This document outlines the agenda and activities for a Girls in Technology mentor-protégé program session focused on passions and STEM. The session includes networking, presentations from NASA scientists on their work applying Earth science and GIS to benefit communities, and a hands-on activity where protégés use satellite imagery and shapefiles in QGIS to visualize and analyze the DC area. Discussion questions are provided to help mentors and protégés discuss how passions can intersect with STEM careers and opportunities. The session aims to inspire protégés to pursue their interests through STEM.
Girls in Technology DC Session #4: Passion + STEM/ SHINING FIGURES: Women of NASA
1.
2. Networking
Networking Exercise:
Talk to at least 3 protégés and/or mentors
1. Use the 3 PUMP handshake to introduce
yourself
2. State your name and where you go to school
or work
3. Share your passion (fashion, cooking, sports,
helping others..)
3. NETWORKING: WHAT IS YOUR PASSION
Valerie Cotton
Rock Climbing
Taylor Jackson
Hiking + her dog, Baloo
Katie Ward
Theatre Set Design
Nicole Scott
Photography
Ashley Peter
Soccer
4. WELCOME
Girls in Technology Mentor Protégé Program
Washington DC
Session 4: Passion + STEM
GIT Talks & Demo:
SHINING Figures: Women of NASA
Agenda:
The GIT Mentor-Protégé Program starts promptly at 6:00 PM.
• 5:45 – 6:10pm: Sign-in/Networking/Refreshments
(You must sign in with the GIT front desk in order to record your attendance)
• 6:10 – 6:20pm: Welcome & Announcements
• 6:20 – 7:20pm: GIT Talks
• 7:20 – 8:15pm: Mentor-Protégé Session
• 8:15 – 8:30pm: Closing
6. Careers in STEM - Benefits
• There is an increasing need for
females in STEM
• Women in STEM are inspiring
role models and mentors
• Science, Technology,
Engineering, Math.. advances
the world
• Job opportunities
7. Careers in STEM versus Our Passions
• Job Security
• High Salary
16. ABOUT ME: ALISON
Backstory:
• Born and raised in Southern California
• Lived in Madagascar for two years with Peace Corps
• Professional SCUBA diver
• Attended UCLA and Clark University
Science:
• BS in Ecology and Evolutionary Biology, MS in Geographic Information Science
• Interested in wildlife conservation: both plant and animal
• Studies changes in forests and the relationship between people and their environment
• AAUS Science Diver in training
Headshot Here
17. ABOUT ME: SARA
Backstory:
• Grew up in Israel and Kentucky
• Attended University of California, Cornell University and Northern Virginia Community College
• Military spouse and mom of four
• Enjoys pottery, dance and hiking
Science:
• BS and PhD in Geology with Paleontology Emphasis, Minor in Zoology
• Certificate in Geospatial Information Science
• Studied fossil insects and how fossil insects can be used to predict past climate
• Interested in current effects of climate change
Headshot Here
18. ABOUT ME: JESSICA
Backstory:
• Born and raised in Northern Virginia
• BA in Political Science from Hampton University
• Graduate Certificate in Cross Cultural Communications from American University
• Studied transportation mapping and urban planning
Science:
• MS in Geographic and Cartographic Sciences focusing on remote sensing and hydrology
• Interested in understanding the effects of natural disasters caused by hydrological events
• Currently studying the global presence/absence of surface and groundwater
• Plans to study sensor specifications of satellites and the physics of land-atmosphere exchange
Headshot Here
20. NASA DEVELOP
DEVELOP is part of NASA’s Applied Sciences Program. We
work on short term projects that use NASA satellite data to
address environmental and public policy issues. These projects
tackle community concerns around the globe including water
quality, air quality, human health, invasive species, natural
disasters and agriculture.
36. WHAT WE WILL ACCOMPLISH:
1. Open and View Satellite Imagery of DC
a. Combine spectral bands to form a “True Color” RGB image of DC
b. Apply Brightness/Contrast Enhancement
c. Zoom in/out of the map
1. Create a “False Color” image using the Near Infrared band
1. Identify Wet areas using the Normalized Difference Pond Index (NDPI)
a. The same method can be applied to get the ND-Vegetation Index (NDVI)
1. Open and View DC Features as ‘shapefiles’
37. OPEN QGIS
You might have already downloaded QGIS, if not, go to https://goo.gl/2K90hr
OPEN QGIS. Different computer types might show different versions.
38. ADD IMAGES
Click on the square ‘add raster layer’ button on the left panel to add images
also called ‘rasters’ to the map
39. NAVIGATE TO WHERE YOU’VE DOWNLOADED THE SAMPLE
DATA
Select the files that end in “B2”, “B3”, “B4”, “B5”, and “B6”
45. A BRIGHTER COMPOSITE
It looks much greener and now we
can see the Chesapeake Bay clearly
on the right of the image.
Use the zoom buttons to see the
image in greater detail.
47. WHAT WE WILL ACCOMPLISH:
1. Open and View Satellite Imagery of DC
a. Combine spectral bands to form a “True Color” RGB image of DC
b. Apply Brightness/Contrast Enhancement
c. Zoom in/out of the map
1. Create a “False Color” image using the Near Infrared band
1. Identify Wet areas using the Normalized Difference Pond Index (NDPI)
a. The same method can be applied to get the ND-Vegetation Index (NDVI)
1. Open and View DC Features as ‘shapefiles’
48. FALSE COLOR INFRARED
Just as before, open the toolbox and
open the r.composite menu.
This time, infrared will be red, red will
be green, and green will be blue
50. WHAT WE WILL ACCOMPLISH:
1. Open and View Satellite Imagery of DC
a. Combine spectral bands to form a “True Color” RGB image of DC
b. Apply Brightness/Contrast Enhancement
c. Zoom in/out of the map
1. Create a “False Color” image using the Near Infrared band
1. Identify Wet areas using the Normalized Difference Pond Index (NDPI)
a. The same method can be applied to get the ND-Vegetation Index (NDVI)
1. Open and View DC Features as ‘shapefiles’
51. CREATE NEW INFORMATION USING BAND CALCULATIONS
The raster bands are
similar to matrices. They
can be added, subtracted,
multiplied and divided.
Calculations can be
performed over the
Landsat data to extract
meaningful information.
Open the ‘Raster Calculator’
To identify water bodies and wet
areas, we will calculate the
Normalized Difference Pond Index
(Lacaux 2006)
52. THE NORMALIZED DIFFERENCE POND INDEX (NDPI)
NDPI was created in response to several indices aimed at identifying small
water bodies.
When applied to Landsat data the formula to calculate NDPI:
(Band 6-Band 3)/(Band 6 + Band 3)
This formula normalizes the differences between the shortwave infrared band,
and the green band, focusing on open water, wet and swampy areas.
54. BUT WHAT IF I WANT TO SHOW ONLY WATER?
The index thresholds may vary
depending on the data used and the
study area, but most of the time, we
can divide the data at the 0 value.
Right click on the layer to open
properties then open transparency
Set the values from 0 to 1 to
transparent, and click apply
55. CHANGE THE COLOR OF THE WATER: BAND RENDERING
In the properties menu, change the render type to ‘Singleband pseudocolor’
Select a blue color ramp. The darker color should be the negative value.
Change the min to -0.2 and the max to 0.2. Click classify and apply.
57. WHAT WE WILL ACCOMPLISH:
1. Open and View Satellite Imagery of DC
a. Combine spectral bands to form a “True Color” RGB image of DC
b. Apply Brightness/Contrast Enhancement
c. Zoom in/out of the map
1. Create a “False Color” image using the Near Infrared band
1. Identify Wet areas using the Normalized Difference Pond Index (NDPI)
a. The same method can be applied to get the ND-Vegetation Index (NDVI)
1. Open and View DC Features as ‘shapefiles’
58. ADD DC SHAPES
Click the ‘add vector’ layer to add DC shapefiles. Select ‘file’ and browse to find
the shapefiles.
Click ‘DC Boundary”
then open
59. DC BOUNDARY
Open the properties menu and change the style settings and change the fill to
transparent and border to red
61. These are sample discussion questions. Please remember to give everyone a chance to speak, and remember to
learn everyone’s names!
THANK YOUR MENTORS & PROTEGES – next session is our last!
Questions for Protégés
What do you enjoy doing, what are some of your passions
Do you want to pursue your passions or do you want to pursue a technical skill (ex: music versus engineering)
Think of fun new career possibilities by combining things you love and a STEM skill (ex: building lego body parts for
the disabled, 3D printing your own makeup!)
Questions for Mentors
What is your passion?
Why is it important to be passionate about the work you do?
How do you combine passion in your job, what about your job are you passionate?
What opportunities do you see in your degree/job area for the intersect with
various different interests/industries (ex: eye doctor + video games can create
virtual reality!)
What should I make my primary major? Do I make one my bachelors degree and the other my masters? How do I
decide?
GIT Scholarship
Please review the GIT Scholarship details – criteria, due dates, and submission process
Conduct mock answers during mentoring session
Help GIT Girls prepare for a winning submission
MENTORING SESSION
62.
63. Which protégé
has inspired you
most?
GIT
MS INSPIRATION AWARD
This award will be given to the girl who has shared her ideas, encourages
others to be more active, and is a role model and inspiration to other protégés
64. GIT SHARING OUR SUCCESS
SAVE THE DATE: Thursday, March 16, 2017
5:00 – 7:30PM
Pop-up STEM fair plus panel with Women in STEM.
Location: Booz Allen Hamilton Innovation Center,
901 15th Street NW, Washington DC
Registration + Info: http://bit.ly/GITSOSMarch2017
65. GIT EVENT: END OF YEAR CELEBRATION
RSVP TO: cyberpatriotgirls@googlegroups.com
69. Which protégé has inspired you most?
GIT
MS INSPIRATION AWARD
This award will be given to the girl who has shared
her ideas, encourages others to be more active, and
is a role model and inspiration to other protégés
GIT SITES & RESOURCES
Please FOLLOW, LIKE, SHARE & CONTRIBUTE!
#GITDC #GITMentors #GITGirls
*Blog: http://bit.ly/GITBlog
*Facebook: http://bit.ly/GITfacebook
*Twitter: http://bit.ly/GITTweet
*Instagram: http://bit.ly/GITInsta
*Snapchat: http://bit.ly/GITSnapchat
*Website: http://bit.ly/GITwebsite
*YouTube: http://bit.ly/GITYouTube
70. CLOSING
REMINDERS:
• Apply for GIT Scholarship
• Register for experiences and opportunities
• Challenge yourself and learning something new
• Add and share with us on social Media
• Write a blog about what you enjoyed, email to: girlsintechdc@gmail.com
• NEXT SESSION
• Session #5: Final session Tuesday 3/28/17
Reminders:
• Apply for job shadowing and award opportunities
• Register for GIT Events
• Add and share with us on Social Media
• Write a blog about what you enjoyed
Email to: girlsintechdc@gmail.com
• Session #2: LEADERSHIP
• Tuesday, 11/22/16
CLOSING
Reminders:
• Apply for job shadowing and award opportunities
• Register for GIT Events
• Add and share with us on Social Media
• Write a blog about what you enjoyed
Email to: girlsintechdc@gmail.com
• Session #2: LEADERSHIP
• Tuesday, 11/22/16
CLOSING
Editor's Notes
No experience in fashion or technology. But they were passionate about fashion, and letting other women enjoy fashion affordably. The idea was a good one.
No experience in fashion or technology. But they were passionate about fashion, and letting other women enjoy fashion affordably. The idea was a good one.
This template is in wide-screen format and demonstrates how transitions, animations, and multimedia choreography can be used to enrich a presentation.
This slide can be used as a background before the presentation begins.
I’d love to clip the photos into circles.
Bear Glacier is an outlet glacier of the Harding Icefield in Kenai Fjords National Park, Alaska. Glaciers form when fallen snow compresses into an ice mass over many years; the process usually takes centuries. The ice then flows to lower elevations. Since Bear Glacier and many other remote glaciers are largely inaccessible, satellite images provide important insights into how they change over time.
During the last 100 years in Alaska, the annual average temperature has increased by about twice the global annual average temperature change. A temperature increase like this can change the regular pattern of glacial advance and retreat.
Between 1950 and the 1990s, Bear Glacier retreated 1.55 kilometers (1 mile). Small icebergs were calving into a lagoon that had developed. By 2004, the glacier’s floating terminus calved, causing an additional 2 kilometers (1.25 miles) of retreat. Between 2000 and 2007, the terminus retreated another 3.5 kilometers (2 miles). Large icebergs now float in the lagoon, visible in the Landsat images as light blue spots in the water.
California’s San Joaquin Valley is one of the world’s most productive agricultural regions. Much of that productivity depends on the availability of water for irrigation. Recent prolonged droughts in California have underscored the importance of accurately monitoring changes and trends in water use in order to make well-informed water management decisions. ET is the combined effect of evaporation from the soil and transpiration from plants. ET is a major part of the hydrologic budget of a watershed. It varies with different climate, vegetation types, and land use.
With ET estimates derived from satellite data, scientists at EROS estimated how much water is being used to water crops. They used a computer model that incorporates Landsat imagery, including the Landsat 8 thermal band, along with climate data to estimate ET for every Landsat scene of the San Joaquin Valley from 1984 to 2014.
They then used the ET results along with precipitation and runoff data to create maps that show water use in the valley over that 31-year time period. The maps show seasonal crop water use in millimeters with enough detail to show individual fields and reveal which crops are using the most, or least, water.
Lake Pontchartrain covers the northern part of these Landsat images. The curvy dark line is the Mississippi River as it meanders past New Orleans. The dark straight lines are canals, built for flood protection and as an aid to water navigation.
The September 7 image shows New Orleans days after Hurricane Katrina struck. The flooded areas are dark, giving the city a bruised appearance. A straight vertical line separates a dark flooded area of the city from the light green-pink unflooded area. The floodwaters appeared to have stopped at the 17th Street Canal. This canal failed but the west dike held, keeping that part of the city from flooding.
Floodwater from the Gulf of Mexico made its way to Lake Pontchartrain, which then flooded this part of the city with an 11-foot storm surge. Water entered the canals but the canal walls did not overtop. The walls failed when water had only risen part of the way up the wall. When these canals broke, water from Lake Pontchartrain poured into these neighborhoods.
By September 7, the city had started to drain. Pumps worked to return the water to Lake Pontchartrain. About 380 cubic meters (100,000 gallons) of water were pumped out of the city every second.
Glen Canyon Dam on the Colorado River was completed in 1963. It creates Lake Powell, which ebbs and flows depending on upstream precipitation. Lately, it’s been more ebb.
Glen Canyon National Recreation Area encompasses Lake Powell and is visited by more than 2 million people per year.
Since 2000, the Colorado River Basin has been in an extended drought. In over 100 years of record keeping, the basin has had its lowest 16-year period of inflow from rain and snowmelt. During 2000–2015, the inflow of water into Lake Powell was above average in only 3 years. As a result, Lake Powell was at less than half of capacity in 2015.
Droughts combined with a rising population means water sustainability will only become more of a challenge. In addition, hydropower capacity at Glen Canyon Dam could be reduced. Severe droughts are a regular part of the climate variability in this region; however, droughts are expected to become more severe in the future.
Referred to as the “bathtub ring,” this pale outline shows when the lake is below capacity. Calcium carbonate and other mineral compounds, many of them various salts in the water, attach themselves to the sandstone and leave behind this white mark. The top of the white mark is the high water mark. The only time the bathtub ring is not visible is when the lake is completely full.
The patches of red in these false-color Landsat images are the forests where monarch butterflies spend the winter. Starting in late summer and fall, monarchs in the United States and Canada migrate south to Mexico. Some travel up to 3,000 miles. The delicate insects are capable of flying 50–100 miles a day. Cold weather drives the monarchs to head south to hibernate for the winter. They head for the only habitat suitable for their hibernation, oyamel fir (Abies religiosa) forests. These forests grow in only small areas of mountain tops in central Mexico, about 3,000 m above sea level. The monarchs usually cover whole trees as they keep each other warm. The short needles of the oyamel fir allow the butterflies to cluster together better than they could on flat-needled cedars or long-needled pines.
The oyamel forests provide a microclimate for the butterflies. Temperatures stay above freezing. If the temperatures were lower, the monarchs would have to use their fat reserves. The humidity provided by the forest also keeps them from drying out.
The monarchs stay in Mexico from about November to March. In the spring, they fly back north. On the way, they lay eggs on milkweed. These eggs hatch into caterpillars, who devour the milkweed leaves, then metamorphose into monarchs. These monarchs live about 5 weeks or so.
Apr. 1, 2016, Landsat 8 (path/row 27/46) — Pelon site, Monarch Butterfly Biosphere Reserve, Mexico
Monarch Butterflies, Mexico
Degraded Habitats
Global Forest Maps
Lomas de Aparicio
NDVI
Pelon
Monarch Value
The monarch migration is an endangered phenomenon. Logging in the overwintering sites in Mexico reduces the area available for the monarchs. The Monarch Butterfly Biosphere Reserve, established in 1986, is intended to protect the overwintering areas. But studies have shown that deforestation has occurred within the reserve. Some of that deforestation can be tracked from space with Landsat imagery.Landsat sensors use infrared reflectance. One of the wavelengths of light they use is called near-infrared. Actively growing vegetation reflects this wavelength, so when this wavelength is assigned the visible color red, vegetation is displayed as red in these false color images. As you take a closer look at the zoomed in areas in the other sections, watch for gray patches in areas that were once red. This indicates a degraded forest.
Not all of the reduction in the monarch population can be attributed to oyamel forest loss in Mexico. In the United States, expansion of agriculture and herbicide use are reducing the milkweed that the caterpillars need. Extreme weather conditions have also been harming the monarchs. Satellite imagery continues to be useful in tracking the monarch population in these overwintering sites and can help recover this remarkable migration. These close-ups show another core zone area of the reserve called Pelon. Forest disturbance is most visible in the 2000 image. Later Landsat images reveal some red filling in in this area. In the Landsat imagery, red indicates any actively growing vegetation, so it may not be the tall trees of oyamel forest recovering yet.