Patent Application
20100197327
Continued advancements in computing technologies have transformed the mobile telephone into a powerful telecommunication and entertainment device that has revolutionized the manner in which personal and business related tasks are performed each day. A few examples of tasks that may be performed using the mobile phone include communication (voice, electronic mail, texting, etc), navigation, shopping, and searching the World Wide Web.
Although the mobile phone has revolutionized the manner in which personal and business related tasks are performed, it is often difficulty and cumbersome to generate and/or executing computer programs (“scripts”) via the mobile phone.
The present disclosure relates to mobile or wireless communication devices, including digital cellular telephones, and in particular to a short text message dynamic service application for such devices.
Programming small mobile or wireless communication devices, like digital cellular telephones phones, typically requires specialized hardware or software, or access to proprietary information like authentication keys, codes, etc. As a consequence, it is typically difficult or impossible for end-users to program such mobile devices. As is known in the art, digital cellular telephones of the Global System for Mobile Communications (GSM) type include removable Subscriber Identity Modules (SIMs), which are sometimes called smart cards or chip cards. To program a GSM cellular telephone, for example, it is necessary to use a smart card programming device and a smart card programming toolkit, and to access the account authentication key, the last of which is typically not accessible except by wireless service providers. The inability of users to program or modify mobile or wireless communication devices limits the versatility and usefulness of such devices.
Accordingly, the present disclosure includes a dynamic service application that is stored and executed on a mobile or wireless communication device to enable it to be programmed without specialized hardware, software, and other proprietary information. For example, the dynamic service application may be distributed with or stored on the wireless device in a conventional manner, but dynamic service application programs or scripts may be entered directly by a user or may be received as a wireless or radiated digital message transmission. In contrast, conventional programming of such a device requires a direct or conductive hardware coupling to the device.
The dynamic service application executes the dynamic service application script, which is of a format that accommodates wireless or radiated transmission and storage on the device. The dynamic service application script may be written directly by a user on a computer or a mobile communication device or may be written with the aid of scripting “wizard” software that runs on a computer and guides the writing of script without the user having to work directly with the dynamic service application script. In addition to being received as radiated transmissions, dynamic service application scripts may also be sent as radiated transmissions from mobile communication devices to other devices or computers.
In one exemplary implementation, a dynamic service application of the present disclosure may be stored on a SIM or smart card for use in an associated GSM cellular telephone. Dynamic service application scripts may be received at and sent from the GSM cellular telephone as short text message dynamic service scripts that conform to the short message service (SMS) format for GSM cellular telephones. In communicating with a conventional (e.g., desktop) computer, the scripts may be prepared and sent or received and run by software operating locally on the computer or at a site on the global computer network (e.g., a Web site).
The dynamic service application interprets and executes short text message dynamic service scripts that the cellular telephone receives, whenever the scripts are supported by a service present on the cellular telephone. The contents of the short text message dynamic service script could be either a new application, a part of the application (e.g., applications could be broken into segments), an application update, a command to execute, or data for a particular application. The user can also send messages from the phone to the web site. These messages can be distributed to other users as needed.
Additional objects and advantages of the present disclosure will be apparent from the detailed description of the preferred embodiment thereof, which proceeds with reference to the accompanying drawings.
The detailed description is described with reference to the accompanying figures. In the figures, the left-most digit(s) of a reference number identifies the figure in which the reference number first appears. The same reference numbers in different figures indicate similar or identical items.
The present disclosure relates to mobile or “wireless” communication devices capable of transmitting and/or receiving radiated (i.e., wireless) fixed length text messages of up to a maximum fixed length. Such communication devices may be implemented with various functions and in numerous forms including digital cellular telephones, portable and handheld computers, personal digital assistants, etc. The disclosure is described in reference to a digital cellular telephone, but is similarly applicable to other mobile or wireless communication devices that transmit and/or receive radiated fixed length text messages.
GSM cellular telephone 10 includes a removable Subscriber Identity Module (SIM) 12, which is sometimes called a smart card or chip card. For example, SIM 12 can be of a smart card format that has the well-known size of credit cards (e.g., standardized dimensions of 53.98 mm×85.60 mm×0.76 mm), or can be of a smaller format that is sometimes called a “plug-in SIM”. SIM 12 includes a medium 14 that supports a SIM electronic circuit 16 (e.g., one or more semiconductor integrated circuits or chips). Medium 14 typically includes multiple laminated synthetic layers, with one or more internal layers being between outer layers. SIM electronic circuit 16 is incorporated into or on at least one of the internal layers.
SIM electronic circuit 16 includes a central processing unit or CPU 20 (e.g., a microprocessor or microcontroller) in conjunction with a memory system 22, a data transmit interface 24, and a data receive interface 26, all of which are interconnected by a bus structure 28. Similarly, GSM cellular telephone 10 includes a central processing unit or CPU 30 (e.g., a microprocessor or microcontroller) in conjunction with a memory system 32, a data transmit interface 34, and a data receive interface 36, all of which are interconnected by a bus structure 38. In addition, GSM cellular telephone 10 includes a system display 40 and a user input device or keypad 42, as well as a power supply (e.g., a battery), telephonic audio input and output elements, and radio frequency transmitting and receiving elements that are not shown.
While SIM electronic circuit 16 includes the basic elements of a simple computer, neither SIM 12 nor SIM electronic circuit 16 is capable of functioning as a stand-alone computer. Both the SIM 12 and the SIM electronic circuit 16 lack a power source and user interface components by which a user could interact with SIM 12 or SIM electronic circuit 16. The computer functionality of SIM 12 can be accessed only by connecting it to another computer, such as GSM cellular telephone 10 or a SIM reader that is connected to a personal computer, as is known in the art. When connected to another computer, such as GSM cellular telephone 10, SIM 12 is powered and communicates through its interfaces 24 and 26 to receive data from and provide data to the other computer.
As is common, GSM cellular telephone 10 supports a fixed length text message service by which radiated (i.e., wireless) fixed length text messages of up to a maximum fixed length may be transmitted or received by GSM cellular telephone 10. As an example, the fixed length text message service could include or conform to the short message service (SMS) standard that is part of the GSM Phase 1 standard. The SMS standard allows transmission of radiated fixed length text messages of up to 160 characters in length. Such a fixed length text message service may be distinguished from conventional network connections or services in which files of generally arbitrary size may be transmitted. While referring to transmission of SMS messages, the following description may be similarly applicable to other standards or formats for radiated fixed length text messages.
For purposes of simplicity, this illustration is directed to communication in only direction: from transmitting short message terminal 54 to receiving short message terminal 56. It will be appreciated that each of short message terminals 54 and 56 would typically be capable of bi-directional communication so that the following description would be similarly applicable to communication from terminal 56 to any or all of terminals 54.
Transmitting short message terminal 54 may be any text-capable digital device, including a computer (e.g., desktop, portable, handheld, server, etc.), a personal digital assistant, a digital telephone, a digital cellular telephone, etc. An SMS message created at transmitting short message terminal 54 is transmitted over a communication channel 58 to a short message service center or message center 60 that functions as a store and forward center for transmitting SMS messages between short message terminals. For example, message center 60 receives a SMS message from transmitting short message terminal 54 and stores the SMS message until it can be forwarded to receiving short message terminal 56. Message center 60 then transmits the SMS message to receiving short message terminal 56 over a communication channel 62.
In view of the variety of devices that can function as message terminals 54 and 56, communication channels 58 and 62 may be or include any public or private computer network (e.g., the global computer network called the Internet) or any telephone network (e.g., any PSTN or any cellular or other wireless communication network). With receiving short message terminal being GSM cellular telephone 10 in the illustrated example, communication channel 62 will include at least a GSM cellular telephone network.
Process block 102 indicates that a short text message dynamic service script is formed. In one implementation, the short text message dynamic service script may conform to the SMS message format associated with GSM cellular telephones.
Process block 104 indicates that the short text message dynamic service script is transmitted to a receiving short message terminal. For example, the short text message dynamic service script could be transmitted via a message center 60 to GSM cellular telephone 10.
Process block 106 indicates that the short text message dynamic service script is interpreted and executed by the dynamic service application. Interpretation of the short text message dynamic service script by the dynamic service application includes correlating operations indicated by the short text message dynamic service script with the corresponding application programming interfaces (APIs) and any other resources available from SIM 12. For example, one option is to save the script and add the application name to the cellular telephone.
Process block 108 indicates that the short text message dynamic service script is received and stored, such as on a SIM 12 of a GSM cellular telephone 10.
Process block 110 indicates that the short text message dynamic service script is executed, such as on a SIM 12 of a GSM cellular telephone 10.
The short text message dynamic service scripts functions as short text message applications and can be formed in a variety of ways. As one example, a user could write a short text message application directly in accordance with a scripting notation, as described below in greater detail. As another example, a user may be guided through a script formation process or “wizard” that is accessed from a personal computer. The script formation process or “wizard” may be run locally on the personal computer or may be accessed from a network site (e.g., a Web page) on the global computer network.
Set forth below are exemplary steps through which scripting wizard software could direct a user creating a short text message dynamic service script or application. The exemplary steps could be offered or presented to the user in different sequences according to choices or selections made by the user. Once each branch or segment of the application is completed, the scripting wizard software codes and encrypts the application so that it can be sent to the receiving mobile communication device (e.g., GSM cellular telephone 10) as one or more short text messages (e.g., SMS messages). Once it receives the one or more short text messages, the dynamic service application on the mobile communication device interprets it or them and executes the steps as specified in the script. As an example, one option is to save the script and add the application name to the mobile communication device (e.g., cellular telephone).
User selects application options:
User selects initial interaction type between the application and the cell phone user after the application is launched.
Examples of operations:
Selected aspects of a first implementation of a format of a short text message dynamic service script are described below with reference to an exemplary script. It will be appreciated that this exemplary script is provided merely to illustrate the various script elements and does not include all potential elements in the script format or the full range of potential functionality that can be provided by the script format.
In this implementation, a typical script includes a file or variable with multiple successive statements that each may include one or more script elements. The successive statements of a script may form one or more files that are each no larger than the basic memory buffer size for a receiving mobile or “wireless” communication device (e.g., 128 bytes for a SIM), thereby allowing a complete script file to be completely contained in the memory buffer. In the illustrated exemplary script of Table 1, different statements are initiated by the terms Start, Efopen, Cont1, Iter, Cont2, which may be referred to as the statement names.
In this implementation, script elements are generally represented by only one or two alphanumeric characters to minimize the script size, and operators are indicated by lower case letters. For example, the Start statement begins with an error handling indicator “!” that is coupled with a get element “g” and a statement name “EFopen.” This script element combination is interpreted and executed by the dynamic service application as follows: if an error arises (!), get (g) the indicated statement (EFopen). The get element g may have as its argument any statement name in a file, a file name, a memory location pointer, etc. Accordingly, the get element g functions as a versatile program control device for directing script execution toward a variety of elements.
The EFopen statement sets a text variable (T1) to a text string “Error opening file,” and the element T1<T0<“(“<hIE<”)” functions to append a text variable T0 and the text “(32)” (where the value of 32 is an example value of the file handle, hIE) to text variable T1, with the text variable TO being a temporary buffer having the value of _ the file name (last statement's text). Element pT1 functions to print (p) (i.e., display) the error indication specified for variable T1 (i.e., text string “Error opening file”), and the quit element (q) ends execution of the script.
In the absence of an error indication by the executing mobile device, the Start statement proceeds to the script element oF1“/Pgm/SV.m”, which opens (o) as a file variable (F1) the file SV.m stored on the device in subdirectory Pgm. The .m extension may indicate that the file SV.m is a listing or menu of available script or application files available in the Pgm subdirectory. The script element gCont1 then gets (g) statement Cont1. The file variable (F1) represents a file-type variable that can be indexed over a range of values to support file operations (e.g., open, o). This script format implementation also includes, for example, an indexed text variable (e.g., T1) and an indexed numeric or numeric variable (e.g., I1) to support text and integer operations, respectively.
In the Cont1 statement, script element T2=“T1=s” sets a text variable index T2 to the indicated text string (T1=s). Script element !gCont2 directs the script to get or goto (g) statement Cont2 in case of an error indication. Script element I1=0 sets a value of zero to the integer variable I1.
In the absence of an error indication in it, statement Cont1 proceeds to statement Iter, which functions as an iteration operation. Script element T2<“,”<h22<F1(I1, 11)<h22 appends to text variable T2 a comma, a quote (by operation of element h22), 11 characters at iteration variable location I1 in file F1, and another quote (by operation of element h22). Element I1+16 is an integer operation adding variable I1 and the number 16. Element gIter repeats operation of statement Iter for another iteration. For example, each address location in a file could include 16 character positions, so this script element would function to obtain the first 11 characters at each address location in file F1.
In the Cont2 statement, element T2<“q;” appends a quit operator to text variable T2. As a result, of the operation of statements Iter and Cont2, variable T2 includes the following elements:
in which the elements F1(0,11), F1(1,11), . . . include the 11 character text strings at locations 0, 1, . . . in file F1. The 11-character iteration may reflect that the mobile communication device displays 11 characters per line. Script element cF1 closes (c) file F1, and script element xT2 executes (x) variable T2, in which the select element s functions to display each text string F1(1,11) so a user can select one of them. Script element tT1 trims spaces at the beginning and at the end of the text. The script elements T2=“/Pgm/”, T2<T1, and T2<“.a” set variable T2 to the subdirectory and application name and extension (.a) of the application selected by the user. Script element oF1T2 opens as file F1 the specified file, and element xF1 executes it.
The exemplary script functions to display a list of text message applications available on a mobile communication device and to allow a user to select and execute one of the applications. It will be appreciated that such an application would typically require significantly greater memory and syntax resources if it were written in a conventional scripting language.
Selected aspects of a second implementation of a short text message dynamic service script format are described below. This second implementation includes more programming specificity than the first, but disadvantageously increases the memory requirements of the dynamic service application.
Message consists of two components:
In accordance with the practices of persons skilled in the art of computer programming, the present disclosure is described above with reference to acts and symbolic representations of operations that are performed by various computer systems, including mobile communication devices and “smart cards.” Such acts and operations are sometimes referred to as being computer-executed and may be associated with the operating system or the application program as appropriate. It will be appreciated that the acts and symbolically represented operations include the manipulation by a CPU of electrical signals representing data bits, which causes a resulting transformation or reduction of the electrical signal representation, and the maintenance of data bits at memory locations in a memory system to thereby reconfigure or otherwise alter the computer system operation, as well as other processing of signals. The memory locations where data bits are maintained are physical locations that have particular electrical, magnetic, or optical properties corresponding to the data bits.
Having described and illustrated the principles of our disclosure with reference to an illustrated embodiment, it will be recognized that the illustrated embodiment can be modified in arrangement and detail without departing from such principles. It should be understood that the programs, processes, or methods described herein are not related or limited to any particular type of computer apparatus, unless indicated otherwise. Various types of general purpose or specialized computer apparatus may be used with or perform operations in accordance with the teachings described herein. Elements of the illustrated embodiment shown in software may be implemented in hardware and vice versa.
In view of the many possible embodiments to which the principles of our disclosure may be applied, it should be recognized that the detailed embodiments are illustrative only and should not be taken as limiting the scope of our disclosure. Rather, we claim as our disclosure all such embodiments as may come within the scope and spirit of the following claims and equivalents thereto.
Although the techniques have been described in language specific to structural features and/or methodological acts, it is to be understood that the appended claims are not necessarily limited to the specific features or acts described. Rather, the specific features and acts are disclosed as exemplary forms of implementing such techniques.
This application claims priority to and is a continuation of U.S. patent application Ser. No. 11/013,161, filed Dec. 14, 2004, which claims the benefit of priority to U.S. Pat. No. 7,418,254, issued on Aug. 26, 2008, which is herein incorporated by reference in its entirety.
| Number | Date | Country | |
|---|---|---|---|
| Parent | 09789432 | Feb 2001 | US |
| Child | 11013161 | US |
| Number | Date | Country | |
|---|---|---|---|
| Parent | 11013161 | Dec 2004 | US |
| Child | 12758146 | US |
