10 results about "Obstacle course" patented technology

This invention provides a device for a small-range displacement obstacle vehicle. The lifting forklift or trolley has two forks, and a hook ring is fitted on the bottom pin at the rear end of each fork. A connecting plate is provided between the two forks near the front end, and the upper surface of the connecting plate is not lower than the upper surface of the two forks. A positioning shaft is vertically provided at the middle position of the connecting plate through a positioning hole. A base plate assembly is hinged above the connecting plate through the positioning shaft. The base plate assembly rotates horizontally relative to the forks and the connecting plate around the positioning shaft. Tire clamps are hinged to the two outer ends of the base plate assembly. The lifting system of the lifting forklift or trolley allows the two forks to move up and down, and the movement of the lifting forklift or trolley enables the movement of the obstacle vehicle. This solves the problem of limited space around the obstacle vehicle preventing its movement, while reducing the physical labor intensity of workers.

1. Name of the designed product: Inflatable obstacle course. 2. Use of the designed product: For entertainment. 3. Design points of the designed product: In shape. 4. Picture or photo best indicating the design points: Perspective view.

This invention discloses a transparent and trustworthy method for achieving skill work results based on DLF (Device Flow Framework), comprising the following steps: constructing a vertical model dataset classification system and skill metadata templates, and predefining OFD (Obstacle Course Function) electronic credential templates; recording operational behaviors in real time during skill execution; mapping the recorded information to the corresponding OFD templates to generate a trustworthy OFD electronic credential for a single skill result; generating a DLF trustworthy credential set and a DLF visual call overview diagram for multi-step skill chains; and binding the DLF trustworthy credentials with the vertical model results to achieve bidirectional full-link traceability. This invention constructs a trustworthy electronic credential mechanism for the entire process of skill call. It ensures that each skill call obtains a unique, tamper-proof, and trustworthy identity, fundamentally solving the problems of unclear sources and untraceable processes in skill work results.

1. The name of the design product: toy (adventure and maze ball two-in-one game machine). 2. The use of the design product: for playing. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: perspective view 1. 5. Other circumstances that need to be explained: the panel parts referred to in A and B are made of transparent material.

The present disclosure relates to systems and methods for testing functional vision of a subject. The systems and methods utilize a plurality of obstacle courses, a plurality of contrast levels of the obstacle courses, a plurality of illumination levels, video-recording, and a robust scoring algorithm to assess the mobility of the subject.

The utility model discloses a single-plank bridge for obstacle training, and particularly relates to the technical field of obstacle training, which comprises a bridge plate, a plurality of supporting cylinders and a plurality of supporting rods, and the stretching mechanism comprises a first supporting plate arranged on one side of the bridge plate, and a second supporting plate is arranged on the other side of the bridge plate. The first connecting columns, the first supporting plates, the second connecting columns, the second supporting plates and other structures are arranged on the two sides of the bridge plate respectively to form a supporting framework, and under the cooperation of the fixing handles, the fixing frames, the sliding blocks and the connecting arms, the first supporting plates can be controlled at the same time to drive the multiple first connecting columns to stretch out and draw back in the first containing cavities; a second supporting plate drives a plurality of second connecting columns to telescopically move in a second storage cavity, so that the supporting framework can be extended on the two sides of the bridge plate, the supporting width of the bridge plate can be flexibly adjusted according to requirements, the training requirements are met, and the applicability of the device is greatly improved.

The utility model discloses a training and checking device for snakelike running around a pole, which comprises a starting gun wireless signal transmitting module and an end point RFID (Radio Frequency Identification) module, the starting gun wireless signal transmitting module is arranged on a starting line, and the end point RFID module is arranged on a finishing line; the plurality of obstacle rods are respectively arranged on the point positions; the monitoring bracelet is detachably worn on the wrist of a trainee and is in wireless connection with the starting gun wireless signal transmitting module and the terminal point RFID identification module; and the intelligent terminal is movably placed in the training ground. According to the utility model, multiple sensing devices are established among the starting line, the finishing line, the barrier rods on each point location, the monitoring bracelet worn by the trainee and the intelligent terminal, so that the accuracy of judgment, the scientificity of evaluation and the quality and efficiency of training are effectively improved.

Articles of footwear include upper components and / or sole components. In some examples, the articles of footwear and / or sole structures may include features making them well suited for obstacle course type athletic events (e.g., by providing enhanced traction for various obstacle course events, such as wall climb events, rope climb events, etc.). As some more specific examples, articles of footwear and / or components thereof may include one or more of: (a) a ground-contacting surface having a plurality of large grooves, a plurality of small grooves, and relatively flat and / or smoothly curved base surfaces between the grooves; (b) a medial sidewall having a concave exterior surface, e.g., in the midfoot area; (c) a medial sidewall having enhanced traction features, e.g., in the midfoot area; and / or (d) a medial instep component (e.g., medial eye stay reinforcing component) having enhanced traction features.

A procedure for route planning for a host vehicle, including: Receiving a host vehicle course H HV , a host vehicle speed S HV , of a host vehicle location L HV , from environmental information E and a respective obstacle course H VO , an obstacle velocity Svo and an obstacle location Lvo for each obstacle within a predetermined radius around the host vehicle; Calculating one or more projected host vehicle locations L i using L i = f k1 (i, L HV , H HV , H DEV , S HV , S DEV , T H , E, G), where f k1 a first kinematic function for generating one or more projected host vehicle locations L i is, i is a step number, H DEV and S DEV Permissible deviations for the host vehicle direction H HVor the host vehicle speed S HV are, T H a hypothesis time step and G is a goal; Calculating a respective projected obstacle position O i for each obstacle using O i = f k2 (i, Lvo, Hvo, Svo, T H , E), where f k2 a second kinematic function to generate the respective projected obstacle position O i for every obstacle; Determining a respective collision potential between each projected host vehicle location L i and each projected obstacle location O i , where each collision potential corresponds to a respective projected host vehicle location L i is connected; and until a predetermined maximum number of steps i max is reached, and while at least one projected host vehicle location L i a qualified projected host vehicle location L iis, which is a projected host vehicle location L i is defined where each of its associated collision potentials is below a collision threshold, repeat the steps: Incrementing step number i; Repeat the calculation step for each qualified projected host vehicle location L i , to add one or more additional planned host vehicle locations L i to generate, whereby the respective qualified projected host vehicle location for L HV is used Repeat the calculation step to add an additional projected obstacle location O i to generate for each respective obstacle, using the current projected obstacle location for Lvo for each respective obstacle, and Repeat the determination step between each additional projected host vehicle position L iand each additional projected obstacle position O i , furthermore comprehensively, as part of the calculation step: Adjusting the host vehicle speed S HV up to S DEV at each of the one or more projected host vehicle positions according to one or more predefined speed profiles.

Disclosed herein are systems and methods for measuring cell growth and movement. The methods can include synthesizing custom obstacle courses around individual cells or cell aggregates, and measuring their movement and / or growth through the obstacle course. The cells and cell aggregates can be subjected to further analyses to correlate phenotypic and genotypic traits with the movement and / or growth.