Showing posts with label LReflect. Show all posts
Showing posts with label LReflect. Show all posts

Monday, 4 December 2017

Term 4 2107 - Inquiry Update

In Term 4, I wanted to explore how I could use modelling books more effectively to scaffold my priority students to improve their problem solving strategies. 

I had initially thought that taking photos of the working out recorded in the modelling book would be sufficient but have realised this is not necessarily a great leap forward as I have really just created a digital version of the original modelling book. 

After talking with my inquiry group leader, he explained that if I am to take the modelling book to the next level I need to make it a resource that will allow students to 'rewind their learning' so that at a time and place that was convenient for them they can access previous work.

This made total sense and it would be possible to achieve this by simply adding an audio track (from myself or ideally the students themselves) that would allow anyone using the online modelling book to have instructions to guide them on how to use a given maths strategy.

This innovation is something that will be useful across all subject areas so that any prior learning can be shared for others to access.

What a year 2017 has been! It has taken a while to wrap my head around the Teaching as Inquiry process and navigate the process of how to reflect on my teaching practice when as a Beginning Teacher there feels like there is still a lot more learning to be done.  

To get real benefit from this reflective practise, I want to have a clear focus (subject area, target students) and then quickly gather relevant historical data as a starting point. I then need to be more methodical in how I select, implement, monitor and analyse how a change in an aspect of my teaching practise will positively impact my target learners. Bring on 2018!

Wednesday, 18 October 2017

Term 3 Inquiry Update: Rich Learning Activities

In Term 3, my priority students changed and I revamped my inquiry focus question to investigate the extent to which the format of maths problems will influence the problem solving abilities of my target students.

My latest hunch was that the format of the questions I gave to the students was impacting on their ability to be successful in problem solving.

A PD session with Jo Knox highlighted the benefits of using open ended, rich learning tasks (like the 'Giant's Hand' activity to the right) as a way to engage and challenge students. She explained a resource bank is available on the nzmaths site. 
I chose rich learning activities that matched the term topic of Geometry & Measurement. To explore the concept of perimeter further, I chose the Parking Cars task for my priority group. Students needed to work out a new car park layout for a specific number of vehicles.

First we unpacked the problem in our group session and clarified key details e.g the dimensions of the parking lot and the required car spaces. I was explicit in telling them that there may be more than one possible result. Despite some initial hesitation to this 'new' kind of problem after the discussion, the students were all super keen to head off and be the first to work out a possible solution. Working with a buddy or on their own, some made a screencastify recording to explain their 'solution'.
Samples of student work are below:

Click here for Junior's full blog post





Click here for Kerstein's full blog post



The open ended and real-life nature of the rich tasks totally engaged the students and without any prompting from me. They willingly took longer to work through different options and were less focused on finding the 'right' answer. Their end solutions highlighted how students had interpreted (or misinterpreted) a problem and so provided me with a useful starting point for a discussion to find out more about their thinking process.

I was really pleased with the students' positive response to the 'rich' task and would like to use them with all the groups. The challenge will be to find tasks that are appropriate - not too hard or not too easy - and linked to the given maths topic being reviewed.

As Term 4 kicks off, the next hunch I would like to explore is how modelling books can be used to effectively scaffold my priority students in problem solving strategies.

Wednesday, 5 July 2017

Term 2, 2017 Inquiry Update: Taking Stock

Taking stock of Term 1, I have come to really appreciate just how fluid the inquiry process and that it unfolds in a non-linear way, prompting a changes that initially were not on the radar.
Term 2 started with a clear goal - I needed to collect and analyse more data for my target students and continue on my inquiry journey. I had expected to do a round of IKAN and GLoSS testing and be on my way.

In the real world, however, my inquiry process stalled for a couple of reasons. Firstly, completing the testing was incredibly time consuming. Secondly, the results brought an unexpected outcome - four of my original group of 6 students tested at “well below”  i.e. 2+ years behind their required level. The immediate implication of this was that I needed to choose a new priority group at the 'below' level. The logic, as outlined in a previous post, being that it is easier to shift students at the ‘below ‘ (i.e 1 year behind their required level) than those who are under performing  at ‘well below’.

Looking head to Term 3, I will use the recent data to identify a new group of 'below' students. I can then proceed to test out my revamped focus question - the extent to which the format of maths problems will influence the problem solving abilities of my target students.

Tuesday, 4 April 2017

Term 1, 2017 Inquiry Update: Reset Focus

My initial inquiry was to investigate if the use of materials would assist my target students to improve their abilities in Algebra. Now, as Term 1 draws to a close, factors arose that suggest I need to reset my inquiry focus going forward.

1) Target group: Working with students across four groups I found that the students who needed and wanted support from physical materials were not my target group - they were students sitting at ‘well below'.

2) Types of materials - A variety of 'hands on' physical resources were made available to all students. It would have been useful to have alternative, potentially more appealing/engaging materials that could be used on online or were in some way device 'friendly'.


3) Change of content Due to the results of the initial IKAN testing in Feb 2017, the results for the target students showed there was gap in Place Value. This highlighted that Algebra, my original inquiry topic was not an urgent need for the group.

Students in the target group were tested in twice in Term 1 - February and April 2017. The results for Place Value show that 50% of the group improved by one stage i.e. moved from Stage 3 to Stage 4 and 25% of the group did not change their level (no drop or increase). NOTE: 2 students were only present for one test so no comparisons could be made.

Looking forward to Term 2, the focus for Team 5 will be Number and Statistics. A first step for resetting my inquiry, is to make better use of test data to help me identify the learning gaps for my priority learners in this part of the maths curriculum.

With a full set of data for my target students on their Number and Statistics levels, a possible new inquiry focus could be to investigate the nature of maths problems used with students - number or word problems?, real world examples? With these factors in mind, it will be interesting to find out to what extent the format of maths problems will influence the problem solving abilities of my target students.

Thursday, 23 February 2017

Using Materials to Improve Understanding

As a first year Beginning Teacher, I am new to the process of Teaching as Inquiry. I am looking forward to reflecting on my teaching practice in a systematic way and am keen to find out what is (or is not!) working to cause learning amongst my students and make changes where needed.

In deciding the focus for my Maths teaching inquiry this year, I am aware that some students have struggled to make sense of basic algebra problems. I am wondering whether the introduction of materials would be effective in helping students improve their understanding of the concepts of algebraic patterns. The nature of the materials used could include 'traditional' physical objects as well as tasks that include items that can be manipulated using a mouse or keyboard.


My first instinct is to focus on the most ‘at risk’students i.e. those sitting at ‘Well Below’. However, it has been suggested that it will be more beneficial to work with students who are ‘Below’ because there is less of a gap to progress them towards the ‘At’ benchmark. With all this in mind, the inquiry question I will have come up with is:  To what extent will the use of materials with my priority learners, improve their understanding of concepts/patterns in Algebra?

Tuesday, 21 February 2017

Teaching as Inquiry - Manaiakalani framework

“Recognising and spreading sophisticated pedagogical practice across our community so that students learn in better and more powerful ways...”

The Manaiakalani Community of Learning is working together on this task using the expertise existing in of our community of learning.

The teaching as inquiry framework I will be using in 2017 has been specifically co-constructed for Manaiakalani schools using our familiar Learn Create Share structure. The elements in this framework share close similarities with other models New Zealand teachers use.



I will be labelling my posts as I update my inquiry throughout the year to make the content easy to access as follows:

Labels:
LEARN - LEvidence, LScan, LTrend, LHypothesise, LResearch, LReflect
CREATE - CPlan, CTry, CInnovate, CImplement, CReflect,
SHARE - SPublish, SCoteach, SModel, SGuide, SFback, SReflect

Label Key:
LEvidence
Learn - Gather Evidence
CPlan
Create - Make a plan
SPublish
Share - Publish
LScan
Learn - Scan
CTry
Create - Try new things
SCoteach
Share - Co-teach
LTrend
Learn - Identify Trends
CInnovate
Create - Innovate
SModel
Share - Model
LHypothesise
Learn - Hypothesise
CImplement
Create - Implement
SGuide
Share - Guide
LResearch
Learn - Research
CReflect
Create - Reflect
SFback
Share - Feedback
LReflect
Learn - Reflect


SReflect
Share - Reflect