A baby monitor which grows with the child
Partner: Nokia Design San Francisco
Duration: 10 weeks
Designed with: guided by programme director Thomas Degn, supervised by Head of Industrial Design Anton Fahlgren and project manager Amelie Coudron
Little is an interactive baby monitor and a companion for young parents and their child. It provides safety and support for young couples in this stressful and exciting time. It comes as a pair; one for each parent! This helps to give each parent alternating alarms and provides better sleep quality and comfort. To create a better emotional connection, it visualizes the data through a facial expression. This helps parents to see at first glance how their baby is feeling. You can also pick Little up and turn it around to show more precise data.
Nokia Little works in symbiosis with a children’s sleep monitor, a mat which is placed underneath the child. The monitor tracks movement, heartbeat, breathing, sound and temperature via Ballitsocardiographie. The monitor sends it in real time to Nokia Little, so it can process the data and make it available to the parents
Creating an strategic opportunity
Where can Nokia have the most impact?
ZEISS is an international leader in the fields of optics and optoelectronics.
ZEISS has been contributing to technological progress for 170 years – with solutions for the semiconductor, automotive and mechanical engineering industries, biomedical research and medical technology, as well as eyeglass lenses, camera and cine lenses, binoculars and planetariums.
Precision, reliability and clarity are the Zeiss brand values.
These brand values incorporate what each product should reflect to the user. Their newest product is the Zeiss Visuscout100 was the main inspiration for this product. Both the Calordec100 and the Visuscout100 are handheld devices.
17 hours from paper to design freeze
It took 17 hours from the first idea and ideation phase till the overall shape as set and fixed. After this the product was completely modeled in Solidworks for rapid prototyping and then refined for rendering in Rhinoceros. The main body is a white shell which wraps around the black grip area. The interaction parts are set in Zeiss blue for indication.
Interaction parts are held in Zeiss blue. The label for CE and production information is hidden behind the battery cover.
The different parts were modeled in Solidworks for rapid prototyping with injection molding production methods in the back of the head.
A full system approach
The approach behind Carlodec100 was a full system approach. This means that after taking a measurement the image gets send to the Zeiss provided computer software. The laboratory worker can than inspect the visual appearance of the probe and the heatmap. This is a crucial step because they can save time without destroying the probe. Is the probe to long held in room temperature it can either be getting to cold or hot and therefore destroyed.
The screen shows the user when the measurement is done and how warm/hot the probe was. A inverted interface provides high contrast and allows the user better readability.
At the bottom of Calordec100 is the optical system with lens and IR Sensor. The bottom is shaped asymmetrically so the user can place the product in the stand only in one direction.
Zeiss CalorDec 100
Using the ergonomics of an electronic laboratory pipette
combining interaction and industrial design
01 - Analyzing an existing product
The first step was to analyze an existing product which was placed in the cheaper product segment. The product was deassembled and than each component analyzed concerning the production method and function. The electronics were kept functional so they can be harvested later in the process for a functional prototype.
Disassembly - destroying is always easier.
02 - Ideating
After disassembling an analyzing the exisiting product it was time to ideate. First, ideaion around the package and how to place the components happend. Four different component placements directions were considered. This was than transformed in underlays and used for Pen and Paper sketching. To refine the concept, side views were generated in Photoshop. After the sketching phase quick foam mockups were made to test the idea before going into CAD.
Testing foam models with real components.
Ideating around the package.
Foam prototyping during the form and ergonomic exploration.
03 - Bring it to life
The next step as to go from sketch and foam model to get a more defined form. This happened in Solidworks to learn more about the software and focus on parametric modeling. During this episode different models were milled out of PU foam to test out the shape in 3D. This was important to find flaws in the form and ergonomic.
04 - Final Prototype
The last step was to turn the final model into a functional prototype. For this step, the same components were used as from the existing model. Slight modifications happened due to design and ergonomic changes. The button had to be resoldered and also some cables needed to be extended. All the parts were 3D printed, except the stand was milled out of PU foam, and than painted. The assembly went great and all the parts fitted perfectly.