序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
141 Sharps disposing system and method US15157378 2016-05-17 US09549784B1 2017-01-24 Fredrick M. Valerino, Sr.
Systems, methods, and modes for automatic disposal of sharps in a medical environment via a pneumatic tube system and without a dedicated carrier from one of a plurality of dispersed sending stations to a secured central location. The system comprises a plurality of sending stations, a receiving stations routably connected to the plurality of sending stations via the pneumatic tubing and comprising a receiving container configured for storing sharps received via multiple deliveries, and a pump configured for creating a pressure differentiation within the pneumatic tubing for transmitting the sharps from one of the sending stations to the receiving station. The receiving container may be replaced by another receiving container when the receiving container is full.
142 PNEUMATIC CONVEYOR FOR TRANSPORTING BULK MATERIALS US15151936 2016-05-11 US20160251172A1 2016-09-01 Thilo KRAEMER
A pneumatic conveyor for transporting bulk materials, in particular tablets, has a compressor for conveyor gas and has a bulk material feed and a conveyor line, in particular hose, arranged therebetween, and a bulk material discharge. To prevent contamination of the environment during operation, a shut-off device is provided between a collection volume and the conveyor line. A method for operating a pneumatic conveyor conveys sample volumes intermittently.
143 ARRAY FOR PROCESSING MATERIALS US15099498 2016-04-14 US20160222476A1 2016-08-04 Marshall MEDOFF; Thomas Craig MASTERMAN; Robert PARADIS
Materials (e.g., plant biomass, animal biomass, and municipal waste biomass) are processed to produce useful intermediates and products, such as energy, fuels, foods or materials. For example, systems equipment, and methods are described that can be used to treat feedstock materials, such as cellulosic and/or lignocellulosic materials, using an array of vaults.
144 VARIABLE OPENING SLIDE GATE FOR REGULATING MATERIAL FLOW INTO AIRSTREAM US15006587 2016-01-26 US20160214793A1 2016-07-28 Stephen B. MAGUIRE; James ZINSKI
Apparatus for delivering controlled amounts of granular resin into a conveying conduit includes a hopper for storing the resin, an air cylinder, a double-ended piston within the air cylinder, passive and active piston rods extending from opposite sides of the piston out of the ends of the cylinder, and a slide gate connected to the active piston rod, with the slide gate being positioned between a discharge opening of the hopper and an opening in the conveying conduit.
145 Reconfigureable processing enclosures US14299005 2014-06-09 US09388442B2 2016-07-12 Marshall Medoff; Thomas Craig Masterman; Robert Paradis
Biomass (e.g., plant biomass, animal biomass, and municipal waste biomass) or other materials are processed to produce useful intermediates and products, such as energy, fuels, foods or materials. For example, systems and methods are described that can be used to treat feedstock materials, such as cellulosic and/or lignocellulosic materials, in a vault in which the walls and optionally the ceiling include discrete units. Such vaults are re-configurable.
146 Powder supplying device and method for automatically cleaning a powder supplying device US13807468 2011-06-29 US09387995B2 2016-07-12 Felix Mauchle; Norbert Honegger; Mark Steinemann; Hanspeter Michael
A powder supplying device for a powder coating installation with at least one closable powder container, which has a substantially cuboidal powder chamber for coating powder and a fluidizing device for introducing fluidizing compressed air into the powder chamber. At least one inlet opening is provided in a side wall of the powder container for feeding coating powder during a powder coating operation of the powder coating installation or for introducing cleaning compressed air during a cleaning operation of the coating installation. At least one outlet is provided for discharging fluidizing compressed air introduced into the powder chamber or for discharging cleaning air introduced into the powder chamber during the cleaning operation together with residual powder transported along with the cleaning compressed air. At least one powder feed line and at least one cleaning compressed-air feed line are connected via a diverter to the at least one inlet opening.
147 Coupling Point and Coupling Station for a Pneumatic Conveyance System for Conveying Bulk Material US14908689 2014-07-28 US20160176657A1 2016-06-23 Walter Kramer
The invention relates to a coupling point serving to form a coupling station between at least two senders and at least one receiver of a pneumatic conveyance system for conveying bulk material. The bulk material is directed by sender tubes and receiver tubes, which fluidically connect the sender and the receiver to the coupling station (6). The coupling point is a plug-in module which has at least one sender divider tube (7) and at least one receiver divider tuber (12). The sender divider tube (7) has at least one outlet (10) and the receiver divider tube (12) has at least one inlet (15) for the bulk material. The sender divider tube (7) and the receiver divider tube (12) each have at least one connection (9, 14) for a next plug-in module (21) or a sender tube (4) or receiver tube (5). The outlet (10) of the sender divider tube (7) and the inlet (15) of the receiver divider tube (12) can be closed or released. The coupling station has at least two dimensionally stable plug-in modules, each having at least one sender divider tube and at least one receiver divider tube which are fluidically connected or connectable to each other.
148 Array for processing materials US14299004 2014-06-09 US09334518B2 2016-05-10 Marshall Medoff; Thomas Craig Masterman; Robert Paradis
Materials (e.g., plant biomass, animal biomass, and municipal waste biomass) are processed to produce useful intermediates and products, such as energy, fuels, foods or materials. For example, systems equipment, and methods are described that can be used to treat feedstock materials, such as cellulosic and/or lignocellulosic materials, using an array of vaults.
149 Cut extrudate dispersal hood US14875021 2015-10-05 US09320298B2 2016-04-26 Matthew James Edelman; Dennis Howard Baumgartner; Dennis R. Hartter; Jason Dean Selland; Marc L. Wenger
A product-spreading hood assembly (10) for use with a die unit (128) includes a deflector (14) having wall structure defining a product inlet opening (90) and a product outlet opening (92); the deflector (14) is preferably generally frustoconical in shape and is supported by a housing (12). An optional air delivery assembly (16) allows air currents to be directed from the area of the inlet (90) towards outlet (92) to facilitate separation of discrete products. Advantageously, the air currents are delivered in a circumferential fashion about the die unit (128). Use of the hood assembly (10) serves to separate high moisture or “sticky” extrudates, thereby preventing agglomeration thereof.
150 Cut extrudate dispersal hood US14616994 2015-02-09 US09278817B2 2016-03-08 Matthew James Edelman; Dennis Howard Baumgartner; Dennis R. Hartter; Jason Dean Selland; Marc L. Wenger
A product-spreading hood assembly (10) for use with a die unit (128) includes a deflector (14) having wall structure defining a product inlet opening (90) and a product outlet opening (92); the deflector (14) is preferably generally frustoconical in shape and is supported by a housing (12). An optional air delivery assembly (16) allows air currents to be directed from the area of the inlet (90) towards outlet (92) to facilitate separation of discrete products. Advantageously, the air currents are delivered in a circumferential fashion about the die unit (128). Use of the hood assembly (10) serves to separate high moisture or “sticky” extrudates, thereby preventing agglomeration thereof.
151 Cut extrudate dispersal hood US14616946 2015-02-09 US09278816B2 2016-03-08 Matthew James Edelman; Dennis Howard Baumgartner; Dennis R. Hartter; Jason Dean Selland; Marc L. Wenger
A product-spreading hood assembly (10) for use with a die unit (128) includes a deflector (14) having wall structure defining a product inlet opening (90) and a product outlet opening (92); the deflector (14) is preferably generally frustoconical in shape and is supported by a housing (12). An optional air delivery assembly (16) allows air currents to be directed from the area of the inlet (90) towards outlet (92) to facilitate separation of discrete products. Advantageously, the air currents are delivered in a circumferential fashion about the die unit (128). Use of the hood assembly (10) serves to separate high moisture or “sticky” extrudates, thereby preventing agglomeration thereof.
152 CUT EXTRUDATE DISPERSAL HOOD US14616994 2015-02-09 US20150151928A1 2015-06-04 Matthew James Edelman; Dennis Howard Baumgartner; Dennis R. Hartter; Jason Dean Selland; Marc L. Wenger
A product-spreading hood assembly (10) for use with a die unit (128) includes a deflector (14) having wall structure defining a product inlet opening (90) and a product outlet opening (92); the deflector (14) is preferably generally frustoconical in shape and is supported by a housing (12). An optional air delivery assembly (16) allows air currents to be directed from the area of the inlet (90) towards outlet (92) to facilitate separation of discrete products. Advantageously, the air currents are delivered in a circumferential fashion about the die unit (128). Use of the hood assembly (10) serves to separate high moisture or “sticky” extrudates, thereby preventing agglomeration thereof.
153 CUT EXTRUDATE DISPERSAL HOOD US14616946 2015-02-09 US20150150301A1 2015-06-04 Matthew James Edelman; Dennis Howard Baumgartner; Dennis R. Hartter; Jason Dean Selland; Marc L. Wenger
A product-spreading hood assembly (10) for use with a die unit (128) includes a deflector (14) having wall structure defining a product inlet opening (90) and a product outlet opening (92); the deflector (14) is preferably generally frustoconical in shape and is supported by a housing (12). An optional air delivery assembly (16) allows air currents to be directed from the area of the inlet (90) towards outlet (92) to facilitate separation of discrete products. Advantageously, the air currents are delivered in a circumferential fashion about the die unit (128). Use of the hood assembly (10) serves to separate high moisture or “sticky” extrudates, thereby preventing agglomeration thereof.
154 Device for Explosion Decoupling of Two System Parts US14400558 2013-04-12 US20150132071A1 2015-05-14 Josse Wolf; Morris Koch; Waldemar Gillung
The invention relates to a device for explosion decoupling of two system parts. Dust that is capable of exploding can be fed in the process from a first system part in an air flow via a pipeline (3) into a container of the second system part. A non-return flap (8) is provided in a pipe element (9) integrated into the pipeline (3). The non-return flap (8) is opened by the air flow and closed when there is an explosion in the container because of the explosion pressure that arises. The non-return flap (8) makes contact with a limit stop (11) in the pipe element (9) when it is closed. A locking device (12) is provided on the outside of the pipe element (9) by means of which the non-return flap (8) is secured in the closed position.
155 ADJUSTABLE DIVISION PLATE FOR CLASSIFIER COAL FLOW CONTROL US14371951 2013-01-11 US20150056024A1 2015-02-26 John Rath; Murat Yaldizli
A solid particle distribution controller includes a plurality of division plates proximate a division between an upstream solid particle conveyance pipe and a plurality of downstream pipes. The solid particle distribution controller also includes a plurality of extension plates. Each of the extension plates is movably mounted proximate to a respective division plate for movement in an upstream and downstream direction with respect to the division plate. The plurality of extension plates are configured and adapted for motion in the upstream and downstream direction independent of one another to extend upstream of the division plates as needed to improve solid particle distribution among the downstream pipes.
156 BIN SYSTEM AND CHAR RECOVERY APPARATUS US14348177 2012-11-22 US20140231239A1 2014-08-21 Yoshinori Koyama; Yuichiro Urakata; Osamu Shinada; Yasunari Shibata; Takashi Yamamoto; Koji Nishimura; Hiromi Ishii
In a bin system and a char recovery apparatus, reduction in size of the apparatus can be achieved. Provided are: a bin (44) that can store char; three char discharge lines (47, 49a, 49b) that are arranged at a predetermined inclination angle at which the char can be discharged in the bin (44) by means of gravitational fall; four switching lines (51a, 51b, 51c, 51d) that are arranged at the predetermined inclination angle theta at which the char stored in the bin (44) can be fed by means of the gravitational fall; and assist gas feed parts (54, 55a, 55b) as an assist device that assist flow of the char gravitationally falling down the char discharge lines (47, 49a, 49b).
157 CUT EXTRUDATE DISPERSAL HOOD US13626683 2012-09-25 US20140087047A1 2014-03-27 Matthew James Edelman; Dennis Howard Baumgartner; Dennis R. Hartter; Jason Dean Selland; Marc L. Wenger
A product-spreading hood assembly (10) for use with a die unit (128) includes a deflector (14) having wall structure defining a product inlet opening (90) and a product outlet opening (92); the deflector (14) is preferably generally frustoconical in shape and is supported by a housing (12). An optional air delivery assembly (16) allows air currents to be directed from the area of the inlet (90) towards outlet (92) to facilitate separation of discrete products. Advantageously, the air currents are delivered in a circumferential fashion about the die unit (128). Use of the hood assembly (10) serves to separate high moisture or “sticky” extrudates, thereby preventing agglomeration thereof.
158 Biomass feed system/process US12703492 2010-02-10 US08523496B2 2013-09-03 Robert Bartek
The invention relates generally to the conversion of biomass to oxygenated hydrocarbons. More particularly, an improved biomass feed system or process for conveying biomass to a reactor for conversion to oxygenated hydrocarbons is provided. The provided system or process utilizes a spool piece adapted to convey solid particulate biomass from a lower pressure to a higher pressure. The spool piece conveys the solid particulate biomass material either directly to a reactor operated at or below the higher pressure or first to a vibratory feeder and then to such reactor. The vibratory feeder can include a bowl and an outlet spout extending tangentially from the bowl.
159 POWDER SUPPLYING DEVICE AND METHOD FOR AUTOMATICALLY CLEANING A POWDER SUPPLYING DEVICE US13807468 2011-06-29 US20130108379A1 2013-05-02 Felix Mauchle; Norbert Honegger; Mark Steinemann; Hanspeter Michael
A powder supplying device for a powder coating installation with at least one closable powder container, which has a substantially cuboidal powder chamber for coating powder and a fluidizing device for introducing fluidizing compressed air into the powder chamber. At least one inlet opening is provided in a side wall of the powder container for feeding coating powder during a powder coating operation of the powder coating installation or for introducing cleaning compressed air during a cleaning operation of the coating installation. At least one outlet is provided for discharging fluidizing compressed air introduced into the powder chamber or for discharging cleaning air introduced into the powder chamber during the cleaning operation together with residual powder transported along with the cleaning compressed air. At least one powder feed line and at least one cleaning compressed-air feed line are connected via a diverter to the at least one inlet opening.
160 Pulse-controlled metering device US174362 1993-12-28 US5474401A 1995-12-12 Knut A. Paulsen; Bernt Nagell; Gisle G. Enstad; Bjorn Vikshaland; Leiv Ognedal
A pneumatic metering device for metering powdered materials, for example in connection with feeding aluminum oxide and aluminum fluoride to an electrolysis cell for production of aluminum, includes a container in the form of a relatively long, closed channel or similar structure. A fluidizing element is fitted in the base of the channel for supply of air for fluidization of material which is located in the channel. The container is fitted with an inlet for feeding material to the container from a store in the form of a silo or similar and an outlet for metered discharge of material from the container. The area below the inlet is inactive and is not supplied with fluidizing air, whereas air is supplied intermittently to the fluidizing element which is designed to cover essentially all other parts of the base of the channel.
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