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KR101795543B1 - Bag for wireless recharge - Google Patents

Bag for wireless recharge Download PDF

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Publication number
KR101795543B1
KR101795543B1 KR1020160028792A KR20160028792A KR101795543B1 KR 101795543 B1 KR101795543 B1 KR 101795543B1 KR 1020160028792 A KR1020160028792 A KR 1020160028792A KR 20160028792 A KR20160028792 A KR 20160028792A KR 101795543 B1 KR101795543 B1 KR 101795543B1
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KR
South Korea
Prior art keywords
wireless power
antenna
battery
power transmission
charging
Prior art date
Application number
KR1020160028792A
Other languages
Korean (ko)
Other versions
KR20170027261A (en
Inventor
노승윤
최원길
Original Assignee
주식회사 아모그린텍
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Application filed by 주식회사 아모그린텍 filed Critical 주식회사 아모그린텍
Publication of KR20170027261A publication Critical patent/KR20170027261A/en
Application granted granted Critical
Publication of KR101795543B1 publication Critical patent/KR101795543B1/en

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    • AHUMAN NECESSITIES
    • A45HAND OR TRAVELLING ARTICLES
    • A45CPURSES; LUGGAGE; HAND CARRIED BAGS
    • A45C13/00Details; Accessories
    • A45C13/001Accessories
    • AHUMAN NECESSITIES
    • A45HAND OR TRAVELLING ARTICLES
    • A45CPURSES; LUGGAGE; HAND CARRIED BAGS
    • A45C15/00Purses, bags, luggage or other receptacles covered by groups A45C1/00 - A45C11/00, combined with other objects or articles
    • AHUMAN NECESSITIES
    • A45HAND OR TRAVELLING ARTICLES
    • A45CPURSES; LUGGAGE; HAND CARRIED BAGS
    • A45C3/00Flexible luggage; Handbags
    • AHUMAN NECESSITIES
    • A45HAND OR TRAVELLING ARTICLES
    • A45CPURSES; LUGGAGE; HAND CARRIED BAGS
    • A45C5/00Rigid or semi-rigid luggage
    • H02J7/025

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  • Charge And Discharge Circuits For Batteries Or The Like (AREA)

Abstract

A wirelessly chargeable bag is provided. A wirelessly chargeable bag according to an exemplary embodiment of the present invention includes a bag body having a receiving portion; A charging accommodation member having a storage space for storing the portable electronic device and disposed in the storage portion and having at least one battery built therein; A wireless power transmission antenna embedded in the charging accommodation member to perform a function of an antenna for transmitting or receiving wireless power; And a circuit unit for controlling driving of the antenna for wireless power transmission, wherein the antenna for wireless power transmission plays a role of an antenna for receiving wireless power according to whether an inductance change and a power signal are detected through one antenna Or plays the role of an antenna for wireless power transmission so that the power of the battery is charged in a wireless manner or the power stored in the battery is transmitted in a wireless manner to charge the main battery of the portable electronic device.

Description

A bag that can be recharged wirelessly {Bag for wireless recharge}

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a bag, and more particularly, to a bag which can be easily charged in a wireless manner with a main battery of a portable electronic device such as a smart phone.

Background of the Invention [0002] Today, as the size of a portable terminal is reduced and slimmer, the capacity of a battery built in the portable terminal itself is limited. For example, a smart phone, which is a kind of the portable terminal, has various additional functions such as search, finance, and moving picture playback in addition to the basic call function, and its usage time is gradually increasing.

Due to this, the battery of the portable terminal itself frequently fails to exceed one day due to the capacity limit. Accordingly, it is necessary to replace the battery at least once a day or to continuously charge the battery through a charging cable.

However, when the charging of the portable terminal through the charging cable is difficult, for example, there is a problem that the battery of the portable terminal is exhausted during the long trip or traveling while traveling, thereby turning off the power of the portable terminal.

In particular, since smartphones of recent years are manufactured as a battery-integrated type (built-in type) in which a battery can not be replaced, it is common to purchase and carry a charging auxiliary battery capable of being charged in an emergency.

However, charging through the charging cable may not be possible depending on the surrounding environment, and the conventional charging auxiliary battery has a problem in that it is inconvenient to carry. This is also the case in portable electronic devices such as tablets and PMPs.

Therefore, there is a desperate need to easily charge the main battery of the portable electronic device regardless of the place.

KR 10-2000-0051087 A

SUMMARY OF THE INVENTION The present invention has been made in view of the above-mentioned problems, and it is an object of the present invention to provide a portable electronic device, The flexible battery can be built in, which can increase the usability of the portable electronic device by extending the use time of the portable electronic device by charging the main battery of the portable electronic device anytime and anywhere without having to carry a separate charging auxiliary battery as in the prior art The object of the present invention is to provide a bag which can be charged wirelessly.

It is another object of the present invention to provide a wirelessly chargeable bag which can charge a main battery of a portable electronic device while preserving a circular shape of a bag by providing a separate storage member capable of storing the portable electronic device.

Further, according to the present invention, since a pattern for shrinkage and relaxation is provided in a flexible battery, even if the storage member is made of a soft material, it is possible to flexibly cope with deformation, thereby preventing a breakdown of the flexible battery. There is another purpose to provide.

It is a further object of the present invention to provide a wirelessly chargeable bag capable of realizing thinning by using one wireless power transmission antenna as a wireless power transmission mode or a wireless power receiving mode according to the purpose of use.

In order to solve the above-described problems, the present invention provides a bag- A charging accommodation member having a storage space for storing the portable electronic device and disposed in the storage portion and having at least one battery built therein; And a wireless power transmission antenna that is embedded in the charging housing member and transmits wireless power by using power of the battery so as to charge the main battery of the portable electronic device do.

In addition, the main battery of the portable electronic device can be charged using the radio power transmitted through the antenna for wireless power transmission in a state where the portable electronic device is housed in the storage space.

The charging housing member may include a housing body forming the housing space, and the battery may be housed in at least one side of the housing body.

The charging housing member may be integrally formed with or detachable from the bag body.

Further, the charging housing member may be realized in the form of a pouch.

The antenna for wireless power transmission is used as an antenna for wireless power transmission and serves as an antenna for wireless power transmission for charging a main battery of a portable terminal using a power stored in the battery, And may serve as a wireless power receiving antenna for receiving wireless power and charging the battery.

In addition, the wireless power transmission antenna may be configured such that when the inductance is changed through interaction with an antenna for wireless power transmission provided in the external charger and a power signal transmitted from the external charging device is detected, And may serve as an antenna for receiving wireless power for receiving wireless power.

Also, some of the power stored in the battery may be used as a driving power source for driving the antenna for wireless power transmission.

According to another aspect of the present invention, A charging accommodation member having a storage space for storing the portable electronic device and disposed in the storage portion and having at least one battery built therein; A wireless power transmission antenna embedded in the charging accommodation member to perform a function of an antenna for transmitting or receiving wireless power; And a circuit unit for controlling driving of the antenna for wireless power transmission, wherein the antenna for wireless power transmission receives wireless power supplied from the outside through one antenna and charges the power of the battery, The present invention provides a wirelessly chargeable bag for charging the main battery of the portable electronic device by transmitting the stored power in a wireless manner.

The wireless power transmission antenna is operated in a transmission mode for transmitting power stored in the battery in a wireless manner, and receives wireless power transmitted from the wireless power transmission module through the circuit unit when the wireless power transmission module senses The receiving mode can be switched to the receiving mode.

In addition, the wireless power transmission antenna may periodically transmit a power signal for sensing the wireless power receiving module.

The circuit unit may switch the antenna for wireless power transmission to a receiving mode when a power signal transmitted from the wireless power transmitting module is sensed and the inductance of the antenna for wireless power transmission is changed.

The shielding sheet shields a magnetic field generated in a predetermined frequency band and focuses the shielding sheet in a desired direction on one surface of the antenna for wireless power transmission.

The shielding sheet may be a ribbon sheet including at least one of an amorphous alloy and a nano-crystal alloy.

Also, the battery may be a flexible flexible battery, and the flexible battery may include an electrode assembly including an anode, a cathode, and a separator; And an outer casing that encapsulates the electrode assembly together with the electrolyte, wherein the outer casing and the electrode assembly each have a pattern for contraction and relaxation during bending, and each of the patterns formed on the casing and the electrode assembly coincide with each other Pattern may be provided.

Also, the pattern may be formed entirely or partly with respect to the entire length of the battery.

According to the present invention, since the portable electronic device can be stored in the charging accommodation member and the main battery of the portable electronic device can be charged, the original shape of the bag can be maintained and the main battery of the portable electronic device can be charged So that the use time can be increased.

In addition, since the flexible battery has a pattern for shrinking and relaxing, even if the charging housing member is made of a soft material, it is possible to flexibly cope with deformation, thereby preventing breakage of the flexible battery, And can be implemented in various forms.

In addition, when the battery is implemented as a flexible battery, even if the bag that can be charged wirelessly is made of a soft material, the flexible battery has a pattern for contraction and relaxation, It is possible to cope flexibly and to prevent the breakage and deterioration of the performance of the battery.

Further, the present invention can be reused by charging the flexible battery by using one wireless power transmission antenna as a wireless power transmission mode or a wireless power reception mode according to the purpose of use.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 illustrates a wirelessly chargeable bag according to an embodiment of the present invention; FIG.
FIG. 2 is a perspective view illustrating a charging accommodation member applied to a bag according to an embodiment of the present invention; FIG.
FIG. 3 is a partial cross-sectional view showing the arrangement relationship of the battery, the antenna for wireless power transmission and the shielding sheet in FIG. 2,
4 is a schematic view showing a configuration for wireless charging in a wirelessly chargeable bag according to the present invention,
FIG. 5 is a schematic view showing a detailed configuration of a circuit part applied to a wirelessly chargeable bag according to the present invention,
FIG. 6 is a detailed configuration diagram of one embodiment of a shielding sheet applied to a wirelessly chargeable bag according to the present invention,
7 to 10 are views showing various forms of a bag body that can be applied to a wirelessly chargeable bag according to the present invention.
11 is a view showing an embodiment in which a battery applied to a wirelessly chargeable bag according to the present invention is implemented as a flexible battery,
FIG. 12 is a schematic view showing various forms of patterns formed on the casing and the electrode assembly in FIG. 11;
FIG. 13 is an enlarged cross-sectional view showing the detailed configuration of FIG. 11,
14A and 14B are graphs showing the performance of a flexible battery applicable to a portable article receiver according to the present invention, wherein FIG. 14A is a graph showing changes in battery capacity before and after banding, FIG. 14B is a graph showing an instantaneous external force A graph of voltage change of the battery according to time is shown.

Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings, which will be readily apparent to those skilled in the art to which the present invention pertains. The present invention may be embodied in many different forms and is not limited to the embodiments described herein. In order to clearly illustrate the present invention, parts not related to the description are omitted, and the same reference numerals are assigned to the same or similar components throughout the specification.

A bag 100 capable of wireless charging according to an embodiment of the present invention includes a bag body 110, a charging accommodation member 120, and a wireless power transmission antenna 150 as shown in FIG.

The bag main body 110 is for storing articles, such as documents, cosmetics, pouches, etc., personal belongings, and documents. The bag body 110 includes a front portion 111 and a rear portion 112 which form an outer appearance of the bag and a receiving portion for storing the article is provided between the front portion 111 and the rear portion 112.

The receiving part provides a space for storing or storing the article, and the front part 111 and the rear part 112 may be connected to each other via the bottom part 113 and may be provided as a single space, And may be divided into a plurality of spaces through this partition.

The bag body 110 includes a cover portion 114 extending from the rear portion 112 or the front portion 111 and preferably the rear portion 112 to cover a part or the whole of the front portion 111 As shown in FIG.

At this time, the front part 111, the rear part 112, and the bottom part 113 of the bag body 110 may be formed of a single member or may be provided in a form in which the inner skin and the outer skin are joined together.

Meanwhile, it should be understood that the receiving portion should be understood as a form providing a space for storing articles, and may be provided in various forms as long as it provides a space for storing the articles.

In addition, the front part 111 and the rear part 112 of the bag body 110 may be made of a soft material such as leather, fabric, etc., which is usually used as a bag material.

7 to 10, the bag body may be a backpack, a briefcase 210, a travel carrier 410, a climbing bag or a backpack 510, But may be a handbag 410 including a used shoulder bag, a cross bag, a clutch bag, a tote bag, and the like.

The charging accommodating member 120 is disposed in a receiving portion of the bag body 110 and is provided with a storage space S for accommodating the charging object 10 so that the main battery of the charging object 10 And serves as an auxiliary battery for charging.

2, the charging housing member 120 includes a housing main body 121 forming the housing space S, and the housing main body 121 is connected to the charging object 10 side And a battery 130 for charging the main battery of the charging object 10 by supplying power in a wireless manner.

Accordingly, the main battery to be charged can be easily charged using the wireless power provided by the battery 130 in a state where the charging object is stored in the storage space S. Here, the object to be charged may be a portable electronic device such as a mobile phone, a smart phone, a PMP, a DMB, a tablet and the like.

At this time, the charging accommodating member 120 may be integrally formed with the bag body 110 by being connected to the bag body 110 at one side in the accommodating portion, .

For example, the storage body 121 may be embodied as a normal pouch having a storage space S capable of receiving articles, and may be inserted into the receiving portion of the bag body 110.

Accordingly, the charging accommodating member 120 can be separated from the bag body 110 and transferred to another bag to be used, or only the charging accommodating member 120 can be separated and carried, .

When the main battery of the charging object 10 is exhausted and needs to be charged, the main body of the charging object 10 is charged with the power of the battery 130 while the charging object is stored in the storage space S, It is possible to easily charge the main battery of the object to be charged without being adversely affected by the place.

In addition, since the battery 130 for supplying power to the charging object side is embedded in the charging accommodation member 120, it is not necessary to change or deform the original shape of the bag body 110, Will not drop.

Meanwhile, the storage space S may be provided in the form of a pocket having an opened upper side, or may be provided in a form in which an opened upper part is covered by a separate lid. In addition, the storage body 121 may be formed of one member, or may be provided in a form in which the inner skin and the outer skin are joined together.

In addition, the above-mentioned storage space S should be understood as a form of providing a space for storing articles including portable electronic devices and the like. As shown in Fig.

At this time, the storage body 121 prevents the position of the object to be charged 10 from being moved in a state where the object 10 is stored in the storage space S, so that the size of the object to be charged 10 And a device accommodating portion 122 for preventing the flow of the filling object may be provided inside the accommodating main body 121 (see FIG. 2).

The device housing part 122 may be formed at a position corresponding to the antenna 150 for wireless power transmission built in the charging housing member 120 and may be sized to accommodate the charging object . For example, the device housing part 122 may be provided to have a size approximately equal to at least one of a length and a width of a portable object, for example, a charging object.

When the charging object is inserted into the device accommodating portion 122, the wireless power receiving antenna 18 built in the charging object 10 is connected to the wireless power transmitting antenna 122 built in the receiving main body 121, (150). In addition, since the flow of the object to be charged is prevented by the device accommodating portion 122, the wireless power transmission antenna 150 and the wireless power receiving antenna 18 to be charged are maintained in an aligned state, .

Such a device housing part 122 may be provided in the storage space S in the form of a pocket having a size substantially similar to that of the filling object 10 or a plurality of storage spaces S The charging object 10 may have a size substantially the same as that of the object 10 to be charged.

It should be noted that the device housing part 122 is provided at a position corresponding to the antenna 150 for wireless power transmission built in the housing main body 121 so that it can be positioned so that wireless charging can be smoothly performed .

Here, the pocket-type device housing portion 122 is exemplified as one example of the fixing means for fixing the position of the filling object 10 accommodated in the storage space S, but the present invention is not limited to this, and the band type, It is noted that various known methods can be applied as long as the charging object such as the clip and the Velcro type can be fixed in the accommodation space S or prevented from flowing.

The main body 121 includes a front portion 121a and a rear portion 121b so as to form a storage space S for receiving the charging object 10, The battery 130 providing power for charging may be embedded either in the front part 121a or the rear part 121b or may be embedded in both the front part 121a and the rear part 121b .

At this time, the storage body 121 may be made of a soft material such as leather, fabric, or the like. In this case, a flexible plate-shaped flexible battery can be used so as to flexibly cope with deformation of the storage body 121 while reducing the overall weight of the battery 130 installed in the storage body 121.

That is, when the battery 130 is implemented as a flexible battery, the flexible battery may have a large area corresponding to at least one of the front portion 121a and the rear portion 121b of the storage body 121 The overall capacity of the battery 130 can be dramatically increased.

Here, when the flexible battery is integrated in the front part 121a and the rear part 121b of the housing main body 121, a flexible battery built in the front part 121a and a flexible battery built in the rear part 121b And may be electrically connected to each other, but may be formed of a single cylinder.

Meanwhile, in the bag 100 capable of wireless charging according to the present invention, power supplied from the battery 130 is supplied to the charging object side in a wireless manner.

A wireless power transmission antenna 150 for transmitting the power supplied from the battery 130 by wireless power is built in the housing main body 121 and the wireless power transmission antenna 150 is connected to the circuit unit 140, respectively.

The antenna for wireless power transmission 150 may be formed of a flat coil of a polygonal shape such as a circular shape, an elliptical shape, a spiral shape or a quadrangular shape wound in a clockwise or counterclockwise direction, The metal foil may be etched or printed in a predetermined pattern using a conductive ink.

Here, when the antenna 150 for wireless power transmission is formed in a pattern on the circuit board, the circuit board may be formed integrally with the circuit board constituting the circuit unit 140 or may be formed of a separate member .

The wireless power transmission antenna 150 serves as a wireless power transmission antenna for transmitting wireless power to the wireless power receiving antenna 18 provided in the charging object 10, ).

The driving power of the circuit unit 140 for driving the wireless power transmission antenna 150 may be a part of the power stored in the battery 130. In one side of the storage unit 121, A switch (not shown) for supplying or cutting off power to the power supply 140 may be exposed to the outside.

For example, when power is supplied to the circuit unit 140 through the battery 130, the power supplied from the battery 130 is converted into a constant voltage and current through the converting unit 142, 143 to convert the DC power supplied from the battery 130 to AC power, and then transmit the wireless power through the antenna 150 for wireless power transmission.

Here, the circuit unit 140 controls the overall operation and generates a control signal for controlling characteristics of a frequency, an applied voltage, and a current used for generating a power signal transmitted from the antenna 150 for wireless power transmission And the power signal includes information including at least one of power amount information of the object to be charged, charge state information, power information suitable for the load requested by the object to be charged, and identification information .

Accordingly, the wireless power receiving antenna 18 provided in the charging object 10 generates electric power by using the electromagnetic field transmitted from the antenna 150 for wireless power transmission, so that the main battery of the charging object 10 Is charged.

At this time, the wireless power transmission antenna 150 transmits the power of the battery 130 by wireless power to charge the main battery of the charging object 10, and receives wireless power from the external charging device, And charging the power source of the battery 130.

That is, the antenna 150 for wireless power transmission can perform the function of an antenna for transmitting a wireless power or the function of an antenna for wireless power reception according to the purpose of use through one antenna.

In other words, the wireless power transmission antenna 150 may be used as an antenna for wireless power transmission, and may be operated in a transmission mode for charging the main battery to be charged using the power stored in the battery 130, May be used as a power receiving antenna, and may be operated in a receiving mode for receiving wireless power supplied from an external charging device to charge the battery 130.

That is, when the charging object equipped with the wireless power receiving module approaches the wireless power transmission antenna 150, the wireless power transmission antenna 150 is switched to the antenna for wireless power transmission and is implemented in the wireless power transmission mode , And when the wireless power transmission module approaches the wireless power transmission antenna 150, the wireless power transmission antenna 150 may switch to the wireless power reception antenna and be implemented in the wireless power reception mode.

Also, the wireless power transmission antenna 150 operates as an antenna for wireless power reception for charging the battery 130 in a transmission mode operated by an antenna for wireless power transmission for charging the main battery to be charged Reception mode.

For example, the wireless power transmission antenna 150 operates in a transmission mode for transmitting wireless power so as to charge the main battery of the object to be charged when a charging object equipped with the wireless power receiving module is nearby, The wireless power transmission antenna 150 may be switched to a reception mode for charging the battery 130 in the transmission mode.

Here, the principle of power transmission / reception using the antenna 150 for wireless power transmission can be applied to both a known magnetic induction method and a self-resonance method for generating an electromagnetic field using a coil and transmitting electric power through the coil. Since the wireless charging technique using the magnetic induction method and the self-resonance method is a well-known technology, a detailed description thereof will be omitted.

At this time, the wireless power transmission antenna 150 may be changed to a reception mode and a transmission mode by a user operating a separate switch (not shown), but the reception mode and the transmission mode Can be changed.

For example, the circuit unit 140 switches the wireless power transmission antenna 150 to an antenna for wireless power transmission when the charging object 10 equipped with the wireless power receiving module approaches the wireless power transmission module, The antenna for wireless power transmission 150 can be switched to the antenna for wireless power reception.

In addition, the circuit unit 140 may be switched from the transmission mode to the reception mode when the external power charger is in a state where the wireless power transmission antenna 150 is operated in the transmission mode for charging the main battery to be charged .

Specifically, when the power is supplied to the circuit unit 140, the wireless power transmission antenna 150 operates in a transmission mode for performing a function of a wireless power transmission antenna, and controls the circuit unit 140 A power signal for detecting proximity of the wireless power receiving module may be transmitted to the outside through the antenna 150 for a predetermined period.

In this case, if the inductance of the antenna 150 for wireless power transmission changes during the transmission of the power signal by the antenna 150 for wireless power transmission and another power signal transmitted from the outside is not detected, 140 can determine that the charging object equipped with the wireless power receiving module is close.

Accordingly, the circuit unit 140 consumes power stored in the battery 130 by adjusting the amount of power transmitted through the wireless power transmission antenna 150 according to the load required by the wireless power receiving module, The main battery is charged.

In addition, when the wireless power transmission antenna 150 operates in the transmission mode as described above, a power signal for sensing the proximity of the wireless power reception module is transmitted through the wireless power transmission antenna 150 at regular intervals When the external power source signal is detected by the circuit unit 140 in response to the change of the inductance of the antenna 150 for wireless power transmission, It can be judged that the period is close.

Accordingly, the circuit unit 140 converts the wireless power transmission antenna 150 into the reception mode, and receives the wireless power transmitted from the wireless power transmission module of the external charging device through the wireless power transmission antenna 150 The battery 130 is charged.

For this, the circuit unit 140 may include various circuits for operating the wireless power transmission antenna 150 in a reception mode and a transmission mode.

For example, the circuit unit 140 controls the overall operation of the circuit unit 140 as shown in FIG. 5, and a frequency used to generate a power signal transmitted from the antenna 150 for wireless power transmission, And a control unit 141 for generating a control signal for controlling characteristics of a voltage, a current, and the like.

Herein, the controller 141 performs a process of identifying the wireless power receiving module and the wireless power transmitting module according to a result of detecting the presence of the wireless power receiving module and the wireless power transmitting module, Or to generate a control signal for switching the antenna 150 for the wireless power transmission from the transmission mode to the reception mode when detecting the proximity of the wireless power transmission module.

The circuit unit 140 converts the power supplied from the battery 130 to a predetermined voltage and current or converts the power received through the antenna 150 to a constant voltage and current suitable for the battery 130. [ And provides the converted signal to the battery 130 side.

In addition, the circuit unit 140 may include an inverter unit 143 for converting a DC power supplied from the battery 130 to an AC power, and may include an external unit (not shown) A rectifier 145 for converting a power source from an AC power source to a DC power source and a voltage lower portion 144 for lowering the DC power converted by the rectifier 145 to a voltage suitable for the battery 130. [ . ≪ / RTI >

Here, the controller 141 may be a well-known MCU, a PWM control scheme, and the voltage lower part 144 may be implemented by either an LDO scheme or a Buck scheme. In addition, the circuit unit 140 may include a protection circuit such as a PCM or the like to prevent overcharge or protect various circuits.

In addition, the circuit unit 140 switches the antenna 150 for radio power transmission to perform a function of an antenna for transmitting a radio power when the radio power receiving module is in proximity to the radio power transmitting module, And a switching circuit for switching the antenna 150 to perform the function of the antenna for wireless power reception.

The circuit unit 140 may be implemented by mounting various circuit patterns on the circuit board 147 and at least one chipset or diode and various passive elements (ex, resistors, capacitors, etc.).

The antenna 150 for wireless power transmission according to the present invention is a transmission mode for charging the main battery of the charging object 10 by using the power stored in the battery 130 through the control of the circuit unit 140 Or may be operated in a receiving mode in which the battery 130 is charged by receiving wireless power supplied from an external charging device.

For example, when the main battery to be charged is to be charged through the charging accommodating member 120 according to the present invention, the charging object is inserted into the accommodating space S. When the power of the battery 130 is supplied to the circuit unit 140, the wireless power transmission antenna 150 operates in the transmission mode by sending the power signal generated by the control unit 141 to the outside at regular intervals. .

The power supplied from the battery 130 may be converted into a constant voltage and current through the converter 142 and then supplied to the controller 141. The inverter 143 converts the power from the DC power to the AC power And then supplied to the antenna 150 for wireless power transmission to transmit a power signal having a predetermined period to the outside.

Thereafter, in the course of transmitting the power signal, the antenna 150 for wireless power transmission interacts with the receiving antenna of the wireless power receiving module included in the charging object to generate the inductance of the wireless power transmitting antenna 150 In the case where a change occurs and no other power signal is detected, the circuit unit 140 consumes power stored in the battery 130 by adjusting the amount of power according to the load required by the wireless power receiving module to be charged, The main battery is charged.

Meanwhile, when the battery 130 needs to be charged, the battery 130 may be charged in a wireless manner by bringing a charger including the wireless power transmission module closer to the charging accommodation member 120.

That is, the wireless power transmission antenna 150 is brought close to the charger in a state where the wireless power transmission antenna 150 operates in the transmission mode in which the power signal is transmitted by the circuit unit 140 at a constant cycle. Accordingly, the inductance of the wireless power transmission antenna 150 is changed by the interaction with the antenna for wireless power transmission of the wireless power transmission module included in the charger. When the control unit 140 senses that another power signal transmitted from the charging device is detected by the controller 140, the controller 140 recognizes that the charger is in proximity and disconnects the power supplied to the inverter unit 143, The antenna 150 is switched to a reception mode in which it operates as an antenna for wireless power reception.

Here, the control unit 141 may transmit information including at least one of electric power amount information, state information of the battery 130, state information of the battery 130, electric power information suitable for the load requested by the object to be charged, .

Therefore, the wireless power transmission antenna 150 operating in the receiving mode charges the power of the battery 130 by receiving the wireless power provided by the charging device in a state suitable for the battery 130. [

Here, the power received through the antenna 150 for wireless power transmission is converted from an AC power source to a DC power source through the rectifying unit 145, and a voltage of a voltage suitable for the battery 130 And then the battery 130 is supplied with a constant voltage and current by the conversion unit 142, so that the battery 130 can be charged.

As described above, the charging accommodation member 120 according to the present invention transmits and receives power wirelessly to charge the main battery to be charged or to charge the battery 130, Charging / discharging is performed by a simple method of storing a charging object in the receiving member 120 or placing the charging receiving member 120 on an external charger, thereby improving the usability.

In addition, since the port, which is a necessary component for connecting the cable in the conventional wire charging / discharging system, is removed, the foreign matter caused by the port and the failure due to moisture penetration can be prevented, and the service life of the auxiliary battery can be extended .

The battery 130 is built in the housing main body 121 to supply power for charging the main battery of the charging object 10.

The battery 130 may be a known battery having rigidity. However, even if the storage body 121 made of a soft material is deformed due to an external force during its use, Or a flexible battery having flexibility so that the problem of performance deterioration does not occur (see Fig. 11).

11 to 13, the flexible battery includes an electrode assembly 131 and exterior materials 137 and 138. The electrode assembly 131 is encapsulated with the electrolytic solution together with the exterior materials 137 and 138. [

At this time, the electrode assembly 131 and the facings 137 and 138 may be provided with patterns 136 and 139 for contraction and relaxation, respectively. For example, the contraction and relaxation patterns 136 and 139 may be formed along the longitudinal direction or the width direction of the electrode assembly 131 and the facings 137 and 138, and the first patterns 137 and 138 formed on the facings 137 and 138 139 and the second pattern 136 formed on the electrode assembly 131 may have the same directionality (see FIGS. 12 and 13).

Such patterns 136 and 139 can prevent or minimize the shrinkage or relaxation of the substrate itself by canceling the amount of change caused by the curvature at the time of deformation even if deformation of the accommodating body 121 occurs during use.

For example, when the housing body 121 is made of a soft material and deformation of the housing body 121 occurs during use, it is possible to prevent the battery 130 from being damaged due to such deformation.

That is, since the deformation amount of the base material itself constituting the electrode assembly 131 and the outer packaging materials 137 and 138 is prevented or minimized, the deformation of the storage body 121, for example, the deformation amount of the base material itself, It is possible to prevent the electrode assembly 131 and the sheathing members 137 and 138 from being damaged or deteriorated in performance.

At this time, the first pattern 139 and the second pattern 136 are disposed so that the first pattern 139 and the second pattern 136 coincide with each other, as well as the same directionality. This is because the first pattern 139 and the second pattern 136 can always have the same behavior.

In other words, when the battery 130 according to the present invention is provided as a flexible battery, patterns 136 and 139 for shrinking and relaxing in the longitudinal direction, which are generated when the electrode assembly 131 and the sheathing members 137 and 138 are bent, The electrode assembly 131 and the casing members 137 and 138 can always maintain a uniform gap or contact state with respect to the entire length of the electrode assembly 131 and the electrode assembly 131 together with the electrode assembly 131, It is possible to prevent the performance of the battery from deteriorating due to uniform distribution of the electrolyte solution over the entire length.

This can be confirmed by the graphs of Figs. 14A and 14B.

That is, when a force is applied to both ends of the flexible battery in an environment of a temperature of 25 ° C and a humidity of 65%, and the curvature in the bent portion is made to be 25 mm, and charging and discharging are performed 100 times, When the pattern was formed on both the electrode assembly 131 and the outer cover materials 137 and 138, the capacity was reduced by about 15% (110 mAh) compared with the capacity (130 mAh) when the bending was not performed. (Example), a flexible battery having a pattern for shrinkage and relaxation only on the exterior material side showed a performance gradually falling from a capacity reduced by about 60% (52 mAh) compared to the initial capacity, and it was impossible to charge / In the case of the flexible battery having a simple plate shape in which no pattern is formed in both the casing and the electrode assembly, a capacity of about 80% reduced from the initial capacity (26 mAh) It was confirmed that charging and discharging were impossible when the deterioration occurred and exceeded 30 times (Comparative Example 2).

On the other hand, in the environment of a temperature of 25 ° C and a humidity of 65%, the middle of the length of the flexible battery was completely folded back to the original state, and the voltage in the battery was measured with time. As a result, 131 and the exterior materials 137 and 138, there was no change in the voltage value (Example), but a flexible battery having a pattern for contraction and relaxation only on the exterior material side (Comparative Example 1) And the flexible battery (Comparative Example 2) having a simple plate-like shape in which no pattern was formed in both of the electrode assemblies and the electrode assemblies was found to be deteriorated in voltage value.

In other words, in the case where the outer sheathing members 137 and 138 and the electrode assembly 131 are formed so that the patterns 136 and 139 for shrinking and relaxing are formed to coincide with each other, the degradation of performance does not occur largely even if banding occurs, Cracks are generated by bending or leakage of electrolyte occurs, and the performance of the battery deteriorates.

As described above, the flexible battery according to the present invention is formed such that the patterns 136 and 139 for contraction and relaxation in the longitudinal direction generated during bending on the electrode assembly 131 and the facings 137 and 138 coincide with each other, Since the electrode assembly 131 and the casing members 137 and 138 can always maintain uniform intervals or contact with the entire length thereof, the electrolyte solution sealed together with the electrode assembly 131 is uniformly distributed over the entire length, It is possible to prevent degradation of performance.

At this time, the pattern may be formed entirely or partially in the flexible battery.

At this time, the first pattern 139 and the second pattern 136 may be formed in a direction parallel to the width direction of the casing member 137 and the electrode assembly 131, respectively, 137 and 138 and the electrode assembly 131 along the longitudinal direction of the electrode assembly 131 (see FIG. 12).

The first pattern 139 and the second pattern 136 may be formed such that the first and second patterns 139 and 137 are formed at the same positions of the first and second patterns 139 and 137, 136 may conform to each other.

The patterns 136 and 139 may be continuously formed in a direction parallel to the width direction of the electrode assembly 131 and the casing materials 137 and 138 or discontinuously formed therebetween. 137, 138, and may be partially formed with respect to a part of the length.

The crests and valleys may be formed to have arcuate cross-sections including semicircles, polygonal cross-sections including triangular or rectangular cross-sections, and cross-sections of various shapes in which arc-shaped cross-sections and polygonal cross-sections are mutually combined. Pitch and width, but they may be provided to have different pitches and widths.

This makes it possible to reduce the degree of fatigue applied to the substrate itself through the patterns 136 and 139, even if the casing members 137 and 138 and the electrode assembly 131 are embedded in the housing body 121 while being bent.

Meanwhile, the first pattern 139 and the second pattern 136 may be formed so that the intervals between the adjacent horns or between the valleys may be the same or may be different from each other, Gaps may be provided in a combined form.

The electrode assembly 131 is encapsulated with the electrolytic solution inside the casing materials 137 and 138 and includes an anode 132, a cathode 134 and a separator 133 (see FIG. 13).

The positive electrode 132 includes a positive electrode collector 132a and a positive electrode active material 132b and the negative electrode 134 includes a negative electrode collector 134a and a negative electrode active material 134b and the positive electrode collector 132a And the anode current collector 134a may be realized in the form of a sheet having a predetermined area.

That is, the positive electrode 132 and the negative electrode 134 can be pressed, deposited, or coated with active materials 132b and 134b on one or both surfaces of the current collectors 132a and 134a. At this time, the active materials 132b and 134b may be provided with respect to the entire area of the current collectors 132a and 134a or partially with respect to a certain area.

The positive electrode collector 132a and the negative electrode collector 134a may be formed with a negative electrode terminal 135a and a positive electrode terminal 135b for electrical connection with an external device from each body. The anode terminal 135b and the anode terminal 135a may be formed to extend from the cathode current collector 132a and the anode current collector 134a and protrude from one side of the case members 137 and 138, 137, 138, respectively.

At this time, the cathode active material 132b and the anode active material 134b may contain a PTFE (Polytetrafluoroethylene) component. This is to prevent peeling or cracking of the cathode active material 132b and the anode active material 134b from the current collectors 132a and 134a at the time of bending.

The separation membrane 133 disposed between the anode 132 and the cathode 134 may include a nanofiber web layer 133b on one side or both sides of the nonwoven fabric layer 133a.

Here, the nanofiber web layer 133b may be a nanofiber containing at least one selected from the group consisting of polyacrylonitrile nanofiber and polyvinylidene fluoride nanofiber.

Preferably, the nanofiber web layer 133b may consist solely of polyacrylonitrile nanofibers to ensure radioactive and uniform pore formation.

The outer casings 137 and 138 are formed of a plate-shaped member having a predetermined area and are adapted to protect the electrode assembly 131 from external force by accommodating the electrode assembly 131 and the electrolyte therein.

The outer sheath 137 and 138 are formed of a pair of first outer sheathing material 137 and a second outer sheathing material 138. The electrolyte solution and the electrode assembly 131, And prevents leakage to the outside.

The outer sheath 137 and the outer sheath 138 may be formed of a single member such that the edges of the outer sheath 137 and the outer sheath 138 may be sealed by an adhesive, The remaining portion that is folded in half along the width or length direction and then abutted may be sealed through the adhesive.

A shielding sheet 160 for increasing the transmission efficiency of the wireless power transmission antenna 150 may be disposed on one side of the wireless power transmission antenna 150. The shielding sheet 160 Like member having a predetermined area as described above, and may be incorporated in the housing body 121 in the same manner as the antenna 150 for wireless power transmission.

The shielding sheet 160 is made of a magnetic material, shields the magnetic field generated by the antenna 150, and focuses the shielding sheet 160 in a desired direction. The shielding sheet 160 can be made of various known materials .

For example, the shielding sheet may be a ribbon sheet, a ferrite sheet or a polymer sheet including at least one of an amorphous alloy and a nano-crystal alloy.

Here, the ferrite sheet may be Mn-Zn ferrite or Ni-Zn ferrite, and the amorphous alloy or the nano-crystal alloy may be an Fe-based or a Co-based magnetic alloy.

In addition, the shielding sheet 160 may be divided into a plurality of fine pieces by flake treatment so as to suppress the generation of an eddy current, and may have a multi-layer structure to increase the permeability.

6, the shielding sheet 160 includes a plurality of ribbon sheets 161a including at least one of an amorphous alloy and a nanocrystalline alloy, and each of the ribbon sheets includes an adhesive layer 161b, And the ribbon sheet may be divided into a plurality of fine pieces. In addition, the plurality of microparts may be entirely insulated or partially insulated from neighboring microparts, and each microparticle may be irregularly randomized.

Since such a shielding sheet 160 has a known structure, a detailed description thereof will be omitted, and all known shielding sheets used as a shielding sheet can be used.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, It will be understood by those skilled in the art that various changes in form and details may be made therein without departing from the spirit and scope of the invention as defined by the appended claims.

100: Wireless Rechargeable Bag
110: bag body 111: front portion
112: rear portion 113: bottom portion
114: lid part 120: charging storage member
121: storage main body 121a:
121b: rear surface portion 122:
130: Battery 140:
141: control unit 142:
143: inverter section 144:
145: rectification part 146: circuit board
150: Wireless power transmission antenna 160: Shielding sheet

Claims (16)

A bag body having a receiving portion;
A charging accommodation member having a storage space for storing the portable electronic device and disposed in the storage portion and having at least one battery built therein;
A wireless power transmission antenna embedded in the charging accommodation member to perform a function of an antenna for transmitting or receiving wireless power; And
And a circuit unit for controlling driving of the antenna for wireless power transmission,
The antenna for wireless power transmission functions as an antenna for wireless power reception or acts as an antenna for wireless power transmission according to whether an inductance change and a power signal are detected through one antenna, Wherein the main battery of the portable electronic device is charged by charging or discharging power stored in the battery in a wireless manner.
The method according to claim 1,
Wherein the wireless power transmission antenna periodically transmits a power signal for sensing a wireless power receiving module provided in the portable electronic device.
3. The method of claim 2,
Wherein the circuit unit switches the wireless power transmission antenna to a reception mode when the inductance of the antenna for wireless power transmission is changed and another power signal is detected.
The method according to claim 1,
Wherein the main battery of the portable electronic device is charged using wireless power transmitted through the antenna for wireless power transmission while the portable electronic device is housed in the storage space.
The method according to claim 1,
Wherein the charging storage member includes a storage body that forms the storage space, and the battery is embedded in at least one surface of the storage body.
The method according to claim 1,
Wherein the charging accommodating member is integrally formed with or detachable from the bag body.
The method according to claim 1,
Wherein the charging accommodation member is implemented in the form of a pouch.
The method according to claim 1,
Wherein a part of the power stored in the battery is used as a driving power for driving the antenna for wireless power transmission.
The method according to claim 1,
Wherein a shielding sheet for shielding a magnetic field generated in a predetermined frequency band and focusing the same in a desired direction is disposed at one side of the wireless power transmission antenna.
10. The method of claim 9,
Wherein the shielding sheet is a ribbon sheet including at least one of an amorphous alloy and a nano-crystal alloy.
The method according to claim 1,
The battery is a flexible battery having flexibility,
The flexible battery includes:
An electrode assembly including an anode, a cathode, and a separator; And
And a casing covering the electrode assembly together with the electrolytic solution,
The outer casing and the electrode assembly each have a pattern for shrinking and relaxing when bending,
Wherein each of the patterns formed on the outer casing and the electrode assembly has a pattern corresponding to each other.
12. The method of claim 11,
Wherein the pattern is formed entirely or partially in relation to the entire length of the battery.
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KR1020160028792A 2015-09-01 2016-03-10 Bag for wireless recharge KR101795543B1 (en)

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Publication number Priority date Publication date Assignee Title
KR102027447B1 (en) * 2018-08-17 2019-10-01 김용수 Bag
KR102105079B1 (en) * 2018-12-28 2020-04-27 김유화 Detachable type wireless rechargeable device using magnetic force
KR102215713B1 (en) * 2019-05-23 2021-02-16 디자인 주식회사 A pouch for wireless charging and configuration method thereof
CN112385969A (en) * 2019-08-19 2021-02-23 布里奇凡卓有限责任公司 Bag capable of being charged wirelessly

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Publication number Priority date Publication date Assignee Title
KR200414158Y1 (en) * 2006-02-03 2006-04-17 주선웅 A case structure capable of preventing of multi-detecting for plurality rfid
JP4819399B2 (en) * 2005-05-26 2011-11-24 日本電気株式会社 Thin battery

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Publication number Priority date Publication date Assignee Title
KR20000051087A (en) 1999-01-18 2000-08-16 임효식 Handbag making sound

Patent Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP4819399B2 (en) * 2005-05-26 2011-11-24 日本電気株式会社 Thin battery
KR200414158Y1 (en) * 2006-02-03 2006-04-17 주선웅 A case structure capable of preventing of multi-detecting for plurality rfid

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