JP2012179422A - Medicine storage device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a medicine storage device capable of improving workability of medicine replenishing work.SOLUTION: A cassette, held on a cassette holding shelf in a manner to be able to reciprocate in a storage direction, stores a plurality of medicines along the storage direction, and includes a pushing member provided on the other side of the storage direction with respect to the row of the medicines formed by the plurality of the medicines, so that the plurality of medicines are biased to one side of the storage direction, and a holding member for disengageably holding the pushing member. The cassette holding shelf is provided with a projecting member for disengaging the pushing member held by the holding member from the holding member using the movement of the cassette when the cassette is moved to the other side of the storage direction to shift the state of the cassette from a drawn-out state to a loaded state.

Description

  The present invention relates to a medicine storage device including a medicine storage cassette for aligning and storing medicines stored in medicine containers such as vials, ampoules, and bottles.

  In a conventional medicine storage device for storing medicines containing medicines such as tablets, powders, injection solutions, etc. in medicine containers such as vials, ampoules, and bottles, for example, one or more medicines are placed in a predetermined storage direction. And having a chemical stopper for stopping chemicals on one side of the chemical row on one side of the storage direction, and extending along the storage direction from the chemical row to the other side of the storage direction. A cassette that is configured to be urged by a predetermined urging force to the one side in the storage direction through the pressing member, When the medicine stopped at the medicine stopper by the urging force toward one side of the storage direction in the medicine row is taken out, the next medicine is further stopped at the medicine stopper, so that the medicine in the medicine row is order There are chemical storage device comprising a paid out by going chemicals accommodating cassette 1 or 2 or more.

JP 2001-258994 A JP 2000-255717 A

  The present invention can arrange and store one or two or more medicines each containing a medicine in a medicine container in a medicine row along a predetermined storage direction, and the medicine on one side of the medicine row on one side of the storage direction. And has a medicine stopper for stopping the medicine, and is directed toward the one side in the storage direction with respect to the medicine row via a pressing member arranged to be reciprocally movable along the storage direction from the medicine row to the other side in the storage direction. A cassette configured to apply an urging force, and when the medicine stopped at the medicine stopper by the urging force toward the one side in the storage direction in the medicine row is taken out, the next medicine In the medicine storage device including the medicine storage cassette that is stopped by the medicine stopper, and thus the medicine in the medicine row is sequentially discharged and the cassette holding shelf for holding the cassette, Providing medicine storage device capable of improving the workability of the drug refilling operation to serial cassette and an object.

  The present invention can arrange and store one or two or more medicines each containing a medicine in a medicine container in a medicine row along a predetermined storage direction, and the medicine on one side of the medicine row on one side of the storage direction. And has a medicine stopper for stopping the medicine, and is directed toward the one side in the storage direction with respect to the medicine row via a pressing member arranged to be reciprocally movable along the storage direction from the medicine row to the other side in the storage direction. A cassette configured to apply an urging force, and when the medicine stopped at the medicine stopper by the urging force toward the one side in the storage direction in the medicine row is taken out, the next medicine Is held by the medicine stopper, and thus a medicine storage cassette in which the medicines in the medicine row are sequentially dispensed, and a cassette holding shelf that holds the cassette so as to be reciprocally movable in the storage direction. In the medicine storage device, the cassette is provided with a holding member that detachably holds the pushing member on the other side in the storage direction from the medicine row than the medicine row, and the cassette is attached to the cassette holding shelf. By moving to the other side of the storage direction, the cassette holding shelf is attached, and by moving to the one side of the storage direction, the cassette holding shelf is pulled out. The protrusion that pulls the pushing member held by the holding member away from the holding member by using the movement of the cassette when the cassette is moved to the other side in the storing direction so as to shift from the pulled-out state to the mounted state. Provided is a medicine storage device provided with a member.

  For example, at least one of the portion of the pressing member that contacts the holding member and at least the portion of the holding member that contacts the pressing member is formed of a magnet, and the other is formed of a magnetic material or a magnet.

  Preferably, the pressing member is formed in a curved surface shape such that the surface facing the drug row gradually moves away from the drug row as it goes upward.

  Preferably, the medicine row is configured to be aligned and stored with a low inclination on one side in the storage direction and a high inclination on the other side in the storage direction.

  Preferably, the medicine storage cassette may further include a pressing member urging member that urges the pressing member toward one side in the storing direction.

  According to the medicine storage device of the present invention, the pressing member is held on the other side in the storage direction by the holding member, so that when the medicine is replenished to the medicine storage cassette, the pressing member moves to the one side in the storage direction. Therefore, the workability of the chemical replenishment work can be improved.

  According to the medicine storage device of the present invention, when the cassette is mounted on the cassette holding shelf, the pressing member held on the other side in the storage direction by the holding member is pulled away from the holding member. Therefore, it is possible to prevent the pressing member from being unset in a state where the holding state of the pressing member by the holding member is maintained.

FIG. 1 is a schematic configuration diagram of an example of a medicine storage device including a reference example of a medicine storage cassette. FIG. 2A is a plan view showing a schematic configuration of the cassette shown in FIG. FIG. 2B is a rear view showing a schematic configuration of the cassette shown in FIG. 1. FIG. 2C is a side view showing a schematic configuration of the cassette shown in FIG. 1. FIG. 3A is an exploded perspective view of a schematic arrangement configuration of a medicine placement portion, a sheet sensor, a pressing member, and a pressing member urging member in the cassette shown in FIGS. 1 and 2A to 2C. 3 (B) is a schematic side view of the pressing member, and FIG. 3 (C) is a schematic bottom view of the pressing member. FIG. 4 is a schematic block diagram showing a system configuration of the medicine storage device shown in FIG. FIG. 5A is a plan view showing a schematic configuration of another reference example of the chemical storage cassette. FIG. 5B is a rear view showing a schematic configuration of the cassette shown in FIG. 5A. FIG. 5C is a side view showing a schematic configuration of the cassette shown in FIG. 5A. FIG. 6A is a plan view showing a schematic configuration of still another reference example of the chemical storage cassette. 6B is a rear view showing a schematic configuration of the cassette shown in FIG. 6A. FIG. 6C is a side view showing a schematic configuration of the cassette shown in FIG. 6A. FIG. 7A is a plan view showing a schematic configuration of still another reference example of the chemical storage cassette. FIG. 7B is a rear view showing a schematic configuration of the cassette shown in FIG. 7A. FIG. 7C is a side view showing a schematic configuration of the cassette shown in FIG. 7A. FIG. 8 is a side view showing an example in which, in the cassette shown in FIGS. 7A to 7C, a pressing member having a curved surface formed on the surface facing the ampule row is provided instead of the pressing member. FIG. 9 shows a medicine storage having a medicine stopper on one side in the medicine row storage direction and a pressing member on the other side, and a holding member detachably holding the pressing member on the other side in the storage direction from the pressing member. FIG. 9A is a schematic diagram of a medicine storage device according to an embodiment of the present invention including a cassette for use and a cassette holding shelf on which the medicine storage cassette is mounted, and FIG. FIG. 9B shows a state in which the cassette is pulled out from the cassette holding shelf while being held by the holding member, and FIG. 9B shows a state in which the cassette in the state of FIG. (C) shows a state in which the pushing member is pulled away from the holding member by a block when the cassette is mounted on the cassette holding shelf and is moved to one side in the storage direction.

Hereinafter, embodiments of the present invention will be described with reference to the drawings.
FIG. 1 is a schematic configuration diagram of an example 10 of a medicine storage device including an example 100 of a medicine storage cassette according to a reference example. 2A to 2C are diagrams showing a schematic configuration of the cassette 100 shown in FIG. 1. FIG. 2A shows a top view of the cassette 100, FIG. 2B shows a rear view of the cassette 100, and FIG. The side view of this cassette 100 is shown. In FIG. 2A, the chemical 1 is not shown. The same applies to FIGS. 5A, 6A, and 7A described later.

  A medicine storage device 10 shown in FIG. 1 includes a plurality of medicine storage cassettes 100, a cassette holding shelf 11 that holds each cassette 100, and a control device 12 that is connected to each cassette 100 via a connection cable 13. And.

  The cassette holding shelf 11 is provided with an appropriate outer frame and housing as a shelf frame, and cassette mounting portions 11a are provided in multiple stages on the inside thereof (in the example of FIG. 1, upper and lower three stages). One or two or more cassettes 100 can be placed side by side on the cassette placement part 11a, and the chemical inlet / outlet of the cassette 100 placed on the cassette placement part 11a (in other words, the cassette 100 A chemical stopper 100a, which will be described later, is arranged so as to face the front side (front side) of the cassette holding shelf 11.

  As shown in FIGS. 2A to 2C, the plurality of cassettes 100 are one or more medicines each containing a medicine in a medicine container (in this reference example, a plurality of injection medicine-enclosed ampoules 1 each containing an injection medicine). Can be arranged and stored in an ampule row 1a along a predetermined storage direction (X direction in the figure), and a chemical stopper 100a that stops the ampule 1 on one side 1a 'of the ampule row 1a at one side X1 in the storage direction X. And is configured to apply a biasing force toward the one side X1 in the storage direction with respect to the ampoule row 1a, and the chemical stopper is provided by the biasing force toward the one side X1 in the storage direction of the ampoule row 1a. When the ampule 1 stopped by the portion 100a is taken out, the next ampule 1 is further stopped by the chemical stop portion 100a, and the ampules 1 in the ampule row 1a are sequentially discharged. It is those that will be issued.

  Each cassette 100 includes a medicine placement section 110, a pair of medicine guides 120, a position sensitive sheet sensor 130, a resin push member 140, and a push member biasing member 150, and the other side of the ampule row 1a. The sheet surface 130a of the sheet sensor 130 can be pressed at the other-side drug-corresponding position P corresponding to the position of the ampoule 1a ". This will be further described below with reference to FIG. (A) is an exploded perspective view of a schematic arrangement configuration of the drug placement section 110, the sheet sensor 130, the pressing member 140, and the pressing member urging member 150 in the cassette 100 shown in FIGS. 3 (B) is a schematic side view of the pressing member 140, and Fig. 3 (C) is a schematic bottom view of the pressing member 140. In addition, in FIG. De 120 are omitted.

  As shown in FIG. 2A to FIG. 2C and FIG. 3, the drug placement unit 110 places one or two or more ampules 1 side by side in the ampule row 1 a, and an aluminum guide case 111 extending in the storage direction X. And a plate-like chemical table 112 extending along the storage direction X. The guide case 111 has a substantially U-shaped cross section, and is arranged with the open side of the “U” shape facing upward, and the chemical table 112 faces the open side of the guide case 111. It is arranged to cover. On both side plates of the guide case 111, two slide portions 111a and 111b extending in the storage direction X and projecting inward in the horizontal direction (Y direction in the figure) perpendicular to the storage direction X are stored in the storage direction X and the horizontal direction Y. The vertical direction (Z direction in the figure) perpendicular to the upper and lower sides is provided at a predetermined interval. In addition, the medicine table 112 is provided with a slit hole 112 a extending in the storage direction X and penetrating in the vertical direction Z.

  As shown in FIGS. 2A to 2C, the pair of medicine guides 120 are resin plate-like members that extend along the storage direction X, and are stored in the horizontal direction Y both ends on the top surface of the medicine placement unit 110. Stands along X. Thereby, the ampule 1 can be guided along the storage direction X on both sides.

  The sheet sensor 130 is a plate that extends in a sheet shape along the storage direction X, and is disposed on the upper surface of the bottom plate of the guide case 111. The sheet sensor 130 has an electric resistance value (in other words, an output voltage) that changes in response to a change in the pressing position on the sheet surface 13a in the storage direction X when the sheet surface 130a is pressed. Furthermore, the sheet sensor 130 detects the pressing position on the sheet surface 130a at the other-side medicine corresponding position P. Thereby, when the ampule 1 is paid out from the ampule row 1a, the output voltage changes corresponding to the change in the pressing position on the sheet surface 130a at the other-side chemical corresponding position P accompanying the payout. The other-side medicine corresponding position P after the dispensing can be detected.

  As shown in FIG. 3, the push member 140 includes a rectangular parallelepiped push member main body 141, a push plate 142 that protrudes upward in the vertical direction Z from the upper surface of the push member main body 141 and extends along the storage direction X, and a push member A push plate shaft 143 that protrudes from the both sides of the main body 141 to the outside in the horizontal direction Y and is formed in a columnar shape having a slightly smaller diameter than the distance between the slide portions 111 a and 111 b in the guide case 111. Is inserted into the slit hole 112a of the chemical table 112 in the guide case 111, and the push plate shaft 143 is slid between the two slide portions 111a and 111b in the guide case 111, thereby reciprocating along the storage direction X. It can be moved. The push member 140 includes a rolling member 144 that rolls on the sheet surface 130a of the sheet sensor 130 along the storage direction X, and a rolling member that biases the rolling member 144 toward the sheet surface 130a. A biasing member 145 is provided.

  In this reference example, the rolling member 144 is a cylindrical resin push plate roller, and rolls to the center of the bottom surface of the pressing member main body 141 so that the rotation axis is directed in the horizontal direction Y orthogonal to the storage direction X. It arrange | positions through the biasing member 145 for members. In this reference example, the rolling member urging member 145 is a leaf spring, and is disposed on the bottom surface of the pressing member main body 141 such that the longitudinal direction thereof is in the storage direction X. It has a curved surface portion 145a formed in a curved surface shape so as to hold the roller 144 along substantially half of the outer periphery of the roller 144. A roller accommodating portion 147 is formed in a curved shape along the curved surface portion 145a so as not to come into contact with the curved surface portion 145a of the leaf spring 145 at the central portion in the storage direction X of the bottom surface of the pressing member main body 141. Accordingly, the pressing member 140 is disposed on the other side 1a ″ of the ampule row so as to be reciprocally movable along the storage direction X while pressing the pressing plate roller 144 against the sheet surface 130a via the pressing plate roller 144 by the plate spring 145. The sheet surface 130 a of the sheet sensor 130 can be pressed at the position P of the pressing plate roller 144 in the pressing member 140.

  In this reference example, the pressing member urging member 150 is a constant torque spring that urges the pressing member 140 toward the one side X1 in the storage direction with a substantially constant urging force. More specifically, the constant torque spring 150 is disposed at one end of the guide case 111, and a constant torque spring shaft 151 is rotatably provided on the constant torque spring stay 153. Is connected to the bottom surface of the pressing member 140. Thereby, the pressing member 140 can press the ampoule row 1a against the one side X1 in the storing direction by the urging force of the constant torque spring 150.

  FIG. 4 is a schematic block diagram showing a system configuration of the medicine storage device 10 shown in FIG. The control device 12 includes a storage unit 12a that previously stores ampule sizes (see S in FIG. 1) in the storage direction X of the ampules 1 stored in the plurality of cassettes 100, and a control unit CONT.

  The control unit CONT is connected to the sheet sensors 103 of the plurality of cassettes 100 via the connection cable 13, and is also connected to the storage unit 12a. The storage unit 12a is composed of a ROM or the like, and stores a control program and the like in addition to the ampoule size. The control unit CONT can read the information stored in the storage unit 12a and execute the control program. This control program causes the control unit CONT to function as means including arithmetic processing means M that performs arithmetic processing as described later.

  More specifically, the calculation processing means M includes a reading means M1 and a calculation means M2. The reading means M1 reads the ampule size S stored in the storage unit 12a, and the calculation means M2 is based on the pressing plate roller positions P detected by the sheet sensors 130 of the plurality of cassettes 100, respectively. The lengths of the rows 1a are measured, and the stock quantities of the ampules 1 stored in the plurality of cassettes 100 are respectively determined from the relationship between the measured length of the ampule row 1a and the ampule size S read by the reading means M1. Is to be calculated.

  More specifically, the storage portion 12a includes a sheet surface 130a with respect to a distance d between the other end X2 end of the cassette 100 in the storing direction of the chemical stopper 100a and the end X1 end of the pressing member 140 in the storing direction. The relationship of the output voltage of the sheet sensor 130 at the pressing plate roller position P at which is pressed is stored, and the calculation means M2 calculates the relationship between the output voltage of the sheet sensor 130 and the distance d stored in the storage unit 12a. The length d of the ampoule row 1a can be measured by obtaining the distance d based on the output voltage of the sheet sensor 130 at the pressing plate roller position P where the sheet surface 130a is pressed. For example, when the ampule size S stored in advance in the storage unit 12a is 20 mm, the sheet sensor 130 detects the pressing position on the sheet surface 130a at the pressing plate roller position P, and for example, an ampule of 180 mm When the length d of the row 1a is measured, the computing means M2 uses the ampule size S (= 20 mm / piece) obtained by reading the measured ampule row 1a length d (= 180 mm) by the reading means M1. The value divided by (= 9) is the stock quantity of the ampule 1 stored in the cassette 100. For example, when the ampoule 1 is paid out from the ampoule row 1a, the output voltage changes corresponding to the change in the pressing position on the sheet surface 130a at the pressing plate roller position P accompanying the paying out. When the subsequent pressing plate roller position P is detected and, for example, the length d of the 160 mm ampoule row 1a is measured, the measured ampoule row 1a length d (= 160 mm) is read by the reading means M1. The value (eight) divided by the issued ampule size S (= 20 mm / piece) is the stock quantity of the ampule 1 after the payout. Thereby, the control apparatus 12 can obtain | require automatically the inventory quantity of the ampule 1 accommodated in the cassette 100, and can perform appropriate inventory management.

  5A to 5C are diagrams showing a schematic configuration of another example 100x of the cassette 100 shown in FIGS. 1 to 3, FIG. 5A shows a plan view of the cassette 100x, and FIG. 5B shows a rear surface of the cassette 100x. FIG. 5C shows a side view of the cassette 100x. Hereinafter, the cassette 100x shown in FIGS. 5A to 5C will be described with a focus on differences from the cassette 100 shown in FIGS. 1 to 3, and description of common parts will be omitted here. 5A to 5C, members having substantially the same configuration and function as those of the cassette 100 shown in FIGS. 1 to 3 are denoted by the same reference numerals.

  As shown in FIGS. 5A to 5C, the cassette 100x includes a drug placement unit 110, a pair of drug guides 120, a position sensitive sheet sensor 130, a resin-made pressing member 140x, and a pressing member biasing member 150. The sheet surface 130a of the sheet sensor 130 can be pressed at the other-side chemical corresponding position P corresponding to the position of the ampule 1 on the other side 1a "of the ampule row 1a.

  The push member 140x includes a rectangular parallelepiped push member main body 141x, a push plate 142x that protrudes upward in the vertical direction Z from both ends in the horizontal direction Y on the upper surface of the push member main body 141x, and extends along the storage direction X, and the push member main body 141x. Two push-out bearing shafts 143x respectively projecting from the both side surfaces of the two in the horizontal direction Y and provided with push-plate bearings 146, respectively. The push plates 142x are formed in the slit holes 112a of the chemical table 112 in the guide case 111. The push plate shaft 143x is moved along the slide portion 111b by the push plate bearing 146 between the two slide portions 111a and 111b in the guide case 111 so that it can reciprocate along the storage direction X. It has become. The push plate 142x has a housing portion 142x 'for housing the push member urging member 150. Further, the pressing member 140x includes a rolling member 144x that rolls on the seat surface 130a of the sheet sensor 130 along the storage direction X, and a rolling member that biases the rolling member 144x toward the seat surface 130a. An urging member 145x is provided.

  In this reference example, the rolling member 144x includes a cylindrical pressing plate roller 1441x having a pressing plate roller shaft 1441x ′ at the rotation axis, and a pressing plate roller stay 1442x that rotatably supports the pressing plate roller shaft 1441x ′. The push plate roller shaft 1441x ′ is disposed on the bottom surface of the push member main body 141x via the rolling member urging member 145x so that the push plate roller shaft 1441x ′ faces the horizontal direction Y orthogonal to the storage direction X. On the bottom surface of the pressing member main body 141x, there is an accommodating portion 1411x that accommodates the rolling member 144x. In this reference example, the urging member 145x for the rolling member is two leaf springs, and is connected to both ends of the rolling direction 144x of the rolling member 144x housed in the housing portion 1411x, respectively. On the other hand, the push member main body 141x is connected to both ends of the storage direction X on the bottom surface. Accordingly, the pressing member 140x is capable of reciprocating along the storing direction X while pressing the pressing plate roller 1441x against the sheet surface 130a via the pressing plate roller 1441x by the two plate springs 145x. The sheet surface 130a of the sheet sensor 130 can be pressed at the position P of the pressing plate roller 1441x.

  In this reference example, the pressing member urging member 150 is a constant torque spring that urges the pressing member 140x toward the one side X1 in the storage direction with a substantially constant urging force. The constant torque spring shaft 151 is rotatably supported by a support groove 1421x provided in the accommodating portion 142x ′, and the spring tip 152 is a constant torque spring at one end of the chemical table 112. It is connected to the stay 112c. Thereby, the pressing member 140x can press the ampoule row 1a against the one side X1 in the storing direction by the urging force of the constant torque spring 150.

  6A to 6C are diagrams showing a schematic configuration of yet another example 100y of the cassette 100 shown in FIGS. 1 to 3, FIG. 6A shows a plan view of the cassette 100y, and FIG. 6B shows the cassette 100y. A rear view is shown, and FIG. 6C shows a side view of the cassette 100y. Hereinafter, the cassette 100y shown in FIGS. 6A to 6C will be described with a focus on differences from the cassette 100 shown in FIGS. 1 to 3, and description of common parts will be omitted here. 6A to 6C, members having substantially the same configuration and function as those of the cassette 100 shown in FIGS. 1 to 3 are denoted by the same reference numerals. 6A to 6C, the chemical stopper 100a and the pair of chemical guides 120 are not shown.

  As shown in FIGS. 6A to 6C, the cassette 100y includes a drug placement section 110y, a position sensitive sheet sensor 130, a pressing member 140y, and a pressing member biasing member 150, and the other side 1a of the ampoule row 1a. The sheet surface 130a of the sheet sensor 130 can be pressed at the other-side drug corresponding position P corresponding to the position of the ampule 1 ".

  The medicine placement section 110y is for placing one or more ampules 1 side by side in the ampule row 1a, and includes a plate-like cassette base 111y extending in the storage direction X, and a spacer 112y that supports the cassette base 111y. And a pair of guide members 113y. The pair of guide members 113y are members having an L-shaped cross section extending along the storage direction X, and one end portion of the L-shaped cross section is directed to the cassette base 111y so that the longitudinal direction thereof faces the storage direction X. It arrange | positions at the horizontal direction Y both sides of the cassette stand 111y upper surface so that the other end part may mutually oppose at intervals. A slide groove 113y 'that extends in the storage direction X and is recessed in the horizontal direction Y is provided on the opposite surface of the pair of guide members 113y facing the other L-shaped section. The sheet sensor 130 is disposed between a pair of guide members 113y on the upper surface of the cassette base 111y.

  The pressing member 140y includes a rectangular parallelepiped pressing member main body 141y, a pressing plate 142y that protrudes upward in the vertical direction Z from the upper surface of the pressing member main body 141y and extends along the storage direction X, and one from both side surfaces of the pressing member main body 141y. And a push plate bearing shaft 143 y provided with a push plate bearing 146, which protrudes horizontally in the horizontal direction Y, and the push plate shaft 143 y moves along the slide groove 113 y ′ by the push plate bearing 146. The pair of guide members 113y can reciprocate along the storage direction X. Further, the pressing member 140y is provided with a rolling member 144y that rolls along the storage direction X on the sheet surface 130a of the sheet sensor 130.

  In this reference example, the rolling member 144y is a cylindrical pressing plate roller having a pressing plate roller shaft 144y ′ at the rotational axis, and the pressing plate roller shaft 144y ′ is rotatably supported by the pressing member main body 141y. Yes. On the bottom surface of the pressing member main body 141y, there is an accommodating portion 1411y that accommodates the rolling member 144y. The contact portion of the push plate 142y with the ampule row 1a protrudes in a circular shape toward the ampule row 1a. The circular contact portion of the push plate 142y with the ampoule row 1a is that the push plate 142y is easy to rotate around the bearing 146 when the push plate 142y receives the reaction force F from the ampoule row 1a. It is to do. In this cassette 100y, the pushing plate 142y and the pushing member main body 141y try to rotate around the bearing 146 by the reaction force F generated when the pushing plate 142y pulled by the constant torque spring 150 described later pushes the ampule row 1a. To do. A pressing plate roller 144y is attached to the pressing member 140y so as to be pressed against the sheet sensor surface 130a by this rotational force, and the sheet sensor 130 is pressed by a moment force generated when the ampoule row 1a is pressed.

  The constant torque spring 150 is disposed at one end of the cassette base 111y, a constant torque spring shaft 151 is rotatably provided on the constant torque spring stay 153, and the spring front end 152 is connected to the pressing member 140y. Connected to the bottom. Thereby, the pressing member 140y can press the ampoule row 1a against the one side X1 in the storing direction by the urging force of the constant torque spring 150.

  7A to 7C are diagrams showing a schematic configuration of still another example 100z of the cassette 100 shown in FIGS. 1 to 3. FIG. 7A shows a plan view of the cassette 100z, and FIG. 7B shows the cassette 100z. A rear view is shown, and FIG. 7C shows a side view of the cassette 100z. Hereinafter, the cassette 100z shown in FIGS. 7A to 7C will be described with a focus on differences from the cassette 100 shown in FIGS. 1 to 3, and description of common parts will be omitted here. 7A to 7C, members having substantially the same configuration and function as those of the cassette 100 shown in FIGS. 1 to 3 are denoted by the same reference numerals.

  As shown in FIGS. 7A to 7C, the cassette 100z includes a drug placement unit 110, a pair of drug guides 120, a position sensitive sheet sensor 130, a pressing member 140z, and a pressing member biasing member 150z. The sheet surface 130a of the sheet sensor 130 can be pressed at the other side medicine corresponding position P corresponding to the position of the ampule 1 on the other side 1a "of the row 1a.

  The push member 140z includes a rectangular parallelepiped push plate main body 141z, a push plate 142z projecting toward the other side X2 in the storage direction disposed on both sides of the upper portion of the push plate main body 141z, and both sides of the lower portion of the push plate main body 141z. A push plate bearing shaft 143z that protrudes outward in the horizontal direction Y one by one and is provided with a push plate bearing 146 is provided. A lower portion of the push plate main body 141z is fitted into a slit hole 112a of the chemical table 112 in the guide case 111. At the same time, the push plate shaft 143z moves between the two slide portions 111a and 111b in the guide case 111 via the push plate bearing 146 so that it can reciprocate along the storage direction X. The pressing member 140z is provided with a rolling member 144z that rolls along the storage direction X on the sheet surface 130a of the sheet sensor 130. The push plate 142z is provided with a housing portion 142z ′ for housing the rolling member 144z.

  In this reference example, the rolling member 144z is a cylindrical high-density resin roller having a shaft 144z ′ at the rotation axis, and is disposed in a housing portion 142z ′ provided in the push plate body 141z. The shaft 144z ′ is rotatably supported in support grooves 1421z provided in the push plate 142z ′. Accordingly, the pressing member 140z can press the sheet surface 130a of the sheet sensor 130 at the position P of the roller 144z. In the cassette 100z, the pressing member 140z can move while pressing the roller 144z against the sheet surface 130a via the roller 144z by its own weight.

  The pressing member urging member 150z is an inclined base having a trapezoidal cross section formed so that the ampoule row 1a is aligned and housed at a low angle on the one side 1a 'of the ampoule row and high on the other side 1a' 'of the ampoule row. Thus, the medicine mounting portion 110 can be supported by the bottom surface, whereby the ampoule row 1a ′ is given a biasing force to the one side X1 in the storing direction by its own weight, and the pressing member 140z The ampoule row 1a can be pressed against the one side X1 in the storage direction by its own weight.

  By the way, in the chemical storage cassettes as shown in FIGS. 2A to 2c and FIGS. 5A to 7C, the pressing members 140 are disposed on the other side 1a ″ of the ampoule row 1a so as to be reciprocally movable along the storage direction X. 140x, 140y, 140z are provided, and this pushing member is always urged to one side X1 in the storage direction. At this time, when the ampoule 1 is replenished, the pushing member always comes to one side X1 in the storage direction. The ampoule 1 needs to be replenished while moving the push member to the other side X2 in the storage direction X, and the workability of the replenishment work is poor.

  Therefore, as shown in FIG. 8, the pressing member 140 ′ may be formed in a curved shape so that the surface 140 a ′ facing the ampoule row 1 a gradually moves away from the ampoule row 1 a as it goes upward. FIG. 8 shows an example 100 ′ in which a pressing member 140 ′ having a curved surface 140a ′ facing the ampoule row 1a is provided in place of the pressing member 140z in the cassette 100z shown in FIGS. 7A to 7C. ing.

  In this cassette 100 ′, the surface 140a ′ facing the ampoule row 1a of the pressing member 140 ′ is formed in a curved surface. Therefore, when the ampoule 1 is refilled, the ampoule 1 is moved upward along the curved surface 140a ′. The ampoule 1 can be inserted smoothly from above while moving the pushing member 140 ′ to the other side X2 in the storing direction, thereby facilitating the insertion work and improving the workability of the replenishment work. Can be improved.

In FIG. 9, the schematic diagram of chemical | medical agent storage apparatus 10 'which concerns on one embodiment of this invention is shown.
As shown in FIG. 9, the medicine storage cassette 100 ′ is provided with a holding member 160 that removably holds the pressing member 140 ′ on the other side X2 in the storage direction. FIG. 9 shows a case where the cassette 100 ′ is installed in the chemical storage device 10 ′ that stores the cassette 100 ′ having the holding member 160 that holds the pressing member 140 ′ on the other side X2 in the storage direction. The state which is comprised so that pushing member 140 'hold | maintained by the member 160 at the other side X2 of the accommodation direction may be pulled apart from this holding member 160 is shown.

  More specifically, in the cassette 100 ′ shown in FIG. 9, the holding member 160 is made of a magnetic material as a magnet receiver, and the portion 140a ″ of the pressing member 140 ′ that contacts the magnet receiver 160 is made of a magnet. Thus, when the ampule 1 is replenished by the operator or the like by holding the pressing member 140 ′ on the other side X 2 in the storing direction by the magnet receiver 160 by the magnetic force of the magnet 140 a ″ (see FIG. 9A). (Refer to FIG. 9B.) Since the pressing member 140 ′ does not come to the one side X1 in the storage direction, the workability of the replenishment work can be improved.

  Further, in the medicine storage device 10 ′ shown in FIG. 9, the cassette 100 ′ is configured so as to be reciprocally movable along the storage direction X. When the cassette 100 ′ is mounted, A block 170 (an example of a protruding member) is provided on the one side X1 in the storage direction from the position Q for holding the pressing member 140 ′ and protruding so as to come into contact with the pressing member 140 ′.

  In such a medicine storage device 10 ′, the pressing member 140 ′ held on the other side X2 in the storage direction by the magnet receiver 160 by the magnetic force of the magnet 140a ″ is separated from the magnet receiver 160 by the block 170 when the cassette is mounted. (See FIG. 9C.) Accordingly, in the medicine storage device 10 ′ configured in this manner, the push member 140 ′ is pulled away from the magnet receiver 160 by the block 170 when the cassette is mounted. Therefore, even if the cassette 100 ′ is mounted while the pressing member 140 ′ is held on the magnet receiver 160 when the replenishment operation is completed, an error in releasing the set of the pressing member 140 ′ with respect to the magnet receiver 160 can be prevented.

  According to the medicine storage cassettes 100, 100x, 100y and 100z and the medicine storage device 10 described above, the sheet sensor 130 detects the pressing position on the sheet surface 130a at the other-side medicine-corresponding position P. When the ampule 1 is paid out from the row 1a, the output voltage is corresponding to the change in the pressing position on the sheet surface 130a at the position P corresponding to the position of the ampule 1 on the other side 1a "of the ampule row accompanying the payout. By changing, it is possible to detect the position P after the dispensing, and when storing multiple types of medicines with different medicine sizes for each medicine of the same size as in the conventional device, it corresponds to the size of the medicine to be stored There is no need to prepare a cassette for each chemical size. As a result, a sheet sensor 130 which is less expensive than a non-contact type distance measuring device using laser or ultrasonic waves as used in the conventional apparatus is adopted, and the sheet sensor 130 is arranged along the storing direction X in the cassettes 100 to 100z. Since it is configured so as to extend in a sheet shape and press the sheet surface 130a of the sheet sensor 130 at the position P, the apparatus cost can be kept low with a relatively simple apparatus configuration. Since the storage unit 12a, the reading unit M1, and the calculation unit M2 are provided, the ampoule size S in the storage direction X of the ampoule 1 stored in the plurality of cassettes 100 to 100z is stored in advance in the storage unit 12a. The ampule size S stored in the storage unit 12a is read by the reading means M1, respectively, and the calculation means 2, the ampule row lengths d detected by the sheet sensors 130 of the plurality of cassettes 100 to 100 z are divided by the ampule size S respectively read by the reading means M <b> 1, thereby obtaining the plurality of cassettes 100 to 100 z. The stock quantity of the ampoule 1 to be stored can be obtained.

  Further, as the rolling members 144 to 144z, cylindrical members are adopted, and the rolling members 144 to 144z can make line contact with the sheet surface 130a, respectively, so that the sheet surface 130a can be reliably pressed by that amount. The detection accuracy of the sheet sensor 130 can be improved. Further, in the cassettes 100 and 100x, since the rolling members 144 and 144x are pressed against the sheet surface 130a by the rolling member urging members 145 and 145x, the sheet surface 130a can be pressed more reliably, and the sheet sensor 130 can be pressed. The detection accuracy can be further improved.

  The cassettes 100 to 100z are configured to detect the sheet sensor 130 at the positions of the rolling members 144 to 144z provided on the pressing members 140 to 140z. However, the ampule row 1a directly contacts the sheet surface 130a of the sheet sensor 130. You may comprise so that it may press. In this case, the sheet surface 130a of the sheet sensor 130 can be pressed at the position of the ampule 1 on the other side 1a "of the ampule row.

1 medicine 1a medicine row 10 medicine storage device 11 cassette holding shelf 100 medicine storage cassette 100a medicine stopper 140 'pushing member
150, 150z Pushing member biasing member 160 Holding member 170 Block (protruding member)
X Storage direction X1 Storage direction one side X2 Storage direction other side

Claims (5)

A medicine stopper that can store one or more medicines each containing medicine in a medicine container side by side in a medicine row along a predetermined storage direction, and stops a medicine on one side of the medicine row on one side of the storage direction. And a biasing force applied to the medicine row toward the one side in the storage direction via a pressing member arranged to be reciprocally movable along the storage direction from the medicine row to the other side in the storage direction. When the medicine stopped at the medicine stopper by the urging force toward the one side in the storage direction in the medicine row is taken out, the next medicine is further stopped by the medicine stopper. A medicine storage cassette, which is stopped by a portion, and in which the medicines in the medicine row are sequentially dispensed, and a cassette holding shelf for holding the cassette so as to be reciprocally movable in the storage direction. In the location,
The cassette is provided with a holding member that detachably holds the pressing member on the other side in the storing direction from the chemical row,
The cassette is attached to the cassette holding shelf by moving to the other side in the storage direction with respect to the cassette holding shelf, and is moved from the cassette holding shelf by moving to the one side in the storage direction. It is in the drawer state,
The cassette holding shelf is provided with the push member held by the holding member by using the movement of the cassette when the cassette is moved to the other side in the storing direction so as to shift the cassette from the pulled-out state to the mounted state. A medicine storage device comprising a protruding member that is separated from the holding member.   One of at least a portion of the pressing member that contacts the holding member and at least a portion of the holding member that contacts the pressing member is formed of a magnet, and the other is formed of a magnetic material or a magnet. The medicine storage device according to claim 1.   3. The medicine storage device according to claim 1, wherein the pressing member is formed in a curved shape so that a surface facing the medicine row gradually moves away from the medicine row as it goes upward.   4. The medicine row according to claim 1, wherein the medicine row is configured to be aligned and stored with a low inclination on one side in the storage direction and a high inclination on the other side in the storage direction. Chemical storage device.   The medicine storage device according to any one of claims 1 to 3, further comprising a pressing member urging member that urges the pressing member toward one side in the storing direction.

Images