42 results about "Remote object" patented technology

The invention discloses a code generation method and device based on model low-code application and a medium, which are used for solving the problems that the expansibility and the adaptability of a system are sacrificed due to platform limitation in the prior art, and the traditional coding is difficult to meet the rapid trial and error and continuous iteration efficiency required by a modern commercial environment. The method comprises the following steps: constructing a corresponding application model through a menu, a webpage and a form based on a low-code platform, compressing the application model, and uploading the compressed application model to a remote object storage service; performing version verification on a target model determined in the application model, analyzing the target model passing the verification, and generating front and rear end codes corresponding to the target model; and pushing the front-end code and the rear-end code to a GitLab warehouse, and configuring an automatic process corresponding to the rear-end code based on an assembly line in the GitLab warehouse to realize automatic operation of code generation. Through the scheme, the development efficiency is greatly improved, the manual coding risk is reduced, and the user requirements are met with low cost.

A protective cover with a flip closure is adapted and configured to enable the cover to be positioned by a tool over a remote object, then closed by the tool over the object and then secured closed by the tool to protect the object.

A haptic feedback device that includes an input unit for receiving remote object data, at least one feedback surface arranged to be touched or sensed by a user, at least one haptic actuator arranged for providing a change on the feedback surface, and a control unit that is connected to the input unit to receive the remote object data, connected to the haptic actuator, and arranged to control the haptic actuator according to the received remote object data so as to provide haptic feedback to the user.

A local object database is populated from a remote object records database. An object has a geolocation representing one or more locations relative to points and / or regions relative to a geographic range of object records. A method might comprise determining a device geolocation state of the mobile device, determining a first geographical search space as a function of device geolocation and range threshold relative to the device geolocation, querying the remote database for a localized subset of object records with geolocations within the first geographical search space, populating the local database with the search results, determining whether the results comprise filterable object records that include a filter parameter, comparing the filter parameter and device geolocation state. When a filterable object record is present in the results and a filter parameter does not match the device geolocation state, the filterable object record is filtered from the local database.

An Offner spectrometer for use in a multi-slit hyperspectral imaging system for imaging a remote object includes a first surface that is a transmissive surface having a narrow slit receiving light from a multi-spectral light source, a second curved transmissive surface receiving light from the first surface, a third curved reflective surface receiving light from the second surface, a fourth reflective surface that is a curved surface with a grating receiving light from the third surface and diffracting and reflecting light, a fifth surface that is curved reflective surface receiving light from the fourth surface, a sixth curved transmissive surface receiving light from the fifth surface, and a seventh surface that is a focal plane of the Offner spectrometer receiving light from the sixth surface. Each curved surface has X and Y prescriptions that are decoupled.

The present invention provides a traffic light control method with edge computing and ambient edge intelligence, comprising a data center and an edge computing component. The data center component first uses a service discovery module to discover available devices that can serve as edge servers and converts the discovered devices into edge servers. After a camera captures a video frame, each frame is transmitted via two paths: one for local detection and the other for remote detection. The edge computing component performs initial object detection on the local device and extracts objects that cross the boundary. The data center component captures video using a surveillance camera, and the client sends the video frames to the corresponding edge device via an established WiFi connection. The edge computing component's edge server decodes data in a receiving queue and then sends the objects to the client. The data center client integrates the results of local and remote object detection to derive a final result, which is then used to control the traffic light.

A method of detecting a location, a translation and / or an orientation of a remote object relative to an ego-object, each having a set of sensors arranged at respective outer surfaces or perimeters is presented. After determining pairwise inter-object distances between sensors of the ego-object and sensors of the remote object, the relative location, translation and / or orientation are determined using multi-dimensional scaling and double-centring operations. The method does not require knowledge of the sensor positions of the remote object, and the ego- and remote objects may have different sizes and numbers of sensors.

Techniques are provided for caching data during an on-demand restore using a cloud block map. A client may be provided with access to an on-demand volume during a restore process that copies backup data from a snapshot within a remote object store to the on-demand volume stored within local storage. In response to receiving a request from the client for a block of the backup data not yet restored from the snapshot to the on-demand volume, the block may be retrieved from the snapshot in the remote object store. The block may be cached within a cloud block map stored within the local storage as a cached block. The client may be provided with access to the cached block.

A system and method for operating a vehicle. A gaze sensor acquires an image of the vehicle driver's face. An environmental sensor acquires environmental data related to environmental conditions and remote objects. A human-machine interface and a processor are also included. The processor is configured to acquire a user profile of the vehicle driver, wherein the user profile indicates visible areas and blind spots in the driver's field of vision; determine the driver's gaze status from the image; determine the location of remote objects from the environmental data; analyze the gaze status and environmental data to determine if the remote objects are in the driver's blind spots; and perform remedial measures at the human-machine interface to enhance the visibility of the remote objects in the blind spots.

A safety system (20) comprises a rearview mirror (30) and a control device (40), wherein the rearview mirror (30) has a mirror area (32), a rearview mirror input interface (36) and an output device (31, 35), wherein the control device (40) has a control device input interface (41) and a control device output interface (42), wherein the control device (40) is configured to receive a first signal (S41) via the control device input interface (41), which first signal (S41) carries first information about a remote object (15), wherein the control device (40) is configured to locate the remote object (15) and determine a relative velocity (16) depending on the first information, wherein the control device (40) is configured tounder a given first condition, a second signal (S42) is generated and sent via the control device output interface (42) to the rearview mirror input interface (36), which second signal (S42) carries second information about an output, and wherein the rearview mirror (30) is configured to perform an optical output depending on the second information via the output device (31, 35).

A method in a controller of a mining vehicle entails detecting a remote object, determining a distance between the mining vehicle and the remote object and determining that the remote object is not in a direct line of sight with respect to the mining vehicle. The method entails adjusting the determined distance using a compensation factor, thereby obtaining a compensated distance between the mining vehicle and the remote object. The method entails performing a collision avoidance action based on the compensated distance between the mining vehicle and the remote object.

Techniques are provided for orphan object detection, invalid sequence number detection, and asynchronous object cleanup. A storage system may store data within one or more tiers of storage, such as a storage tier (e.g., solid state storage and disks maintained by the storage system), a remote object store (e.g., storage provided by a third party storage provider), and / or other storage tiers. Orphan objects, within the remote object store, that are no longer used by the storage system may be detected and / or deleted. When an aggregate of volumes is deleted, corresponding objects, within the remote object store, may be identified and / or deleted. Invalid sequence numbers (e.g., lost or corrupt sequence numbers locally maintained in a metafile) assigned to objects within the remote object store may be identified, deleted, and / or fixed.

A method is presented for detecting the position, translation, and / or orientation of a remote object relative to an ego object, each of which has a set of sensors arranged on its respective outer surfaces or circumferences. After determining pairwise distances between the sensors of the ego object and the sensors of the remote object, the relative position, translation, and / or orientation are determined using multidimensional scaling and double-centering operations. The method does not require knowledge of the sensor positions of the remote object, and the ego object and the remote object can have different sizes and numbers of sensors.

A method of detecting a location, a translation and / or an orientation of a remote object relative to an ego-object, each having a set of sensors arranged at respective outer surfaces or perimeters is presented. After determining pairwise inter-object distances between sensors of the ego-object and sensors of the remote object, the relative location, translation and / or orientation are determined using. The method does not require knowledge of the shape or sensor positions of the remote object, and the ego- and remote objects may have different sizes, shapes and numbers of sensors.

Techniques are provided for caching data during an on-demand restore using a cloud block map. A client may be provided with access to an on-demand volume during a restore process that copies backup data from a snapshot within a remote object store to the on-demand volume stored within local storage. In response to receiving a request from the client for a block of the backup data not yet restored from the snapshot to the on-demand volume, the block may be retrieved from the snapshot in the remote object store. The block may be cached within a cloud block map stored within the local storage as a cached block. The client may be provided with access to the cached block.

An Offner spectrometer for use in a multi-slit hyperspectral imaging system for imaging a remote object includes a first surface that is a transmissive surface having a narrow slit receiving light from a multi-spectral light source, a second curved transmissive surface receiving light from the first surface, a third curved reflective surface receiving light from the second surface, a fourth reflective surface that is a curved surface with a grating receiving light from the third surface and diffracting and reflecting light, a fifth surface that is curved reflective surface receiving light from the fourth surface, a sixth curved transmissive surface receiving light from the fifth surface, and a seventh surface that is a focal plane of the Offner spectrometer receiving light from the sixth surface. Each curved surface has X and Y prescriptions that are decoupled.

A safety system (20) for a vehicle (10) comprises a display arrangement (30) and a control device (40), wherein the display arrangement (30) has a display (35) and a display arrangement input interface (36), wherein the control device (40) has a control device input interface (41) and a control device output interface (42), wherein the control device (40) is configured to receive a first signal (S41) from a radar device (12, 13, 14) via the control device input interface (41), which first signal (S41) carries at least temporary information about at least one distant moving object (15), wherein the control device (40) is configured to locate the at least one distant object (15) depending on the first information and to determine a position and a speed (16) of the distant object (15), wherein the control device (40) is configured toto generate a second signal (S42) via the control device output interface (42) and send it to the display arrangement input interface (36), which second signal (S42) carries a second piece of information about an output, and wherein the display arrangement (30) is configured to perform an optical output on the display (35) depending on the second piece of information about the display (35), which optical output comprises a depicted object (15') representing the remote object (15) and a third piece of information about the determined velocity (16) of the remote object (15).

A LiDAR system comprising a photonic integrated circuit using a switching tree 209 to provide directivity to both transmission of the ranging signal and reception of the reflection signal. The switching tree comprising plural switches 202 switching emission light 103 between a plurality of exit ports 204 for selectively illuminating a remote object to produce a reflection, and directing the reflection received at a same exit port to a common port 201. The system also splitting the light prior to being received by the switching tree and on reception of the reflection a coupler combines the reflection 105 at the common port with a split portion of the emission light for providing a signal at a beat frequency between the internal portion and the reflection. The PIC preferably includes a photodetector. The switching tree preferably comprises a transmitter switching tree and a matching receiver switching tree. The switching tress preferably being binary trees of Mach-Zehnder interferometer switches 202. The LIDAR system including first and second channels, each comprising a PIC as above and a controller to determine from the beat frequencies of the first and second channels a distance to or velocity of the object. The LIDAR light source preferably having an optical switch to switch emitted light between the two channels.

The technology relates to a long-range optical device for a firearm with an objective and an eyepiece, through which an observation beam path is formed for aiming at a target, the long-range optical device further comprising an opto-electronic display device, wherein the display device comprises an LCoS display for displaying variable data or a target mark, wherein a display beam path of the display device runs at least partly in the observation beam path for displaying the remote object.

Various systems and processes may be used to achieve measurement of remote objects. In particular implementations, systems and processes for remote object measurement may include the ability to capture a digital image of an object to be measured and electronically sense the distance to the object to be measured. The systems and processes may also include the ability to electronically determine a size of the measured object and transmit the location, image, and determined size of the object to a remote server system.

A system and method for determining a position of viewed object is disclosed. The system includes a head / eye tracker (108) configured to sense at least one gaze target in an environment corresponding to a gaze of an eye or head of a first operator and at least one remote object sensor (112) configured to sense an object corresponding to the gaze target. The system further includes at least one controller (116) in communication with the head / eye tracker and the remote object sensor configured to receive gaze target data, transmit commands to the remote object sensor to steer transmission beams toward the viewed object based on the gaze target data, wherein a reflection of the steered transmission beams from the object is received by a receiver (136), receive reflection data from the receiver, generate object position data based on the reflection data, and transmit the object position data.

Methods (100, 200, 300, 400, 700, 800) for controlling a carrier vehicle (10), comprising: Acquisition (102) of objects (RO) by means of a control (34) of the carrier vehicle (10), wherein the acquisition (102) of objects (RO) includes receiving remote object data, which includes remote object data class data and location data, and which includes remote vehicles (RV) and remote infrastructure (RI); Assign (104), by the control (34), an object class to each of the detected objects (RO) based on the class data; Assign (106), by the control (34), a priority value for each of the captured objects (RO) based on the object class of each of the captured objects (RO); Assigning (108), by the controller (34), a transmit time interval, TTI, to cooperative sample messages, CSMs, based on the priority value, to modify the TTI of each of the CSMs according to the assigned TTI; Transfer (109) the CSMs to the remote vehicles (RV); where the object class includes an unprotected road user, VRU, class, a vehicle class, a traffic sign class, and another class; where the vehicle class refers to remote vehicles (RV); where the VRU class refers to pedestrians and cyclists; and where the traffic sign class refers to traffic signs and traffic symbols; wherein the assignment (104), by the control (34), of the object class to each of the captured objects (RO) based on the class data includes the assignment (104) of the VRU class to at least one of the remote objects (RO) in response to the capture (102) of the objects (RO) to indicate that at least one of the remote objects (RO) is a VRU; where the assignment (106), by control (34), of the priority value to each of the captured objects (RO) based on the object class of each of the captured objects (RO) includes: Assigning (106, 202, 204) a VRU priority value in response to assigning (106, 204) the VRU class to at least one of the remote objects (RO); Determine (304), based on the location data, that the VRU is moving; Increasing (304) the VRU priority value by an initial, predetermined VRU value in response to determining (304) that the VRU is moving; Determine (306), based on the location data, whether the VRU is located on a sidewalk (CW); Increasing (306) the VRU priority value by a second, predetermined VRU value in response to determining (306) that the VRU is on the sidewalk (CW); and where a change in the VRU priority value is equal to the sum of the first, predetermined VRU value and the second, predetermined VRU value.

Techniques are provided for restoring a directory from a snapshot of a volume backed up to an object store. The snapshot may be backed up from a node to the object store, such as a cloud computing environment. A user may want to restore the directory within the volume without having to restore the entire volume, which otherwise would waste computing resources, storage, network bandwidth, and time. Accordingly, the techniques provided herein are capable of restoring just the directory from the snapshot that is stored within the object store. Because snapshot data of the snapshot may be stored across multiple objects within the object store, certain objects are identified as comprising snapshot data (backup data) of the directory and content items within the directory. In this way, the snapshot data of the directory is restored from these objects to a restore directory at a restore target.

Techniques are provided for storage tier verification checks. A determination is made that a mount operation of an aggregate of a set of volumes stored within a multi-tier storage environment has completed. A first metafile and a second metafile are maintained to track information related to the storage of objects of a volume of the aggregate within a remote object store that is a tier of the multi-tier storage environment. A distributed verification is performed between the first metafile and the second metafile to identify an inconsistency. Accordingly, the first metafile and the second metafile are reconciled to address the inconsistency so that storage information within the first metafile and the second metafile are consistent.

An eye test administered to a remote subject over a computer network, where sensors provide feedback through the computer network so that light source position, light source brightness and / or a display configuration and / or parameter setting related to a visual display that is used to implement the remote eye test.

The utility model discloses an infrared night vision device, which comprises a main body, a control module, an aiming unit and an infrared distance measuring unit, the control module is respectively connected with the aiming unit and the infrared distance measuring unit, and the control module, the aiming unit and the infrared distance measuring unit are respectively arranged in the main body; the infrared distance measuring unit comprises an infrared receiving and transmitting module, a measuring module and a processing module, the processing module is connected with the measuring module and the infrared receiving and transmitting module, the infrared receiving and transmitting module is used for receiving and transmitting infrared light, and the measuring module is used for measuring distance. A remote object can be observed through the aiming unit, the infrared distance measuring unit can measure the distance of the observed object, the control module can feed back the distance measured by the infrared distance measuring unit to the aiming unit, and a user can directly know the distance between the current observed object and the user. Subsequent hunting, observation and the like are facilitated, and the use convenience of the equipment is improved.

The application provides a cold and hot data management method and device, electronic equipment and storage medium. The method comprises the following steps: receiving a cold data migration strategy configured by a user; migrating target data in a local database to a remote object storage according to the cold data migration strategy; when a hot request for the migrated data is received, restoring the migrated data from the remote object storage to a temporary data container; verifying the integrity of the data in the temporary data container; after the verification is passed, switching the access to the migrated data in the local database from accessing the remote object storage to accessing the data in the temporary data container. Thus, the intermediate state of data inconsistency or service interruption of the production environment during switching is fundamentally eliminated, and the reliability and continuity of the data service are significantly improved.

Method (100) for controlling a carrier vehicle (10), comprising: Receiving (102) object data by a controller (34) of the host vehicle (10) from a plurality of sources, wherein the plurality of sources comprises remote objects (RO) and a sensor system (28) of the host vehicle (10), the sensor system (28) is in communication with the controller (34), the sensor system (28) comprises a plurality of sensors (40), the sensor system (28) sends internal object data to the controller (34), the remote objects (RO) sends external object data to the controller (34) of the host vehicle (10), the external object data comprises cooperative sensor messages (CSMs) from the remote objects (RO); Identifying (202) a target object by the controller (34) of the host vehicle (10) using the object data from the plurality of sources, wherein the object data comprises target object data and wherein the target object data is the object data specifically related to the target object; determining (204), by the controller (34), that the target object data is available from more than one of the plurality of sources; in response to determining (204) that the target object data is available from more than one of the plurality of sources, merging (206) by the controller (34) the target object data available from more than one of the plurality of sources to create a single data set about the target object; Determining (302) that the target object is moving in the same direction as the host vehicle (10); Determining and monitoring (304) a proximity of the target object to the host vehicle (10), wherein the proximity of the target object to the host vehicle (10) is a distance from the target object to the host vehicle (10); Determining (304) a probability that the target object physically contacts the host vehicle (10); and Assigning (304) a first priority level based on the proximity of the target object to the host vehicle (10) and the likelihood of the target object physically contacting the host vehicle (10) in response to determining (302) that the target object is moving in the same direction as the host vehicle (10).

A system and method for improving aiming at ranged objects in a multiplayer online battle arena (MOBA) game are provided. Initially, a touch gesture is received at a tool selection area in a dynamic image provided by the MOBA game, allowing the user to select a tool (e.g., an ability, virtual weapon, spell, etc.) to aim at an object within the virtual world. Next, a second touch gesture is received at a minimap in the virtual world, which automatically adjusts the dynamic image from an angle corresponding to the user-controlled character to an angle representing the selected location within the minimap. Finally, a third touch gesture is received at the aiming tool, which provides the aiming range of the selected tool within the adjusted dynamic image, allowing the user to aim at objects more precisely and accurately.

In some examples, a database system includes processing modules with access to a remote object store and a local database storage associated with the database system. The processing modules perform a database operation that involves use of a plurality of instances of spool data. The processing modules store a first instance of spool data in the remote object store based on a first characteristic of the first instance of spool data, and the processing modules store a second instance of spool data in the local database storage based on a second characteristic of the second instance of spool data.