Notes
- http://www.ted.com/talks/david_grady_how_to_save_the_world_or_at_least_yourself_from_bad_meetings
- http://elbruno.com/category/msn-microsoft/kinect/face-tracking/page/2/
- Key goal of slide: No single definition of IoT Ground the audience in some of the core principles of IoT – things that can connect to the internet; can collect and communicate information; and can receive inputs Let’s start with a definition of the Internet of Things <<Note – There is no standard definition for the Internet of Things. This contributes to the confusion that we talk about on the next page. We start with a rather antiseptic (dull) definition from a leading analyst to ground the audience in some of the core principles of IoT.>> Key talking points: Today, the Internet of Things is a difficult trend to define precisely. There is no standard definition for the Internet of Things. Gartner defines IoT as “The network of physical objects that contain embedded technology to communicate and interact with their internal states or the external environment.” Conceptually, IoT involves common principles: Physical “things” such as devices and sensors that have the ability to connect to the internet These things have the ability to collect and communicate information – this information may include data collected from the environment or inputted by users These things also have the ability to take inputs from external sources (human or machine) using embedded logic – this can include settings, configurations, software updates, etc.