EP3357332 - AGRICULTURAL SPRAYER [Right-click to bookmark this link] | |||
Former [2018/32] | WEED CONTROL SYSTEMS AND METHODS, AGRICULTURAL SPRAYER | ||
[2021/44] | Status | No opposition filed within time limit Status updated on 17.02.2023 Database last updated on 21.05.2024 | |
Former | The patent has been granted Status updated on 11.03.2022 | ||
Former | Grant of patent is intended Status updated on 09.11.2021 | ||
Former | Examination is in progress Status updated on 18.12.2020 | ||
Former | Request for examination was made Status updated on 08.02.2019 | ||
Former | The application has been published Status updated on 06.07.2018 | Most recent event Tooltip | 29.09.2023 | Lapse of the patent in a contracting state New state(s): MC | published on 01.11.2023 [2023/44] | Applicant(s) | For all designated states BILBERRY SAS 44 avenue Raspail 94250 Gentilly / FR | [2022/15] |
Former [2018/32] | For all designated states BILBERRY SAS 86, rue de Paris 91400 Orsay / FR | Inventor(s) | 01 /
SERRAT, Hugo 1 Parc de Béarn 92210 Saint-Cloud / FR | 02 /
BEGUERIE, Jules 44 rue Toulouse-Lautrec 91300 Massy / FR | 03 /
JOURDAIN, Guillaume 22 rue du Lavoir de la Grande Pierre 92160 Antony / FR | [2018/32] | Representative(s) | Le Forestier, Eric LE FORESTIER CONSEIL 22, rue du Plateau Saint-Antoine 78150 Le Chesnay / FR | [2018/32] | Application number, filing date | 17305131.9 | 06.02.2017 | [2018/32] | Filing language | EN | Procedural language | EN | Publication | Type: | A1 Application with search report | No.: | EP3357332 | Date: | 08.08.2018 | Language: | EN | [2018/32] | Type: | B1 Patent specification | No.: | EP3357332 | Date: | 13.04.2022 | Language: | EN | [2022/15] | Search report(s) | (Supplementary) European search report - dispatched on: | EP | 27.07.2017 | Classification | IPC: | A01M7/00, A01M21/04 | [2021/44] | CPC: |
A01M7/0089 (EP,US);
A01M21/043 (EP);
B05B12/12 (US);
G06F18/214 (US);
G06F18/2413 (US);
G06T7/70 (US);
G06V10/955 (US);
G06V20/56 (US);
H04N23/54 (US);
G06T2207/20056 (US);
G06T2207/20076 (US);
G06T2207/20081 (US);
|
Former IPC [2018/32] | A01M7/00 | Designated contracting states | AL, AT, BE, BG, CH, CY, CZ, DE, DK, EE, ES, FI, FR, GB, GR, HR, HU, IE, IS, IT, LI, LT, LU, LV, MC, MK, MT, NL, NO, PL, PT, RO, RS, SE, SI, SK, SM, TR [2019/11] |
Former [2018/32] | AL, AT, BE, BG, CH, CY, CZ, DE, DK, EE, ES, FI, FR, GB, GR, HR, HU, IE, IS, IT, LI, LT, LU, LV, MC, MK, MT, NL, NO, PL, PT, RO, RS, SE, SI, SK, SM, TR | Title | German: | FELDSPRITZE | [2021/44] | English: | AGRICULTURAL SPRAYER | [2021/44] | French: | PULVÉRISATEUR AGRICOLE | [2021/44] |
Former [2018/32] | UNKRAUTBEKÄMPFUNGSSYSTEME UND VERFAHREN, FELDSPRITZE | ||
Former [2018/32] | WEED CONTROL SYSTEMS AND METHODS, AGRICULTURAL SPRAYER | ||
Former [2018/32] | SYSTÈMES ET PROCÉDÉS DE LUTTE CONTRE LES MAUVAISES HERBES, PULVÉRISATEUR AGRICOLE | Examination procedure | 04.02.2019 | Amendment by applicant (claims and/or description) | 04.02.2019 | Examination requested [2019/11] | 04.02.2019 | Date on which the examining division has become responsible | 18.12.2020 | Despatch of a communication from the examining division (Time limit: M06) | 28.06.2021 | Reply to a communication from the examining division | 10.11.2021 | Communication of intention to grant the patent | 08.03.2022 | Fee for grant paid | 08.03.2022 | Fee for publishing/printing paid | 08.03.2022 | Receipt of the translation of the claim(s) | Opposition(s) | 16.01.2023 | No opposition filed within time limit [2023/12] | Fees paid | Renewal fee | 25.01.2019 | Renewal fee patent year 03 | 28.01.2020 | Renewal fee patent year 04 | 20.01.2021 | Renewal fee patent year 05 | 27.01.2022 | Renewal fee patent year 06 |
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Responsibility for the accuracy, completeness or quality of the data displayed under the link provided lies entirely with the Unified Patent Court. | Lapses during opposition Tooltip | AL | 13.04.2022 | AT | 13.04.2022 | CZ | 13.04.2022 | DK | 13.04.2022 | EE | 13.04.2022 | FI | 13.04.2022 | HR | 13.04.2022 | LT | 13.04.2022 | LV | 13.04.2022 | MC | 13.04.2022 | PL | 13.04.2022 | RO | 13.04.2022 | RS | 13.04.2022 | SE | 13.04.2022 | SI | 13.04.2022 | SK | 13.04.2022 | SM | 13.04.2022 | BG | 13.07.2022 | NO | 13.07.2022 | GR | 14.07.2022 | IS | 13.08.2022 | PT | 16.08.2022 | [2023/44] |
Former [2023/25] | AL | 13.04.2022 | |
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CZ | 13.04.2022 | ||
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EE | 13.04.2022 | ||
FI | 13.04.2022 | ||
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SI | 13.04.2022 | ||
SK | 13.04.2022 | ||
SM | 13.04.2022 | ||
BG | 13.07.2022 | ||
NO | 13.07.2022 | ||
GR | 14.07.2022 | ||
IS | 13.08.2022 | ||
PT | 16.08.2022 | ||
Former [2023/17] | AL | 13.04.2022 | |
AT | 13.04.2022 | ||
CZ | 13.04.2022 | ||
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SM | 13.04.2022 | ||
BG | 13.07.2022 | ||
NO | 13.07.2022 | ||
GR | 14.07.2022 | ||
IS | 13.08.2022 | ||
PT | 16.08.2022 | ||
Former [2023/09] | AT | 13.04.2022 | |
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BG | 13.07.2022 | ||
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GR | 14.07.2022 | ||
IS | 13.08.2022 | ||
PT | 16.08.2022 | ||
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BG | 13.07.2022 | ||
NO | 13.07.2022 | ||
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IS | 13.08.2022 | ||
PT | 16.08.2022 | ||
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PT | 16.08.2022 | ||
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PT | 16.08.2022 | ||
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PT | 16.08.2022 | Documents cited: | Search | [XY]US4015366 (HALL III ARTHUR D) [X] 1,14,15 * As another example of template formation, the formation of templates for determining the growth stage of corn will be given. The first step in establishing the templates for the growth stage of corn will be for the farmer to train an appropriate indirect sensor, for example, a television camera, flying spot scanner or the like, on a corn plant at a known stage of growth. The resulting image is then stored in the computer's memory bank and, by way of the input keyboard, information is fed to the computer that the storage image is representative of corn at the known stage of growth. Subsequent images are taken at any desired interval to permit an adequate representation of the corn at all growth stages of interest. Thereafter, when corn of an "unknown" age is subjected to visual scanning, the computer makes a rapid comparison of the instant image to the "prerecorded" images or templates until the "unknown" image can be matched to a prerecorded image or template. In this manner, it is possible, utilizing the computer, to determine the age of the corn. Templates in the template file 126 will, of course, have been prepared in advance of the packing operation to enable a color image and size comparison to be made, and to recognize surface defects. No special orientation of the fruit while it is between the scanners 604 is necessary since the computer can compare the fruit to a number of templates to allow for various orientations. For example, assuming that apples are the fruit being graded, three classes of templates will generally suffice for any grading since tests have shown that up to 95% of apples floating in water float with the stem end up, a few percent float with the stem end down and the balance with the cheek up.;; figure 1; claim 35 * [Y] 2-13; | [XY]US2012195496 (ZAMAN QAMAR-UZ [CA], et al) [X] 1,14,15 * paragraph [0010] - paragraph [0030]; claims 5,6,10,14,15,16 *[Y] 1-13; | [XY]WO2016025848 (MONSANTO TECHNOLOGY LLC [US]) [X] 1,14,15 * [0045] Particularly, the distance L-x is utilized as a periodic interval at which the imaging devices 18 will be operated by the data processing system 38 and will capture sequential sets of image data as the system 10 moves through the field.Because the periodic interval of the image data capture is L-x, wherein L is the length of the field of views 42, each set of image data captured will comprise overlapping image data with the image data captured at the previous periodic interval L-x. [0049] For example, in various implementations, execution of the plant analytics software calculates a pixel by pixel color ratio between normalized color and N IR image data for each set of image data captured. That is, the algorithm takes each pixel from the color image data and compares it to the same pixel (e.g., a pair of co-registered pixels) from the NIR image data and calculates a color ratio between the two, which provides a numeric value for each pixel.This numeric value is sometimes referred to as a normalized difference vegetative index (NDVI), which is correlated to the amount of chlorophyll contained in the various parts of the plant, and therefore, can be used to detect the level of chlorophyll contained in various parts of a plant and/or detect and/or quantify the amount and distribution of vegetation in an image. [0053] Furthermore, execution of the plant analytics software can stitch together the images (e.g. stitching the color images and the NIR images to extract a false color image 74) for all sets of image data for each imaging device 18 using the image data set overlap, described above, to generate a comprehensive false color image 74 of the entire field, or of one or more particular plots within the field.; paragraphs [0045] , [0049] , [0053] * [Y] 1-13; | [XY]DE102015111889 (REICHHARDT ANDREAS [DE]) [X] 1,14,15 * [0010] Der Vergleich von Bilddateien oder von einer Bilddatei und einer Referenzbilddatei kann mittels eines Computers unter Anwendung von Bildanalyseprogrammen erfolgen und Kriterien wie Gleichmäßigkeit, Form, Helligkeitsunterschiede und dergleichen beinhalten. Da ein gewisses Maß von Abweichung jeder Bilddatei gegenüber der Referenzdatei zu erwarten ist, ist es weiterhin zweckmäßig, Toleranzkriterien zu definieren, die das Ausmaß vertretbarer Abweichungen bestimmen. Nur bei einem Überschreiten festgelegter Toleranzkriterien wird dann die Auswertung einer Bilddatei einen Hinweis auf einen Funktionsmangel der betreffenden Düse ergeben. [0011] Im Gegensatz zu den bekannten Sprühverfahren kommt es bei dem Verfahren nach der Erfindung jedoch nicht darauf an, die mengenmäßige Verteilung der Sprühsubstanz über einen Querschnitt des Sprühstrahls zu bestimmen. Eine solche Verteilung ist für die in einer Sprüheinrichtung verwendeten Düsentypen in der Regel als aus der Düsenkonstruktion resultierend festgelegt und von dem Druck, mit dem die Sprühsubstanz der Düse zugeführt wird, abhängig. Bei dem Verfahren nach der Erfindung wird vielmehr von dem Verteilungsprofil einer einwandfreien Düse eines verwendeten Düsentyps ausgegangen und hierfür ein für die Prüfung maßgebliches Referenzbild in einer Referenzbilddatei gespeichert. Die Prüfung beschränkt sich dann auf einen Vergleich der erfassten Bilddateien von Sprühkegelbereichen der einzelnen Düsen mit einer dazugehörenden Referenzbilddatei.Ebenso kann ein Vergleich der erfassten Bilddateien untereinander zu Feststellung eines Düsenfehlers führen, da in der Regel ein Fehler nicht gleichzeitig an allen Düsen auftritt.; paragraphs [0010] , [0011] , [0014] , [0019]; claims 7,8 * [Y] 2-13 | Examination | US2002024665 | US2015245565 |