INTERACTIVE DESIGN AND AMUSEMENT SYSTEM

Abstract: An interactive design and amusement system comprising a plurality of components (12), a data transmitter (20), a data receiver (22) and a display device (26). The components (12) are adapted so that they may be arranged relative to one another on a baseboard (10) which has electrical connections (14) formed thereon. Each component has electrical connections (34, 36), identification means (28), orientation means and data transmission means (30). The data transmission means transmits data indicative of the identity of each component (12) and its orientation, relative to another component, to a receiver. The system also includes means for processing the data (18, 24) received so that signals are generated for transmission to the display device (26) where images which correspond to the components (12) are displayed. The system may be used, for example, to model buildings, airports etc.

Description: INTERACTIVE DESIGN AND AMUSEMENT SYSTEM Technical Field This invention relates to an interactive design and amusement system. Background Art Designers and architects use models to realise their designs in three dimensions The construction of these models is time consuming, even when the models are simple blocks intended only to conceptualise a design. The present invention arose in an attempt to overcome the atorementioned problem. Another aim of the present invention is to prov ide an amusement system Disclosure of Invention According to the present invention there is provided an interactive design and amusement system as claimed in claims 1 to 10. Bπef Description of Drawings The invention will now be descπbed, by w ay of example only, with reference to the accompanying Figures, in which Figure 1 illustrates an overall block diagram of the system, showing components, transmitter, receiver and display; Figures 2a and 2b show diagrammatical sections through a component; and Figure 3 is a flow diagram illustrating the method of operation of an embodiment of the invention which incorporates a look-up table Detailed Description of Preferred Embodiments There is shown diagrammatically in Figure 1 a baseboard (10) with components (12a). (12b), (12c), (12d) and (12e) mounted thereon. A seπes of electπcal connectors (14) through which electπcal current is delivered are formed integrally with the baseboard (10), and are adapted to contact portions (16) (not shown) of each component. Other components (12f), (12g) and (12h) are also depicted, however these are not connected to the baseboard (10). Electπcal connectors (14) are in electπcal communication with a microprocessor (18). A radio frequency (RF) antenna (20) is connected to the microprocessor (18). The antenna (20) transmits signals to a similar antenna (22) and a controller (24). Controller (24) may also have a microprocessor, and is adapted to supply a signal to a monitor or visual display unit (VDU) 26, which signal is representative of each of the components ( 12a) to ( 12e) and their relative oπentation one to another. The process by which this is achieved is descπbed below, with reference to Figures 2 and 3. Figure 2a shows a circuit and elements on a component (12). Figure 2b shows the same component (12) having a different layout of the circuit and elements, but operating in the same way as the component of Figure 2a. In the embodiments shown, the component (12) is in the form of a cube and the diagrams are underplan views. Electncal contact portions (16) for contacting other components are provided around the peπpheral regions of component (12). The component (12) also has electπcal interconnections (34,36) formed thereon which terminate at electrical contact portions (16). Electπcal interconnections (34) are shown as broken lines. Electπcal interconnections (36) are shown as solid lines. The electπcal contacts (16) and electπcal interconnections (34,36) are used to relay energy to the next component. Interconnections (34) may be used to transmit energy, and interconnections (36) may be used to receive energy (or vice versa). Alternatively, interconnections may be formed that allow both the transmission and receiving of energy. Oπentation and identification data are also transmitted via the conrectors (16) and interconnections (34,36). This may be earned out, for example, using pul' ed signals. Component (12) also contains an identifier (28) and a transmitter (30), which are both connected to electπcal interconnections (34) and (36), and in communication with one another. The component may also contain a separate oπentation means (not shown). The identifier (28) is capable of broadcasting and receiving signals. The identifier (28) may alternately receive and broadcast signals. The identifier broadcasts a signal which is indicative of the identity or type of component (12). This signal may be broadcast at intervals, for example every second or few seconds, or it may be broadcast on request, for example when another component (not shown) is placed adjacent it. As each new component (12) modifies the electπcal characteπstics ot the circuit, this information may be used to determine the relative oπentation of a component with respect to its neighbour. The identification means (28) may take the torm of an RF transmitter connected to an integrated circuit (IC), ASIC or VLSI. A suitable amount of energy to power the components ( 12) may be obtained via an inductive coupling or via a capacitive loop The transmitter (30) is adapted to transmit an initial location and oπentation signal via the microprocessor (18) to antenna (20). The transmitter (30) can be a short range radio frequency (RF) transmitter, ideally of the type which is licence exempt. Transmitter (20) then transmits this signal to receiver (22) and the signal is processed so that suitable data tor producing an image is presented to computer (26) Because data volumes are extremely slow, once a component (12) has transmitted data concerning its location and relative oπentation, the component may be 'switched off . This is because as soon as the data receiver (22) has been provided with the data and an image produced therefrom, the data becomes redundant, unless a component (12) is removed or its position vaπed The electπcal connections or pathways ( 14,34,36) thereafter serve only to deliver energy to or from a subsequent component and to act as a conductor for identification and oπentation data to the transmitter (30). The oπentation means in each component (12) can take the form of a magnetic sensor, an RF identification device or electronic components having particular characteristics. For example, a combination of electronic components, such as: resistor and/or capacitor and/or inductor arranged to provide a particular impedance to a particular input frequency. In this latter arrangement the electronic components may also act to identify the particular component (12). Data about each of the components (12) can be stored in an electronic look-up table, as descπbed with reference to Figure 3. This data can either be stored at the transmitting part of the system i.e., in the microprocessor (18), or at the receiving part i.e., in the electronics associated with the antenna (receiver) (22). The following descπption refers to a system wherein the data is stored in the microprocessor ( 18). In operation of the system, a signal is received from the first component (12). The l.d. of the component ( 12) and its oπentation is then transmitted to the microprocessor (18) by the transmitter (30) The signal is received at the microprocessor (18) and is compared with the data stored in the look-up table. Information found in the look-up table for that particular component and graphical data is sent to the display (26). The data is then displayed. The system descπbed herein may be used, for example, to model an airport with components (12) used as aircraft, buildings and/or vehicles. Such an embodiment may be used to model aircraft taking off, landing or taxiing. Manipulation of the image of the airport is preferably achieved by way of control software. For example, the colours, sizes and shapes of components (12) shown on the display (26) may be altered by simply reconfiguπng control software. This feature greatly facilitates changing model of a building or prototype. For example dimensions may be amended using software and a computer. This feature of the system is felt to be of particular value to designers and architects. Similarly a displayed design may be manipulated on a screen, such as enlarged or rotated in two dimensions. The invention has been descπbed by way of a number of embodiments, and vaπation may be made to them without departing from the scope of the invention. For example, the system may be configured as an amusement device or educational toy. There may be provided a data receiver and control software for generating a signal for transmission to a remote display, for example by way of an RF connection, 'internet' link or via a satellite transceiver.

Claims: Claims 1. An interactive design and amusement system compπsing- a plurality of components (12), a data transmitter (20), a data receiver (22) and a display device (26); the components (12) being adapted so that they may be arranged relative to one another on a baseboard (10) having electπcal connections (14) formed thereon; each component having electπcal connections (34,36), identification means (28), oπentation means and data transmission means (30) whereby, in use, the data transmission means transmits data indicative of the identity of each component (12) and its oπentation, relative to another component, to a receiver, and means for processing the data (18,24) received so that, in use, signals are generated for transmission to the display device (26), whereat, in use, images are displayed, said images coπesponding to the components ( 12) 2 An interactive design and amusement system accoiding to claim 1 wherein the oπentation means includes a magnetic sensor. 3. An interactive design and amusement system according to claim 1 wherein the oπentation means includes a radio frequency device. 4. An interactive design and amusement system according to claim 1 wherein the oπentation means includes at least one electronic component. 5. An interactive design and amusement system according to any of claims 1 to 4 wherein the identification means (28) includes a radio frequency transmitter 6. An interactive design and amusement system according to claim 5 wherein the identification means (28) further includes an integrated circuit. 7 An interactive design and amusement system according to claim 5 wherein the identification means (28) further includes an ASIC. 8. An interactive design and amusement system according to claim 5 wherein the identification means (28) further includes a VLSI. 9. An interactive design and amusement system according to any of claims 1 to 5 wherein the identification means (28) includes an inductor. 10. An interactive design and amusement system substantially as herein descπbed with reference to Figures 1 to 3 of the accompanying drawing

Inventors: VERNALL CHRISTOPHER JOHN, VERNALL, CHRISTOPHER, JOHN
Applicants: CENTRAL RESEARCH LAB LTD, VERNALL CHRISTOPHER JOHN, CENTRAL RESEARCH LABORATORIES LIMITED, VERNALL, CHRISTOPHER, JOHN
Application year: 2000
Main classification: A63F13
IPC codes: A63F13, G09B25