序号 | 专利名 | 申请号 | 申请日 | 公开(公告)号 | 公开(公告)日 | 发明人 |
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181 | HYBRID VEHICLE | EP07800534.5 | 2007-08-28 | EP2057051B1 | 2011-07-27 | BERNARD, Pierre; GAUDREAU, Guy; LUCIER, Marc-André |
The hybrid vehicle kit comprises a vehicle body capable of being interchangeably coupled to either one of a wheel kit thus forming a hybrid vehicle in a wheel mode, the wheel kit having a number of ground-engaging wheels; and a track kit, thus forming the hybrid vehicle in a track mode, the track kit having a pair of ground-engaging tracks carried by track wheels. The vehicle has a pair of powered driving hydraulic pumps and a number of wheel drives powered by a corresponding one of the driving hydraulic pumps. In the wheel mode the ground-engaging wheels are operatively mounted to corresponding wheel drives and an electronic circuit calculates hydraulic rate data on the basis of speed data to control the first and second driving hydraulic pumps so that they will administer a hydraulic rate to the wheel drives which is representative of the hydraulic rate data to control the rotational speed of the ground-engaging wheels which will propel the hybrid vehicle. In the track mode at least some of the track wheels are operatively mounted to corresponding wheel drives and the electronic circuit calculates hydraulic rate data on the basis of the speed data and of the steering data to control the first and second driving hydraulic pumps so that they will administer a respective hydraulic rate to the wheel drives which is representative of the hydraulic rate data to control the rotational speed of the at least some of the track wheels that are operatively mounted to corresponding wheel drives, to both propel and steer the hybrid vehicle. | ||||||
182 | HYDRAULIC TRANSAXLE | EP10177293.7 | 2003-12-24 | EP2295276A1 | 2011-03-16 | Iwaki, Koji; Ishii, Norihiro; Sakikawa, Shigenori; Mizukawa, Katsumoto; Kawakami, Manabu; Nagata, Kentaro |
A hydraulic transaxle (1), comprising: |
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183 | Crawler vehicle drive control system | EP07425623.1 | 2007-10-05 | EP2045169B1 | 2010-12-22 | Sghedoni, Lorenzo; Pertusi, Franco |
184 | HYDRAULIC AXLE-DRIVE DEVICE | EP03786289.3 | 2003-12-24 | EP1584510B1 | 2010-11-10 | Iwaki, Koji, c/o Kanzaki Konkukoki MFG. Co., Ltd.; Ishii, Norihiro, c/o Kanzaki Konyukoki MFG. Co., Ltd.; Sakikawa, Shigenori c/o Kanzaki Kokyukoki MFG.Co.,Ltd.; Mizukawa, Katsumoto c/o Kanzaki Kokyukoki MFG.Co.Ltd.; Kawakami, Manabu c/o Kanzaki Kokyukoki MFG. Co., Ltd.; Nagata, Kentaro, c/o Kanzaki Kokyukoki MFG. Co., Ltd. |
An axle drive device (2) is suspended so as to be swingable about the center axis for swing, or the axis in a forward-backward direction of a motor-vehicle frame. The device is constructed from a hydraulic drive unit (20) and a left and right pair of wheel support units (2L, 2R). The hydraulic drive unit (20) is formed by the combination of a left and right pair of hydraulic motors (23L, 23R) with motor shafts (23b) in a left/right horizontal direction, a center section (22) in which an oil passage for hydraulically connecting at least one of the motors to a hydraulic pump is formed and on which motor installation surfaces to which the hydraulic motors are installed are formed, and a left and right pair of axle cases (2L, 2R) for receiving respectively the left and right hydraulic motors and for supporting each of the motor shafts. The pair of the wheel support units (2L, 2R) supports respectively a left and a right travel wheel (12L, 12R), joined respectively to outer end surfaces of the left and right axle cases, and connected for power to each of the motor shafts (23b). | ||||||
185 | Hydrostatic transaxle | EP07106242.6 | 2007-04-16 | EP1847441B1 | 2010-10-06 | Iwaki, Koji; Ishii, Norihiro; Ishino, Fumitoshi |
186 | ADAPTABLE VEHICLE HAVING INTERCHANGEABLE TRACKS AND WHEELS | EP07800535 | 2007-08-28 | EP2057062A4 | 2010-09-08 | BERNARD PIERRE; GAUDREAU GUY |
187 | Traveling device for crawler type heavy equipment | EP08009223.2 | 2008-05-20 | EP1995155A3 | 2009-12-16 | Lee, Jae Hoon |
A traveling device for crawler type heavy equipment is provided, which can improve the manipulability by preventing an abrupt decrease/increase of a traveling speed of the equipment when a combined operation, in which a left/right traveling device and a working device are simultaneously driven, is performed. The traveling device for crawler type heavy equipment includes first and second variable displacement hydraulic pumps (1,2), switching valves (5,6,7,8)(10,11,12) for left and right traveling motors and working devices, a straight traveling valve (13) shifted to supply hydraulic fluid to the switching valves for the left and right traveling motors and to the switching valves for the working devices in response to a signal pressure in a combined working mode, a variable orifice shifted to intercept the supply of the hydraulic fluid toward the traveling device in response to the signal pressure in the combined working mode if a load pressure of the working device is relatively higher than that of the traveling device, a mode selection device for selecting a working mode, and a controller for outputting control signals to electro proportional valves and to electric control valves so as to control discharged flow rates of the first and second hydraulic pumps in accordance with the selected working mode. |
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188 | PROPULSION AND STEERING SYSTEM FOR A ROAD MILLING MACHINE | EP07852451.9 | 2007-09-28 | EP2076419A2 | 2009-07-08 | WILLIS, Paul, E.; ZUPANC, Justin |
A propulsion system is for a road milling machine with a rotatable cutter drum (3). The system includes four crawler assemblies (12) movably coupled with the mainframe so as to define front and rear, and left and right, pairs of crawler assemblies. Four steering actuators (14) are each coupled with a separate crawler assembly and each angularly displaces the crawler about a vertical axis (12a). A first pump (16A) is fluidly coupled with the left pair of crawlers and a second pump (16B) is fluidly coupled with the right pair of crawlers. A control (20) is configured to selectively operate the four actuators in a plurality of different steering modes, one steering mode being a circle steer mode, and to operate the two pumps such that one of the left and right pairs of crawlers are drivable by the first pump in one direction while the other pair of crawlers are drivable in an opposing direction. | ||||||
189 | STEERING SYSTEM FOR AN ADAPTABLE VEHICLE | EP07800533.7 | 2007-08-28 | EP2057059A1 | 2009-05-13 | BERNARD, Pierre; GAUDREAU, Guy |
The powered hybrid vehicle is capable of being operative in either one of first and second distinct driving modes each comprising corresponding first and second directional systems. The hybrid vehicle has a control shaft operatively coupled to a steering device, a first steering member operatively coupled to the first directional system, a second steering member operatively coupled to the second directional system and a shaft coupler capable of selectively coupling the control shaft to either one of the first and second steering members. The hybrid vehicle may be steered by controlling the steering device notwithstanding which one of the first and second driving mode it is in. | ||||||
190 | Crawler vehicle drive control system | EP07425623.1 | 2007-10-05 | EP2045169A1 | 2009-04-08 | Sghedoni, Lorenzo; Pertusi, Franco |
A system (1000) for controlling drive of a crawler vehicle, characterized by having: |
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191 | A ROBOTIC WORK TOOL CONFIGURED FOR IMPROVED TURNING IN A SLOPE, A ROBOTIC WORK TOOL SYSTEM, AND A METHOD FOR USE IN THE ROBOT WORK TOOL | EP13875731 | 2013-02-20 | EP2959349A4 | 2017-03-29 | BERGSTRÖM JONAS; KLACKENSJÖ FREDRIK; MARKUSSON OLLE |
Robotic work tool (100) configured for improved turning in a slope (S), said robotic work tool comprising a slope detector (190), at least one magnetic field sensor (170), a controller (110), and at least two driving wheels (130″), the robotic work tool (100) being configured to detect a boundary wire (250) and in response thereto determine if the robotic work tool (100) is in a slope (S), and if so, perform a turn by rotating each wheel (130″) at a different speed thereby reducing a risk of the robotic work tool (100) getting stuck. | ||||||
192 | PILOT CIRCUIT FOR WORKING VEHICLE | EP14736865.8 | 2014-07-10 | EP3019668A1 | 2016-05-18 | HOSHAKU, Shota |
PROBLEM: To provide a working vehicle traveling by an operation, the operation chosen by operators from either an oil-pressured pilot operation which drives a traveling device based on an operation of an oil-pressured pilot controller to activate a pilot valve or an electric operation which drives the traveling device based on an operation of an electric control device to output electric signal. SOLUTION: In an operation for traveling a working vehicle, it is provided that an operation selection switch 26 to choose either an oil-pressured pilot operation or an electric operation, a control device 23 to input an electric signal for traveling transmitted from an electric operation device and a selection signal from the operation selection switch, the third electro-magnetic valve 44 to forbid outputting pilot pressure from a pilot valve for traveling to a control valve for traveling based on a control signal from the control device, the first to the fourth electro-magnetic proportional valve 48 to 51 to output a pilot pressure to the control valve for traveling based on the control signal from the control device and the first to the fourth shuttle valve 38 to 41 to lead the output pilot pressure to the control valve for traveling. | ||||||
193 | ENGIN ROULANT APTE A ETRE TRACTE PAR DES MOYENS TRACTEURS | EP12705331.2 | 2012-01-13 | EP2663485A1 | 2013-11-20 | CHEVREL, Philippe; CLAVEAU, Fabien |
The invention relates to a wheeled vehicle (1) suitable for being towed by a towing means. According to the invention, said wheeled vehicle includes a means for measuring force (2) that is configured to measure, in the state in which the vehicle (1) is hitched to the towing means, at least one signal representative of the so-called longitudinal force (F1) exerted by the vehicle on the wheeled vehicle (1) or vice-versa, in a direction parallel to the longitudinal axis of the vehicle, a drive means (5), a braking means (5, 12), and a control means configured to control said drive means (5) or the braking means (5, 12) in accordance with said longitudinal force (F1) measured by said means for measuring force (2), so as to apply, to at least one of the wheels (6) of the wheeled vehicle (1), an acceleration or a braking force, respectively, making it possible to reduce said longitudinal force (F1). | ||||||
194 | Selbstfahrende, wenigstens einachsige Arbeitsmaschine zum Betreiben und/oder Fortbewegen von angebauten Arbeitsgeräten oder angehängten Fahrzeugen | EP11405376.2 | 2011-12-23 | EP2607209A1 | 2013-06-26 | Häfeli, Christian |
Selbstfahrende, wenigstens einachsige Arbeitsmaschine zum Betreiben und/oder Fortbewegen von angebauten Arbeitsgeräten resp. angehängten Fahrzeugen, welche Arbeitsmaschine eine mit einem Verbrennungs- oder Elektromotor angetriebene hydrostatische Antriebseinrichtung (3) zur lenkbaren Fortbewegung durch mit den Antriebsrädern einer Fahrachse der Arbeitsmaschine verbundene Hydraulikmotoren aufweist, und vorzugsweise in eine Vorwärts- oder eine Rückwärtsfortbewegung schaltbar ist, wobei die hydrostatische Antriebseinrichtung (3) aus einer mit jeweils einem Hydraulikmotor eines Antriebsrades der Fahrachse (5) antriebswirksam verbundenen, und eine zugeschaltete elektromechanisch einstell- und verstellbare Hydraulikpumpe (25, 26) aufweisenden Antriebseinheit (30, 31) gebildet ist. |
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195 | ADAPTABLE VEHICLE HAVING INTERCHANGEABLE TRACKS AND WHEELS | EP07800535.2 | 2007-08-28 | EP2057062B1 | 2013-06-12 | BERNARD, Pierre; GAUDREAU, Guy |
196 | Verfahren sowie Vorrichtung zur Regelung eines Antriebssystems | EP06024632.9 | 2006-11-28 | EP1826420B1 | 2013-05-22 | Krimbacher, Norbert, Dr. |
197 | Dispositif de transmission hydrostatique pour chariot articulé correspondant | EP03291207.3 | 2003-05-22 | EP1366970B1 | 2013-01-30 | Braud, Marcel-Claude |
198 | Power unit | EP08752518.4 | 2008-05-09 | EP2149474B1 | 2013-01-09 | ABE, Noriyuki c/o HONDA R&D CO., LTD.; KITAMI, Yasuo c/o HONDA R&D CO., LTD.; AKUTSU, Shigemitsu c/o HONDA R&D CO., LTD. |
199 | Verfahren sowie Vorrichtung zur Regelung eines Antriebssystems | EP06024632.9 | 2006-11-28 | EP1826420A3 | 2012-02-22 | Krimbacher, Norbert, Dr. |
Die Erfindung betrifft dabei einerseits ein Verfahren, bei dem ein Soll-Wert (nSoll) eines Abtriebsparameters sowie ein Leistungsgrenzwert (P+) für die zumindest eine Antriebseinheit vorgegeben werden und in Abhängigkeit des vorgegebenen Soll-Werts (nSoll) des Abtriebsparameters und des vorgegebenen Leistungsgrenzwerts (P+) zumindest ein Stellsignal (I) für die zumindest eine Antriebseinheit bereitgestellt wird. Nach einem ersten Aspekt der vorliegenden Erfindung wird der vorgegebene Leistungsgrenzwert, in Abhängigkeit dessen das zumindest eine Stellsignal für die zumindest eine Antriebseinheit bereitgestellt wird, in Abhängigkeit eines Abgleichs des vorgegebenen Soll-Werts des Abtriebsparameters mit einem aktuellen Ist-Wert des genannten Abtriebsparameters reduziert. |
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200 | Work machine with steering control | EP04004642.7 | 2004-03-01 | EP1561672B1 | 2011-05-04 | Strashny, Igor, c/o CATERPILLAR INC.; Pruitt, Randall Dean, c/o CATERPILLAR INC.; Eyraud, Gilles, c/o CATERPILLAR INC. |