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序号	专利名	申请号	申请日	公开（公告）号	公开（公告）日	发明人
21	Conveyor employing a vacuum	US14021018	2013-09-09	US09073704B2	2015-07-07	Matthew L. Fourney
A sorting conveyor employs suction to stabilize products on a conveyor belt. The sorting conveyor comprises a conveyor belt including a plurality of embedded rollers for moving conveyed objects relative to the conveyor belt. A vacuum chamber below the conveyor belt houses activators for the rollers and selectively creates a vacuum zone above the conveyor belt for pulling objects on the conveyor belt.
22	DEADLOCK ALLEVIATION FOR PNEUMATIC TUBE SYSTEMS	US13025411	2011-02-11	US20120051849A1	2012-03-01	Pedro Barrios
Provided herein is a system and method for alleviating gridlock in a pneumatic tube system. In various instances where inter-zone transactions conflict, one of the transactions is removed from a conflicting set and temporarily delivered to an alternate location in the system. This allows other blocked transactions to proceed. Once the gridlock condition is alleviated, the temporarily delivered carrier is retrieved and rerouted to its intended destination.
23	Pneumatic transporter	US3768418D	1972-02-22	US3768418A	1973-10-30	YOSHIDA B
A pneumatic transporter for conveying articles by driving a runner received in an air pipe by compressed air conducted therethrough, wherein the air pipe is bored with a slit linearly extending along its full length; there are tightly attached to both edges of said slit two elastic members extending similarly lengthwise of the entire air pipe so as to define therebetween a linear airtight contact section; the runner has an arm fixed thereto at one end and projected at the other end to the outside of the air pipe through said airtight contact section; and the article is conveyed by a carriage engaged with said projected end of the runner arm.
24	VACUUM WASTE COLLECTION SYSTEM AND METHOD OF OPERATING SUCH A SYSTEM	EP10766359.3	2010-06-23	EP2585389B1	2017-11-22	ARRABAL, David, Gonzalez; FORESTIER, Niklas

25	MINIMIZATION OF DRIVE TESTS FOR UPLINK LINK COVERAGE	EP12847724.7	2012-11-07	EP2661923A1	2013-11-13	HWANG, Chien-Hwa; TSAI, Meng-Ying; JOHANSSON, Per Johan Mikael
An adhesive melt system includes a hopper, a feed system, a valve, and a releasable coupling. The hopper stores hot melt pellets and the valve regulates movement of the pellets from the hopper to the feed system. The feed system delivers the hot melt pellets from the hopper. The releasable coupling allows for connection and disconnection of the hopper to and from the feed system. In one embodiment, the hopper is interchangeable with a second hopper. Both hoppers have a coupling that allows for quick connection to and disconnection from the feed system
26	ENERGY-EFFICIENT AND RELIABLE OPERATION OF A VACUUM WASTE COLLECTION SYSTEM	EP10766359.3	2010-06-23	EP2585389A1	2013-05-01	ARRABAL, David, Gonzalez; FORESTIER, Niklas
vacuum waste collection system is provided (la) by successively selecting a number of branches in a sequence for emptying and transport of waste, wherein the intersection (1, 2, 3, 4) of each next branch in the sequence is at the same o shorter transport distance to a central waste collection point (6) compared to the intersection (1, 2, 3, 4) of the previous branch in the sequence, and collectively transporting accumulated waste from the selected branches towards the central waste collection point (6) by successively operating the air inlet valves (avl, av2, av3, av4, av5 ) of the corresponding branches. For each selected branch except the last branch, accumulated waste is transported towards the central collection point (6) by causing the corresponding air inlet valve (avl, av2, av3, av4, av5 ) to be open until it is detected by detector means (WO) in the transport pipe system that the waste has been transported past an intersection (1, 2, 3, 4) to the next branch, and then changing to the next branch For the last branch, accumulated waste is transported to the central waste collection point (6).
27	EMPTIES TRANSPORT SYSTEM AND EMPTIES RETURN SYSTEM FOR SUCTION OF CONTAINERS	US15596612	2017-05-16	US20170334666A1	2017-11-23	Berthold Schroeder
An empties transport system has an airstream transport device with an empties transport conduit, which has a first attachment point for attachment to the reverse vending machine and a second attachment point for attachment to the empties collection container, and an airstream generator, which is attached to the empties transport conduit and is designed to make available, in the empties transport conduit, a transporting airstream by which the empties passing via the first attachment point from the reverse vending machine the empties transport conduit are moved to the empties collection container, and an airlock device, which is arranged on the first attachment point and via which the empties are transferable from the reverse vending machine to the empties transport conduit.
28	Flexible strip brush, flexible belt brush, and method for manufacturing the same	US12795248	2010-06-07	US09565925B2	2017-02-14	Donald James Marler, III; Marc Godin; Lawrence Nieder; Matt Gorham; Roy Wirth
A flexible strip brush element is constructed from multiple monofiliments arranged in a parallel fashion and attached at one end to a flexible base. The monofiliments are attached to the base by intermingling material from the base with material from the monofiliments. The free ends of the monofiliments collectively form a bristle end zone. A plurality of flexible strip brush elements may be bonded side-by-side so the free ends of the monofiliments form a common bristle end zone. The bonded flexible strip brush elements may take the form of a linear section or may be fashioned into an endless loop or jointless spiral.
29	Mechanically controlled vacuum throttle for a continuous dense phase particulate material conveying system and method	US13372702	2012-02-14	US09181044B1	2015-11-10	Todd E. Baker
A mechanically-controlled vacuum throttle for a continuous dense phase pneumatic conveying system and related method is provided. The system includes a pneumatic conveyance line, a particulate material insertion assembly, a positive displacement blower, a transport fluid intake assembly, and a vacuum throttling assembly. The vacuum throttling assembly is configured to control the flow of air mass density into the blower and through the conveyance line. A portion of the vacuum throttling assembly is tied in to the conveyance line pressure downstream of the blower and adjusts the air mass density flow depending on the downstream pressure. Preferably, the vacuum throttling assembly includes an obstruction element and an opening collar, where the obstruction element is moveable relative to the opening collar and the air mass density flow is adjusted depending on the amount of movement of the obstruction element relative to the opening collar.
30	Deadlock alleviation for pneumatic tube systems	US13025411	2011-02-11	US08721231B2	2014-05-13	Pedro Barrios
Provided herein is a system and method for alleviating gridlock in a pneumatic tube system. In various instances where inter-zone transactions conflict, one of the transactions is removed from a conflicting set and temporarily delivered to an alternate location in the system. This allows other blocked transactions to proceed. Once the gridlock condition is alleviated, the temporarily delivered carrier is retrieved and rerouted to its intended destination.
31	ENERGY-EFFICIENT AND RELIABLE OPERATION OF A VACUUM WASTE COLLECTION SYSTEM	US13805261	2010-06-23	US20130243536A9	2013-09-19	David Gonzalez Arrabal; Niklas Mattias Forestier
Vacuum waste collection system is provided (1a) by successively selecting a number of branches in a sequence for emptying and transport of waste, wherein the intersection (1, 2, 3, 4) of each next branch in the sequence is at the same o shorter transport distance to a central waste collection point (6) compared to the intersection (1, 2, 3, 4) of the previous branch in the sequence, and collectively transporting accumulated waste from the selected branches towards the central waste collection point (6) by successively operating the air inlet valves (av1, av2, av3, av4, av5) of the corresponding branches. For each selected branch except the last branch, accumulated waste is transported towards the central collection point (6) by causing the corresponding air inlet valve (av1, av2, av3, av4, av5) to be open until it is detected by detector means (WO) in the transport pipe system that the waste has been transported past an intersection (1, 2, 3, 4) to the next branch, and then changing to the next branch For the last branch, accumulated waste is transported to the central waste collection point (6).
32	FLEXIBLE STRIP BRUSH, FLEXIBLE BELT BRUSH, AND METHOD FOR MANUFACTURING THE SAME	US13480199	2012-05-24	US20120291214A1	2012-11-22	Elijah Beckham Garner; Marc Godin; Matt Gorham
A flexible strip brush element is constructed from multiple monofilaments arranged in a parallel fashion and attached at one end to a flexible base. The monofilaments are attached to the base by intermingling material from the base with material from the monofilaments. The free ends of the monofilaments collectively form a bristle end zone. A plurality of flexible strip brush elements may be bonded side-by-side so the free ends of the monofilaments form a common bristle end zone. to The bonded flexible strip brush elements may take the form of a linear section or may be fashioned into an endless loop or jointless spiral.
33	다중 층의 유체 역학적 쉬스 유동 구조	KR1020067010419	2004-11-01	KR1020060134942A	2006-12-28	길버트존알.; 데쉬페인드매니쉬; 버너,버나드
A microfabricated sheath flow structure for producing a sheath flow includes a primary sheath flow channel for conveying a sheath fluid, a sample inlet for injecting a sample into the sheath fluid in the primary sheath flow channel, a primary focusing region for focusing the sample within the sheath fluid and a secondary focusing region for providing additional focusing of the sample within the sheath fluid. The secondary focusing region may be formed by a flow channel intersecting the primary sheath flow channel to inject additional sheath fluid into the primary sheath flow channel from a to selected direction. A sheath flow system may comprise a plurality of sheath flow structures operating in parallel on a microfluidic chip.
34	METHOD AND APPARATUS FOR TRANSFERRING CONTACT LENSES BETWEEN TWO CONSECUTIVE PROCESSING STATIONS BEING OPERATED WITH DIFFERENT CYCLE SPEEDS	EP11808619.8	2011-12-16	EP2651628B1	2017-01-25	HERRMANN, Swen; SCHOTT, Harald; BIEL, Roger

35	MINIMIZATION OF DRIVE TESTS FOR UPLINK LINK COVERAGE	EP12847724.7	2012-11-07	EP2661923B1	2015-03-04	HWANG, Chien-Hwa; TSAI, Meng-Ying; JOHANSSON, Per Johan Mikael

36	METHOD AND APPARATUS FOR TRANSFERRING OBJECTS BETWEEN TWO CONSECUTIVE PROCESSING STATIONS BEING OPERATED WITH DIFFERENT CYCLE SPEEDS	EP11808619.8	2011-12-16	EP2651628A1	2013-10-23	HERRMANN, Swen; SCHOTT, Harald; BIEL, Roger
A method for transferring objects between two consecutive processing stations is disclosed, comprising the steps of: -removing the objects from a preceding processing station, in which said objects are advanced with a first cycle speed, -transporting said removed objects to a subsequent processing station comprising a plurality of consecutively arranged receptacles (1 -10), which are advanced through said subsequent processing station with a second cycle speed faster than that first cycle speed, wherein said step of transporting comprises transporting said objects via at least one feed tube (12, 13), each feed tube ending in a respective transfer nozzle (14, 15) which is arranged in vicinity of a corresponding one of said receptacles (1 - 10) and which is aligned with an inlet of said receptacle (4, 5; 4, 6), said respective transfer nozzle (14, 15) being capable of being moved synchronously with and in the direction of advancement of said corresponding receptacle.
37	MULTILAYER HYDRODYNAMIC SHEATH FLOW STRUCTURE	EP04810241.2	2004-11-01	EP1682438B1	2013-05-08	GILBERT, John, R.; DESHPANDE, Manish; BUNNER, Bernard
A microfabricated sheath flow structure for producing a sheath flow includes a primary sheath flow channel for conveying a sheath fluid, a sample inlet for injecting a sample into the sheath fluid in the primary sheath flow channel, a primary focusing region for focusing the sample within the sheath fluid and a secondary focusing region for providing additional focusing of the sample within the sheath fluid. The secondary focusing region may be formed by a flow channel intersecting the primary sheath flow channel to inject additional sheath fluid into the primary sheath flow channel from a selected direction. A sheath flow system may comprise a plurality of sheath flow structures operating in parallel on a microfluidic chip.
38	MULTILAYER HYDRODYNAMIC SHEATH FLOW STRUCTURE	EP04810241	2004-11-01	EP1682438A4	2009-08-05	GILBERT JOHN R; DESHPANDE MANISH; BUNNER BERNARD
A microfabricated sheath flow structure for producing a sheath flow includes a primary sheath flow channel for conveying a sheath fluid, a sample inlet for injecting a sample into the sheath fluid in the primary sheath flow channel, a primary focusing region for focusing the sample within the sheath fluid and a secondary focusing region for providing additional focusing of the sample within the sheath fluid. The secondary focusing region may be formed by a flow channel intersecting the primary sheath flow channel to inject additional sheath fluid into the primary sheath flow channel from a selected direction. A sheath flow system may comprise a plurality of sheath flow structures operating in parallel on a microfluidic chip.
39	Empties transport system and empties return system for suction of containers	US15596612	2017-05-16	US10040644B2	2018-08-07	Berthold Schroeder
An empties transport system has an airstream transport device with an empties transport conduit, which has a first attachment point for attachment to the reverse vending machine and a second attachment point for attachment to the empties collection container, and an airstream generator, which is attached to the empties transport conduit and is designed to make available, in the empties transport conduit, a transporting airstream by means of which the empties passing via the first attachment point from the reverse vending machine the empties transport conduit are moved to the empties collection container, and an airlock device which is arranged on the first attachment point and via which the empties are transferable from the reverse vending machine to the empties transport conduit.
40	MULTILAYER HYDRODYNAMIC SHEATH FLOW STRUCTURE	US15797790	2017-10-30	US20180208412A1	2018-07-26	John R. Gilbert; Manish Deshpande; Bernard Bunner
A microfabricated sheath flow structure for producing a sheath flow includes a primary sheath flow channel for conveying a sheath fluid, a sample inlet for injecting a sample into the sheath fluid in the primary sheath flow channel, a primary focusing region for focusing the sample within the sheath fluid and a secondary focusing region for providing additional focusing of the sample within the sheath fluid. The secondary focusing region may be formed by a flow channel intersecting the primary sheath flow channel to inject additional sheath fluid into the primary sheath flow channel from a selected direction. A sheath flow system may comprise a plurality of sheath flow structures operating in parallel on a microfluidic chip.

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