26 results about "Walking time" patented technology

An object of the system according to the embodiment is to make it easy to record a route during mountain climbing or hiking, specify a place where animals and plants are captured, and grasp a real-time position of a group member.SOLUTION: A system includes a route recording part, an image authentication part, and a position grasping part. The route recording unit records a route along which the user has walked, a walking time, a captured photo (and a capturing location thereof), a comment, and a recording memo as a log. The image authentication unit authenticates the image of the animal or plant recorded by the route recording unit. The location grasping unit grasps the real-time locations of the group members recorded by the route recording unit.SELECTED DRAWING: Figure 1

The application discloses a sightseeing vehicle scheduling method and system based on multi-source data fusion, the method comprising the following steps: acquiring vehicle operation data, tourist distribution data, station card swiping data, reservation data and scenic road data, constructing a scenic service graph, and determining an associated scenic spot set according to the walking time from the scenic spot area to the station; combining the number of tourists, the departure rate, the time slice length, the shunting proportion, the number of reservations and the number of people who have been waiting to obtain an estimated value of the comprehensive demand of each station; correcting the remaining demand according to the actual number of passengers after the vehicle arrives at the station and picks up passengers, and converting the remaining demand into the number of service vehicles required; constructing a time expansion network on the basis of the scenic service graph, and solving the time expansion network in combination with the vehicle, the seat, the power, the road and the station capacity constraints to generate a scheduling instruction.

This invention provides an intelligent examination scheduling method based on time consumption prediction and dynamic optimization, belonging to the technical field of medical service management. The method includes: removing extreme data using a quantile filtering strategy and preprocessing equipment and examination time information; obtaining reasonable time consumption through random forest regression model training combined with departmental percentile truncation; integrating examination time with equipment resource status, calculating queuing time based on total time / number of equipment, and accumulating time for patients with multiple examinations; traversing operating time at 1-minute granularity, processing patient check-in and departmental queues in real time; generating a full permutation of examination items and filtering by walking time, selecting the optimal order with the earliest completion time; and finally outputting standardized scheduling results. This invention significantly reduces patient waiting time, improves hospital equipment utilization, has a significant optimization effect on high-frequency departments, and the scheduling results closely match actual hospital operations, enabling data-driven management decisions.

The invention discloses a customized bus scheduling model considering U-turn penalty and passenger getting-on and getting-off station recommendation and a solving algorithm of the customized bus scheduling model. A modeling framework of two-way waiting points and U-turn penalty is introduced; the method comprises the following steps of: splitting the vehicle into a pair of waiting points in opposite directions, depicting the minimum number of times of turning around required when the vehicle runs between the stations in different directions through a turning-around matrix, and quantifying the turning-around behavior into cost and constraint. On the basis, the problem is modeled into a mixed integer programming model, constraints such as passenger walking time, the maximum walking distance, passenger time windows, vehicle capacity constraints, vehicle starting and ending point positions and the upper bound of the number of times of turning around are comprehensively considered, and a branch pricing algorithm is designed for solving. The model and the algorithm are integrated into a bus platform, so that a better driving route can be customized for the bus.

The invention discloses an interface display method and device. And the waiting interface is updated by displaying the walking navigation route and the walking time bubble on the waiting interface and based on a refreshing event for triggering the waiting interface to update. Therefore, the time for the user to arrive at the boarding point can be accurately pushed, and the driver and passenger meeting efficiency and the pick-up and pick-up efficiency are improved.

The application discloses a kind of climbing sightseeing point excavation methods in urban and rural landscape environment, comprising the following steps: extracting settlement boundary and water system boundary in settlement remote sensing image, calculating settlement geometric center in settlement boundary;The settlement geometric center is mapped to DEM data, the walking time matrix of each grid of DEM is calculated with settlement center as starting point, and the reachable domain is obtained according to the set walking time threshold t0;The visual field of each grid point is calculated within the scope of reachable domain, and finally the climbing sightseeing point is obtained by sorting and superimposition processing of each grid visual field.The method intelligently excavates the landscape sightseeing point in urban and rural landscape environment by means of remote sensing image, DEM data, and topographic analysis means, and has good universality for different types of settlement landscape site selection with simple parameter setting and convenient use.

The invention discloses a contour cutting track determination method and device, equipment and a storage medium. According to the scheme, the contours in the original image can be divided into different sub-regions according to the positions of the center points of the contours, then the target contour sequences of the different sub-regions are determined again according to the target cutting sequence mode, in this way, it can be ensured that the contours are cut in order according to the target cutting sequence mode, and the contour cutting efficiency is improved. Moreover, after the target contour sequence is determined, the cutter starting point coordinates of all the contours need to be re-determined according to the radius of the cutting tool, so that the distance between the cutter starting point coordinates of every two adjacent contours is shortened, the tool idle running time during contour cutting is shortened, and the contour cutting efficiency and quality are improved.

The invention discloses a kind of urban and rural landscape environment overlook easy to detect point excavation method, comprising the following steps: extracting settlement boundary and water system boundary from settlement remote sensing image, calculating settlement geometric center in settlement boundary;The settlement geometric center is mapped to DEM data, the walking time matrix of each grid of DEM is calculated with settlement center as starting point, and the reachable domain is obtained according to the set walking time threshold t0;The visual field of each grid point is calculated within the scope of reachable domain, and finally the overlook easy to detect point is obtained by the video frequency of each grid visual field Substacking and sorting processing, this method uses remote sensing image, DEM data, and intelligently excavates the high-quality overlook easy to detect point in urban and rural landscape environment by means of topographic analysis, simple parameter setting during operation, easy to use, and has good universality for different types of settlement landscape site selection.

The utility model provides a kind of transfer support for automobile nylon pipe assembly, including base, support rod and rack, support rod is connected on base and extends upward;Rack is sleeved on the outer periphery of support rod, and is rotatably connected with support rod;Rack includes several sliding units and several hanging rod units, sliding unit is used to joint with the joint of automobile nylon pipe and guide automobile nylon pipe to slide inside sliding unit, and hanging rod unit is used to hang automobile nylon pipe;Sliding unit and hanging rod unit are distributed along the circumference of rack.The utility model provides a kind of transfer support for automobile nylon pipe assembly, through sliding unit and hanging rod unit, the orderly classification of automobile nylon pipe is realized, and the problem that the time consumption of taking material due to pipeline staggered stacking is avoided;Through the rotatable setting of rack, the walking time of operator is greatly reduced, the taking material efficiency is improved, and the production efficiency of assembly production line is improved.

Disclosed are a system for detecting a cardiac function in a walk test, and an electronic device thereof, comprising: acquiring first inertial measurement information, wherein the first inertial measurement information represents inertial measurement information of a subject's body; extracting to obtain, according to the first inertial measurement information, seismocardiogram information; extracting to obtain, according to the first inertial measurement information, walking information; and analyzing to obtain, according to the seismocardiogram information and the walking information, an identification result regarding cardiac function. Without being limited by walking sites, walking time, and medical staff, the use of a walk test outside the hospital is greatly facilitated, the specificity of cardiac function assessment is achieved, and the interference to data processing caused by other diseases, such as muscle weakness and pulmonary dysfunction of a subject during walking, is eliminated.

The invention provides a control method of an automatic pool cleaning device and the automatic pool cleaning device. The control method comprises the steps that the automatic pool cleaning device is controlled to move in a pool; in the moving process, the automatic pool cleaning device is controlled to execute preset movement based on a preset rule; if the to-be-cleaned object is detected, the automatic pool cleaning device is controlled to go to clean the to-be-cleaned object; wherein the preset rule comprises the preset walking time or the preset walking distance of the automatic cleaning device for the water pool. The detection range is expanded, the detection efficiency and success rate are improved, and therefore the cleaning efficiency of the automatic cleaning device for the water pool is improved.

The application discloses a time-sharing control method for remote control and automatic iron removal, which comprises the following steps: S1, an iron remover is initially located above a feeding belt and is in an iron absorption excitation state; S2, the iron remover is controlled to enter an iron release walking state in a time-controlled or remote operation mode, and the walking distance is determined according to an infrared limiting distance and a walking time, and the walking time is accurate to a second level; S3, after the iron remover reaches an iron release position, the iron remover enters an iron release and magnetism release state, and the magnetism release time is determined according to the time for the iron remover to run stably to a stationary state and the time for the adsorbed iron pieces to be completely released; S4, after the iron release step is completed, the iron remover is controlled to enter an iron absorption walking state, and the walking distance is determined according to an infrared limiting distance and a walking time, and the walking time is accurate to a second level; and S5, when the iron remover reaches above the high-pressure roller feeding belt, the iron remover is controlled to enter the iron absorption excitation state, and the above steps are circularly executed. The application improves the production status of manual operation of the iron remover and effectively improves the work efficiency and safety.

The utility model relates to the technical field of dining tables, and discloses a dining table convenient to store, which comprises a dining table and a mounting carrier used as a storage assembly, a placement assembly, an auxiliary supporting assembly, a reminding assembly and a fence assembly, and the storage assembly is used for carrying out storage operation on the dining table. By arranging the storage assembly, the dining table can be conveniently stored, the situation that passing diners cannot conveniently pass through the dining table and walk around the way is avoided, the extra walking time is shortened, and the practicability of the dining table is improved; by arranging the auxiliary supporting assembly, the sliding rod can be conveniently supported, and meanwhile the sliding storage effect of the sliding rod is accelerated; a reminding assembly is arranged, so that a diner who arrives later is provided with a person in the dining position, and the phenomenon that the person sits disorderly is reduced; by arranging the fence assembly, the range of tableware on the dining table is conveniently limited, and the tableware and dishes are prevented from falling off.

This invention discloses a method for constructing the boundary of a 15-minute urban living circle based on multi-constraint paths, specifically relating to the fields of urban spatial analysis and edge computing. The method includes inputting community units, road segments, pedestrian crossings, passageway segments, open segments, entry edges, and blocking segments into edge nodes. An edge graph is generated within the edge nodes according to their connectivity relationships, and corresponding connections are severed using blocking segments. The edge graph and access points are then output. Using the access points and edge graph as input, walking time is accumulated segment by segment along the edge graph within the edge nodes. Road segments, pedestrian crossings, passageway segments, and open segments with a cumulative walking time not exceeding 15 minutes and directly connected to the preceding segment are sequentially written into the receiving layer. By constructing the edge graph within the edge nodes, generating the receiving layer, and using the search results of the area to be inspected to reverse-filter out variant outer edge chains that include unsearched objects, the method can relatively suppress the inclusion of non-continuously accessible internal spaces into the living circle boundary, making the obtained outer edge more consistent with the actual walking receiving relationship.

The present application relates to the technical field of rehabilitation equipment, in particular to a device for walking rehabilitation training, a server and a walking time, distance or load recommendation method. The device for walking rehabilitation training provided by the present application comprises a device main body, a brake wheel arranged at the bottom of the device main body, and a handrail comprising a left handrail and a right handrail, both of which are connected to the device main body. The device further comprises a brake wheel sensor coupled with the brake wheel to determine the rotation state information of the brake wheel, a pressure sensor arranged at the left handrail and the right handrail to respectively acquire the pressure information of the left handrail and the right handrail, and a control unit in communication connection with the brake wheel sensor and the pressure sensor. The control unit can execute the following steps: a data acquisition step of acquiring the rotation state information and the pressure information of multiple walking movements; and a recommendation step of displaying the recommendation information of the walking time, distance or load obtained according to the rotation state information and the pressure information.

The walking speed scale receiving section (111) receives a walking speed scale input as a scale indicating the walking speed of a user. The walking time acquiring section (120) acquires walking time information indicating the length of time of walking by the user as a walking time. The thermal sensation estimating section (130) estimates the thermal sensation after walking by the user based on the received walking speed scale and the acquired walking time information as utilization information.

The application provides a kind of intelligent podium charging cabinet, including podium body, the tabletop of podium body is equipped with charging cavity below;Charging cavity is equipped with power supply box, is located in the upper portion of charging cavity, and the front side of power supply box is equipped with several charging interfaces;The lower portion of charging cavity, power supply box is equipped with first charging area and second charging area, first charging area is located above second charging area, and they are separated by supporting plate, and the top of supporting plate is equipped with several left and right interval distribution baffle;Second charging area is equipped with intelligent control box, and intelligent control box is connected in series on the power input circuit of power supply box, and microcomputer time control switch is arranged on intelligent control box.This charging cabinet combines charging cabinet with podium, without additional placement independent charging cabinet, saves classroom space.Moreover, teachers can directly take and place equipment charging during teaching process, reduces walking time, and improves teaching efficiency.

The invention provides a system suitable for detecting cardiac functions in a walking test and electronic equipment thereof, and the method comprises the following steps: obtaining first inertial measurement information which represents inertial measurement information of a subject body; according to the first inertial measurement information, extracting heart earthquake information; according to the first inertial measurement information, extracting walking information; and according to the cardiac shock information and the walking information, analyzing to obtain an identification result about the cardiac function. The method is not limited by walking sites, walking time and medical staff, greatly facilitates use of walking tests outside hospitals, achieves specificity of cardiac function evaluation, eliminates interference of muscle weakness, pulmonary dysfunction and other diseases of subjects in the walking process on data processing, and improves the accuracy of cardiac function evaluation. The method is an innovative development of traditional walking tests which are used for many years all over the world.

This invention belongs to the field of smart tourism technology and discloses a method for planning three-dimensional dynamic tour routes in marine heritage tourist areas by integrating multi-source data. The invention includes: acquiring multi-source data of the scenic area; calculating the walking time of tourists between attractions based on three-dimensional spatial coordinates; predicting the estimated queuing time of each attraction at different times in the future based on dynamic visitor flow data; planning an initial three-dimensional tour route based on walking time, estimated queuing time, operating time data, and tourist preference and constraint data using a hybrid heuristic algorithm; and triggering route replanning when the estimated queuing time of any unvisited attraction within the tour route exceeds the maximum queuing time threshold for a single attraction, thereby generating an optimized three-dimensional tour route. This invention solves the problem that existing technologies cannot comprehensively handle three-dimensional terrain, real-time queuing, multi-dimensional time windows, and personalized interests, achieving high-precision personalized tour route planning with dynamic replanning capabilities.

The invention discloses an elevator allocation method. The method comprises the steps that S1, identity information and elevator taking permission of passengers are obtained; s2, the total walking time needed by the passengers walking from the gate to the elevator hall is determined; s3, according to the preset predicted time length, the dispatching starting time for distributing the response elevator to the passenger is determined; s4, determining a deployment starting moment according to a first moment and the total walking time, wherein the first moment refers to a moment when the identity information of the passenger is acquired at the gate; s5, elevator deployment is started at the deployment starting moment, and a response elevator is selected for the passenger; and S6, the passengers are informed of the response elevators allocated to the passengers. According to the method, the problem that the elevator arrival time is not accurately predicted due to the fact that the total walking time is too long when the gate machine is too far away from the elevator hall is solved, and therefore the rationality of the elevator dispatching result can be improved.

A student access appointment method of an education terminal is suitable for a student terminal, and the method comprises the steps that the student terminal forms an access request based on a first input set input in an appointment interface, and the first input set comprises teacher identity and appointment time; obtaining the position of a teacher terminal corresponding to the teacher identity, and forming walking time based on a campus map built in the student terminal and in combination with the position of the student terminal; forming reservation window closing time based on a schedule timetable stored in the student terminal; according to the reservation window closing time, the walking time and the reservation time, calculating to obtain remaining time S, and according to the remaining time S, judging whether the access request is sent to the teacher terminal; if yes, the access request is sent to the teacher terminal, and whether a reservation reminding message is sent to at least one emergency contact way bound to the teacher terminal or not is judged by combining the remaining time S and first early warning time S1 preset in the student terminal; and if not, the reservation interface feeds back a reservation failure reminding message.

The utility model provides a clothes airing machine and a control device thereof, and the control device of the clothes airing machine comprises a bin body, a bin cover, a control unit and a trigger unit; the bin cover is mounted on the bin body, and a gap for clamping is formed between the bin cover and the bin body; the trigger unit is arranged on the bin cover and generates a trigger signal based on a trigger action; the control unit is arranged in the bin body, electrically connected with the trigger unit and used for generating a clothes airing machine control signal according to the trigger signal sent by the trigger unit. According to the control device, the bin cover and the bin body are matched to form the gap used for being clamped to the airing rod, so that the airing rod can serve as a hanging point of the control device, walking time of a user is saved, user operation is facilitated, the user can control the clothes airing machine to ascend or descend or control other functions of the clothes airing machine by touching or pressing the controller cover, operation is convenient, and user experience is improved. And the intelligent degree is high.

The invention relates to a school district configuration dynamic optimization method and device and electronic equipment, and belongs to the technical field of smart city and educational resource optimal configuration, the method comprises the steps that a space-attribute joint table of comprehensive data is constructed, and the comprehensive data comprises attribute information and spatial data of schools, residential quarters, school districts, geographical barriers and walking road networks; taking the school as a center, taking the real-time walking time as an upper limit, and taking the pedestrian road network as a constraint condition, and determining a coverage isochronous circle of the school; acquiring a first proportion of the residential quarters which are not covered by the isochronous circle to the total residential quarters, and a second proportion of school-age children in the residential quarters which are not covered by the isochronous circle to the total school-age children; and dynamically adjusting school site selection according to a size relationship between the first proportion and a first proportion threshold value, a size relationship between the second proportion and a second proportion threshold value, and a size relationship between the real-time walking time and a time threshold value. According to the invention, the technical problem that school area planning is difficult to meet refined and dynamic management requirements is solved.

The application discloses a sensor error determination method, a production system, a program product and a storage medium. The method is based on a preset calibration data set to construct a mapping relationship between a walking distance and a walking time. The calibration data set includes time parameters and distance parameters. The time parameters include timestamp data of at least two marking points on a calibration sample when the at least two marking points pass through at least one calibration station. The distance parameters include physical distance data between the at least two marking points. Based on the timestamp data and the mapping relationship, the calculated distance parameters of the calibration sample when passing through the at least one calibration station are calculated. The calculated distance parameters and read distance parameters are fitted to determine error parameters of the sensor. The read distance parameters include walking readings collected by the sensor when the at least two marking points pass through the at least one calibration station. The calibration and calibration of the sensor error can be realized without stopping and disassembling the equipment, and the calibration process is greatly simplified, and the production interruption and material loss are reduced.

This application provides a robot walking control method, apparatus, device, storage medium, and product, including: acquiring the robot's walking state and the robot's accumulated walking time at the current moment; determining the robot's gait information at the current moment based on the accumulated walking time and the robot's gait planning information; and using the gait information and the current walking state as the target walking state at the current moment. Based on the mapping relationship between the target walking state and the control strategy, determining the target control strategy mapped to the target walking state at the current moment; this mapping relationship is determined based on the target walking states at multiple moments prior to the current moment. Controlling the robot's walking based on the target control strategy. The technical solution of this application embodiment enables the robot to autonomously learn and optimize through interaction with the environment to determine the current control strategy. The robot can walk stably in complex and changing environments, which is beneficial to improving the flexibility and adaptability of robot walking control.

1. The name of the design product: the graphical user interface of the electronic device for walking navigation display. 2. The use of the design product: the design product is used for an electronic device. 3. The design points of the design product: the interface content of the graphical user interface. 4. The picture or photo that best indicates the design points: design 1 interface change state figure 1. 5. Design 1 is designated as the basic design. 6. The use of the graphical user interface: an interactive interface for displaying navigation information. 7. The change state of the graphic user interface is illustrated as follows: the interface of the interactive interface for displaying navigation information, the main view of design 1 is the interface appeared after the user touches the touch area of the electronic device (such as the touch bar of the leg of AR glasses) and inputs the starting mode and destination by voice; the interface change state diagram 1 of design 1 is the interface displayed after the electronic device enters the “walking navigation” mode from the main view of design 1 after data processing, in which the preview information of walking to the destination input by voice is displayed, including the walking route, walking time and distance, etc.; the interface change state diagram 2 of design 1 is the interface displayed after the electronic device enters the walking navigation from the interface change state diagram 1 of design 1 by clicking the touch area of the electronic device (such as single-clicking the touch bar of the leg of AR glasses); the interface change state diagram 3 of design 1 is the interface displayed after jumping from the interface change state diagram 2 of design 1 when navigating to the place where turning is needed; the main view of design 2 is the interface appeared after the user touches the touch area of the electronic device (such as the touch bar of the leg of AR glasses) and inputs the starting mode and destination by voice; the interface change state diagram 1 of design 2 is the interface displayed after the electronic device enters the “walking navigation” mode from the main view of design 2 after data processing, in which the preview information of walking to the destination input by voice is displayed, including the walking route, walking time and distance, etc.; the interface change state diagram 2 of design 2 is the interface displayed after the electronic device enters the walking navigation from the interface change state diagram 1 of design 2 by clicking the touch area of the electronic device (such as single-clicking the touch bar of the leg of AR glasses); the interface change state diagram 3 of design 2 is the interface displayed after jumping from the interface change state diagram 2 of design 2 when navigating to the intersection in the red light state; the main view of design 3 is the interface appeared after the user touches the touch area of the electronic device (such as the touch bar of the leg of AR glasses) and inputs the starting mode and destination by voice; the interface change state diagram 1 of design 3 is the interface displayed after the electronic device enters the “walking navigation” mode from the main view of design 3 after data processing, in which the preview information of walking to the destination input by voice is displayed, including the walking route, walking time and distance, etc.; the interface change state diagram 2 of design 3 is the interface displayed after the electronic device enters the walking navigation from the interface change state diagram 1 of design 3 by clicking the touch area of the electronic device (such as single-clicking the touch bar of the leg of AR glasses); the interface change state diagram 3 of design 3 is the interface displayed after jumping from the interface change state diagram 2 of design 3 when navigating to the end or ending the navigation by double-clicking the touch area of the electronic device (such as the touch bar of the leg of AR glasses).