31results about How to "Realistic impression" patented technology

A display system (20, 100, 300, 320) is provided for presenting images to a viewer (50) together with complementary peripheral surround-lighting (130). The system (20, 100, 300, 320) includes a monitor (20) for presenting the images to the viewer (50), and lights (100) for generating the surround-lighting (130) appearing in operation to the viewer (50) as at least partially peripherally surrounding the monitor (20). Moreover, the system (20, 100, 300, 320) further includes a controller (320) for energizing the lights (100) in response to properties of portions of the images presented on the monitor (20), and a sensor (300, 310) for sensing the surround-lighting (130) and / or environmental illumination and generating corresponding sensor signals (330). The controller (320) is arranged in operation to receive the sensor signals (330) for controlling the lights (100) for at least partially compensating the surround-lighting (130) to influence from the environmental illumination.

A communication system includes at least a sound re-production system (13-16,18-20) for audibly reproducing sound communicated by one user to another. A method of controlling communications between at least one first and at least one second user of the communication system includes adjusting the sound reproduction system (13-16,18-20) so as to cause an apparent distance between the other user and a location of an origin of the reproduced sound as perceived by the other user to be adjusted. Data (23,25) representative of at least one indicator of at least an interpersonal relation of the at least one first user and the at least one second user is obtained. The apparent distance is determined at least in part according to a pre-determined functional relationship between an indicator of at least an interpersonal relation and a desired interpersonal distance.

A display system (20, 100, 300, 320) is provided for presenting images to a viewer (50) together with complementary peripheral surround-lighting (130). The system (20, 100, 300, 320) includes a monitor (20) for presenting the images to the viewer (50), and lights (100) for generating the surround-lighting (130) appearing in operation to the viewer (50) as at least partially peripherally surrounding the monitor (20). Moreover, the system (20, 100, 300, 320) further includes a controller (320) for energizing the lights (100) in response to properties of portions of the images presented on the monitor (20), and a sensor (300, 310) for sensing the surround-lighting (130) and / or environmental illumination and generating corresponding sensor signals (330). The controller (320) is arranged in operation to receive the sensor signals (330) for controlling the lights (100) for at least partially compensating the surround-lighting (130) to influence from the environmental illumination.

Provided are, among other things, systems, methods and techniques for processing an audio signal to add virtual bass. In one representative embodiment, an apparatus includes: (a) an input line that inputs an original audio signal; (b) a transform module that transforms the original audio signal into a set of frequency components; (c) a bass extraction filter that extracts a bass portion of such frequency components; (d) an estimator that estimates a fundamental frequency of a bass sound within such bass portion; (e) a frequency translator that shifts the bass portion by a frequency that is an integer multiple of the fundamental frequency estimated by the estimator, thereby providing a virtual bass signal; (f) an adder having (i) inputs coupled to the original audio signal and to the virtual bass signal and (ii) an output; and (g) an audio output device coupled to the output of the adder.

The carnival ride has a travel path for cars with seats and at least one screen arranged adjacent to the travel path. In order to design the carnival ride in such a way that the passengers in the car have an optimal gaming experience, the screen follows the car at least along a section of its travel distance. In this way, the passengers in the car have a very long-lasting visual contact with the screen or with the movie shown on the screen.

An interpolated image obtained by enlarging and interpolating an image (IN) is subjected to predetermined vector transformation to calculate an image feature vector. Also, a characteristic of a subject is obtained to calculate a physical characteristic parameter of the interpolated image. The physical characteristic parameter is used to transform the image feature vector to sharpen the interpolated image. The transformed image feature vector is subjected to transformation inverse to the predetermined vector transformation to generate an enlarged image (ELI).

The method enables a user to see how a selected product or how a plurality of selected products look in an immersive three-dimensional scene that resembles an actual or real property to be constructed or updated, or the relevant portions thereof. Since the images of the scene are displayed immersively, the user can view the scene from any vantage point and at any angle just as if the user were walking around the actual property. The user can thus obtain a realistic impression of how the new or changed property will look and the approximate cost of the improvement without first constructing a new structure or implementing changes to an existing structure. This enables the user to view many different possible options in order to decide which option is most desired. The user can feel confident that corresponding changes made to the real property be pleasing to the user.

The carnival ride has a travel path for cars with seats and at least one screen arranged adjacent to the travel path. In order to design the carnival ride in such a way that the passengers in the car have an optimal gaming experience, the screen follows the car at least along a section of its travel distance. In this way, the passengers in the car have a very long-lasting visual contact with the screen or with the movie shown on the screen.

Provided are, among other things, systems, methods and techniques for processing an audio signal to add virtual bass. In one representative embodiment, an apparatus includes: (a) an input line that inputs an original audio signal; (b) a bass extraction filter that extracts a bass portion of such original audio signal; (c) an estimator that estimates a fundamental frequency of a bass sound within such bass portion; (d) a frequency translator that shifts the bass portion by a positive frequency increment that is an integer multiple of the fundamental frequency estimated by the estimator, thereby providing a virtual bass signal; (f) an adder having (i) inputs coupled to the original audio signal and to the virtual bass signal and (ii) an output; and (g) an audio output device coupled to the output of the adder.

A display system (20, 100, 300, 320) is provided for presenting images to a viewer (50) together with complementary peripheral surround- lighting (130). The system (20, 100, 300, 320) includes a monitor (20) for presenting the images to the viewer (50), and lights (100) for generating the surround- lighting (130) appearing in operation to the viewer (50) as at least partially peripherally surrounding the monitor (20). Moreover, the system (20, 100, 300, 320) further includes a controller (320) for energizing the lights (100) in response to properties of portions of the images presented on the monitor (20), and a sensor (300, 310) for sensing the surround-lighting (130) and / or environmental illumination and generating corresponding sensor signals (330). The controller (320) is arranged in operation to receive the sensor signals (330) for controlling the lights (100) for at least partially compensating the surround-lighting (130) to influence from the environmental illumination.

The present invention discloses a creation of a virtual hand, body part, or tool in a virtual environment, controlled by a new 3-D haptic interface for virtual environments. There is also the provision of a method and arrangement applicable to computer systems for creating a virtual environment, which facilitates a user to touch, feel, edit, and interact with data about the objects, surfaces, and textures in the environment. There is also a provision for multiple virtual hands operating in the same virtual world, so that users can work collaboratively in the virtual world; they can touch, feel and edit the data in the virtual world, including data about the other users' virtual hands.

Provided are, among other things, systems, methods and techniques for processing an audio signal to add virtual bass. In one representative embodiment, an apparatus includes: (a) an input line that inputs an original audio signal in the time domain; (b) a bass extraction filter that extracts a bass portion of the original audio signal, which also is in the time domain; (c) an estimator that estimates a fundamental frequency of a bass sound within the bass portion; (d) a frequency translator that shifts the bass portion by a positive frequency increment that is an integer multiple of the fundamental frequency estimated by the estimator, thereby providing a virtual bass signal; (e) an adder having (i) inputs coupled to the original audio signal and to the virtual bass signal and (ii) an output; and (f) an audio output device coupled to the output of the adder.

Studio, studio system, studio configuration and calibration method for life-size videoconferencing include local conferee space and local transceiver for life-size videoconferencing. The transceiver includes optical input unit and optical output unit providing continuous duplex image transfer via a duplexer area of a screen configured to simultaneously transmit to local conferee space the image of remote conferee space including a remote studio, and reflect the image of local conferee space to the optical input unit, enabling visualizing to scale without aberrations image of the entire local conferee space to the remote conferee space; enabling a local party conferee to establish eye contact and register body movements of a remote party conferee. Images of physically separated conferee spaces are concatenated to an operational conference setting, enabling a remote conferee located anywhere in the remote space to establish eye contact with a conferee visible in the image of the second remote space.

A presentation device carries out a product presentation of a product. The presentation device includes a support element which is designed for placing on the head of a user, on which two display units are situated for stereoscopically displaying graphics data in front of the eyes of the user. The user is to be able to view the product at home without computer hardware specially purchased by him / her. For this purpose, the presentation device includes a memory for storing model data of a digital representation of the product, a simulation unit designed for simulating a relative position of the user with respect to the representation, and a rendering unit designed for generating the graphics data. The rendering unit is designed to display a stereoscopic view aimed at the representation from the simulated relative position, by the graphics data.

An X-ray imaging system includes an x-ray image acquisition unit, a display unit, an input unit, and adapting means. The x-ray image acquisition unit acquires a first image of a volume of interest of an object in a first projection direction and acquires a second image in a second projection direction. The display unit displays the first and the second image. The input unit determines the second projection direction by an input of a user. The user input includes a change in a viewing-direction of the user viewing the first image. The adapting means adapt a spatial relation between the projection direction of the image acquisition unit and the volume of interest of the object such that the projection direction correlates with the second viewing direction.

Provided are, among other things, systems, methods and techniques for processing an audio signal to add virtual bass. In one representative embodiment, an apparatus includes: an input line that inputs an original audio signal; an estimator, coupled to the input line, that estimates a fundamental frequency of a bass sound within the original audio signal; a bass extraction filter, coupled to the input line, that extracts a bass portion of the original audio signal that is at least 1 octave wide and includes the fundamental frequency; a frequency translator, coupled to the bass extraction filter, that shifts the bass portion, in its entirety, by a positive frequency increment that is an integer multiple of the fundamental frequency estimated by the estimator, thereby providing a virtual bass signal; and an adder having 1) inputs coupled to the original audio signal and to the virtual bass signal and 2) an output.

Provided are, among other things, systems, methods and techniques for processing an audio signal to add virtual bass. In one representative embodiment, an apparatus includes: (a) an input line that inputs an original audio signal; (b) a bass extraction filter that extracts a bass portion of such original audio signal; (c) an estimator that estimates a fundamental frequency of a bass sound within such bass portion; (d) a frequency translator that shifts the bass portion by a positive frequency increment that is an integer multiple of the fundamental frequency estimated by the estimator, thereby providing a virtual bass signal; (f) an adder having (i) inputs coupled to the original audio signal and to the virtual bass signal and (ii) an output; and (g) an audio output device coupled to the output of the adder.

A method for determining the spatial orientation of an object encompasses the steps of detecting a rotational speed of the object with the aid of a first sensor; determining an estimated value for the spatial orientation of the object based on the detected rotational speed and a starting value for the spatial orientation; detecting the acceleration ameas acting on the object with the aid of a second sensor; determining the acceleration component of the detected acceleration ameas resulting from the rotational movement, based on the detected rotational speed and a given distance of the second sensor from the rotational axis of the rotational movement; determining the acceleration component agrav of the detected acceleration ameas resulting from the gravity; and correcting the estimated value for the spatial orientation, taking into account the acceleration component agrav resulting from the gravity.

Disclosed is joining device for joining a trailing end of a first strip to a leading end of a second strip to form a tire component. The joining device includes a support member with a support surface and a retaining member with a retaining surface for retaining the second strip. The joining device is arranged for positioning the leading end of the second strip in a joining orientation in which said leading end is closer to the support plane than the rest. The joining device also includes a control unit for controlling a relative movement between the support member and the retaining member with a first component in a placement direction to place the leading end of the second strip and a second component in a joining direction to bring the leading end of the second strip into contact with the trailing end of the first strip.

A gas hearth including a combustion chamber, a gas supplier for supplying combustible gas into the combustion chamber to a firebed simulator disposed in the combustion chamber, an ignitor for igniting the combustible gas in the combustion chamber, a flue-gas discharge duct connected to the combustion chamber for discharging combustion flue gases from the combustion chamber, and a metering means disposed in the combustion chamber for metering a pyrotechnical additive into the flames of the burning combustible gas during operation.