A drinking container that can be used for various applications such as toasting for producing a sound for enjoyment at table, dinning or banquet, a bell, or further, determination of a beverage poured into the drinking container is used for producing a sound for enjoyment and comprises: a container-type resonator; and a handle connected to the resonator at a position of a node of vibration during resonance of the resonator.

A drinking container that can be used for various applications such as toasting for producing a sound for enjoyment at table, dinning or banquet, a bell, or further, determination of a beverage poured into the drinking container is used for producing a sound for enjoyment and comprises: a container-type resonator; and a handle connected to the resonator at a position of a node of vibration during resonance of the resonator.

Disclosed herein a method for improving holistic wellness of humans, wherein said method comprises of synergizing the light and color via spectral wavelengths inducing Simultaneous Adjacent Chroma Stimulus (SACS), sound frequencies and projection art. The synergized light and color, sound frequencies and projection art provide a sensory experience that de-stresses and realigns the body, mind and soul. The corresponding system comprises of an enclosure having projection screens and multipurpose integrated apparatus, wherein said apparatus comprises of CONTENT projecting means, color and light producing means, sound producing means and geometric reflectors, wherein these are configured to project lights on to the projection screen shown through a story-telling format, wherein said light projecting means, light producing means, sound producing means, projecting screens and reflectors are relatively placed so as to optimally produce the desired response of de-stressing and breaking the vicious cycle of stress in humans.

A food processor according to an embodiment of the present invention comprises: a body; a container detachably coupled to the body; a screw connected to the body while being at least partially received in the container; a juicing filter arranged to surround the tip side of the screw; and a cover detachably coupled to the leading end side of the container, wherein the container includes a first safety switch exposed toward the leading end side, and the first safety switch is switched to an ON state by the juicing filter in a state where the cover is coupled to the container.

A food processor according to an embodiment of the present invention comprises: a body; a container detachably coupled to the body; a screw connected to the body while being at least partially received in the container; a juicing filter arranged to surround the tip side of the screw; and a cover detachably coupled to the leading end side of the container, wherein the container includes a first safety switch exposed toward the leading end side, and the first safety switch is switched to an ON state by the juicing filter in a state where the cover is coupled to the container.

A method for tuning a gong of a striking watch. The gong is fastened at one end to a gong holder, which can be mounted in a watch case. The gong is struck by a hammer to be vibrated on a support of the measuring instrument to determine by a fast Fourier transform frequency peaks in a band of audible frequencies. A comparison in a first natural mode of a vibration frequency in the plane XY with a vibration frequency outside the plane Z is performed and a ratio calculation r=|f1p−f1h|/f1p, where f1p is the vibration frequency in the plane XY, and f1h is the vibration frequency outside the plane Z. If the ratio r is less than or equal to a desired value of 0.006, the gong is tuned. If it is greater, the method is repeated until the ratio value is achieved.

A method for tuning a gong of a striking watch. The gong is fastened at one end to a gong holder, which can be mounted in a watch case. The gong is struck by a hammer to be vibrated on a support of the measuring instrument to determine by a fast Fourier transform frequency peaks in a band of audible frequencies. A comparison in a first natural mode of a vibration frequency in the plane XY with a vibration frequency outside the plane Z is performed and a ratio calculation r=|f1p−f1h|/f1p, where f1p is the vibration frequency in the plane XY, and f1h is the vibration frequency outside the plane Z. If the ratio r is less than or equal to a desired value of 0.006, the gong is tuned. If it is greater, the method is repeated until the ratio value is achieved.

CMOS Ultrasonic Transducers and processes for making such devices are described. The processes may include forming cavities on a first wafer and bonding the first wafer to a second wafer. The second wafer may be processed to form a membrane for the cavities. Electrical access to the cavities may be provided.

A variety of bells are described. In one aspect, a support carries a bell body. A first portion of the support is positioned within the bell cavity and a second portion extends outside the bell cavity through the bell's mouth. A strike lever is coupled to the support at a location within the bell cavity. The strike lever is resiliently biased towards a neutral position that is spaced apart from the bell body. To ring the bell, a user presses the strike lever thereby spring loading the lever as the lever moves away from the bell strike surface. When the strike lever is released, the spring loading causes the strike lever to swing to strike the bell body to ring the bell. The strike lever is configured to strike the bell body while traveling in a direction having a radially outward vector component.

Arrangements are provided for smart functionality with dumb containers, such as for determining medication adherence, tracking product use, and validating product authenticity. An acoustic emitter is engaged with a container or other vehicle. Opening the container causes the acoustic emitter to produce an acoustic emission, without requiring power, processing capacity, or sensors. A cell phone or other station receives and registers acoustic emissions, such as by logging opening of the container, verifying authenticity of the acoustic emission, communicating with an oversight system, or similar. Data as may be encoded in an acoustic emission may include vehicle detection data (e.g., logging a container being opened), vehicle information (e.g., lot number, contents name), vehicle validation (e.g., valid or counterfeit numerical code), and audible user recognition (e.g., brand jingles, warning sounds).