SENSING RANGE & ROBUSTNESS

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Presentation transcript:

SENSING RANGE & ROBUSTNESS HARMONY XB5R SENSING RANGE & ROBUSTNESS

Typical distance transmitter / receiver 100m in free field* Here we will see why and when to use an antenna. #First, the receiver can receive signal from transmitter around a 100 meter area in a free field! A free field is an unobstructed area and no radio perturbation. #But, it can happen that the transmitter is located inside a cabinet, which will absorb the signal: from 50% to 100%. #In this case, the transmitter must be moved closer to the transmitter, within an area around 25 meters. ##If the push button or transmitter cannot be closer, in this case a relay antenna can be implemented to reinforce the signal. #When the antenna is implemented, the reception area is larger, and can reach 40 meters or more, depending of the environment, when the receiver is inside a cabinet. Receiver in a metal cabinet 25m in free field* The performances are the same whatever the type of receiver. (*) free field (unobstructed and no radio perturbation)

Typical distance transmitter / relay antenna / receiver Relay antenna vertical Relay antenna 250m in free field * 300m in free field * Relay antenna horizontal Here we will see why and when to use an antenna. #First, the receiver can receive signal from transmitter around a 100 meter area in a free field! A free field is an unobstructed area and no radio perturbation. #But, it can happen that the transmitter is located inside a cabinet, which will absorb the signal: from 50% to 100%. #In this case, the transmitter must be moved closer to the transmitter, within an area around 25 meters. ##If the push button or transmitter cannot be closer, in this case a relay antenna can be implemented to reinforce the signal. #When the antenna is implemented, the reception area is larger, and can reach 40 meters or more, depending of the environment, when the receiver is inside a cabinet. Relay antenna 40m in free field * 150m in free field * The performances are the same whatever the type of receiver. (*) free field (unobstructed and no radio perturbation)

Typical distance transmitter / relay antenna / receiver in metal cabinet Relay antenna vertical Receiver in a metal cabinet Relay antenna 250m in free field * 70m in free field * Receiver in a metal cabinet Relay antenna horizontal Here we will see why and when to use an antenna. #First, the receiver can receive signal from transmitter around a 100 meter area in a free field! A free field is an unobstructed area and no radio perturbation. #But, it can happen that the transmitter is located inside a cabinet, which will absorb the signal: from 50% to 100%. #In this case, the transmitter must be moved closer to the transmitter, within an area around 25 meters. ##If the push button or transmitter cannot be closer, in this case a relay antenna can be implemented to reinforce the signal. #When the antenna is implemented, the reception area is larger, and can reach 40 meters or more, depending of the environment, when the receiver is inside a cabinet. Relay antenna 40m in free field * 40m in free field * The performances are the same whatever the type of receiver. (*) free field (unobstructed and no radio perturbation)

How to ensure a reliable transmission anywhere in a workshop By installing a set of relay antennas in a facility, the radio transmission will operate in all the area Benefits : Reliability increased + independent from the changes of location of machines

Possibility to use many relay antennas for the same application Example with 2 or many relay antennas ZBRA1 Transmission delay Pushbutton receiver (change relay status): 20 ms maximum Pushbutton relay antenna receiver (change relay status) : 74 ms maximum Each relay antenna needs between 10 to 54ms to resend the message coming from the transmitter.

Why XB5R suitable for industrial use ZigBee is developed by the ZigBee Alliance: A consortium of end users and solution providers, primarily responsible for the development of the 802.15.4 standard Developing applications and network capability utilizing the 802.15.4 packet delivery mechanism Addresses application and interoperability needs of a substantial part of the market including industrial segment Data coding system : ZigBee relies upon the robust IEEE 802.15.4 PHY/MAC to provide reliable data transfer in noisy, interference rich environments 32 millions of different ID numbers for each transmitter : One receiver will not be tripped by a transmitter unless it has been taught before

Why XB5R suitable for industrial use Phase Modulation : Superior noise and interference rejection, enhanced immunity to signal fading, and reduced susceptibility to nonlinearities in the transmission and receiving systems 802.15.4 standard : Channel 11 offers the lowest probability to interfere with other frequencies operating within the 2,4 GHz bandwidth

Compliance to industrial standards EC marking (Transmitter -button- , Receiver and Antenna: EN 301 489-1 and EN 301 489-3) Clause 3.1a (respect of safety requirements, of which low voltage directive) human exposure to Radio Frequency fields safety => specific absorption rate (SAR) purposeless for Europe because Product emitted power <20mW low voltage safety => according to and IEC 60947-1 and IEC 60947-5-1 Clause 3.1b (respect of EMC requirements) common technical requirements (technical characteristics and test methods): EN 301 489-1 specific conditions for Short Range Device (SRD, from 1 to 40 GHz): EN 301 489-3 according to IEC 60947-1 and IEC 60947-5-1 Clause 3.2 (respect of RF requirements) electromagnetic compatibility and radio spectrum, 1 to 40GHz, technical characteristics and test methods: EN 300 440-1 electromagnetic compatibility and radio spectrum, 1 to 40GHz, under article 3.2 of R&TTE directive: EN 300 440-2 Other certifications UL 508 standard (industrial control equipment) relating to UL marking requirements CSA C22-2 standard (industrial control apparatus) relating to CSA marking requirements Radio Frequencies: USA: FCC part 15 247 Canada: RSS 210 Other areas in the world for RF (see certification Department) Type, Class, Category : EN 301-489-1 - paragraph 5.5 - Equipment for fixed use EN 301-489-3 - paragraph 4.1 - Equipment Type: III (others) EN 301-489-3 - paragraph 6.1 - Equipment Class: 2 (Medium reliable SRD) EN 300-440-1 - paragraph 4.1.1 - for Receiver and Antenna: Reliable category 2 (Medium reliable SRD) EN 300 440-1 - paragraph 5.4.1.2 - Temperature category I (General): -20 °C to +55 °C