CN107526514B

CN107526514B - Digital information input processing method and device

Info

Publication number: CN107526514B
Application number: CN201610454606.1A
Authority: CN
Inventors: 王妙珍; 李超
Original assignee: Alibaba Group Holding Ltd
Current assignee: Alibaba Group Holding Ltd
Priority date: 2016-06-21
Filing date: 2016-06-21
Publication date: 2021-01-26
Anticipated expiration: 2036-06-21
Also published as: CN107526514A; WO2017219893A1; TWI763663B; TW201800904A

Abstract

The embodiment of the application discloses a digital information input processing method and a digital information input processing device, wherein the method comprises the following steps: receiving an input sequence, wherein the input sequence comprises a plurality of input objects, and the input objects comprise numbers and counting units; and generating an output sequence according to the input object and the input sequence information. Through the embodiment of the application, the input efficiency and the input accuracy of the numbers can be improved, and the cost for input operation related training of input personnel can be saved due to the simple and convenient operation process.

Description

Digital information input processing method and device

Technical Field

The present application relates to the field of computer technologies, and in particular, to a method and an apparatus for processing digital information input.

Background

With the development of society, there are more and more occasions where the input of numbers (especially, numbers with multiple digits, such as thousands of digits, more than ten thousands of digits) is required, such as some auction occasions. Taking O2O (Online To Offline) auction system as an example, during the auction process, an operator is required To input the Offline bid price into a corresponding system To synchronize the Offline bid price onto the Online, so that the Online buyer can add price according To the synchronized bid price. At present, an operator usually uses a common keyboard to convert the price of an auctioneer into corresponding numbers by himself or herself and then inputs the numbers, for example, the price of the auctioneer is 3 ten thousand 4, and the operator needs to convert the price by himself or herself and then sequentially input "3", "4", "0"; the auctioneer calls for 1.2 ten thousand prices, and the operator needs to convert the prices by himself and then sequentially input '1', '2', '0'; the auctioneer calls for price 135 ten thousand, and the operator needs to input '1', '3', '5', '0' and the like in sequence after switching by himself.

The above operation mode mainly has the following problems: on one hand, in the auction process, the off-line bidding rhythm is often faster, and an operator needs a self-conversion process after hearing a bid, especially under the condition that the price is a large number, the time required by the self-conversion process is relatively longer, so that the problem that the operator cannot keep up with the bidding rhythm and the input efficiency is lower often occurs; on the other hand, one auction often lasts for several hours, and under the working intensity, operators are easy to fatigue, and the input error rate is higher in the later stage of the auction; in addition, in order to adapt to the bidding rhythm, ensure the input efficiency and accuracy, etc., it may be necessary to train the operator in advance several days according to the conventional auction video, etc., and thus, there are problems such as training costs.

In short, how to improve the digital input efficiency and accuracy in digital input situations becomes a technical problem to be solved by those skilled in the art.

Disclosure of Invention

The application provides a digital information input processing method and device, a data object resource information processing method and device, a method and device for performing digital information input processing on a third-party application program and a user interface, and the method and device do not need thinking and conversion of an operator in the input process and can improve the digital input efficiency and accuracy.

The application provides the following scheme:

a digital information input processing method, comprising:

receiving an input sequence, wherein the input sequence comprises a plurality of input objects, and the input objects comprise numbers and counting units;

and generating an output sequence according to the input object and the input sequence information.

Wherein the input objects included in the input sequence are determined according to the reading method of the output sequence.

A user interface comprises a virtual keyboard interface and a result display bar, wherein the virtual keyboard interface comprises a number input option and a counting unit input option and is used for receiving an input sequence, the input sequence comprises at least one input object, and the input object comprises numbers and a counting unit; and the result display column is used for displaying an output sequence, and the output sequence is generated according to each input object and input sequence information in the input sequence.

A data object resource information processing method comprises the following steps:

the client receives current resource information input aiming at a specified data object, wherein the input information comprises an input sequence, the input sequence comprises a plurality of input objects, and the input objects comprise numbers and counting units;

generating an output sequence according to the input object and the input sequence information;

and providing the output sequence to a server so that the server can conveniently issue the current resource information of the specified data object on line.

A method of digital information input processing for a third party application, comprising:

receiving an input sequence in an input environment of a third party application, the input sequence including a plurality of input objects, the input objects including numbers and units of count;

providing the output sequence to the third-party application program so as to display the output sequence on screen at the third-party application program.

A digital information input processing apparatus comprising:

a first input sequence receiving unit, configured to receive an input sequence, where the input sequence includes a plurality of input objects, and the input objects include numbers and count units;

and the first output sequence generating unit is used for generating an output sequence according to the input object and the input sequence information.

An apparatus for processing data object resource information, applied to a client, the apparatus comprising:

a second input sequence receiving unit, configured to receive current resource information input for a specified data object, where the input information includes an input sequence including a plurality of input objects, and the input objects include numbers and count units;

a second output sequence generating unit for generating an output sequence according to the input object and the input sequence information;

and the first output sequence providing unit is used for providing the output sequence to the server so that the server can issue the current resource information of the specified data object online.

An apparatus for digital information input processing for a third party application, comprising:

a third input sequence receiving unit, configured to receive an input sequence in an input environment of a third-party application, where the input sequence includes a plurality of input objects, and the input objects include numbers and counting units;

a third output sequence generating unit for generating an output sequence according to the input object and the input sequence information;

and the second output sequence providing unit is used for providing the output sequence to the third-party application program so as to display the output sequence on the screen at the third-party application program. According to the specific embodiments provided herein, the present application discloses the following technical effects:

in the embodiment of the application, an input queue including a plurality of input objects input by a user can be received, wherein the input objects can include numbers and counting units, and then an output queue composed of the numbers can be generated according to the received numbers, the counting units and the input sequence information of the numbers and the counting units. Therefore, when a user wants to input a certain multi-digit number (especially a large number of thousands of digits or more), the user does not need to convert and input the number first as in the existing scheme, but can directly correspond to the input number and the counting unit according to the reading method of the number, thereby improving the input efficiency of the number and the input accuracy.

Of course, it is not necessary for any product to achieve all of the above-described advantages at the same time for the practice of the present application.

Drawings

In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings needed to be used in the embodiments will be briefly described below, and it is obvious that the drawings in the following description are only some embodiments of the present application, and it is obvious for those skilled in the art to obtain other drawings without creative efforts.

FIG. 1 is a block diagram of a digital information input processing system provided by an embodiment of the present application;

FIG. 2 is a schematic flow chart of a digital information input processing method provided by an embodiment of the present application;

fig. 3 is a schematic view of a virtual keyboard interface in a digital information input processing method provided in an embodiment of the present application;

FIG. 4 is a schematic diagram of a flow chart for generating an output sequence in a digital information input processing method provided by an embodiment of the present application;

FIG. 5 is a flowchart illustrating a data object resource information processing method according to an embodiment of the present application;

fig. 6 is a schematic flowchart of a method for processing digital information input to a third-party application according to an embodiment of the present application;

FIG. 7 is a schematic diagram of a digital information input processing device provided by an embodiment of the present application;

FIG. 8 is a schematic diagram of an apparatus for processing data object resource information provided by an embodiment of the present application;

fig. 9 is a schematic diagram of an apparatus for performing digital information input processing on a third-party application according to an embodiment of the present application.

Detailed Description

The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application, and it is obvious that the described embodiments are only a part of the embodiments of the present application, and not all of the embodiments. All other embodiments that can be derived from the embodiments given herein by a person of ordinary skill in the art are intended to be within the scope of the present disclosure.

In order to improve the efficiency and accuracy of digital input, referring to fig. 1, the embodiment of the present application provides a digital information input processing system 10, which can be applied to occasions requiring digital input, especially to auction occasions involving large-amount digital input of thousands or more digits. In a specific implementation, the digital information input processing system 10 can first receive an input queue including a plurality of input objects input by a user, wherein the input objects may include numbers and counting units, and then generate an output queue composed of pure numbers according to the received numbers, counting units, and input sequence information of the numbers and the counting units, that is, the system 10 belongs to a digital input method application, and can convert the input queue composed of the numbers and the counting units to generate a corresponding output queue composed of numbers, so that when the user wants to input a certain number (especially a large number of thousands of bits or more), the user does not need to convert and input the number and the counting unit directly according to a reading method of the numbers as in the existing scheme, thereby simplifying the input effect, the input efficiency of the number and the input accuracy are improved, and in addition, the cost of input operation related training of input personnel can be saved due to the simple and convenient operation process.

Specific implementations are described in detail below.

Example one

Referring to fig. 2, the first embodiment provides a digital information input processing method, including the following steps:

s101, receiving an input sequence, wherein the input sequence comprises a plurality of input objects, and the input objects comprise numbers and counting units.

In this embodiment, the counting unit may include a decimal integer counting unit, such as thousands, tens of thousands, hundreds of thousands, etc., and may also include a decimal counting unit, such as a decimal point. The input sequence may be, for example, "3 thousand", "4 thousand 1", "7.8 thousand", and so on.

In particular implementations, the input sequence may be received in a variety of ways.

One way may be to provide a virtual keyboard interface, the virtual keyboard interface including a number input option and a counting unit input option, the counting unit input option may include at least two input options having an adjacent relationship on a counting unit, and an input sequence is received through the virtual keyboard interface.

For example, as shown in fig. 3, the virtual keyboard interface 30 provided in the present embodiment may include a number input option 31 and counting

unit input options

32 and 33, and may receive an input sequence through the number input option 31 and the counting

unit input options

32 and 33.

For example, if "8 ten thousand" is desired to be input, the number input option corresponding to "8" and the count unit input option corresponding to "ten thousand" in the virtual keyboard interface 30 are triggered, so that the input sequence "8 ten thousand" is received through the number input option and the count unit input option.

In addition, if the digital information input processing method provided in the embodiment of the present application is applied to a specific application program, other input options may be provided in the virtual keyboard in combination with the functions of the application program itself. For example, if applied to the "auction" application mentioned in the background, a "bid" operation option may also be provided in the virtual keyboard. As can be seen, for example, in fig. 3, a bid operation option 37 is provided in the virtual keyboard interface 30 for providing the digits in the output sequence displayed in the display field 34 as a price to an associated bidding system, such as on-line with an O2O auction system as a bid price, by pressing the "bid" operation option upon completion of the input sequence to effect synchronization of the bid price to the system line.

The method is suitable for being used on the intelligent terminal equipment with the touch screen, and can be more convenient for the user to operate so as to improve the input efficiency.

Another way to receive the input sequence may be to pre-establish a mapping relationship between characters corresponding to preset keys in an entity keyboard and a counting unit, receive at least one number and at least one character corresponding to the preset keys through the entity keyboard, convert the characters corresponding to the preset keys into the counting unit according to the mapping relationship, and form the input sequence with the received numbers.

In a specific implementation, the physical keyboard may be a numeric keypad part (commonly referred to as a "keypad") in a "QWERTY standard physical keyboard", for example, a mapping relationship between characters corresponding to operation symbol keys in the physical keyboard and a counting unit may be established in advance, for example, characters corresponding to "+" (plus sign) keys are mapped to the counting unit "ten", characters corresponding to "-" (minus sign) keys are mapped to the counting unit "thousand", and the like.

The mapping relationship may be pre-stored in the database in a table form, and the specific storage form may be as described in table 1 below:

TABLE 1

Serial number	Presetting characters corresponding to keys	Unit of count
			1	“+”	All the details of
2	“-”	Thousand of
			……	……	……

For example, if it is desired to input "8 ten thousand", the number key and the "+" key corresponding to "8" in the physical keyboard are triggered to receive "8", "plus" through the physical keyboard, and then the characters corresponding to the "+" key are converted into the counting unit "ten thousand" according to the mapping relationship in table 1, so as to make "8" and "ten thousand" form the input sequence "8 ten thousand".

Of course, in the case of receiving an input sequence through a physical keyboard, the virtual keyboard interface may be provided at the same time, so that the state in which the numeric input option or the count unit input option is operated may be simulated in the virtual keyboard interface in the process of determining the input sequence.

For example, in the case of receiving the input queue "8 ten thousand" through the physical keyboard, after the numeric key corresponding to "8" in the physical keyboard is triggered, the state in which the numeric operation option corresponding to "8" in the virtual keyboard interface is operated may be simulated, for example, an animation effect in which the numeric operation option corresponding to "8" is pressed may be simulated. Next, after the "+" key in the physical keyboard is triggered, the character corresponding to the "+" key may be converted into the count unit "ten thousand" according to the mapping relationship, and the state in which the count unit operation option corresponding to the "ten thousand" is operated in the virtual keyboard interface may be simulated, for example, an animation effect in which the count unit operation option corresponding to the "ten thousand" is pressed down may be simulated.

The method can be suitable for being used on terminal equipment without a touch screen, and can be more convenient for a user who is used to use the physical keyboard to operate so as to ensure the convenience of operation and further ensure the input efficiency.

Of course, in other implementations, there may be other ways to receive the input sequence, for example, receiving a voice input, converting a received voice signal into the input sequence, and so on, which are not described in detail herein.

And S102, generating an output sequence according to the input object and the input sequence information.

That is, an output sequence may be generated according to the input number, the counting unit, and the input sequence information of the number and the counting unit, wherein in a specific implementation, the output sequence includes the number, or possibly the decimal point but does not include the integer counting unit.

For example, the input sequence "3 thousand" may generate the output sequence "3000", and the input sequence "4 thousand 1" may generate the output sequence "41000", that is, the input object included in the input sequence may be determined according to the reading method of the output sequence, so that, in the process of inputting the number, the conversion process (for example, converting "3 thousand" to "3000", and "4 thousand 1" to "41000") is not needed, but the corresponding number and the counting unit are directly input according to the reading method of the number, thereby saving the conversion time, avoiding the conversion error, and improving the input efficiency and accuracy of the number.

Since the output sequence obtained by conversion is composed of pure numbers, each number actually constitutes a multiple number, in practical applications, the converted multiple number can be used as an input to be provided to other applications or other modules for use, or a display bar can be provided in the current application interface, for example, as shown in fig. 3, a display bar 34 can be provided in the virtual keyboard interface 30 to input the output sequence into the display bar 34 for display, so that a user can know the content of the output sequence in time for confirmation, adjustment, and the like.

In addition, count unit information corresponding to an output object at a preset position in the output sequence can be provided in the display field, and in this embodiment, for example, count unit information of the highest order in the output sequence can be provided. As shown in fig. 3, count unit information 35 (i.e., ten thousand) of the highest bits in the output sequence (e.g., "80000") can be provided in the display field 34, so that the user can know the highest bits in the output sequence in time without checking the number of bits manually to verify the correctness of the output sequence.

In practical applications, a delete operation option may also be provided in the application interface, for example, as shown in fig. 3, a delete operation option 36 may be provided in the display column 34 to delete the output sequence displayed in the display column 34 as a whole, without deleting one of the numbers in the output sequence by using, for example, a "backspace" key in a physical keyboard, so as to save the operation time of the user and improve the operation efficiency.

The technical solutions provided by the embodiments of the present application are introduced as a whole, and specific implementations of how to convert an input sequence into an output sequence are described below.

In a specific implementation, since input objects included in an input sequence can be generally combined in various ways, for example, assuming A, B are all numbers and the integer count unit is ten thousand, then:

the first possible way is "a" + "ten thousand" (for example, the input sequence is "8 thousand", of course, a here may be a single bit or a multiple bit, and "+" here does not refer to an addition operation, but is used to isolate different input objects);

a second possible way is "a" + "ten" + "0" + "B" (e.g., "8 ten thousand 02");

a third possible way is "a" + "," + "B" + "ten thousand" (e.g., "8.7 ten thousand");

a fourth possible way is "A" + "ten thousand" + "B" (e.g., "2 ten thousand 3").

In addition, the same multiple number may have different corresponding input sequences due to different reading methods, for example, for a five-digit number of "87000", the input sequence may be "8 ten thousand 7", or "8.7 ten thousand", and so on.

Therefore, in the embodiment of the present application, the features of the input sequence may be abstracted, and corresponding processing manners may be provided for the various features. Specifically, an alternative implementation manner is that a new output sequence can be dynamically generated every time a new input object is received during the process of inputting the input object, that is, the output sequence is dynamically generated.

Specifically, the corresponding processing modes may be provided and stored in advance according to the type features of the current input object and the historical input object in the current input sequence, where the type features include numbers or counting units, and the counting units may include integer counting units and decimal points. That is, after an input object is currently received, it may be determined whether the input object is a number or a count unit, and then a corresponding processing manner may be determined by combining specific type features of the historical input object, so as to determine a current output sequence.

For convenience of understanding, the following description will be given in detail with reference to an example in a concrete application, with reference to the corresponding processing method and output sequence determination method in each case being abstracted.

In a specific implementation, if the current input object is a number and is the first of an input sequence, or both the current input object and the previous input object are numbers, or the previous input object is a counting unit and the current input is zero, or the previous input object is a number and the current input object is a decimal point, or the previous input object is a decimal point and the current input object is a number, the processing method includes:

and adding the current input object into a temporary queue so as to determine an output sequence according to the N digits combined by all the input objects in the temporary queue, wherein N is a positive integer. The temporary queue is called because the N-bit number of input objects added to the temporary queue may participate in subsequent multiplication or addition operations to determine the final output sequence.

In the first case, that is, when the current input object is a number and is the top of the input sequence, it is proved that the input sequence has just started to be received, and the received input object may be added to the "temporary queue", but at this time, the input object related to the count unit has not been received, and therefore, the temporary queue may be directly output as the output sequence. That is, assuming that the current input object is the number "1" and is the first of the input sequence, the current output sequence is "1".

For the second case, where both the current input object and the previous input object are numbers, this may occur in the following two scenarios: (1) after the input object is received, a plurality of numbers may be received continuously before the integer count unit is not received, for example, if "23 ten thousand" needs to be input, when "2" is received, it may be added to the temporary queue according to the first case; when "3" is received, since the last input object is also a number, it may be added to the temporary queue, which is a two-digit "23" in this case. In addition, since the input object related to the count unit has not been received, the current temporary queue may be directly output as the output sequence, that is, the output sequence is "23". (2) After the integer count unit has been input, there may be a case where a plurality of numbers are input continuously, for example, assuming that the sequence to be output is "80020", since the sequence is usually read as "8 ten thousand zero twenty", each input object in the input sequence may be "8", "ten thousand", "0", "2", "0" in sequence, and at this time, both "2" and the second "0" belong to the second case, that is, both the current input object and the previous input object are numbers, and for this case, the current input object may be added to the temporary queue.

For the third case, that is, the last input object is a counting unit, and the current input is zero, this case corresponds to the first "0" in the (2) th scenario in the second case, that is, when the first "0" in the above example is received, since the last input object is an integer counting unit, this "0" is also added to the temporary queue.

For the fourth and fifth cases, that is, the last input object is a number and the current input object is a decimal point, or the last input object is a decimal point and the current input object is a number, this case generally occurs in the following scenarios: the user needs to output "87000" but the sequence of inputs is "8". "" 7 "" "ten thousand", and for this case, the received number and decimal point are added to the temporary queue before "ten thousand" is received. Wherein, after receiving "7", the temporary queue records "8.7".

The foregoing describes various adaptive situations of adding to the temporary queue, but in the embodiment of the present application, it is also necessary to determine the current output sequence after each input object is received, so that adding the current input object to the temporary queue under the condition that the current input object meets the condition is only a part of operations executed after receiving one current input object, and the other part of operations is to determine the current output sequence according to the content recorded in the temporary queue.

Specifically, in the process of determining the current output sequence, the specific determination manner is different for different situations, and is described below.

In a first case, if the current input object is a number or a decimal point and there is no integer counting unit in the history input sequence, the processing mode includes:

and determining the temporary queue as a current output sequence.

In this case, the case where there is no integer counting unit in the history input sequence may include a case where there is a number or a decimal point in the history input sequence, for example, where the current input object is a number "1" and is the top of the input sequence, or where the current input object is a number "3" and the previous input object is a number "2", and there is no integer counting unit such as "ten thousand", or where the previous input object is a number "4", and the current input object is a decimal point, and so on, which may all belong to a case where there is no integer counting unit in the history input sequence, and in these cases, the temporary queues "1", "23", and "4" may be determined as the current output sequence.

In the second case, if the current input object is an integer count unit and the last input object is a number, the current output sequence can be determined by: and taking out the N digits from the temporary queue, converting the N digits according to a mathematical conversion rule corresponding to the integer counting unit to generate a current output sequence, and emptying the temporary queue.

The mathematical conversion rule corresponding to the integer counting unit may be a number corresponding to the integer counting unit, for example, the mathematical conversion rule corresponding to "ten thousand" may be "x 10000", the mathematical conversion rule corresponding to "thousand" may be "x 1000", and so on.

For example, if the current input object is ten thousand and the last input object is a number, the N-bit number (for example, "1" or "23" or "8.7" in the foregoing example) can be taken out from the temporary queue, and the N-bit number is scaled (i.e., 1 × 10000 or 23 × 10000 or 8.7 × 10000) according to ten thousand corresponding mathematical scaling rules (i.e., multiplying by 10000), so as to generate the current output sequence (i.e., 10000 or 230000 or 87000). In addition, in order to guarantee the effectiveness of the algorithm, in this case, after the current output sequence is determined, the temporary queue ("1" or "23" or "8.7") may be emptied, so that if a number "020" or the like needs to be input after "ten thousand" are input, the temporary queue is re-entered from "0".

In a third case, if the current input object is a number and is zero and the last input object is an integer count unit, the last output sequence is determined to be the current output sequence.

For example, if the current input object is "0", the previous input object is "ten thousand", such as "1 ten thousand 0", "23 ten thousand O", etc., the previous output sequence 10000, 230000, etc. may be determined as the current output sequence. This proves that the user may want to input "8 ten thousand 020" or the like, but the following "20" has not been received, and therefore, the last output sequence can be determined as the current output sequence.

In a fourth case, if the current input object is a non-zero number, there is an integer count unit in the historical input sequence, and the next input object in the integer count unit is zero, the current output sequence may be determined by: and taking out the N digit number from the temporary queue, and adding the output sequence obtained when the integer counting unit is received and the N digit number to obtain the current output sequence.

For example, if the current input object is "2" and there is "1 ten thousand O" in the history input sequence, then "2" may be added to the temporary queue first, then the N-bit number (e.g., "02") may be taken out from the temporary queue, and 10000 is added by 2 to obtain the current output sequence 100002. If after receiving "2" another number "0" is received, the fourth case is still met, so it is also possible to first add "0" to the temporary queue, then take the current N-bit number from the temporary queue (020), and add 10000 to 20 to get the current output sequence 10020.

In a specific implementation, if the current input object is a non-zero number and the previous input object is an integer counting unit, the processing method includes:

determining a one-level lower integer count unit of the integer count units in the previous input object; converting the current input object according to a mathematical conversion rule corresponding to the lower-level integer counting unit; and adding the conversion results of the last output sequence and the current input object to determine the current output sequence.

If the current input object is 5 and the previous input object is ten thousand, ten thousand lower integer count units (i.e., "thousand") can be determined, the current input object is scaled (5 × 1000 equals 5000) according to the mathematical scaling rule (multiply 1000) corresponding to "thousand", and the previous output sequence (such as 10000 described above) and the scaled result (7000) of the current input object are summed (10000+7000 equals 17000) to determine the current output sequence is 17000.

In order to better understand the embodiments of the present application, the following detailed description is made with reference to a flowchart of an implementation manner in fig. 4 when the above processing manner (i.e., the manner of generating the output queue) is combined with a flowchart of an implementation manner in the specific implementation manner in fig. 4 to describe the above processing manner (i.e., the manner of generating the output queue) in detail by way of specific examples

The first embodiment is as follows: suppose the input sequence is "8 thousands"

When the current input object is "8", the current input object is not an integer count unit but a number, and the previous input object is empty, that is, the current input object is located at the head of the input sequence, "8" may be added to the temporary queue, and the temporary queue is determined as an output queue (i.e., "8") because there is no integer count unit in the historical input sequence.

When the current input object is ten thousand, the current input object is an integer counting unit, and the last input object is not an integer counting unit but a number, then 8 is taken out of the temporary queue, and is converted (namely 8 × 10000) according to a mathematical conversion algorithm corresponding to ten thousand, an output sequence 80000 is generated, and the temporary queue is emptied, so that the processing flow can be ended.

Example two: assume that the input sequence is "7 thousand 6"

When the current input object is "7", the current input object is a number, the last input object is empty, that is, the current input object is located at the head of the input sequence, then "7" may be added to the temporary queue, and since there is no integer count unit in the historical input sequence, the temporary queue is determined as the output queue (i.e., "7").

When the current input object is 'thousand', the current input object is an integer counting unit, and the last input object is not an integer counting unit but a number, then '7' is taken out from the temporary queue, and is converted according to a mathematical conversion rule corresponding to 'thousand' (namely 7 multiplied by 1000), an output sequence '7000' is generated, and the temporary queue is emptied.

When the current input object is "6", the current input object is a number, and the previous input object is an integer count unit ("thousand"), a one-level lower integer count unit of thousand (i.e., "hundred") can be determined, the current input object is scaled (6 × 100 — 600) according to the mathematical scaling rule (multiplication by 100) corresponding to "hundred", and the current output sequence (7000) and the scaled result (600) of the current input object are summed (7000+600 — 7600) to determine that the current output sequence is 7600, and the processing flow can be terminated.

Example three: suppose the input sequence is "8-ten-thousand-23"

When the current input object is "8", the current input object is a number, the last input object is empty, that is, the current input object is located at the head of the input sequence, then "8" can be added to the temporary queue, and since there is no integer count unit in the historical input sequence, the temporary queue is determined as the output queue (i.e., "8").

When the current input object is ten thousand, the current input object is an integer counting unit, and the last input object is a number, then 8 is taken out of the temporary queue, and is converted (namely 8 multiplied by 10000) according to a mathematical conversion algorithm corresponding to ten thousand, an output sequence 80000 is generated, and the temporary queue is emptied.

When the current input object is "0", the current input object is "0" and the previous input object is an integer count unit (i.e., "ten thousand"), the input object "0" is added to the temporary queue, and the previous output sequence 80000 may be determined as the current output sequence.

When the current input object is "2", if the current input object is a number and the previous input object is a number (that is, "0"), then "2" is added to the temporary queue, and if there are "ten thousand" and the next input object of "ten thousand" in the history input sequence is "0", then "02" is taken out of the temporary queue, and the output sequence 80000 obtained when "ten thousand" is received is added to 2 to obtain the current output sequence 80002.

If the current input object is "3", if the current input object is a number and the previous input object is a number (i.e., "2"), then "3" is added to the temporary queue, the temporary queue is "023", and if there are "ten thousand" and the next input object of "ten thousand" in the history input sequence is "0", then "23" is taken out of the temporary queue, and the output sequences 80000 and 23 obtained when the integer count unit (i.e., "ten thousand") is received are added to obtain the current output sequence 80023, so that the processing flow can be ended.

Example four: suppose the input sequence is "9.7 ten thousand"

When the current input object is "9", the current input object is a number, the last input object is empty, that is, the current input object is located at the head of the input sequence, then "9" can be added to the temporary queue, and since there is no integer count unit in the historical input sequence, the temporary queue is determined as the output sequence (i.e., "9").

When the current input object is a decimal point (namely, ' the '), the current input object is a decimal point and the last input object is a number, the decimal point (') is added to a temporary queue, the temporary queue is ' 9 ', and the temporary queue is determined as an output sequence (namely ' 9 ') because an integer counting unit does not exist in the historical input sequence

When the current input object is "7", the current input object is a number and the last input object is a decimal point, "7" may be added to the temporary queue, "9.7" in the temporary queue, and the temporary queue may be determined to be an output sequence (i.e., "9.7") because there is no integer count unit in the duration input sequence.

When the current input object is ten thousand, if the current input object is an integer counting unit and the last input object is a number, 9.7 is taken out of the temporary queue, and is converted (namely 9.7 multiplied by 10000) according to a mathematical conversion algorithm corresponding to ten thousand, an output sequence 97000 is generated, and the temporary queue is emptied, so that the processing flow can be ended.

In the implementation manner described above, after each input object is received, the current output sequence is dynamically determined, and in addition, in practical application, after the complete input sequence is received, the conversion operation to the output sequence may be performed, at this time, an input option for the user to end the representation may be provided, and after the user finishes inputting the input sequence, the input operation may be ended through the option. In this case, conversion mode information corresponding to various types of input sequences may be provided in advance.

For example, for the input mode of "a" + "ten", the corresponding conversion mode may be: "a" + "ten thousand ═ a × 10000, that is, if" 8 ten thousand "is input, the output sequence is" 80000 ".

For the input mode of "a" + "ten" + "0" + "B", the corresponding conversion mode may be: "a" + "ten thousand" + "0" + "B" ═ a × 10000+ B, that is, if "8 ten thousand 02" is input, the output sequence is 8 × 10000+2 ═ 80002.

For the input mode of "a" + ". and" + "B" + "ten", the corresponding conversion mode may be: "a" + "," + "B" + "ten" is a.b × 10000, that is, if "7.8 ten thousand" is input, the output sequence is 7.8 × 10000 — 78000.

For the input mode of "a" + "ten" + "B", the corresponding conversion mode may be: "a" + "ten thousand" + "B" ═ a × 10000+ B × 1000, that is, if "7 ten thousand 8" is input, the output sequence is 7 × 10000+8 × 1000 — 78000.

In addition, for other counting units such as "thousand", various possible input sequence expression forms can be provided and stored according to the above-mentioned manner. Therefore, after a complete input sequence is received, a corresponding conversion mode is selected for conversion according to the characteristics of the input sequence.

In practice, of course, a and B in each of the above cases may be a case with a large number. In summary, for the case of conversion after receiving the complete input sequence, the following method can be specifically implemented: and after receiving the complete input sequence, converting the input sequence into an output sequence according to the characteristics of each input object contained in the input sequence.

Specifically, if there is no other input object after the integer count unit in the input sequence, the N-bit number (which may be an integer or a decimal) continuously input before the integer count unit is converted in a conversion manner corresponding to the integer count unit to obtain a first calculation result, and the first calculation result is determined as the output sequence.

If the input sequence also comprises other input objects after the integer counting unit, judging whether the adjacent number after the integer counting unit is 0, if so, adding M digits formed by 0 and other subsequent numbers with the first calculation result to obtain a second calculation result, and determining the second calculation result as an output sequence, wherein M is a positive integer.

If the input object behind the integer counting unit is a non-zero number, the non-zero number is subjected to conversion operation, namely, the non-zero number and a mathematical conversion algorithm corresponding to the lower integer counting unit of the received integer counting unit are subjected to conversion operation to obtain a third calculation result, the first calculation result and the third calculation result are added to obtain a fourth calculation result, and the fourth calculation result is determined as an output sequence.

Example two

The above embodiments describe the implementation scheme of the input processing of digital information, and the scheme can be applied to various specific application programs. Furthermore, there may be a plurality of application manners, for example, in one manner, the input processing method may be solidified into an application program, so that when the application program needs to perform digital related input, the processing manner may be used as a default manner, for example, the virtual keyboard described above is directly provided. Alternatively, in another mode, the digital input processing method may exist as a separate application program, that is, the application program provides a function of processing the digital input process to simplify the input, shorten the input path, improve the efficiency, and reduce the error probability, and for example, the method may be referred to as "digital input method". In this case, the user may install the application program into his terminal device, and may switch to the "digital input method" by himself when there is a need for inputting digital information in another third-party application program, so that the input may be performed in the manner provided in the foregoing embodiment, and the input method may convert the input sequence into a purely digital output sequence and output the output sequence to the third-party application program.

The first way described above is described first, that is, the product can be solidified into an application program, for example, in O2O (online to offline) product capable of realizing online and offline auction synchronization, two kinds of clients are generally provided, and the first client provides an operator in an offline auction site, and when an auctioneer needs to sell the current price of a certain auction, the operator needs to synchronize the price called out by the auctioneer to the online so that each user online can see the product. The second client may be a user who provides on-line participation in the auction, and after entering an on-line auction venue for a certain auction, the current highest bid price input by an off-line operator may be received through the second client, and if the user needs to bid, the price of his bid may be input through the second client. In this way, the digital information input processing method in the embodiment of the present application can be added to both the first user client and the second user client.

Specifically, referring to fig. 5, the second embodiment provides a data object resource information processing method, referring to fig. 5, the method may specifically include:

s501: the client receives current resource information input aiming at a specified data object, wherein the input information comprises an input sequence, the input sequence comprises a plurality of input objects, and the input objects comprise numbers and counting units;

wherein the designated data object may comprise a business object (e.g., a certain goods object or service, etc.) participating in an online-offline synchronous auction, and the resource quantity information comprises bidding information of an offline bidder for the business object. At this time, the client comprises a first user client, and the first user client is used for recording the bidding information of the offline bidder on the service object.

Or, the resource quantity information may also include the bid information of the online bidder for the service object, and at this time, the client includes a second user client, and the second user client is configured to receive the bid information of the offline/other online bidders provided by the server, and enter the current online bidder bid information.

It should be noted that, in the embodiment of the present application, no limitation is made on other forms of the data object and the resource quantity information.

S502: generating an output sequence according to the input object and the input sequence information;

s503: and providing the output sequence to a server so that the server can conveniently issue the current resource information of the specified data object on line.

For how to convert the input sequence into the output sequence, reference may be made to the description in the first embodiment, and details are not described here.

EXAMPLE III

In the third embodiment, a description will be given of a manner in which "a digital input processing method exists as a separate application program".

Specifically, referring to fig. 6, a third embodiment provides a method for performing digital information input processing on a third-party application, including:

s601: receiving an input sequence in an input environment of a third party application, the input sequence including a plurality of input objects, the input objects including numbers and units of count;

it should be noted that, in this embodiment, the execution subject of each step may be an independent application having a digital information input processing function, and the third-party application is another application having a digital information input requirement, and for convenience of distinction, the former is referred to as a "digital input method". After the user installs the digital input method on the terminal equipment, the third-party application program in the terminal equipment can use the digital input method to input digital information.

In a specific implementation, after the 'digital input method' is installed and added to the system setting, after an input box of a third-party application program and the like are clicked, an input interface can be entered, the input interface is provided with an operation option for switching the input method, and a user can switch the input method through the operation option. If the program is switched to the 'digital input method' in the embodiment of the application, the 'digital input method' program receives the call of the current third-party application program, and at this time, the step and the subsequent steps can be executed.

In the above manner, the input control may be performed on the third-party application program under the condition that the user actively switches the input method. Or, in another implementation manner, the "digital input method" program in the embodiment of the present application may further determine an input environment in a third-party application program, and if the input environment is found to meet a preset condition, automatically trigger the step and subsequent steps to be executed. For example, the context input information of the current third-party application program may be determined, and if it is determined that the number is currently required to be input and the number of digits of the number may be relatively large, the current third-party application program may be automatically entered. That is, the user is not required to perform manual operation of switching the input method, and when the user needs to input numbers, the user can automatically enter the input state of the "number input method" in the embodiment of the present application, including displaying a virtual keyboard interface with the number and counting unit input options, and the like.

S602: generating an output sequence according to the input object and the input sequence information;

s603: providing the output sequence to the third-party application program so as to display the output sequence on screen at the third-party application program.

Example four

In a fourth embodiment of the present invention, a user interface is provided, where the user interface may include a virtual keyboard interface and a result display bar, the virtual keyboard interface includes a number input option and a count unit input option, and is configured to receive an input sequence, where the input sequence includes at least one input object, and the input object includes numbers and a count unit; and the result display column is used for displaying an output sequence, and the output sequence is generated according to each input object and input sequence information in the input sequence.

In a specific implementation, in the process of inputting the input object, every time an input object is received, the currently generated output sequence can be dynamically displayed in the display bar.

Corresponding to the digital information input processing method provided in the first embodiment, an embodiment of the present application further provides a digital information input processing apparatus, and referring to fig. 7, the apparatus may specifically include:

a first input sequence receiving unit 71 is operable to receive an input sequence comprising a plurality of input objects comprising numbers and units of count.

A first output sequence generating unit 72 for generating an output sequence based on the input object and the input sequence information.

In one implementation, the first input sequence receiving unit 71 is specifically configured to:

providing a virtual keyboard interface, wherein the virtual keyboard interface comprises a number input option and a counting unit input option, and the counting unit input option comprises at least two input options which have adjacent relation on a counting unit;

an input sequence is received through the virtual keyboard interface.

In another implementation, a mapping relationship between characters corresponding to preset keys in an entity keyboard and a counting unit can be established in advance;

based on this, the first input sequence receiving unit 71 may specifically be configured to:

receiving at least one number and at least one character corresponding to the preset key through the entity keyboard;

and converting the characters corresponding to the preset keys into counting units according to the mapping relation, and forming the input sequence with the received numbers.

In addition, the device may further include:

and the simulation unit is used for simulating the operation state of the digital input option or the counting unit input option in the virtual keyboard interface in the process of determining the input sequence.

In practical applications, the apparatus may further include:

and the display unit is used for inputting the output sequence into a display bar in the interface for displaying.

Further, the device may further include:

and the counting unit information providing unit is used for providing counting unit information corresponding to an output object at a preset position in an output sequence in the display column.

Optionally, the apparatus may further include:

and the deleting operation option providing unit is used for providing a deleting operation option which is used for deleting the output sequence displayed in the display column as a whole.

In this embodiment, the first output sequence generating unit 72 may specifically be configured to:

and dynamically generating an output sequence every time an input object is received in the process of inputting the input object.

During specific implementation, the corresponding processing modes can be provided in advance according to the current input object and the type characteristics of the historical input objects in the current input sequence; the type feature comprises a number or a count unit;

based on this, the first output sequence generating unit 72 may specifically be configured to:

after receiving a current input object, determining a target processing mode according to the current input object and the type characteristics of historical input objects in a current input sequence;

and generating the output sequence according to the target processing mode.

In one case, if the current input object is a number and is the first of an input sequence, or the current input object and the previous input object are both numbers, or the previous input object is a counting unit and the current input is zero, or the previous input object is a number and the current input object is a decimal point, or the previous input object is a decimal point, the current input object is a number, and the counting unit includes an integer counting unit and a decimal point, the processing manner includes:

adding the current input object into a temporary queue so as to determine the output sequence according to the N digits combined by all the input objects in the temporary queue;

wherein N is a positive integer.

Further, if the current input object is a non-integer count unit and no integer count unit exists in the historical input sequence, the determining the output sequence comprises:

and determining the temporary queue as a current output sequence.

Further, if the current input object is an integer count unit and the last input object is a number, the determining the output sequence includes:

and taking out the N digits from the temporary queue, converting the N digits according to a mathematical conversion rule corresponding to the integer counting unit to generate a current output sequence, and emptying the temporary queue.

Further, if the current input object is zero and the last input object is an integer count unit, the last output sequence is determined as the current output sequence.

Further, if the current input object is a non-zero number, an integer counting unit exists in the history input sequence, and a next input object of the integer counting unit is zero, the processing mode includes:

and taking out the N digit number from the temporary queue, and adding the output sequence obtained when the integer counting unit is received and the N digit number to obtain the current output sequence.

In another case, if the current input object is a non-zero number and the last input object is an integer counting unit, the processing method includes:

determining a one-level lower integer count unit of the integer count units in the previous input object;

converting the current input object according to a mathematical conversion rule corresponding to the lower-level integer counting unit;

and adding the conversion results of the last output sequence and the current input object to determine the current output sequence.

In another implementation manner, the first output sequence generating unit 72 is further configured to:

and after receiving the complete input sequence, converting the input sequence into an output sequence according to the characteristics of each input object contained in the input sequence.

During specific implementation, if no other input object exists after the integer counting unit in the input sequence, the N digits before the integer counting unit and a mathematical algorithm corresponding to the integer counting unit are converted to obtain a first calculation result; wherein N is a positive integer, and the N digits comprise an integer or a decimal;

the first calculation result is determined as an output sequence.

Further, if other input objects exist after the integer counting unit in the input sequence, whether the adjacent input object after the integer counting unit is a number 0 is judged;

if yes, converting the continuously input N digits before the integer counting unit and a mathematical conversion rule corresponding to the integer counting unit to obtain a first calculation result, and adding M digits consisting of 0 and other subsequent digits to the first calculation result to obtain a second calculation result; wherein M is a positive integer;

the second calculation result is determined as an output sequence.

Further, if the adjacent input object behind the integer counting unit is a non-0 number, determining the lower integer counting unit of the integer counting unit;

converting the non-0 number according to a mathematical conversion rule corresponding to the lower-level integer counting unit to obtain a third calculation result;

adding the first calculation result and the third calculation result to obtain a fourth calculation result;

determining the fourth calculation result as an output sequence.

Corresponding to the data object resource information processing method provided in the second embodiment, an embodiment of the present application further provides a data object resource information processing apparatus, referring to fig. 8, where the apparatus is applied to a client, and may include:

a second input sequence receiving unit 81, configured to receive current resource information input for a specified data object, where the input information includes an input sequence including a plurality of input objects, and the input objects include numbers and count units;

a second output sequence generating unit 82 that generates an output sequence from the input object and the input sequence information;

the first output sequence providing unit 83 provides the output sequence to the server, so that the server can issue the current resource information of the specified data object online.

In a specific implementation, the designated data object may include a business object participating in an online-offline synchronous auction, the resource information includes offline received bid information for the business object, and the client includes a first user client configured to enter offline received bid information for the business object.

In specific implementation, the resource quantity information further includes offer information of the online users to the service object, and the client includes a second user client, where the second user client is used to receive offer information of offline/other online users provided by the server and to enter offer information of the current online users.

Corresponding to the method for processing digital information input to the third-party application provided in the third embodiment, the embodiment of the present application further provides a device for processing digital information input to the third-party application, and referring to fig. 9, the device may include:

a third input sequence receiving unit 91 for receiving an input sequence in an input environment of a third party application, the input sequence including a plurality of input objects, the input objects including numbers and a count unit;

a third output sequence generating unit 92 for generating an output sequence from the input object and the input sequence information;

a second output sequence providing unit 93, configured to provide the output sequence to the third-party application program, so as to perform on-screen display on the output sequence by the third-party application program.

Under one implementation, the apparatus may include:

and the triggering unit is used for triggering the execution of the steps when receiving the calling instruction of the third-party application program.

In another implementation, the apparatus may further include:

the judging unit is used for judging the input environment of the third-party application program;

and the triggering unit is used for triggering the execution of each step when the input environment meets the preset condition.

According to the embodiment of the application, the input queue which comprises a plurality of input objects and is input by a user can be received firstly, wherein the input objects can comprise at least one number and at least one counting unit, then the output queue consisting of the numbers can be generated according to the received numbers, the counting units and the input sequence information of the numbers and the counting units, so that when the user wants to input a certain number (especially a large number of thousands of digits and more than ten thousands of digits), the input efficiency and the input accuracy of the numbers can be improved without converting and inputting the number and the counting units in the conventional scheme, and the number and the counting units can be directly input according to the reading method of the numbers.

From the above description of the embodiments, it is clear to those skilled in the art that the present application can be implemented by software plus necessary general hardware platform. Based on such understanding, the technical solutions of the present application may be essentially or partially implemented in the form of a software product, which may be stored in a storage medium, such as a ROM/RAM, a magnetic disk, an optical disk, etc., and includes several instructions for enabling a computer device (which may be a personal computer, a server, or a network device, etc.) to execute the method according to the embodiments or some parts of the embodiments of the present application.

The embodiments in the present specification are described in a progressive manner, and the same and similar parts among the embodiments are referred to each other, and each embodiment focuses on the differences from the other embodiments. In particular, the system or system embodiments are substantially similar to the method embodiments and therefore are described in a relatively simple manner, and reference may be made to some of the descriptions of the method embodiments for related points. The above-described system and system embodiments are only illustrative, wherein the units described as separate parts may or may not be physically separate, and the parts displayed as units may or may not be physical units, may be located in one place, or may be distributed on a plurality of network units. Some or all of the modules may be selected according to actual needs to achieve the purpose of the solution of the present embodiment. One of ordinary skill in the art can understand and implement it without inventive effort.

The method and the device for processing digital information input, the method and the device for processing data object resource information, the method and the device for processing digital information input to a third-party application program, and a user interface provided by the application are described in detail above, specific examples are applied in the description to explain the principle and the implementation mode of the application, and the description of the above embodiments is only used to help understand the method and the core idea of the application; meanwhile, for a person skilled in the art, according to the idea of the present application, the specific embodiments and the application range may be changed. In view of the above, the description should not be taken as limiting the application.

Claims

1. A digital information input processing method, comprising:

determining an input object included in the input sequence according to a reading method of the output sequence; wherein the input sequence information includes: in the order of at least one digit, units of count, at least one digit;

at least one number input after the counting unit includes at least one zero and at least one non-zero number, the input order information further includes: in the order of at least one number, units of count, at least one zero, at least one non-zero number.

2. The method of claim 1,

the receiving an input sequence, comprising:

providing a virtual keyboard interface, wherein the virtual keyboard interface comprises a number input option and a counting unit input option;

an input sequence is received through the virtual keyboard interface.

3. The method of claim 2, wherein the count unit input options include at least two input options having a neighboring relationship in count units.

4. The method of claim 1, further comprising:

pre-establishing a mapping relation between characters corresponding to preset keys in an entity keyboard and a counting unit;

the receiving an input sequence, comprising:

5. The method of claim 4, further comprising:

in the process of determining the input sequence, simulating a state in which the numeric input option or the count unit input option is operated in the virtual keyboard interface.

6. The method of claim 1, further comprising:

and inputting the output sequence into a display bar in an interface for displaying.

7. The method of claim 6, further comprising:

and providing counting unit information corresponding to an output object at a preset position in an output sequence in the display column.

8. The method of claim 6, further comprising:

and providing a deletion operation option, wherein the operation option is used for deleting the output sequence displayed in the display column in a whole manner.

9. The method of any one of claims 1 to 8, wherein the generating an output sequence comprises:

10. The method of claim 9, further comprising:

providing respective corresponding processing modes in advance according to the current input object and the type characteristics of the historical input objects in the current input sequence; the type feature comprises a number or a count unit;

the dynamically generated output sequence includes:

and generating the output sequence according to the target processing mode.

11. The method of claim 10, wherein the count units comprise integer count units and decimal points; if the current input object is a number and is the first of the input sequence, or the current input object and the previous input object are both numbers, or the previous input object is a counting unit and the current input is zero, or the previous input object is a number and the current input object is a decimal point, or the previous input object is a decimal point and the current input object is a number, the processing mode comprises the following steps:

wherein N is a positive integer.

12. The method of claim 11, further comprising:

if the current input object is a non-integer count unit and no integer count unit exists in the historical input sequence, the determining the output sequence comprises:

and determining the temporary queue as a current output sequence.

13. The method of claim 11, further comprising:

if the current input object is an integer count unit and the last input object is a number, said determining the output sequence comprises:

14. The method of claim 13, wherein the determining the output sequence further comprises:

and if the current input object is zero and the last input object is an integer counting unit, determining the last output sequence as the current output sequence.

15. The method of claim 14, wherein the determining the output sequence further comprises:

if the current input object is a non-zero number, an integer counting unit exists in the historical input sequence, and the next input object of the integer counting unit is zero, the processing mode comprises the following steps:

16. The method of claim 10,

if the current input object is a non-zero number and the last input object is an integer counting unit, the processing mode comprises:

17. The method of any one of claims 1 to 8, wherein the generating an output sequence comprises:

18. The method of claim 17, wherein converting the input sequence into the output sequence according to features of each input object included in the input sequence comprises:

if no other input object exists after the integer counting unit in the input sequence, converting the N digits before the integer counting unit and a mathematical conversion rule corresponding to the integer counting unit to obtain a first calculation result; wherein N is a positive integer, and the N digits comprise an integer or a decimal;

the first calculation result is determined as an output sequence.

19. The method of claim 17, wherein converting the input sequence into the output sequence according to features of each input object included in the input sequence comprises:

if other input objects exist behind the integer counting unit in the input sequence, judging whether the adjacent input objects behind the integer counting unit are digital 0;

the second calculation result is determined as an output sequence.

20. The method of claim 18, further comprising:

if the adjacent input object behind the integer counting unit is a non-0 number, determining a lower integer counting unit of the integer counting unit;

determining the fourth calculation result as an output sequence.

21. A user interface is characterized in that the user interface comprises a virtual keyboard interface and a result display bar, the virtual keyboard interface comprises a number input option and a counting unit input option and is used for receiving an input sequence, the input sequence comprises at least one input object, and the input object comprises numbers and counting units; the result display column is used for displaying an output sequence, and the output sequence is generated according to each input object and input sequence information in the input sequence;

22. The user interface of claim 21, wherein a currently generated output sequence is dynamically presented in the display bar each time an input object is received during the input of the input object.

23. A data object resource information processing method is characterized by comprising the following steps:

providing the output sequence to a server so that the server can conveniently release the current resource information of the specified data object on line; determining an input object included in the input sequence according to a reading method of the output sequence; wherein the input sequence information includes: in the order of at least one digit, units of count, at least one digit;

24. The method of claim 23, wherein the designated data object comprises a business object participating in an online-to-offline synchronized auction, wherein the resource information comprises offline received bid information for the business object, and wherein the client comprises a first user client configured to enter offline received bid information for the business object.

25. The method of claim 23, wherein the designated data object comprises a business object participating in an online-to-offline synchronous auction, the resource information comprises bid information for the business object for online users, and the client comprises a second client for receiving bid information for offline/other online users provided by a server and entering the bid information for the current online user.

26. A method for digital information input processing for a third party application, comprising:

providing the output sequence to the third-party application program so as to display the output sequence on screen at the third-party application program;

27. The method of claim 26, further comprising, prior to the method:

and if a calling instruction of the third-party application program is received, triggering the execution of each step.

28. The method of claim 26, further comprising, prior to the method:

judging the input environment of the third-party application program;

and if the input environment meets the preset condition, triggering the execution of each step.

29. A digital information input processing apparatus, comprising:

a first output sequence generating unit for generating an output sequence according to the input object and the input sequence information;

30. An apparatus for processing data object resource information, applied to a client, the apparatus comprising:

a second output sequence generating unit that generates an output sequence from the input object and the input sequence information;

the first output sequence providing unit is used for providing the output sequence to a server so that the server can issue the current resource information of the specified data object on line;

31. An apparatus for performing digital information input processing for a third party application, comprising:

a second output sequence providing unit, configured to provide the output sequence to the third-party application program so as to perform on-screen display on the output sequence at the third-party application program;