mhurhangee/patent-ind-claim-en huggingface dataset:
An extractor system comprising: - a negative pressure gas stream source ; - a negative pressure conduit configured to convey the negative pressure gas stream from a work area , wherein a first end of the negative pressure conduit is coupled to the negative pressure gas stream source , such that the negative pressure gas stream is conveyed from the work area through a second end of the negative pressure conduit and toward the first end of the negative pressure conduit ; - a positive pressure system disposed about the negative pressure conduit at the second end ; and - an operator interface that allows a user to control a positive pressure gas stream, wherein the positive pressure system comprises a plurality of positive pressure assemblies , each positive pressure assembly comprising a positive pressure gas stream manifold , a motor disposed within the positive pressure gas stream manifold ; and a fan coupled to the motor , configured to generate a positive pressure gas stream through the positive pressure manifold ; characterized in that the operator interface is configured to allow a user to control the plurality of motors , that the positive pressure assemblies are disposed about the negative pressure conduit joined by a handle assembly , which includes a handle and the operator interface , and that each positive pressure assembly further includes an end cap and a screen , wherein the motor is a DC motor. - a negative pressure gas stream source ; - a negative pressure conduit configured to convey the negative pressure gas stream from a work area , wherein a first end of the negative pressure conduit is coupled to the negative pressure gas stream source , such that the negative pressure gas stream is conveyed from the work area through a second end of the negative pressure conduit and toward the first end of the negative pressure conduit ; - a positive pressure system disposed about the negative pressure conduit at the second end ; and - an operator interface that allows a user to control a positive pressure gas stream,
A method of producing a non-woven material comprising: a) feeding a blended polymer comprising, an amorphous thermoplastic polymer and a thermoplastic semi-crystalline polymer, each of the polymers being essentially miscible in the other and being blended at a weight ratio of amorphous polymer/semi-crystalline polymer of greater than that 0.05 to 20, wherein the amorphous polymer has a glass transition temperature that is 20 °C to 250 °C below the melt temperature of the thermoplastic semi-crystalline polymer; b) heating the blended polymer to a melt pump temperature that melts the blended polymer to form a liquified feed; c) extruding the liquified feed through an orifice at an orifice temperature above the melt pump temperature and blowing said liquid feed with annular gas stream having an air set temperature to form a spray; d) cooling said spray in an air gap, and e) depositing said spray on a substrate to form the non-woven material. a) feeding a blended polymer comprising, an amorphous thermoplastic polymer and a thermoplastic semi-crystalline polymer, each of the polymers being essentially miscible in the other and being blended at a weight ratio of amorphous polymer/semi-crystalline polymer of greater than that 0.05 to 20, wherein the amorphous polymer has a glass transition temperature that is 20 °C to 250 °C below the melt temperature of the thermoplastic semi-crystalline polymer; b) heating the blended polymer to a melt pump temperature that melts the blended polymer to form a liquified feed; c) extruding the liquified feed through an orifice at an orifice temperature above the melt pump temperature and blowing said liquid feed with annular gas stream having an air set temperature to form a spray; d) cooling said spray in an air gap, and e) depositing said spray on a substrate to form the non-woven material.
A method performed using one or more processors, the method comprising: receiving source code comprising at least a portion of a computer program via data retrieval from a computer data storage device or input from a computer input device; digitally storing the source code at a first code repository ; building the source code into executable code comprising one or more machine executable computer program files, wherein building the source code into executable code comprises: generating the executable code, based on the source code and a first criteria, and digitally storing the executable code in a second repository; and generating a job specification, based on the source code and a second criteria, and digitally storing the job specification in computer memory, wherein the job specification comprises a set of data transformation instructions that specify how to construct a data transformation job; launching computer execution of an application server , using the executable code and the job specification; receiving, at the application server , the data transformation instructions that specify a process for transforming a first dataset; and in response to receiving data transformation instructions, executing, using the executable code, the data transformation instructions in the application server to transform the first dataset to a second dataset. receiving source code comprising at least a portion of a computer program via data retrieval from a computer data storage device or input from a computer input device; digitally storing the source code at a first code repository ; building the source code into executable code comprising one or more machine executable computer program files, wherein building the source code into executable code comprises: generating the executable code, based on the source code and a first criteria, and digitally storing the executable code in a second repository; and generating a job specification, based on the source code and a second criteria, and digitally storing the job specification in computer memory, wherein the job specification comprises a set of data transformation instructions that specify how to construct a data transformation job; generating the executable code, based on the source code and a first criteria, and digitally storing the executable code in a second repository; and generating a job specification, based on the source code and a second criteria, and digitally storing the job specification in computer memory, wherein the job specification comprises a set of data transformation instructions that specify how to construct a data transformation job; launching computer execution of an application server , using the executable code and the job specification; receiving, at the application server , the data transformation instructions that specify a process for transforming a first dataset; and in response to receiving data transformation instructions, executing, using the executable code, the data transformation instructions in the application server to transform the first dataset to a second dataset.
A connector, comprising a base , a plurality of terminal modules (no) disposed on the base , and a ground shielding plate , wherein the plurality of terminal modules (no) are disposed in parallel in a first direction, and the ground shielding plate is disposed between two adjacent terminal modules (no); and the ground shielding plate comprises a body and at least two elastic elements disposed on the body , each elastic element comprises a first elastic arm , a second elastic arm , and a contact part , a first end of the first elastic arm and a first end of the second elastic arm are separately connected to the body , and a second end of the first elastic arm and a second end of the second elastic arm are separately connected to the contact part ; and the contact part is biased toward the first direction relative to the body , and is configured to electrically connect to a ground shielding plate of a mated connector, wherein the second end of the first spring arm intersects with the second end of the second spring arm , and the contact part is disposed at an intersection location between the second end of the first spring arm and the second end of the second spring arm , wherein when the connector and the mated connector are plug-connected to each other in a second direction, in the second direction, one end of the ground shielding plate is connected to the base , characterized in that a first protrusion protruding in the first direction is disposed at the other end. the ground shielding plate comprises a body and at least two elastic elements disposed on the body , each elastic element comprises a first elastic arm , a second elastic arm , and a contact part , a first end of the first elastic arm and a first end of the second elastic arm are separately connected to the body , and a second end of the first elastic arm and a second end of the second elastic arm are separately connected to the contact part ; and the contact part is biased toward the first direction relative to the body , and is configured to electrically connect to a ground shielding plate of a mated connector, wherein the second end of the first spring arm intersects with the second end of the second spring arm , and the contact part is disposed at an intersection location between the second end of the first spring arm and the second end of the second spring arm , wherein when the connector and the mated connector are plug-connected to each other in a second direction, in the second direction, one end of the ground shielding plate is connected to the base , characterized in that a first protrusion protruding in the first direction is disposed at the other end.
A device for freezing and thawing a therapeutic cell mixture, comprising a container comprising; a first open end having a first diameter (d 1 ); a second open end having a second diameter (d 2 ) that is smaller than the first diameter; a lumen , comprising a lumen wall, in fluid communication with the first and second open end, and having a lumen diameter (d L ) that is similar to the first diameter, wherein the container is constructed of one or more biocompatible materials that maintain structural integrity when frozen at less than about -130 °C and thawed; a first polymeric seal configured to seat within the lumen and create a sealing contact with the lumen wall; a first polymeric cap designed to seal the first open end; a second polymeric cap designed to seal the second open end; wherein the container defines a syringe barrel, and the first polymeric seal is a piston or plunger. a first open end having a first diameter (d 1 ); a second open end having a second diameter (d 2 ) that is smaller than the first diameter; a lumen , comprising a lumen wall, in fluid communication with the first and second open end, and having a lumen diameter (d L ) that is similar to the first diameter, wherein the container is constructed of one or more biocompatible materials that maintain structural integrity when frozen at less than about -130 °C and thawed; a first polymeric seal configured to seat within the lumen and create a sealing contact with the lumen wall; a first polymeric cap designed to seal the first open end; a second polymeric cap designed to seal the second open end; wherein the container defines a syringe barrel, and the first polymeric seal is a piston or plunger.
A method in a user equipment, the method comprising: receiving information from a base station, where the information includes a plurality of subcarrier spacings and a plurality of random access configurations for a cell, where each of the plurality of random access configurations is associated with at least one subcarrier spacing of the plurality of subcarrier spacings, and where the at least one subcarrier spacing is used for communication; selecting a first random access configuration from the plurality of random access configurations; and transmitting a random access preamble according to the first random access configuration; receiving a random access response message associated with the first random access preamble; characterized in that , selecting a second random access configuration from the plurality of random access configurations based on the received random access response message, where the second random access configuration is different from the first random access configuration; and transmitting a second random access preamble in response to the received random access response message according to the second random access configuration. receiving information from a base station, where the information includes a plurality of subcarrier spacings and a plurality of random access configurations for a cell, where each of the plurality of random access configurations is associated with at least one subcarrier spacing of the plurality of subcarrier spacings, and where the at least one subcarrier spacing is used for communication; where the information includes a plurality of subcarrier spacings and a plurality of random access configurations for a cell, where each of the plurality of random access configurations is associated with at least one subcarrier spacing of the plurality of subcarrier spacings, and where the at least one subcarrier spacing is used for communication; selecting a first random access configuration from the plurality of random access configurations; and transmitting a random access preamble according to the first random access configuration; receiving a random access response message associated with the first random access preamble; characterized in that , selecting a second random access configuration from the plurality of random access configurations based on the received random access response message, where the second random access configuration is different from the first random access configuration; and transmitting a second random access preamble in response to the received random access response message according to the second random access configuration.
A hybrid refrigerant circulating cooling system comprising: a refrigerant conduit in which refrigerant is disposed; an air conditioner terminal device which is disposed adjacent to an object to be cooled and comprises a heat exchanger and a blower , wherein the heat exchanger communicates with the refrigerant conduit to form a circuit, and the refrigerant flows into the heat exchanger in a liquid phase and flows out of the heat exchanger in a gas-liquid two-phase or in a gas phase, and the blower conveys a working airstream which sequentially contacts with the object to be cooled and the heat exchanger ; a cooling device which is disposed downstream of the heat exchanger along the direction in which the refrigerant flows, wherein the refrigerant in the refrigerant conduit downstream of the cooling device is in a liquid phase; and a pumping device which is disposed downstream of the cooling device to pump the refrigerant in a liquid phase into the heat exchanger ; characterized in that the air conditioner terminal device is disposed above the object to be cooled, and the flow path of the working airstream is configured in a substantial U shape such that the working airstream exits from the air conditioner terminal device in a basically vertical direction, enters, passes and leaves the object to be cooled in a basically horizontal direction and enters into the air conditioner terminal device in a basically vertical direction. a refrigerant conduit in which refrigerant is disposed; an air conditioner terminal device which is disposed adjacent to an object to be cooled and comprises a heat exchanger and a blower , wherein the heat exchanger communicates with the refrigerant conduit to form a circuit, and the refrigerant flows into the heat exchanger in a liquid phase and flows out of the heat exchanger in a gas-liquid two-phase or in a gas phase, and the blower conveys a working airstream which sequentially contacts with the object to be cooled and the heat exchanger ; a cooling device which is disposed downstream of the heat exchanger along the direction in which the refrigerant flows, wherein the refrigerant in the refrigerant conduit downstream of the cooling device is in a liquid phase; and a pumping device which is disposed downstream of the cooling device to pump the refrigerant in a liquid phase into the heat exchanger ; characterized in that the air conditioner terminal device is disposed above the object to be cooled, and the flow path of the working airstream is configured in a substantial U shape such that the working airstream exits from the air conditioner terminal device in a basically vertical direction, enters, passes and leaves the object to be cooled in a basically horizontal direction and enters into the air conditioner terminal device in a basically vertical direction.
Device for converting chemical energy into electrical energy or electrical energy into chemical energy, having at least one electrochemically active planar cell that is held securely between coaxial annual disks of an electrically insulating support frame , through which a supply structure with channels for process media extends to the cell , characterised by the presence of a free spatial region on either side of the cell in the axial direction, which region is bounded in the radial direction by at least one of the annular disks , in which the regions are open toward a pressure chamber via at least one passage through the corresponding annular disk , and in which the pressure chamber is filled with a pressurised medium that compresses the cell with homogeneous axial planar pressure when the device is in operation.
Method for printing a three-dimensional structure with a smooth surface comprising the following steps: - Depositing multiple droplets of printing material at least partially side by side and one above the other and curing the deposited droplets by light irradiation to build up a three-dimensional pre-structure in a first step ; - Smoothing at least one surface of the three-dimensional pre-structure by targeted placement of compensation droplets in boundary areas of adjacent deposited droplets and near edges of the surface to be smoothed in a second step to build up the three-dimensional structure with a smooth surface , wherein the compensation droplets deposited in the second step have a smaller mean diameter than the droplets deposited in the first step and wherein the compensation droplets deposited in the second step are cured in the second step by light irradiation. - Depositing multiple droplets of printing material at least partially side by side and one above the other and curing the deposited droplets by light irradiation to build up a three-dimensional pre-structure in a first step ; - Smoothing at least one surface of the three-dimensional pre-structure by targeted placement of compensation droplets in boundary areas of adjacent deposited droplets and near edges of the surface to be smoothed in a second step to build up the three-dimensional structure with a smooth surface , wherein the compensation droplets deposited in the second step have a smaller mean diameter than the droplets deposited in the first step and wherein the compensation droplets deposited in the second step are cured in the second step by light irradiation.
Sensor assembly for determining the intake air mass of an internal combustion engine, wherein the sensor assembly has a plug-in sensor arranged in a flow pipe and having a sensor element for determining the intake air flowing in a main flow direction (S) in the flow pipe , and at least one grating arranged upstream of the plug-in sensor in the main flow direction (S), wherein the grating is formed in the shape of a circular ring around a central axis of the flow pipe that extends in the main flow direction (S), wherein the grating has grating rings and grating struts extending radially relative to the central axis and the grating rings , wherein the grating rings and grating struts form apertures between them for the intake air flowing in the main flow direction (S), wherein the grating rings are arranged around the central axis and coaxially with one another and are separated from one another by the grating struts , wherein the grating has an outer grating edge facing the flow pipe and an innermost grating ring which is closest to the central axis , characterized in that each grating ring which is arranged closer to the central axis than a grating ring which is adjacent to this grating ring and is arranged closer to the grating edge has a lower grating ring thickness (RD1; RD2; RD3) in the radial direction in a section plane (SE1; SE2) extending through the grating at right angles to the central axis than the adjacent grating ring that is arranged closer to the grating edge .
An automatic boom telescopic motion apparatus for a working machine, comprising: a boom including a plurality of boom members (22a, 22b, 22c, 22d, 22e, and 22f), the boom performing telescopic motion by shifting next boom members (22a, 22b, 22c, 22d, and 22e) in front of respective ones with respect to the boom members (22a, 22b, 22c, 22d, and 22e) other than a top boom member ; a telescopic cylinder configured to allow the boom to perform the telescopic motion; a driving source configured to drive the telescopic cylinder ; an output detection part configured to detect an output of driving force supplied from the driving source, characterised in that a boom telescopic motion input part configured to input a direction of the telescopic motion of the boom and also input an operation to adjust a speed of the telescopic motion of the boom ; and an on/off operation part configured to be able to switch between on and off by a predetermined operation; wherein an automatic telescopic motion part is configured to continue the telescopic motion of the boom without inputting an operation to perform the telescopic motion of the boom by the boom telescopic motion input part , in a state in which the on/off operation part is turned on, when the output detection part detects an output which is equal to or greater than a predetermined value and an operation is inputted to the boom telescopic motion input part to increase the speed of the telescopic motion of the boom to a value equal to or higher than a predetermined value. a boom including a plurality of boom members (22a, 22b, 22c, 22d, 22e, and 22f), the boom performing telescopic motion by shifting next boom members (22a, 22b, 22c, 22d, and 22e) in front of respective ones with respect to the boom members (22a, 22b, 22c, 22d, and 22e) other than a top boom member ; a telescopic cylinder configured to allow the boom to perform the telescopic motion; a driving source configured to drive the telescopic cylinder ; an output detection part configured to detect an output of driving force supplied from the driving source, characterised in that a boom telescopic motion input part configured to input a direction of the telescopic motion of the boom and also input an operation to adjust a speed of the telescopic motion of the boom ; and an on/off operation part configured to be able to switch between on and off by a predetermined operation; wherein an automatic telescopic motion part is configured to continue the telescopic motion of the boom without inputting an operation to perform the telescopic motion of the boom by the boom telescopic motion input part , in a state in which the on/off operation part is turned on, when the output detection part detects an output which is equal to or greater than a predetermined value and an operation is inputted to the boom telescopic motion input part to increase the speed of the telescopic motion of the boom to a value equal to or higher than a predetermined value.