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The invention relates to a container (1) for a liquid medium (3), in particular a blood bag, comprising a flexible outer wall (5) and a device (13) connected to the container (1) for acquiring and/or storing data. According to the invention, the device (13) for acquiring and/or storing data is arranged within the flexible outer wall (5), wherein positioning means (15) are provided which hold the device (13) for acquiring and/or storing data in a floating manner in the liquid medium when the container (1) is filled with said liquid medium (3), and wherein the device (13) or the device (13) and the positioning means (15) are designed such that the mass of liquid medium (3) which is displaced in each case is essentially equal to the mass of the device (13) or to the mass of the device (13) and the positioning means (15).
Die Erfindung betrifft ein Behältnis (1) für ein flüssiges Medium (3), insbesondere Blutbeutel, mit einer flexiblen Außenwandung (5) und einer mit dem Behältnis (1) verbundenen Vorrichtung (13) zur Erfassung und/oder Speicherung von Daten. Erfindungsgemäß ist die Vorrichtung (13) zur Erfassung und/oder Speicherung von Daten innerhalb der flexiblen Außenwandung (5) angeordnet, wobei Positionierungsmittel (15) vorgesehen sind, welche die Vorrichtung (13) zur Erfassung und/oder Speicherung von Daten bei mit dem flüssigen Medium (3) gefüllten Behältnis (1) schwimmend im flüssigen Medium (3) halten, und wobei die Vorrichtung (13) oder die Vorrichtung (13) und die Positionierungsmittel (15) so ausgebildet sind, dass die jeweils verdrängte Masse von flüssigem Medium (3) im Wesentlichen gleich der Masse der Vorrichtung (13) oder der Masse der Vorrichtung (13) und der Positionierungsmittel (15) ist.
Die Erfindung betrifft ein Behältnis (1) für ein flüssiges Medium (3), insbesondere Blutbeutel, mit einer flexiblen Außenwandung (5) und einer mit dem Behältnis (1) verbundenen Vorrichtung (13) zur Erfassung und/oder Speicherung von Daten. Erfindungsgemäß ist die Vorrichtung (13) zur Erfassung und/oder Speicherung von Daten innerhalb der flexiblen Außenwandung (5) angeordnet, wobei Positionierungsmittel (15) vorgesehen sind, welche die Vorrichtung (13) zur Erfassung und/oder Speicherung von Daten bei mit dem flüssigen Medium (3) gefüllten Behältnis (1) schwimmend im flüssigen Medium (3) halten, und wobei die Vorrichtung (13) oder die Vorrichtung (13) und die Positionierungsmittel (15) so ausgebildet sind, dass die jeweils verdrängte Masse von flüssigem Medium (3) im Wesentlichen gleich der Masse der Vorrichtung (13) oder der Masse der Vorrichtung (13) und der Positionierungsmittel (15) ist.
This paper describes the magmaOffenburg 3D simulation team trying to qualify for RoboCup 2012. While last year’s TDP focused on the tool set created for 3D simulation and the support for heterogeneous robot models, this year we focus on the different ways how robot behavior can be defined in the magmaOffenburg framework and how those behaviors can be improved by learning.
MPC-Workshop Juli 2012
(2012)
MPC-Workshop Februar 2012
(2012)
The research project Ko-TAG [2], as part of the research initiative Ko-FAS [1], funded by the German Ministry of Economics and Technologies (BMWi), deals with the development of a wireless cooperative sensor system that shall pro-vide a benefit to current driver assistance systems (DAS) and traffic safety applications (TSA). The system’s primary function is the localization of vulnerable road users (VRU) e.g. pedestrians and powered two-wheelers, using communication signals, but can also serve as pre-crash (surround) safety system among vehicles. The main difference of this project, compared to previous ones that dealt with this topic, e.g. the AMULETT project, is an underlying FPGA based Hardware-Software co-design. The platform drives a real-time capable communication protocol that enables highly scalable network topologies fulfilling the hard real-time requirements of the single localization processes. Additionally it allows the exchange of further data (e.g. sensor data) to support the accident pre-diction process and the channel arbitration, and thus supports true cooperative sensing. This paper gives an overview of the project’s current system design as well as of the implementations of the key HDL entities supporting the software parts of the communication protocol. Furthermore, an approach for the dynamic reconfiguration of the devices is described, which provides several topology setups using a single PCB design.
Machine-to-machine communication is continuously extending to new application fields. Especially smart metering has the potential to become the first really large-scale M2M application. Although in the future distributed meter devices will be mainly connected via dedicated primary communication protocols, like ZigBee, Wireless
M-Bus or alike, a major percentage of all meters will be connected via point to point communication using GPRS or UMTS platforms. Thus, such meter devices have to be extremely cost and energy efficient, especially if the devices are battery based and powered several years by a single battery. This paper presents the development of an automated measurement unit for power and time, thus energy characteristics can be recorded. The measurement unit includes a hardware platform for the device
under test (DUT) and a database based software environment for a smooth execution and analysis of the measurements.