586 results about "Human control" patented technology

Methods and associated systems for autonomous package delivery utilize a UAS/UAV, an infrared positioning senor, and a docking station integrated with a package delivery vehicle. The UAS/UAV accepts a package for delivery from the docking station on the delivery vehicle and uploads the delivery destination. The UAS/UAV autonomously launches from its docked position on the delivery vehicle. The UAS/UAV autonomously flies to the delivery destination by means of GPS navigation. The UAS/UAV is guided in final delivery by means of a human supervised live video feed from the UAS/UAV. The UAS/UAV is assisted in the descent and delivery of the parcel by precision sensors and if necessary by means of remote human control. The UAS/UAV autonomously returns to the delivery vehicle by means of GPS navigation and precision sensors. The UAS/UAV autonomously docks with the delivery vehicle for recharging and preparation for the next delivery sequence.

A variety of methods, systems, devices and arrangements are implemented for automated assistance for a driver. One such method relates to a synergistic combination of automation and human control for a motor vehicle traveling on a lane, thereby allowing human-based decisions to be supplement (or be supplemented by) automated decisions. Specific aspects facilitate maintenance of the vehicle on the lane. The vehicle is automatically steered towards a lateral offset within the vehicle lane. Steering input from the driver results in changes to this lateral offset. This modification of the lateral offset can be used to allow the driver to follow any trajectory parallel to the road, including trajectories where the vehicle is not centered within the lane.

Apparatus and methods for performing satellite proximity operations such as inspection, recovery and life extension of a target satellite through operation of a “Satellite Inspection Recovery and Extension” (“SIRE”) spacecraft which can be operated in the following modes (teleoperated, automatic, and autonomous). The SIRE concept further consists of those methods and techniques used to perform certain (on-orbit) operations including, but not limited to, the inspection, servicing, recovery, and lifetime extension of satellites, spacecraft, space systems, space platforms, and other vehicles and objects in space, collectively defined as “target satellites”. The three basic types of SIRE proximity missions are defined as “Lifetime Extension”, “Recovery”, and “Utility”. A remote cockpit system is provided to permit human control of the SIRE spacecraft during proximity operations.

This invention discloses a performance test device and a method for radio terminal, in which, the device includes: a shield box with at least one antenna connected with an analog base station/controller out of the shield box, a test instrument connected with the being tested terminal in the box to test its radio performance, which controls the signal strength emitted to the radio terminal by the analog base station/controller, so that emitted signals can be controlled artificially, besides, tested terminals can work under single or multiple nets since one or many antennas are set in the box and shields radiation to outside test equipment and personnel and shields influence to being tested terminal from outside radiation interference of outside magnetic environment to guarantee accuracy of test result.

A system for controlling a human-controlled proxy robot surrogate is presented. The system includes a plurality of motion capture sensors for monitoring and capturing all movements of a human handler such that each change in joint angle, body posture or position; wherein the motion capture sensors are similar in operation to sensors utilized in motion picture animation, suitably modified to track critical handler movements in near real time. A plurality of controls attached to the proxy robot surrogate is also presented that relays the monitored and captured movements of the human handler as “follow me” data to the proxy robot surrogate in which the plurality of controls are configured such that the proxy robot surrogate emulates the movements of the human handler.

Information of an object can be measured from remote points in order to specify a position in an arbitrary space by human control. An object information sensing apparatus (5) measures information of objects (4, 4′, and 4″), which configure at least one pointing device (1, 1′and 1″), in order to specify a position in an arbitrary space by human control from remote points. The object information sensing apparatus (5) includes generation units (6 and 7) for generating and radiating electromagnetic waves, a delay unit (10) for temporally delaying electromagnetic waves, and a unit (8) for detecting electromagnetic waves. A delay time is found by using a generated electromagnetic wave (14), an electromagnetic wave (15) that is reflected from the objects (4, 4′, and 4″), and an electromagnetic wave that is delayed by the delay unit (10). Relative relationships between the object information sensing apparatus (5) and the objects (4, 4′, and 4″) are thus detected.

An interface (101) for converting human control input gestures to telematic control signals includes a plurality of articulating arms (107, 108, 109) each mounted at a base end (113, 115, 117) to an interface base and coupled at an opposing end to a housing (106). The articulating arms are operable to permit linear translational movement of the housing in three orthogonal directions. At least one sensor (116) of a first kind is provided for measuring the linear translational movement. A pivot member (201) is disposed in the housing and is arranged to pivot about a single pivot point. A grip (102) is provided and is attached to the pivot member so that a user upon grasping the grip can cause the pivot to rotate within the housing. A button (118) is provided to switch between at least two modes, wherein when in a first mode control signals are used to control a vehicle base (502), and when in the second mode control signals are used to control a robotic arm (504) coupled to the vehicle base (502).

The present invention refers to a system for the diagnosis of plant anomalies which comprises at least: an acquisition device (1) capable of capturing images in real time of at least one sample of a plant to be diagnosed; a storage unit (2) comprised by a database of digitalized images (7) of samples of plants affected by anomalies and also comprised by a database of technical information (8) related to said anomalies; a human interface device (3) capable of displaying digitalized images of the plant samples; a human control device (4) capable of allowing for an active interaction between a user and the human interface device; and a processing unit (5) operatively associated to the acquisition device (1), to the storage unit (2), to the human interface device (3) and to the human control device (4). This processing unit (5) is configured to run a dedicated computer program (6) capable of: displaying the image of the sample of the plant to be diagnosed and the digitalized image of the sample of the plant filed in the database of images (7) from the storage unit (2) simultaneously in the human interface device (3); automatically providing information of at least, one product and/or method suitable for treating the anomaly diagnosed by means of the human interface device (3); and allowing for the graphic manipulation of the plant images shown in the human interface device (3) by means of the human control device (4).

The invention relates to a micro foam generator, which is characterized in that: the cam is connected to a movable skeleton; the movable skeleton has gas distribute room; the top of gas distribute room and the top of movable skeleton both have one porous plate; the gas distribute room is connected to the movable skeleton via lifting spring; when using, the air enters into gas inlet to enter gas distribute room; said two porous plates are layered, while one is frequently moved, to switch the micro hole, and high-speed shear the airflow, to make the foam small and quickly leave the surface of porous plate, and the size of micro foam can be controlled, to increase the effective foam number. The invention has simple structure and lower cost.

The invention relates to a human control intersection docking operation method which is characterized in that a target which comprises a background chassis and an extended cross is arranged nearby the docking port of a target spacecraft; a television camera is arranged nearby the docking port of a tracking spacecraft; and an astronaut observes the image of the target spacecraft and the target by the television camera for carrying out the state judgment and control. According to the relative motion state of the two spacecrafts, the position and posture are adopted for the coordination control; simultaneously, the deviation of the tracking spacecraft and the target spacecraft relative to the sight line is eliminated so that when the distance is far, the target spacecraft is always at the center of the tracking spacecraft field; when the distance is near, the images of the background chassis and the extended cross of the target are coincided; under the premise, the distance between the tracking spacecraft and the target spacecraft is gradually shortened; after the tracking spacecraft and the target spacecraft berth and keep on the 3-6 meters relative position of the two docking ports, a forward engine of the tracking spacecraft is started for a certain time so as to finish the human control docking task according to the required docking speed, the transverse positional deviation and the posture deviation.

The invention discloses a method for cultivating live glossy ganoderma dish garden which comprises feed proportioning, sacking, sterilizing, inoculating, developing bacterium, carrying out human control modeling through adjusting light rays, temperature, air, moisture and grafting, wherein the growing conditions for the mycelium and fruiting body are controlled, and the spore powder is collected when ejecting, and the modeled live lucid ganoderma is immigrated into the flower bowl.

The invention relates to a mobile tunneling kiln, comprising kiln body; moving wheel set on the two side of kiln body, by which kiln body is set on the ground railway; and power equipment set on the kiln body. Kiln body can be controlled manually and move in any time by the power equipment set on the kiln body in the invention. It is simple structure, low cost and good efficiency when power equipment is hydraulic device. Several doors of said kiln body is sealed in segmentation so that temperature in kiln body is improved quickly and adjusted or controlled.

Provided are a system and a method for smart home power saving based on self-learning. The system and the method can solve technical problems that a conventional smart home power saving scheme needs manual control and is not convenient enough. The system comprises a smart home product, a household data acquisition module, a household intelligent control module, and a cloud computing center. The smart home product and the household data acquisition module are respectively connected with the household intelligent control module in a communication manner. The household intelligent control module is connected with the cloud computing center in a communication manner. According to user use habits, environment self-learning and power consumption conditions are combined, and combined with an optimization model, optimization of power utilization setting is performed. For example, previously, a user may turn on an air conditioner at home when the user comes home from work, and now, according to air cooling condition of the air conditioner, time the user leaves a company, distance between the company and home, traffic conditions, and user preferred temperature, temperature and frequency of the air conditioner are set automatically, and a setting scheme is optimized.

The invention discloses a migratory Atlantic salmon factory-like artificial breeding method. The migratory Atlantic salmon factory-like artificial breeding method includes the eyed egg incubation stage, the mouth opening and feeding stage, the fry breeding stage and the silvering process stage. Eyed eggs are incubated in an incubator in an incubation room with running fresh water; in the mouth opening and feeding stage, Atlantic salmon fries are bred in an indoor breeding pond with running fresh water; in the fry breeding stage, indoor closed circulating fresh water breeding is performed; in the silvering process stage, indoor closed circulating fresh water breeding is performed, the silvering process includes the silvering period and the lighting recovery period, the silvering period of five weeks begins first, during the silvering period, it is bright for 12 hours and dark for 12 hours every day, then the lighting recovery period of fives weeks begins, and 24-hour lighting is performed every day during the lighting recovery period. In the breeding process, the Atlantic salmon fries are all incubated and bred indoors, so that incubation and breeding are free of weather influences, the incubation and breeding conditions can be manually controlled conveniently, large-scale breeding can be carried out, the breeding is stable, the survival rate of the fries is high, the fries are uniform in size, and high-density breeding can be achieved.

The invention relates to a seismic prospecting method based on a single seismic focus directional lighting. An offset distance and a track pitch are determined according to the traditional geologic prospecting method; a wave-detector array is arranged in a collinear way; according to the different offset distance of the shot-points in the same group and the same offset distance of the m shot-points in the different groups with the serial number differing in n, seismic data in a single shot on an entire cross-section is gathered; a uniformly-spaced time delay is made for the seismic data in the single-shot in the same group according to the sequence of the serial number; a linear superposition is made for the delayed seismic data in the single-shot so as to compose a directional lighting seismic signal with directivity, and the directional lighting seismic signal is corresponding to a directional seismic wave field; by adopting a routine seismic data processing method, a directional lighting seismic cross-section based on the single seismic focus can be obtained. After a test, the direction of the directional lighting seismic wave field that is composed can be controlled manually according to a target occurrence and has better prospecting effect to the target body of a steep dip, as compared with the common seismic prospecting method based on the single seismic focus; the seismic prospecting method of the invention also has the advantages of low operation cost and simple operation as compared with a phased seismic prospecting method.

A method of recording the motion of a physical object moved under human control is described that allows repeated replay of the exact motion using a robot to cause the motion of the object to occur in such a way as to allow a human student to interact with the object and experience the fundamental movements required to reproduce the motion consistently, thereby enhancing motor learning.

The invention provides a method and a device for controlling an elevator button, wherein the method comprises the following steps: the time of the pressed button of the elevator floor is acquired; according to an acquired image, the number of people is counted; when the time of the pressed button of the elevator floor is more than a control value, the unpressed button is forbidden from being pressed; and when the pressed time of the button of the elevator floor is less than the control value, the unpressed button is only allowed to be pressed, wherein the control value is determined and obtained according to the number counting and preset error. The method and the device can reach the optimal effect of automatically controlling the elevator floor, does not need manual control, can prevent misoperation of certain personnel on the elevator, and improve the using efficiency of the elevator.

The invention discloses an intelligent earphone system capable of regulating volume by gesture and a regulation method. The volume regulation method comprises the following steps: acquiring surrounding environmental sounds by an intelligent earphone; sending the acquired environmental sounds to a cloud server; receiving a volume regulation instruction determined by the cloud server according to the content and/or volume of the environmental sounds; displaying the regulated volume and the current volume by projection; realizing the regulation of the volume by a user by means of gesture operation. Therefore, the intelligent earphone mentioned in the invention can be used for automatically regulating the volume according to the volume regulation instruction of the cloud server, providing convenience for the user by realizing a method in which automatic volume regulation is combined with manual control in combination with projection and gesture acquisition functions of the intelligent earphone, realizing greater humanization in volume regulation, guaranteeing the heath of double ears of the user and also realizing greater humanization and portability in operation on the intelligent earphone.