
Iowa Learning Technology Grant Final Report
Executive Summary
The Iowa Learning Technology
Commission (ILTC) Grant was written to provide funding for the infusion of
technology into science classrooms at Southeast Polk High School (SEPHS) and
the Southeast Polk/Metro Waste Authority (SEP/MWA) Field Station during the
2007-2008 school year. Prior to the ILTC grant funds, students had limited
access to computers and data collection tools. We believe that this technology
has improved student motivation and achievement in the area science.
Project Description
The technology secured
through this grant has allowed our high school science students to perform
authentic research using cutting-edge tools for data acquisition at our high
school and in the field (Appendix A). This equipment included laptops,
multimedia tools, and probes. Laptops were used by the students for background
research, report writing and for presentations of their research. Cameras,
digital microscopes and probes provided our students with accurate tools for
measurement and collection of data during scientific investigations.
Goals and objectives
The SEPHS Science Technology
Infusion Project was designed to provide 21st century tools to
enhance the science curriculum at the high school and the new SEP/MWA Field
Station. This project was written to serve all Southeast Polk High School
science students. Thirteen high school science teachers facilitated the
technology infusion.
Involvement of school and district personnel
The integration of new
technology required the commitment and support of the school district, the
community and business partners. The following school district personnel were
instrumental in the implementation of this technology project.
Karen Hobbs and Amy Johannsen
are the lead high school science teachers and the ILTC grant writers. Their
role was as follows:
·
Researched the
available technology
·
Made decisions
on the purchase of technology
·
Communicated
with each vendor to secure competitive prices
·
Designed a system
for labeling and tracking the technology used
·
Organized the
technology
·
Planned and
implemented the professional development for our teachers
·
Designed and
administered surveys
·
Collected,
processed, analyzed, and presented data
·
Troubleshot all
the problems and issues with the technology
·
Facilitated the
use of each type of technology in the classroom.
These measures were
implemented to ensure the equitable distribution and use of the ILTC
technology.
The following individuals
provided additional support concerning district policy.
·
Tom Downs,
Superintendent
·
Steve Miller, Director
of Technology
·
Dr. Kris Condon,
Curriculum Director
·
Chuck Bredlow, High
School Principal
·
Joe Horton, Associate
Principal
·
Steve Pettit, Assistant
Principal
·
Mike Hamilton, Business
Manager
·
Steve Cullinan,
Science Department Chair
Tom Downs arranged the
governor’s reception for the spring. Dr. Kris Condon provided guidance in the
areas of curriculum and professional development. She helped to finance
professional development during the 2007 Summer Technology Workshop and the
2008 Inquiry Science Class using our district’s teacher quality funds. During
teacher in-services, she scheduled time for the science department to
collaborate and learn how to integrate these new technologies into the
classroom. She also provided expertise in data collection, data processing, and
data reporting.
Marti Kline is responsible
for district relations and gathered photo documentation of our students using
the ILTC technology. She used these photos to create a PowerPoint presentation
(PowerPoint 1, email attachment) for the April 2008 Technology Open House (Appendix
B) and to compliment an article in our district newsletter the Unifier
(Appendix C).
Rybolt Consulting Firm
handles the Southeast Polk Community School District technology. Their team
purchased the laptop computers, assembled the mobile carts, loaded software
onto the laptops, and installed personal response systems (“clickers”) in two
science classrooms.
The Southeast Polk Community
School District contributed additional funds and resources to ensure the
success of this project. They installed wireless Internet hubs in the high
school, digital visualizers and projectors in two science classrooms, and one
Mimeo board and one tablet in each of these classrooms. Our technology
personnel were available to troubleshoot problems and repair damaged laptops.
The involvement of community and business partners
Metro Waste Authority is a
valuable supporter of our district science programming. In addition to funding
inquiry-based science projects, Metro Waste Authority provided the seed money
needed to turn a farmhouse into a field station with two science classrooms, a
mudroom, a storage room, and a lab area. The surrounding eighty acres contain a
creek, wetlands, ponds, restored prairie, and timber. This location provides
the opportunity for students to conduct environmental research using the new
ILTC technology. They have continued to maintain the grounds by mowing the
lawn, trimming trees, and removing solid waste.
Polk County Conservation
Board (PCCB) was instrumental in the development of the Environmental Biology
curriculum that was taught at the Southeast Polk/Metro Waste Authority Field
Station. A meeting was held between the PCCB and members of the high school to
discuss a potential partnership. The conservation board donated preserved
specimens of local animals and provided naturalists in the areas of prairie
plant identification, invasive species, and bird identification.
Heartland Area Education
Agency (AEA) 11 helped to guide our technology choices by providing us with
expertise in the area of technology. Denise Krefting, one of the technology
instructors, assisted in professional development during the Summer Technology
Workshop, at in-services, and clicker training. A grant secured through
Heartland AEA 11 provided a videoconferencing unit for our school.
Other community members have
been interested our efforts. In November 2007, our Molecular Biology,
Environmental Biology, and Earth Science students participated in a community
service-learning project to test the water quality of Mud Creek and clean up
the banks of this creek. Photo documentation of the Mud Creek watershed project
and the progress of the SEP/MWA Field Station were incorporated into a multimedia
presentation. The students used ILTC technology to create the PowerPoint that
was presented to our local Rotary Club at their December 2007 meeting
(PowerPoint 2, email attachment). The Southeast Polk Planning Committee was
given a guide tour of the MWA/SEP Field Station during November 2007. The
Environmental Biology students’ independent research projects were on display.
Both community groups were impressed and very supportive.
The involvement of institutions of higher education
Our science department has
been involved in a variety of projects.
·
2007 ILTC Grant Award
·
Creation of the
Southeast Polk/Metro Waste Authority Field Station
·
Water quality
monitoring and watershed cleanup
·
Establishment of
an active Science Club
·
Development of a
successful summer elementary science camp
One college heard what our
department is doing and has contacted us with the hope of establishing a
partnership between our institutions. We would like to continue to develop
relationships with other Iowa universities and local colleges. Our goal for
next year is to use the new ILTC technology for scientific research. The
findings of this research will be submitted for presentation at the Iowa Junior
Science Symposium at University of Iowa in February of 2010.
The nature of and any changes in vendor relationships
Our vendor relationship with
Hewlett Packard was excellent. They gave us a deep discount on the original 32
laptop computers purchased. Apple gave us a small discount on the 10 laptops and
free multimedia bundle with our purchase. Since the Hewlett Packard discount
was better, it convinced us to use Hewlett Packard, for the majority of our
laptop purchases. On the other hand, our experience with Vernier was
frustrating. We received the probes from this company at the end of the summer,
but the LabQuest (a touch screen device that supports the probes) did not
arrive until February 4, 2008. They explained this delay as a problem with
their manufactures and continued to move the backorder date. This delayed the
implementation of this type of technology into the science classroom.
The resources, materials, software, equipment,
infrastructure and other durables acquired
The durable equipment
purchased through the ILTC grant funds (Table 1) included mobile laptops,
digital tools for data acquisition, personal response systems to assess
learning, and software programs. Additional equipment and support (Table 2 and
Table 3) was provided by the Southeast Polk School District and a grant through
Heartland AEA 11.
The professional development, curriculum development,
and planning
Professional development was
essential during the implementation of the ILTC grant-funded project. Each
teacher was trained on the care and use of each piece of equipment. Additional
time was allocated for individualized instruction, lesson plan development, and
team collaboration. This allowed all teachers to increase their comfort level
with the new technology and increased the use of this technology in the
classroom. The ILTC grant was used to support the planning, implementation, and
assessment of this professional development. Additional professional
development funds were covered by the Southeast Polk School District.
Professional Development
Technology training began
immediately following the 2006-2007 school year and was continued on a regular
basis as the new technology arrived (Table 4). The Summer Technology Workshop
was held at the beginning of June in 2007. Each teacher in the science department
was trained in the use of the Mac laptops, Proscopes, Vernier probes, PolyCom,
and Internet databases. By comparing the results of the pre-survey and
post-survey given at the summer workshop, the comfort level of the teachers
improved on all of the technologies (Figure 1). Additional technology training
for the science department was held during teacher in-services. We found that
there was a need for flexible training before school, after school, and on
weekends to meet the needs of individual teachers. In June 2008, an Inquiry
Science class integrating technology was taught to district teachers at the
field station (PowerPoint 3, email attachment). What developed was a stronger
collaboration between the elementary, junior high, and high school science
teachers. The teachers expressed an interest in having the older students help
the younger students investigate science using the new technology tools.
Professional development and training in the new technology is continuing
through the summer of 2008 and into the 2008-2009 school year.
Curriculum Development
The SEP/MWA Field Station
was the ideal location for two new block courses. Curriculum was developed for
Environmental Biology and Earth Science to utilize technology in the field.
Many students designed, executed, and presented their research projects to
their peers and the Southeast Polk Planning Committee. The ILTC technology was
used to document and share individual student research projects.
Planning and Instruction
The planning for the
professional development and the curriculum development was a cooperative
effort between the two organizing science teachers, the SEP Curriculum
Director, and Heartland AEA11. The teachers facilitated the technology
instruction with assistance from Denise Kreftling of Heartland AEA11.
Impediments, barriers or problems and how they were
dealt with
One of the significant
barriers to this project was the fact that the field station is a remote
location. This is a blessing for natural studies, but is a curse for Internet
accessibility. The district is still trying to get Internet access to the field
station, but the high cost has prevented this from being realized. Until the
Internet is available at the field station, video conferencing and live
podcasts are impossible. The remote nature of the field station has also posed
a security risk for high-priced technology. A gun safe and locking metal case
were purchased to allow heightened security for the new technology. Motion
sensor lights were installed and a security system was purchased.
Our teacher and student
population continues to grow. This has resulted in overcrowded hallways and
classrooms. To alleviate this problem our district purchased portable
classrooms for ninth grade physical science. The other science classes were
located on the second floor of the main building and the field station classes
were in a refurbished farmhouse five miles from the high school. This made the equitable
distribution of the laptops more challenging. At times, the laptops were
carried back and forth to the field site. Ultimately, we purchased a separate
mobile cart for the portables and brought the field station classes back to the
high school when they needed to work with the laptops.
Description and Identification for Identified Outputs
and Outcomes
Student engagement
Student engagement was
measured with technology surveys, anecdotal comments, and tardy data. The Student
Technology Survey (Appendix D) was administered at the beginning and end of the
2007-2008 school year. The results of the Student Technology Survey (Figure 2)
show an increase in the use of computers, Internet, and other technology tools
as the availability of these resources increased through the ILTC grant-funded
initiative.
Anecdotal student comments
(Table 5) are a testament to the power technology has to excite and motivate
learners. “Technology is cool!” “Awesome lab!” “Can I take these home!” “The
COW’s (computers on wheels) are pretty darn sweet. We’re lucky to have them!”
The technology facilitated
authentic, hand-on-learning and allowed students of multiple learning styles to
succeed. These student comments support this statement. “The technology we used
this year made learning a lot easier and more fun.” “This information really
relates to my life. It feels like I’m really learning something.” “I am able to
learn more because it gave my brain a chance to use a different resource other
than a book.” One student, who will be begin a pre-med program at college next
fall stated, “As a student that wants to study further into science, I really
value the new technology and the hands on experience I gained.”
The teachers’ responses
(Table 6) show that the teachers felt that the ILTC technology increased
student engagement. One teacher stated, “The laptops are great! Students enjoy using them and are actively
engaged while doing so. Classroom
management is easy when the students are doing something they like to do, and I
have the time to help students with questions they have. The students are not
only learning science, but also how to use this technology.”
Tardy referral data (Table 7)
from 2006-2007 and 2007-2008 was compared. The percent of referrals given by
science teachers each semester increased from 13.43% to 25.28% during the
2006-2007 school year. During the technology pilot school year (2007-2008), the
percent of tardy referrals given by science teachers decreased from 30.55% to
25.47% between the fall and spring semester. All science classes, with the
exclusion of the field station, are located either on the second floor of the
high school or outside in the portable classrooms. This makes it more difficult
to get to class on time especially with the increased number of students in an
overcrowded school. A second factor that may have influenced the number of tardy
referrals during the pilot year was the institution of a firm tardy policy by
our administration. Truancy data was omitted since it was determined to be
unreliable data for determining student engagement in the science classroom.
Disciplinary problems
The number of discipline
referrals written by science teachers in the 2006-2007 and the 2007-2008 school
year (Table 8) were measured to identify trends in discipline problems. The
total number of discipline referrals written by all high school teachers
increased during the pilot year. The overcrowding in classrooms and hallways
might cause this. The total number of discipline referrals written by science
teachers remained constant, yet the number of students taking science classes
increased by 235 students. The percent of school-wide discipline referrals written
by science teachers declined from 26.96% to 15.72% during the ILTC technology
pilot year. When students are engaged in relevant activities, there are less
discipline problems.
Use of computers and software for writing, analysis,
and research
Laptop computers and digital
accessories were used to gather, analyze, and report data during student
experimentation. Technology use (Table 9) was tallied using individual teacher
technology record sheets that recorded the daily use of the technology. The
science technology check out calendar was used for comparison. The laptops,
digital cameras, and ProScopes received the most use. The LabQuests and probes
were not available for use until February due to a high consumer demand and
manufacturing problems with this technology. This would explain the lower use
of this technology in the classroom.
The mobility of the laptops
facilitated the use of this technology by all but one retiring science teacher.
Students were able to access Internet library databases, animations, and
computer simulations. The computers were used by students to write science
reports on levers, genetics, and other topics of investigation.
The ProScopes, digital
cameras, and LabQuests with probes were valuable data collection tools. The
digital microscopes were used in biology during a genetics unit to document the
offspring of Drosophila melanogaster
(fruit fly) crosses. The fruit fly
images were later incorporated in lab reports. In Molecular Biology, the
ProScopes were integrated into a unit on microscopes. Students could actually
see sweat form on their fingertips! The digital cameras were used in multiple
settings. At the SEP/MWA field station, cameras were used to record native
prairie plant species for an independent research project. These images were
incorporated into an iMovie multimedia presentation. In anatomy, students used
digital cameras to record the internal structures of cats during their
dissections. They used these images to create “Cat”alogues as a final
assessment. The LabQuests and probes were used by students in chemistry to
measure pressure changes, biology to run heart EKGs, and physics to measure
light intensity.
Movement toward student-centered classrooms
The movement toward
student-centered classrooms was measured through anecdotal teacher surveys
(Table 6). The technology allows all students to become active participants in
the scientific process. The teacher becomes the facilitator. One science teacher
summarized this eloquently. “I feel that when I pair inquiry-based science and
technology, students are actively involved in critical and complex thinking.
The students also have the opportunity to explore and investigate receiving
concrete data immediately. The data instantly appears on a meter screen keeping
students engaged in analyzing their results. The results appear not only in
graphs, but also in tables and charts giving students many options to visualize
and evaluate the data.”
Parental involvement
A concerted effort was made
by our school district to inform the parents of the ILTC grant initiative. On
February 13, 2008, during parent-teacher conferences, the teachers demonstrated
the new technology. One parent described the LabQuest and temperature probe.
“This is great! It’s similar to what we are using at Anderson Erickson Dairy to
test the temperature of ice cream.” On April 9, 2008, Southeast Polk High
School hosted an open house to showcase the ILTC Grant technology. High school
students were present to demonstrate the laptop computers, Proscopes, and
LabQuests. One student prepared a multimedia presentation of her research on
Native Prairie Plants found at the SEP/MWA Field Station. She also displayed
the plants that she had identified, collected, pressed, and archived on
herbarium paper. Attendees were quizzed on the microscope images taken with the
Proscopes. One parent was given an EKG using the LabQuest, EKG probe, and
laptop computer. He then asked the students to give him a diagnosis!
Improved vendor and other business relationships
Hewlett-Packard gave us
significant price cuts on our first order of 32 laptops. Apple gave us a free
multimedia bundle which included a Proscope, digital camera, camcorder, and
keyboard when we purchased our Mac Laptops. Vernier gave us a 10% discount and
free shipping on all merchandise. Metro Waste Authority continues to be an
important district supporter of the field station. They have provided Southeast
Polk with the field station property and funds for the upkeep and maintenance
of this property.
Increased student achievement
Increased student
achievement was measured by comparing ITED scores, ACT scores*, ACT college
readiness data*, and failure rate in science classes during 2006-2007 and
2007-2008. (*ACT college readiness scores will be added when the district
receives this information.) Science and reading proficiency were measured using ITED National Percent Rank based on 43% as
proficient compared to National School Norms. The ITED results were analyzed
using grade level comparisons and cohort groups.
When comparing the number of
correct responses to each of the 48 questions on the 2008 ITED science section,
all three grades scored above the national average on 46 questions (Figure 3).
All three grades scored at least 95.8% above the national average on the
percent of questions answered correctly (Figure 4). The percent of each grade
level scoring 10% above the national average was compared (Figure 5). The 9th
grade had 58%, the 10th grade had 23%, and the 11th grade
had 85% of their respective questions scoring 10% above the national average.
During the technology pilot
year, our 9th grade students achieved a 15% science ITED proficiency
growth from the previous year and our 11th grade students achieved
an 11% growth (Table 10). During the technology pilot year, our 9th
grade students achieved a 6% reading proficiency growth from the previous year
and our 11th grade students achieved a 16% growth (Table 11). The
percent of free and reduced lunch students in the Class of 2009 that are
science proficient progressed from 78.9% to 81% over a two-year period (Figure
6). The general student population increased greater in science proficiency
than the free and reduced lunch subgroup. This failed to close the gap;
however, this shows a growth of greater than two years in all three cases.
When examining science
proficiency in the subgroups, free and reduced lunch students and
Individualized Education Plan (IEP) students demonstrated growth (Table 12). ITED
scores show a 14% growth for free and reduced lunch students and 11% growth for
IEP students in science proficiency during the ILTC pilot year.
Graduating seniors are
required to successfully complete a minimum number of credit hours and pass the
eight district exit outcomes (Appendix E). Each graduating senior demonstrated
the district exit outcomes through senior presentations or a portfolio. Failure
rate data shows an increase in the number of students taking and failing a
science course between the 2006-2007 school year and the 2007-2008 school year
(Table 13). The percent of failures each year showed a slight decrease from
3.34% to 3.31%. It should be noted that the technology pilot year was the first
year students were required to have three years of science to graduate. If
students felt forced to take a difficult or unwanted science class, this may
have contributed to the number of failures.
When looking at student
achievement, the ITED data supports continuing the technology initiative to
compliment our inquiry-based science curriculum.
Other
outcomes important to the project
Another important outcome to
the science technology project was the use of this equipment by the Southeast
Polk Science Club. At the end of the school year, a one-week summer science
camp was held for the elementary students in our district (Appendix F). The
high school students suggested using the ProScopes and LabQuests to teach the
students about biology. It was a very successful week. The “campers” had fun
learning and became excited about science.
The reward for the high
school students working the science camp was a ten-day trip to Yellowstone and
the Black Hills. Camping in the snow in the Grand Tetons, observing bears and
wolves, horseback riding in the Shoshone National Forest, hiking to Inspiration
Point at Jenny Lake, and rock climbing the Needles in Custer State Park were
all part of the adventure. The students decided to document their travels in
journals and with the ILTC cameras and camcorders. These memories will be
integrated into a presentation at the 2010 National Science Convention. One
student, who will study earth science education this fall at the University of
Northern Iowa, wants to accompany us to this convention to speak about his
experience.
Overall Value of the Project
Conclusions about overall value of the project
The value of this project is
immeasurable. The excitement of the students, the ability to reach students
with a familiar medium, and the 21st century skills that the
students have acquired that will enhance their future are difficult to measure
in this short amount of time. Our school administration realizes the benefit
that technology provides to our students. This prompted them to purchase two
mobile carts with 16 laptops each for the school. They were also convinced to
purchasing another set of clickers for the school. I believe this was a direct
result of ILTC grant project.
Lessons learned
We continue to learn new
things as we proceed through the ILTC grant initiative. The biggest challenge
for the grant writers was to find the time to execute this grant while
maintaining quality instruction in our classes. It is easy to fall into the
role of the technology “police” because so much personal time was spent during
the grant process. Don’t fall into that trap. To other grant recipients, our
advice is “Two heads are better than one.” If you can convince others to help,
“The more the merrier” and “Many hands make light work.”
Impediments
A project of this magnitude
is going to have a few stumbling blocks. There were delays in the set up of the
equipment due to all available technology personnel working around the clock to
equip our new elementary building for the first day of school. Other delays
that we encountered were with vendors delaying the shipment of several key
pieces of equipment – the laptop carts and the Vernier LabQuest. It took us
some time to put all the technology pieces in place and train our teachers.
Following the submission of
our original grant proposal and prior to the implementation of the grant
project, our district changed from the Winschool database to the Infinite
Campus database. This made data collection more challenging because we didn’t
know the capabilities of the database system or how to obtain the necessary
information. Educational research data may be skewed due to the difficulty in
isolating one variable from other influences.
The remote location of the
field station prevented access to the Internet and live podcasts from field
station. Our future plans are to connect Internet at the field station and
conduct these broadcasts.
Suggestions and recommendations
We recommend that teachers
be given the maximum amount of support to implement this new technology into
their classes. We would have liked more guidance during this grant process in
the area of purchasing and data collection.
Another suggestion is to
disperse the grant money sooner to give the schools plenty of time to purchase
the technology and train the teachers before the beginning of the school year.
That would give the school a full academic year to implement the project.
We highly recommend that the
commission consider monitoring the grant recipients for longer than a year.
This short time frame of one year hardly gives the schools or teachers time to
fully incorporate the new technology. More than one year is needed to see the
effects of any new initiative. The data obtained from such a short amount of
time may not be credible. We also recommend that the commission continue to provide
additional funds to cover continuing professional development and other costs
necessary to maximize the integration of the initial grant.
Plans for the coming year
The infusion of technology
into the science classrooms will continue to grow as the “kinks” get worked out
and the teachers become more comfortable with the new technology. We are moving
to a new building in January 2009 and each high school department will be given
32 laptops on mobile carts to provide the students with the necessary access to
computer and Internet technology.
There is a commitment to
continue professional development as new teachers are added to our staff. The
returning teachers are more comfortable with the technology and will be able to
integrate this equipment into their curriculum at the start of the year. This
means that students will have more opportunities to use these tools.
We have laid the groundwork
for increased collaboration between the high school and other grade levels in
our district. This will allow more students the opportunity utilize this
technology. The SEP/MWA field station will provide the opportunity for all
classes in our district, and perhaps others, to perform ecological studies. Our
district is looking for funding to supply Internet to the field site. This
would open global access to this location.
This fall, a select group of
students will begin the process of long-term science research. We hope to
partner with colleges to facilitate this student research. The ILTC technology
will be used at each stage of their research. They will use computers for a
literature search, technological tools for data collection, and software for
report writing and presentations. In February 2009, these students will visit
the Iowa Junior Science Symposium at the University of Iowa to watch other high
school students present their research projects. Their research will be
submitted the following December to the Iowa Academy of Sciences. Those who are
selected will present their projects at the February 2009 Iowa Junior Science
Symposium. If selected, these students will go on to compete at the national
level.