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author | Jonas Smedegaard <dr@jones.dk> | 2025-04-18 09:14:13 +0200 |
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committer | Jonas Smedegaard <dr@jones.dk> | 2025-04-18 09:14:13 +0200 |
commit | e3c0ba9ba7fcbf0b3246f13da047b62568e0e624 (patch) | |
tree | 744f430d4083f424dd9acbc71a32385617dcbc7d /report.qmd | |
parent | 0a646be6ba16bd1c6e6b32832758e2fc53795ec0 (diff) |
update report content
Diffstat (limited to 'report.qmd')
-rw-r--r-- | report.qmd | 67 |
1 files changed, 46 insertions, 21 deletions
@@ -36,6 +36,15 @@ OUR THREE REQUIRED COMPONENTS,and a conclusion* ## Copyright and licensing +*FIXME: this section cannot be a subsection of Abstract: +Abstract must be a standalone section +(which comes before table of contents, +which will happen automatically +when we drop "Menna" from the title)* + +*TODO: suggested alternative location for above section: +last subsection of section "Project Planning and theoretical framework"* + To encourage collaboration and stimulate a circular gift economy as introduced by @Mikkelsen2000, this project is copyleft licensed: @@ -60,7 +69,6 @@ We have defined a research question to work around: **How do we simulate and visualise an existing biomonitoring technology for its core purpose** - Our simulation is inspired by SYMBIO -- a biomonitoring system -- developed by the company PROTE @@ -91,7 +99,6 @@ An alarm will then be triggered and further laboratory tests are done [@Nazaruk2016]. - To meet this question, we will be using touch and light sensors to represent our virtual models on Arduino -- @@ -120,7 +127,6 @@ Concurrently, we learned about the roles artefacts can play in the research process, and used that framework to help define the aim of our project. - The following framework, as introduced in @Wensveen2014, explains how prototypes can serve different purposes depending on the type of knowledge a project aims to produce. @@ -135,26 +141,36 @@ in both a physical and abstract sense Next we each did early prototyping and pseudocoding for about three weeks. -During this phase, we worked on the sensor setups and on the logic behind the voting mechanism +During this phase, we worked on the sensor setups +and on the logic behind the voting mechanism and the possible communication-methods between them. -Our project group has received a brief introduction to API's during a lecture session, -and through additinoal notes on the topic, that are available on the lecture slides for week 5. -From these notes, we learned that API works as a standardized *messenger*, that allows different software applications to communicate through defined rules and protocols. API enables seamless integration between the systems. - - -We decided to use a combination of bluetooth and API, to -connect the sensor-data to the voting program.The bluetooth handles the connection between the sensors and our computer/phone, whilst the API is being used to send/retrieve data and trigger an output. -A further explanation of this process, +Our project group has received a brief introduction to APIs +during a lecture session, +and through additional notes on the topic, +that are available on the lecture slides for week 5. +From these notes, we learned +that API works as a standardized "messenger", +that allows different software applications to communicate +through defined rules and protocols. +API enables seamless integration between the systems. + +We decided to use a combination of bluetooth and API, +to connect the sensor-data to the voting program. +Bluetooth handles the connection +between the sensors and our computer/phone, +whilst the API is being used to send/retrieve data +and trigger an output. +A further explanation of this process will be displayed in @sec-user-guide. ## Detecting stressful mussel behavior -We wish to expound some of the ways that freshwater mussels behave -and how the detection works, +We wish to expound some of the ways +that freshwater mussels behave and how the detection works, in real-life implementation. -The thresholds and logic for our sensors and voting-mechanism, -is mostly based upon the following. +The thresholds and logic for our sensors and voting-mechanism +are mostly based upon the following. The use of a mussel as biodetector requires distinction between slow-paced valve gaping change (normal), @@ -231,14 +247,19 @@ on monitoring their behavior to detect environmental stress. In our project, we simulate this behavior using programmable hardware. The system is composed of two major components, -the sensor ... the mussels behavior and the vote handling system that collects readings from all mussel instances, evaluates their state and triggers output. +the sensor ... the mussels behavior +and the vote handling system that collects readings +from all mussel instances, evaluates their state +and triggers output. + +*FIXME: in above paragraph, some text is missing at the ellipsis (...). *TODO: not sure this text passage belongs here, as it's the program that is interesting in this section* *TODO: here we need to introduce the source we know this from, and to give a little insight -in why there's different roles to choose from* +into why there's different roles to choose from* *TODO* @@ -304,15 +325,19 @@ Although, we have reflected upon how AI could be useful in an expansion of our prototype or hypothetically in an existing system. For an instance, in the future -- -when scientists have analysed and interpreted enough data to feed to a MLM -- +when scientists have analysed and interpreted enough data +to feed to a MLM -- ai could be used for detecting subtle behavioral changes, that humans would otherwise miss, or spot patterns that further indicates pollution or predicts contamination or enviromental stress. +*FIXME: the abbreviations AI and MLM must be introduced before used, +and then used consistently (e.g. all caps or no caps)* + It could also be put into perspective of surrounding cases, and through datacentric AI, -it could be visualised like a weatherforecast on a dashboard. +it could be visualized like a weatherforecast on a dashboard. It could be based on patterns like "When x conditions rise, contamination tends to follow." @@ -321,7 +346,7 @@ like "When x conditions rise, contamination tends to follow." This hypothesis would come at the cost of a lot of x, which would be a research question in itself. -*TODO: in above paragraph, "x" should say something +*FIXME: in above paragraph, "x" should say something about consuming a lot of space and resources* # Conclusion - menna |