Fitbit, Inc.

Plasmasol Corporation

Fibit, Inc.

Switch2health Inc.

Plasmasol Corporation Wall Township

Seth A Tropper

Amado Batour

Richard Crowe

Kurt Kovach

Edward J Houston

Michael L Epstein

John Gardner

Erich E Kunhardt

James Wickstead

George P Korfiatis

Sergei Babko-Malyi

An activity tracking device is defined to detect and record movement of a person to which the activity tracking device is affixed. A secondary electronic device is defined separate from the activity tracking device. The secondary electronic device is defined to receive data from the activity tracking device regarding the detected and recorded movement of the person. A website is defined to communicate with connected devices including the secondary electronic device. The website is defined to provide a user account for the person. The website is defined to convey information regarding the detected and recorded movement of the person through the user account.

Personal activity tracking system

Data is received from an activity tracking device. The received data indicates an amount of movement of the activity tracking device. The received data is associated with an account of a user of the activity tracking device. Feedback is generated for the user based on the amount of movement of the activity tracking device as indicated by the received data. The feedback is presented on a website with an indication of points accumulated by the user for the amount of movement of the activity tracking device over time.

Methods for detecting and recording activity and devices for performing the same

In a redeemable coupon there is a housing, a motion detector coupled to the housing, wherein the motion detector detects an amount of motion of the coupon, and an indicator coupled to the motion detector, wherein the indicator is activated by the motion detector upon detecting the amount of motion. Additionally, in a method of providing an incentive for a user to exercise, providing the user with a coupon to be coupled to the user, monitoring the motion of the user with a motion sensor included in the coupon, and activating the coupon when the motion sensor has detected a predetermined amount of motion such that the coupon becomes redeemable by the user.

System and method for activating a device based on a record of physical activity

A band formed to secure to a part of a human body. The band including a motion detection component. The motion detection component including circuitry for detecting and recording movement of the motion detection component. The motion detection component including a display defined to provide a visual indication of an amount of movement recorded by the circuitry. The circuitry including an electrical contact for electrical communication of signals associated with the detected and recorded movement of the motion detection component.

Apparatus for detecting and recording activity and associated methods

A motion detection component is operated to detect movement of the motion detection component. The movement detected by the motion detection component is recorded. A display is operated to provide a visual indication of an amount of the recorded movement. Electrical signals are communicated from the motion detection component through an electrical contact. The electrical signals are associated with the detected and recorded movement of the motion detection component. The motion detection component, the display, and the electrical contact are included within a band formed to secure to a part of a human body.

Methods for detecting and recording physical activity of person

A coupon for providing an incentive for a user to participate in physical activity. The coupon detects the physical activity of a user and indicates to the user when the threshold of physical activity has been reached. Once the coupon has indicated that the threshold has been reached, the user may redeem the coupon for a reward.

Coupon redeemable upon completion of a predetermined threshold of physical activity

A plasma emitter apparatus and method for using the same that includes a primary electrode and a secondary electrode. The secondary electrode is porous, that is, it is configured to permit the passage of plasma discharge therethrough. Accordingly, the plasma is received at one side of the secondary electrode and emitted from its opposing plasma exiting side. The secondary electrode may be a laminate of multiple insulating material layers with at least one conductive layer sandwiched therebetween. A plurality of apertures are defined through the laminate and a dielectric sleeve is inserted into and retained in the aperture. The generated plasma passes through one or more holes defined in each of the dielectric sleeves. Alternatively, the secondary electrode may be formed as a plurality of unidirectional high voltage wires strung substantially parallel across a frame or a plurality of bidirectional high voltage wires interwoven and secured by a perimeter frame.

Electrode for use with atmospheric pressure plasma emitter apparatus and method for using the same

A self-sustained atmospheric pressure system for absorbing or scattering electromagnetic waves using a capillary discharge electrode configuration plasma panel and a method for using the same. Of particular interest is the application of this system to vary the level of exposure or duration of an object to electromagnetic waves, or as a diffraction grating to separate multiple wavelength electromagnetic waves into its respective wavelength components. The generation of the non-thermal plasma is controlled by varying the supply of power to the plasma panel. When a substantially uniform plasma is generated the plasma panel absorbs substantially all of the incident electromagnetic waves thereby substantially prohibiting exposure of the object (disposed downstream of the plasma panel) to the electromagnetic waves. If the generated plasma is non-uniform the plasma panel reflects at least some of the electromagnetic waves incident on its surface. When a multiple wavelength electromagnetic source is employed, the plasma panel scatters the waves reflected from its surface in different directions according to their respective individual wavelengths. The degree of separation between the various wavelength components depends on arrangement of and spacing between the capillaries. Thus, the system may be used as a diffraction grating for separating multiple wavelength electromagnetic waves into its respective wavelength components.

Use of self-sustained atmospheric pressure plasma for the scattering and absorption of electromagnetic radiation

A plasma reactor including a first dielectric having at least one slot defined therethrough, and a segmented electrode including a plurality of electrode segments, each electrode segment is disposed proximate an associated slot. Each electrode segment may be formed in different shapes, for example, a plate, bar, rim, or plug. The electrode segment may be hollow, solid, or made from a porous material. The reactor may include a second electrode and dielectric with the first and second dielectrics separated by a predetermined distance to form a channel therebetween into which the plasma exiting from the slots defined in the first dielectric is discharged. The fluid to be treated is passed through the channel and exposed to the plasma discharge. If the electrode segment is hollow or made of a porous material, then the fluid/gas to be treated may be fed into the slots defined in the first dielectric and exposed therein to the maximum plasma density. Thus, the fluid/gas to be treated may be exposed to the plasma discharge both in the slots as well as in the channel between the two dielectrics. The plasma reactor is more energy efficient than conventional devices and does not require a carrier gas to remain stable at atmospheric pressure. The plasma reactor has a wide range of application, such as the destruction of pollutants in a fluid, the generation of ozone, the pretreatment of air for modifying or improving combustion, and the destruction of various organic compounds, and surface cleaning of objects.

Growing community of inventors

Marlboro, NJ, United States of America

Seth A Tropper