163 results about "Head impact" patented technology

A protective headgear position and impact sensor is described for use with hard hats, helmets, or other headgear. Proximity sensors are used to detect whether the headgear is being worn by the user. In some versions of the invention, additional features determine the nature of a head impact and store data related to wear of the headgear by the user. Yet other features may allow the headgear to serve as a security device, allowing entry into a facility only if the headgear is in position and if it is properly associated with an authorized individual who is wearing the headgear

A method and apparatus for testing a football helmet utilizes a weighted pendulum arm to impart an impact force upon the helmet. Linear head acceleration and rotational head acceleration caused by the impact force is measured and a Head Impact Power Index is computed and used as a standard to judge the ability and effectiveness of the football helmet in preventing injury to a football player.

Systems and methods for evaluating and displaying an impact. A computer implemented method for interacting with a sports impact sensing and reporting system. The computer implemented method receives sensor data from one or more player modules configured to detect a force experienced by a player. A user interface is configured to graphically display a model of the received sensor data generated based on acceleration and rotational information within the received sensor data, a magnitude of the received sensor data, and a plotted representation of the received sensor data. Assessment tools are presented for a caregiver to assess the player for a medical condition. The received sensor data and a result of the presented medical assessment are stored.

Systems and methods for head impact injury prediction. A computer implemented method is provided for event based injury predictions. The computer implemented method receives an indication of sensor data related to an impact of a user. The received sensor data is compared to previously stored sensor data in a data store. Each instance of the previously stored sensor data is associated with a medical diagnosis. If the received sensor data matches any of the previously stored sensor data based on the comparison, then an injury risk indicator is generated based on at least one of the medical diagnosis associated with the matching previously stored sensor data or an impact history of the user. The generated indicator is presented.

Head impact event evaluation systems and methods. A system and computer implemented method for event detection includes collecting sensor data transmitted from one or more sensor devices being attached to one or more users. The sensors transmit data when an event results in sensor data above a threshold value. At least one force is determined based on the collected sensor data. At least one force vector is determined based on a location of one or more sensors associated with the sensor devices and the determined at least one of the linear or rotational force. At least a portion of a human form is displayed with the determined force vector based on the determined at least on force vector on a display.

Systems and methods are provided for determining an acceleration at a location of interest within one of a user's head and neck. At least one of linear acceleration data, angular acceleration data, angular velocity data, and orientation data is produced using at least one sensing device substantially rigidly attached to an ambient-accessible surface of the user's head. The location of interest is represented relative to a position of the at least one sensing device as a time-varying function. An acceleration at the location of interest is calculated as a function of the data produced at the sensing device and the time-varying function representing the location of interest. The calculated acceleration at the location of interest is provided to at least one of the user and an observer in a human-perceptible form.

A method is disclosed for designing an energy-absorbing impact zone for a vehicle interior, including acquiring test data representative of an occupant, determining a force versus deflection curve for the vehicle impact zone, analyzing the force versus deflection curve, and utilizing the analysis to adjust the stiffness of the energy-absorbing impact zone and to shape the force versus deflection curve so that a constant area under the force versus deflection curve has the minimum deflection possible without exceeding a certain force limit and a certain head impact criterion.

An apparatus and method for determining the kinematic characteristics of a golf club head are disclosed. The apparatus includes at least one piezoelectric component selectively positioned within or upon a club head. The piezoelectric component is preferably positioned to the rear of the center of gravity, and near the midpoint of the face of the club head. During a golf club swing, the piezoelectric component determines the acceleration and deceleration of the golf club head. When the club head impacts an object such as a golf ball, the piezoelectric component is also operable to determine the velocity of the club head. It may also be desirable for the piezoelectric component to determine the magnitude of vibration during impact. In this manner, the piezoelectric component may function determine the efficiency of a golf club swing.

A system or method for measuring human ocular performance can be implemented using an eye sensor, a head orientation sensor, and an electronic circuit. The device is configured for measuring vestibulo-ocular reflex, pupillometry, saccades, visual pursuit tracking, vergence, eyelid closure, dynamic visual acuity, retinal image stability, foveal fixation stability, focused position of the eyes or visual fixation of the eyes at any given moment and nystagmus. The eye sensor comprises a video camera that senses vertical movement and horizontal movement of at least one eye. The head orientation sensor senses pitch and yaw in the range of frequencies between 0.01 Hertz and 15 Hertz. The system is implemented as part of an impact reduction helmet that comprises an inner frame having interior pads configured to rest against a person's head and one or more shock absorption elements attached between the inner frame and the spherical shell that couple the spherical shell to the inner frame. The spherical shell has a circular geometry, that when viewed horizontally at its horizontal midplane, includes a center point that is the rotational center of the spherical shell. The one or more shock absorption elements are sized to provide greater spacing between the inner frame and the spherical shell at the sides and rear of the spherical shell than at the front of the spherical shell. The one or more shock absorption elements are sized to configure the alignment of the rotational center of the spherical shell with the proximate rotational center of the wearer's head.

An engine hood for motor vehicles possesses a deformable head impact zone for the protection of pedestrians in the event of a collision with the motor vehicle. The engine hood is composed of two or more load-bearing shells and has a flexural strength profile which is low adjacent the edges and increases continuously toward the middle of the hood. At the same time, the engine hood has a uniform mass distribution ovcr the entire surface. Consequently, irrespective of the position the engine hood, the same characteristic for the head impact is achieved everywhere. The advantageous embodiment of the engine hood provides a reinforcing panel with regularly arranged beads, at most three beads forming a junction point so as to reduce local rigidities.

A hood structure comprises an outer and an inner which form a closed cross section through spaces. The inner's cross-sectional shape is a sine curve, an nth-power-raised sine curve, or a spline curve having a corrugation length approximate to an outside head diameter. This corrugated hood structure can provide a uniform, excellent head impact resistance independently of impact positions on the hood. The corrugated hood structure also excels in tension rigidity, bending rigidity, and torsional rigidity. Accordingly, the car body hood panel structure satisfies requirements of head impact resistances for pedestrian protection and rigidity improvement such as the tension rigidity.

An apparatus and method for determining the kinematic characteristics of a golf club head are disclosed. The apparatus includes at least one piezoelectric component selectively positioned within or upon a club head. The piezoelectric component is preferably positioned to the rear of the center of gravity, and near the midpoint of the face of the club head. During a golf club swing, the piezoelectric component determines the acceleration and deceleration of the golf club head. When the club head impacts an object such as a golf ball, the piezoelectric component is also operable to determine the velocity of the club head. It may also be desirable for the piezoelectric component to determine the magnitude of vibration during impact. In this manner, the piezoelectric component may function determine the efficiency of a golf club swing.

A combination of layered materials for producing a vehicle headliner is provided. The layers include a head impact countermeasure (HIC) layer of co-extruded thermoplastic and a rigid foam layer laid adjacent to the HIC layer and made of a thermoplastic. The layers are subsequently molded together to form the headliner.

Systems and methods are provided for registering a sensor assembly, implemented on a base apparatus, to a desired location associated with a head of a user. A position of a reference point on the base apparatus is determined relative to an external anatomical landmark of the user. A position of the external anatomical landmark is determined relative to the desired location. The position and orientation of the sensor assembly is determined relative to the desired location according to the determined position and orientation of the sensor assembly relative to the reference point, the determined position of the reference point relative to the external anatomical landmark, and the position of the external anatomical landmark relative to the desired location.

A modular structure for energy absorption useful in head impacts on vehicle interiors, comprising a set of deformable hollow bodies each having an open end section and the bodies are arranged in interconnected independent clusters. The hollow bodies in each cluster are joined by means of flexible bridges running between the open ends of adjacent bodies. The clusters are provided around their outline with flexible half bridges provided with mutual connection elements, a pin on one half bridge and a hole on the other half bridge.

An extrusion made from metal or plastic extends along the siderail of a vehicle and acts as a head impact countermeasure, and in the preferred embodiment as a platform for the attachment of any of a variety of siderail attachments, such as grab handles, coat hooks, visor tracks, etc. The components can be attached in a way which permits them to slide to the appropriate position and be locked into place. The hollow interior of the extrusion can be used to house additional safety components, such as a side air bag.

A golf club head with an improved face insert is disclosed herein. More specifically, the present invention discloses a golf club head wherein the face insert has a cavity near the top surface of the face insert that extends vertically downward towards the bottom surface of the face insert while terminating short of the bottom surface. The face insert having the cavity serves to remove unnecessary weight from the upper surface weight of the face insert; while the cavity that terminates short of the bottom surface yields a solid face insert near the bottom surface to preserve the structural integrity of the face insert where the golf club head impacts a golf ball. The cavity created within the face insert may be filled in with a lightweight material that helps further maintain the structural integrity of the entire face insert while still removing unnecessary weight from the face insert.

The invention discloses a method for realizing multidisciplinary and multi-objective optimization of a structural system of an automobile instrument panel, which is used in conceptual design and detailed design stages of the automobile instrument panel. In the method, the constitutive relation of a material is obtained based on a high-speed tensile test for a test specimen; on the basis of the constitutive relation, NVH (noise, vibration and harshness) performance analysis, service life prediction, head impact, knee pad impact and other discipline simulation analysis on the instrument panel structure are completed; based on a multidisciplinary coordinated optimization strategy, multidisciplinary cross analysis is carried out on the instrument panel system; and based on a radial basis function, a response surface method, a concurrent subspace method and a multi-objective genetic algorithm, multidisciplinary and multi-objective optimization design is carried out to obtain the Pareto optimal solution set of the instrument panel system, thus comprehensive optimization of performances of the automobile instrument panel such as structural lightweight, NVH performances, life prediction, passive safety and the like is realized so as to guide and realize efficient development and improved design of the instrument panel product.

The invention relates to a car head impact shock-absorbing bumper mainly comprising a frame body. The middle part of the rear end of the frame body is provided with connecting blocks; the left side and the right side of the rear end of the frame body are symmetrically provided with reinforcing frames; the upper end face of the frame body is connected with two sliders in bilateral symmetry in a sliding manner; the side face, opposite the middle part, of each slider is fixedly connected with a spring I; the springs I are arranged on the corresponding frame body side walls; a connecting rod I and a connecting rod II are hinged to the upper end face of each slider; the upper ends of the connecting rods II are arranged on the corresponding frame body side walls in a hinged sliding manner; the upper ends of the connecting rods I are hinged to an impacting plate; the lower end face of the impacting plate is fixedly connected with a spring II; and the left side and the right side of the lower end part of the spring II are fixedly connected with springs III of which one ends are arranged at the upper side edges, close to the spring II, of the sliders. The car head impact shock-absorbing bumper has the advantages of reasonable structure, high degree of feasibility, and high safety.

A system for detecting head impacts comprises a sensor for detecting acceleration and providing a signal representative of applied impacts, a display, and a processor. The processor is configured to receive data from the acceleration sensor and determine whether a magnitude of an impact exceeds a threshold. In response to a magnitude of an impact exceeding the threshold, the system displays a cumulative report of impacts exceeding the threshold.

Described herein is a wearable device for redirecting head impact force from the head of a person to other body part or parts of the person, the device comprising: a helmet wearable on the head of the person; a brace wearable on the body of the person; and at least one force redirecting unit configured for connection to the helmet and the brace, wherein at least one of the force redirecting unit is configured to be compressed to carry compressive load, and at least one of the force redirecting unit is configured to be extended to carry tensile load.

The present disclosure concerns embodiments of a badge and golf club head having a badge therein that can dampen the impact sound made when a hitting surface (a.k.a., face) of the golf club head impacts a golf ball. In one embodiment, a golf club head includes: a face portion surrounded by a topline portion, a toe portion, a sole portion and a heel portion, the face portion having a front striking surface and a back surface; and a badge coupled to the back surface of the face portion, the badge including a planar main body portion and at least one structural member extending outwardly from the main body portion, wherein the at least one structural member includes a lower portion and an upper portion disposed between the topline portion and lower portion, and wherein the at least one structural member has a maximum height, above the main body portion, at the lower portion and a minimum height at the upper portion.

In the present invention, the accelerated speed sensing device is used to detect whether computer is at moving state of free-failling body. A signal is transmitted to microprocessor at the time that this state is detected and the microprocessor orders magnetic head movable device to draw back magnetic head from magnetic disc surface after it detects the state for the time as long as a pre-set time so that the hard disc damage caused by the magnetic head impact can be avoided.

An apparatus is disclosed that includes a frame, an impact delivery unit for delivering an impact force and at least one head form. The head form is adapted to be mounted to the frame such that the impact delivery unit can deliver an impact force to a designated location on the head form. The head form is configured to have a helmet installed thereon. The head form is selectively rotatable about each of a plurality of different axes of rotation, wherein movement of the head form is constrained to be able to move only in rotation and in rotation about only one axis of rotation of the plurality of axes at any time. A measuring system provides an indicator of the rotational acceleration of the head form when rotated about each of the plurality of axes. Also disclosed are methods for comparing the degree of protection afforded by first and second helmets.