序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
201 DEVICE AND METHOD FOR REGULATING A HEATING AND/OR COOLING SYSTEM PCT/IB2020/059200 2020-10-01 WO2021064628A1 2021-04-08 MARTELLACCI, Marco

The present invention relates to a device (110) for regulating a heating and/or cooling system (100) serving a building (141), said system (100) comprising a management system (101) and a generation system (120), said device (110) being adapted to: - receive a main signal (105) from said management system (101); - receive at least one reference signal (106) representative of a desired parameter for said building (141); - receive at least one environmental signal (145) representative of at least one parameter related to said building (141), said device (110) being characterized in that it is adapted to: - receive a control unit signal (126) representative of a parameter related to the generation system (120), - output a control signal (115) for said generation system (120), said control signal (115) being determined on the basis of said main signal (105), said reference signal (106), said at least one environmental signal (145) and said control unit signal (126).

202 AUDIO FEEDBACK DEVICES PCT/US2018/054100 2018-10-03 WO2020072046A1 2020-04-09 ALLEN, William; COBB, Rachelle Heather Castilloux; WRIGHT, Allen Owen; SCHEESSELE, Evan

A feedback device includes an audio output device, a user input device communicatively coupled to the audio output device, and an audio feedback module communicatively coupled to the user input device and the audio output device. The audio feedback module senses a pace at which a user is inputting data to the user input device via movement of the user-input device, and causes the tempo of music output by the audio output device to change based on the pace at which the data is input to encourage the user to change the pace to a standard pace defined by the feedback device.

203 무인기 원선회 유도제어 오차 보상 시스템 및 방법 PCT/KR2018/010202 2018-09-03 WO2019045541A1 2019-03-07 문정호; 박문수; 박종근

본 발명에 따른 무인기 원선회 유도제어 오차 보상 시스템은 무인 비행체의 원선회 반경 명령 (Rcmd) 을 출력하여, 상기 원선회 반경 명령(Rcmd)에 대한 원선회 유도제어 오차를 보상하고, 보상된 원선회 반경 명령 (R͂cmd)을 생성하는 비행제어 컴퓨터; 상기 보상된 원선회 반경 명령을 수신하여 조종간을 구동하는 조종간 구동기; 상기 조종간 구동기(200)의 제어로 비행하는 무인 비행체; 및 상기 무인 비행체의 비행상태를 측정하여 상기 비행제어 컴퓨터로 상기 비행상태를 전송하는 항법장치;를 포함하여, 원선회 명령보상기를 이용해 무인항공기가 원선회 비행시 반드시 수반되는 원선회 반경 오차를 제거함으로써, 정밀한 원선회 반경을 유지하여 무인기 정찰 임무의 정확성을 높일 수 있는 효과가 있다.

204 PROVIDING TEMPERATURE SENSATION TO A USER BASED ON CONTENT PRESENTED TO THE USER PCT/US2017/063543 2017-11-28 WO2019027490A1 2019-02-07 HOWARD, Zachary, Ian; OWENS, Erich, James

A controller including a temperature feedback mechanism is coupled to a client device. The temperature feedback mechanism is configured to be heated or cooled based on instructions received from the client device and contacts a portion of a user's body. In various embodiments, the temperature feedback mechanism is a Peltier device integrated into the controller. Various applications executing on the client device may implement instructions that, when executed by the client device, heat or cool the controller coupled to the client device to augment other content presented by an application.

205 HANDHELD ARTICULATED USER-ASSISTIVE DEVICE WITH BEHAVIOR CONTROL MODES PCT/US2018/023859 2018-03-22 WO2018203983A1 2018-11-08 PATHAK, Anupam J.; OWENS, Dylan

A handheld tool includes a handle; an implement mount configured to detachably accept and to rigidly hold a user assistive implement; an actuator assembly mounted to the handle to physically manipulate the implement mount relative to the handle; a first sensor disposed to sense an orientation of the handle; a second sensor disposed to sense an orientation of the user assistive implement; a controller disposed in or on the handle and coupled to the actuator assembly and the first and second sensors; and memory coupled to the controller. The memory stores instructions for identifying a type of the user assistive implement attached to the implement mount, selecting a behavior routine based upon the type of the user assistive implement identified, and manipulating the user assistive implement relative to the handle according to the behavior routine to aid performance of a task with the handheld tool.

206 DEVICE FOR OPTIMIZING PRODUCTION, CONSUMPTION, AND STORAGE OF ELECTRIC ENERGY PCT/CZ2018/050016 2018-04-04 WO2018188678A1 2018-10-18 TURENA, Milan; DOLECEK, Ludvik; STASEK, Jaroslav

The device includes an electric energy source (1) to which an inverter (4) is power-connected, whose output is three-phase with symmetrical power distribution. It further includes an interphase power transfer module (5) which is power-connected to the inverter (4) and comprises at least one first power board (5.5) including at least three power transistors. The inter-phase power transfer module (5) has a data interface (5.3) and has a first output (5.1) with asymmetrical power distribution into three phases, wherein the first output (5.1) is further connected to a distinctive nodal point (Ul), this distinctive nodal point (Ul) being power-connected to a load (6). Through a measuring module (9), the PLC control system (11) is also connected to the distinctive nodal point, the PLC control system (11) being further connected also to the inverter (4) and the data interface (5.3). This arrangement ensures that the power supplied to the load (6) reflects in each phase the power consumed by the load (6). The device further offers additional possibilities to control energy production, consumption and storage.

207 HI-FIDELITY COMPUTER OBJECT RECOGNITION BASED HORTICULTURAL FEEDBACK LOOP PCT/US2017/052800 2017-09-21 WO2018057796A1 2018-03-29 GREENBERG, Adam Phillip Takla; KING, Matthew Charles

Infrastructure and methods to implement a feedback loop for a horticultural operation are disclosed. Image capture devices are deployed on a per plant or near per plant basis, and upload images to image analysis server. The image analysis server applies image preprocessing to the uploaded images, and then applies image analysis to identify plants and plant artifacts. Where artifacts indicate an issue with a plant, a course of action to remediate is identified. Static analysis techniques, sequential analysis techniques, and adaptive techniques are some of the techniques enabled and disclosed by the application of object recognition techniques to horticultural applications. Images may be associated with a plant state vector to enable complex comparison operations.

208 DYNAMIC TEMPERATURE SENSOR PCT/CN2016/089763 2016-07-12 WO2018010089A1 2018-01-18 LV, Yubin; REN, Bo; WANG, Junfeng; WANG, Li

Devices, methods, systems, and computer-readable media for a dynamic temperature sensor are described herein. One or more embodiments include a device, comprising: a controller that includes a variable voltage output coupled to a sensor, wherein the controller provides a voltage segment to the sensor based on a signal of the sensor received at the controller.

209 QUASI- TRANSLATOR, FOURIER MODULATOR, FOURIER SPECTROMETER, MOTION CONTROL SYSTEM AND METHODS FOR CONTROLLING SAME, AND SIGNAL PROCESSOR CIRCUIT PCT/US2012/066219 2012-11-21 WO2013078281A2 2013-05-30 BLEIER, Zvi; JACOBSON, Alexander; VIDRINE, Drouet, Warren; KISSLINGER, Jack, Gordon

A quasi-translator for economically producing pure, smooth translational motion with broad arcuate or error-free motion regardless of orientation, which is useful in numerous interferometer applications including spectroscopy, a Fourier modulator and a Fourier spectrometer are provided. The quasi-translator utilizes a support, an arm including a driving magnet on a first end and a driven element on a second end, an axis for rotation of the arm, a bearing system that controls the rotation of the arm about the axis, a drive coil and a drive amplifier to drive the arm in the arcuate motion. The quasi-translator may be employed in a Fourier modulator to change the optical path difference of the interferometer/quasi-translator at a substantially constant rate of change. The quasi- translator and/or Fourier modulator may be used in a Fourier spectrometer to create an optical spectrum from a light beam and/or electrical signal created from the light beam.

210 METHOD AND SYSTEM FOR LOW SPEED CONTROL OF A VIDEO SURVEILLANCE SYSTEM MOTOR PCT/US2007025018 2007-12-06 WO2008073278A3 2008-11-27 BERKEY THOMAS F; DEJESUS CARLOS
The present invention provides a method and system that improve the low-speed control stability of a video camera assembly, including a video camera, a tilt motor operable to tilt the video camera and a pan motor operable to pan the video camera. A first encoder is coupled to one of the tilt motor and pan motor. The first encoder outputs a plurality of signals having corresponding signal edges, based on a rotation speed of the one of the tilt motor and pan motor. A first controller is in electrical communication with the first encoder. The first controller determines a speed of the one of the tilt motor and pan motor at least in part by correlating a time period between detection of the first edge and detection of the second edge to the speed of the at least one tilt motor and pan motor.
211 A METHOD AND AN AID TO ALERT A PERSON TO THE NEED TO ASSUME A CORRECT BACK POSTURE POSITION DURING SITTING ON A SEAT PCT/AU2008/000414 2008-03-21 WO2008119106A1 2008-10-09 MAGEE, Liam, James

The present invention describes a method and system that is used to alert a person to the need to assume a correct backposition during sitting on a seat, using a sensor responsive to pressure, contact or presence of the person's back at a position relative to the seat that coincides with a correct backposture position of the person seating in the seat. Furthermore the method and the system are providing a signal consequent on the sensor sensing the absence of the person assuming a correct backposition and using the signal to alert the person to the need to assume a correct backposition; the alert can be sound or a visual display on a computer screen or the like or it can be using another means such as interruption of normal operation at a computer station.

212 METHOD AND APPARATUS FOR PHASE COMPENSATION IN A VEHICLE CONTROL SYSTEM PCT/SE1998/001422 1998-07-30 WO99009461A1 1999-02-25
The present invention relates to a method and a device for executing phase compensation in a control system of a motor-driven vehicle, in which the time derivative for an output signal (y) from a circuit (1) contained in the control system is limited relative to the time derivative for an input signal (u) to the circuit (1) if the time derivative for the input signal (u) exceeds a predetermined value. An error signal ( epsilon ) is formed between the output signal (y) and a signal (x) present in the circuit (1), the time derivative of which is not limited in relation to the time derivative for the input signal (u). The error signal ( epsilon ) is filtered via an asymptotically stable filter (3) to form a signal ( delta ), which is fed back and subtracted from the input signal (u) of the circuit (1) to form the signal (x). A conventional rate limiter may be used to form the output signal (y) from the signal (x).
213 調節儀及劣化位置檢測方法 TW107129531 2018-08-24 TWI689800B 2020-04-01 岩切研; IWAKIRI, KEN
214 WORK MACHINE CONTROL SYSTEM AND CRANE EP20906711.5 2020-12-24 EP4082957B1 2025-03-12 MINAMI, Yoshimasa
This control system comprises: a signal processing unit generating a signal related to the target operating amount of an actuator; a feedback control unit that controls the actuator based on the difference between the signal related to the target operating amount and a signal related to the fed-back operating amount; a feed-forward control unit that controls the actuator based on the signal related to the target operating amount in cooperation with the feedback control unit, and learns the characteristics of the actuator by adjusting a weighting factor based on a teacher signal; and a calculation unit that calculates information related to the deflection of the work machine. The signal processing unit corrects intermediate information, which is generated in the process of generating the signal related to the target operating amount, based on the information related to the deflection, and generates the signal related to the target operating amount.
215 COMPUTATION OF AN OPTIMAL REFERENCE FOR AN INTEGRAL ELECTRONIC CONTROLLER IN A CLOSED-LOOP ELECTRONIC CONTROL SYSTEM EP22797483.9 2022-09-29 EP4409365A1 2024-08-07 DESSI', Riccardo; RAFFONE, Enrico; REI, Claudio; FOSSANETTI, Massimo
An automatic electronic control system (1) to closed-loop control a dynamic system (2). The automatic electronic control system (1) is designed to receive a control quantity representative of a reference (r(t)) to be followed by the dynamic system (2) and a controlled quantity representative of an output (y(t)) of the dynamic system (2) and to output an output (v(t)) to be supplied to the dynamic system (2) to cause the output (y(t)) thereof to follow the reference (r(t)). The automatic electronic control system (1) comprises an actuator (3) to control the dynamic system (2) and a controller (4) to control the actuator (4) based on a control law (f(e(t)). The controller (4) is configured to receive an error (e( t)) indicative of a deviation of the output (y(t)) of the dynamic system (2) from the reference (r(t)) and to output, based on the error (e(t)) and on the control law (f(e(t)) implemented by the controller (4), an output (u(t)) to be supplied to the actuator (3) to cause it to control the dynamic system (2) so that its output follows the reference (r(t)). The actuator (3) is configured to receive the output (u(t)) of the controller (4) and to output an output to be supplied to the dynamic system (2) to cause the output (y(t)) hereof to follow the reference (r(t)). The automatic electronic control system (1) is further designed to implement an anti-wind-up system (5) designed to cause the output (u(t)) of the controller (4) to be such as to cause the actuator (3) to operate in a linearity range of its input/output characteristic. The anti-wind-up system (5) is further designed to cause the excursion of the reference (r(t)) to be limited within an excursion range to cause the actuator (3) to operate in the linearity range of its input/output characteristic.
216 AUTOMATIC WAFER CENTERING METHOD AND APPARATUS EP19746723.6 2019-01-29 EP3746271B1 2023-11-22 KRUPYSHEV, Alexander; SHARROCK, Leigh
A substrate transport apparatus including a transport chamber, a drive section, a robot arm having an end effector at a distal end configured to support a substrate and being connected to the drive section generating at least arm motion in a radial direction extending and retracting the arm, an imaging system with a camera mounted in a predetermined location to image at least part of the robot arm, and a controller connected to the imaging system to image the arm moving to a predetermined repeatable position, the controller effecting capture of a first image of the robot arm proximate to the repeatable position decoupled from encoder data of the drive axis, wherein the controller calculates a positional variance of the robot arm from comparison of the first image with a calibration image, and from the positional variance determines a motion compensation factor changing the extended position of the robot arm.
217 DEVICE AND METHOD FOR REGULATING A HEATING AND/OR COOLING SYSTEM EP20793148.6 2020-10-01 EP4038322A1 2022-08-10 MARTELLACCI, Marco
The present invention relates to a device for regulating a heating and/or cooling system serving a building, said system comprising a management system and a generation system, said device being adapted to:receive a main signal from said management system;receive at least one reference signal representative of a desired parameter for said building;receive at least one environmental signal representative of at least one parameter related to said building,said device being characterized in that it is adapted to:receive a control unit signal representative of a parameter related to the generation system,output a control signal for said generation system,said control signal being determined on the basis of said main signal, said reference signal, said at least one environmental signal and said control unit signal.
218 AUTOMATIC WAFER CENTERING METHOD AND APPARATUS EP19746723.6 2019-01-29 EP3746271A4 2021-10-27 KRUPYSHEV, Alexander; SHARROCK, Leigh
A substrate transport apparatus including a transport chamber, a drive section, a robot arm having an end effector at a distal end configured to support a substrate and being connected to the drive section generating at least arm motion in a radial direction extending and retracting the arm, an imaging system with a camera mounted in a predetermined location to image at least part of the robot arm, and a controller connected to the imaging system to image the arm moving to a predetermined repeatable position, the controller effecting capture of a first image of the robot arm proximate to the repeatable position decoupled from encoder data of the drive axis, wherein the controller calculates a positional variance of the robot arm from comparison of the first image with a calibration image, and from the positional variance determines a motion compensation factor changing the extended position of the robot arm.
219 AUTOMATIC WAFER CENTERING METHOD AND APPARATUS EP19746723.6 2019-01-29 EP3746271A1 2020-12-09 KRUPYSHEV, Alexander; SHARROCK, Leigh
A substrate transport apparatus including a transport chamber, a drive section, a robot arm having an end effector at a distal end configured to support a substrate and being connected to the drive section generating at least arm motion in a radial direction extending and retracting the arm, an imaging system with a camera mounted in a predetermined location to image at least part of the robot arm, and a controller connected to the imaging system to image the arm moving to a predetermined repeatable position, the controller effecting capture of a first image of the robot arm proximate to the repeatable position decoupled from encoder data of the drive axis, wherein the controller calculates a positional variance of the robot arm from comparison of the first image with a calibration image, and from the positional variance determines a motion compensation factor changing the extended position of the robot arm.
220 AUTOMATED CEMENT MIXING EP17880160.1 2017-12-12 EP3551410A4 2020-08-19 URDANETA, Carlos Junior; DEAN, James; MONTEMAYOR, Oscar; BALSAMY, Rajnarayanan Subbu; NGUYEN, Dinh Quy
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