We have looked at how multimodal texts can enhance literacy lessons before but in this week of Digital Technologies we took a closer look and created our own multimodal texts using the Promethean ActivInspire app.
Multimodal is a term that refers to any text that combines two or more semiotic systems. These are visual, gestural, spatial, linguistic and aural. The children of today are bombarded with multimodal texts more than any generation before them due to the rise of technology. “The increased use of multimodal texts, digital communication, social networking and the other forms of electronic communication encountered by children and young people in their daily lives,” is reflected in the Curriculum for Excellence (Scottish Government, n.d., p.4) with the active inclusion of these multimodal texts.
Multimodal texts have been shown to be effective in classrooms because they allow a text to be understood and engaged with by more individuals. A child who struggles with reading as quickly as their peers may benefit from audio to support the text and vice versa. Multimodal texts in the classroom are a way to present ideas in “a variety of different ways to help pupils understand [them].” (Beauchamp, 2012, p.8).
With a group of other students, I used ActivInspire to create a multimodal text that would be suitable in an Early Years setting. It took the form of a ‘fill in the gap’ exercise. The background of each slide in the presentation was a place such as the jungle, the sea or a house. It asked who lives here, accompanied with an animal name in the form “c_ab,” for “crab” for instance, with a selection of letters underneath to be dragged and dropped into the space to complete the word. In the classroom, children could be asked what animal it is likely to be and what letter is missing from the word. Once the children have worked out the word, or if they are really stuck, there is a picture of the animal beside the word which can be revealed; this reminded me of ‘lift the flap’ books and struck me as very likely to keep children engaged. And of course, with an Interactive White Board, children would likely enjoy being invited up to drag and drop the letters or reveal the animal themselves, creating a “hands-on experience,” (Prandstatter, 2014). If I were to do this task again and able to invest more time in creating, I would include animal noises to increase the multimodality of the text.
Before this session, if asked to create a presentation to support a lesson, I would have instinctively used Microsoft PowerPoint, however a lot of the functions that make ActivInspire particularly engaging for children are not as easy to achieve with PowerPoint. ActivInspire is an accessible app. It is free and quick to download on both Microsoft and Apple computers. My group and I created our presentation on an Apple Mac and I expected to run into formatting issues when opening the file on my Microsoft laptop, but I did not experience any. There was a learning curve with the app when working out how to do more advanced operations but there is an abundance of tutorials available on YouTube to assist with this. My group was able to create our presentation within around an hour of being introduced to the app.
In my opinion, for these reasons, ActivInspire is a very useful tool in the classroom. It is easy to use, accessible and, if you know your way around the app, it can be to create an engaging, multimodal text to support a lesson in a matter of minutes. Following this week of Digital Technologies, I will definitely consider using ActivInspire before Microsoft PowerPoint in the primary classroom setting.
Beauchamp, G. (2012). ICT in the Primary School: From Pedagogy to Practice. Harlow: Pearson. p.8.
Prandstatter, J. (2014). Interactive Displays in Early Years Classes. [Blog: Online]. Available: http://connectlearningtoday.com/interactive-displays-early-years-classes/ [Accessed: 26 January 2018].
Scottish Government (n.d.). Curriculum for Excellence: Literacy and English Principles and Practice. Edinburgh: Scottish Government. p.4.
In this weeks Digital Technologies input we were introduced to programmable toys, and how to use these in the classroom to enhance learning in many subjects – not just Technology. We were set the task of designing and planning a Bee-Bot activity with the potential to fulfil one Technology outcome and at least one Numeracy outcome.
Before the input I was already somewhat familiar with the concept of programmable toys as my son received a Fisher-Price Code-a-Pillar as a gift on his third birthday. Observing him playing with the toy, I could see the value of programmable toys as a way to teach young children about logical sequencing and how to put a concept into words (NCTE, 2012). These transferable skills are particularly valuable in the workplace as the technology sector is booming and the ability to code is an asset to any individual wishing to pursue a career in the STEM field.
With these things in mind, it is no wonder that programmable toys are becoming more popular and their uses in the classroom are being exploited across the curriculum, even from the Early Years.
There is a heavy importance placed on Active Learning in the Early Years in the Curriculum for Excellence (Scottish Executive, 2007). It is essential not to teach programming in isolation. For instance, my son found the Code-a-Pillar fun for a few turns but after a while he grew bored of it. The toy moving in different ways depending on how he orders the segments is interesting for him but there are a limited number of different ways these can be sequenced without investing in costly expansion packs.
This is what makes Bee-Bot such a useful tool in the classroom. Its possibilities are not limited only to learning outcomes in Technology and there is an abundance of resources out there to assist with lessons involving Bee-Bot. My group and I were immediately inspired by one of these resources – a suggestion for an activity where bee-bot is given a list to go shopping (Lydon, 2007, p.40). We got to work creating a supermarket on a grid suitable for Bee-Bot to navigate and we designed an activity to meet these Experiences and Outcomes from the Curriculum for Excellence (Scottish Executive, 2004):
- “I understand that sequences of instructions are used to control computing technology.” (TCH 0-14a).
- “I can develop a sequence of instructions and run them using programmable devices or equivalent.” (TCH 0-15a).
- “I am developing my awareness of how money is used and can recognise and use a range of coins.” (MNU 0-09a).
- “In movement, games and using technology I can use simple directions and describe positions.” (MTH 0-17a).
We drew arrows to direct children through the ‘aisles’ of the supermarket (TCH 0-14a) and brightly coloured every day products with price tags on the ‘shelves’ of the supermarkets.
Armed with a shopping list and a ‘purse’ of coins, their job was to guide Bee-Bot to the items on their list (TCH 0-15a, MTH 0-17a) and use coins to help them keep track of the cost of individual items along the way (MNU 0-09a), and at the end of their ‘shopping trip’ to calculate the total cost of their shopping.
There were a number of benefits to this activity as a teacher. It did not take very long to implement the design and the mat could be used again and again with different shopping lists to give the activity varying levels of challenge when it comes to counting the money out. It is also very flexible enough to meet other outcomes, even at first level. For instance, by giving the children a bank note instead of their coins to pay for their shopping, they could try their hand at “[using] money to pay for items and [working] out how much change [they] should receive,” which is outcome MNU 1-09a. There is even scope for meeting Modern Language outcomes in this activity. If the child is supplied with a list in a language such as French or Spanish, this could meet part of the criteria for MLAN 1-08b; “I can work on my own or with others to demonstrate my understanding of words and phrases containing familiar language.”
With Bee-Bot in the classroom, the only thing holding you back is your imagination. There is an abundance of resources available to teachers to help them plan lessons that can utilise Bee-Bot to teach skills not only in Technologies but also across the curriculum. Children in First Level could even design their own mats and stories to go along with them as a Literacy lesson in creative writing.
In my opinion, Bee-Bot is superior in functionality to the only other programmable toy I am familiar with – the Fisher-Price Code-a-Pillar – for a number of reasons. Bee-Bot can store 40 instructions in each sequence whereas the Code-a-Pillar comes with only 8 segments. Bee-Bot moves 15cm with each instruction, meaning it does not take up as much room as the Code-a-Pillar which can move as far as three feet when programmed to move straight ahead. Pekárová (2008) argues that one of the best things about Bee-Bot is that activities can be designed for children that simulate real-life problem-solving scenarios. This is concurrent with the Active Learning environment that is endorsed within the Scottish curriculum in the Early Years. On the other hand, it is hard to imagine a scenario in which the Code-a-Pillar could be linked to real life. It is certainly more colourful than the Bee-Bot, however yet again the latter is unmatched in the amount of resources available online, such as printable ‘outfits’ for Bee-Bot that children can decorate themselves.
As a student teacher with an interest in technology it has been an interesting and fun experience to learn about how programmable toys can be used across the curriculum. I think that Bee-Bot in particular has the potential to provide children with a solid grounding in a number of logical thinking skills, while allowing them to have fun and take part in learning in all areas of the curriculum. I also think it has the potential to support teachers as a useful, incredibly versatile resource. I find myself fully convinced of the benefits of Bee-Bot compared to another programmable toy I have encountered, and I look forward to seeing how else it can be used in the classroom.
Lydon, A. (2007). Let’s Go with Bee-Bot. Nottingham: TTS Group.
NCTE (2012). NCTE Floor Robots – Focus on Literacy & Numeracy. [Online] http://www.ncte.ie/media/NCTE_Floor_robots_focus_on_literacy_numeracy_primary_12-06.pdf [Accessed: 16th January 2018].
Pekárová, J. (ed.) (2008). Using a Programmable Toy at Preschool Age: Why and How? Intl. Conf. on Simulation, Modeling and Programming for Autonomous Robots. Venice, Italy, 3-4 November 2008. pp. 112-121.
Scottish Executive (2007). Building the Curriculum 2: Active learning in the early years. Edinburgh: Scottish Executive.
Scottish Executive (2004). Curriculum for Excellence. Edinburgh: Scottish Executive.