Author | Dürr, André | dc.contributor.author |
Author | Schweizer, Benedikt | dc.contributor.author |
Author | Waldschmidt, Christian | dc.contributor.author |
Date of accession | 2019-08-06T11:41:36Z | dc.date.accessioned |
Available in OPARU since | 2019-08-06T11:41:36Z | dc.date.available |
Date of first publication | 2019-08-06 | dc.date.issued |
Abstract | One common problem of frequency modulated
continuous wave radar is leakage from the transmitter to the
receiver. The leakage power is orders of magnitude larger than
the target return power and appears as a very strong signal in
the first few range bins. Additionally, the residual phase noise
density of the local oscillator occurs around the leakage signal,
which often raises the noise floor and limits the dynamic range of
a radar system at the close proximity of the sensor. In this paper
a novel system concept that cancels the phase noise around the
dominating leakage path is proposed, mathematically derived,
and proven by radar measurements with a radar demonstrator
at 77 GHz. | dc.description.abstract |
Language | en_US | dc.language.iso |
Publisher | Universität Ulm | dc.publisher |
License | Standard | dc.rights |
Link to license text | https://oparu.uni-ulm.de/xmlui/license_v3 | dc.rights.uri |
Keyword | Millimeter wave radar | dc.subject |
Keyword | FMCW radar | dc.subject |
Keyword | Phase noise | dc.subject |
Keyword | Leakage cancellation | dc.subject |
Keyword | Novel radar system | dc.subject |
Keyword | PLL | dc.subject |
Dewey Decimal Group | DDC 620 / Engineering & allied operations | dc.subject.ddc |
LCSH | Millimeter waves | dc.subject.lcsh |
LCSH | Radar | dc.subject.lcsh |
LCSH | Phase modulation | dc.subject.lcsh |
LCSH | Radar transmitters | dc.subject.lcsh |
LCSH | Phase-locked loops | dc.subject.lcsh |
Title | Leakage phase noise mitigation for monostatic FMCW radar sensors using carrier transmission | dc.title |
Resource type | Beitrag zu einer Konferenz | dc.type |
Version | acceptedVersion | dc.description.version |
DOI | http://dx.doi.org/10.18725/OPARU-17609 | dc.identifier.doi |
URN | http://nbn-resolving.de/urn:nbn:de:bsz:289-oparu-17666-5 | dc.identifier.urn |
GND | Millimeterwelle | dc.subject.gnd |
GND | Radar | dc.subject.gnd |
GND | Moduliertes Dauerstrichradar | dc.subject.gnd |
GND | Phasenrauschen | dc.subject.gnd |
GND | Fehlerbehandlung | dc.subject.gnd |
GND | Phasenregelkreis | dc.subject.gnd |
Faculty | Fakultät für Ingenieurwissenschaften, Informatik und Psychologie | uulm.affiliationGeneral |
Institution | Institut für Mikrowellentechnik | uulm.affiliationSpecific |
Peer review | ja | uulm.peerReview |
DCMI Type | Text | uulm.typeDCMI |
Category | Publikationen | uulm.category |
Source - Place of publication | Institute of Electrical and Electronics Engineers | source.publisher |
EU project uulm | DENSE / aDverse wEather eNvironmental Sensing systEm / EC / H2020 / 692449 | uulm.projectEU |
Conference name | International Microwave Symposium (IMS) | uulm.conferenceName |
Conference place | Boston | uulm.conferencePlace |
Conference start date | 2019-06-02 | uulm.conferenceStartDate |
Conference end date | 2019-06-07 | uulm.conferenceEndDate |
Bibliography | uulm | uulm.bibliographie |
DFG project uulm | binoMIMO / Hochauflösende binokulare MIMO-Millimeterwellen-Radare (binoMIMO) / DFG / 317632307 | uulm.projectDFG |