mhurhangee/patent-ind-claim-en huggingface dataset:
System comprising construction machine , transport vehicle with loading space and image-recording device , wherein the image-recording device is arranged at the construction machine and aligned, as a minimum, towards the loading space of the transport vehicle , wherein a reception and display device is arranged at or in the transport vehicle , wherein the data recorded by the image-recording device are transmitted to the reception and display device by means of a transmission device arranged at the construction machine , wherein the construction machine comprises a conveying device , characterized in that the data recorded and transmitted are image data and the image-recording device comprises at least one camera for recording an image stream , wherein the image-recording device is also aligned towards the conveying device , wherein both the loading space and the particularly critical section at the conveying device may be observed with the camera in order to control the proper filling of the loading surface on the one hand, and prevent a collision between the tailboard and the conveying device on the other. wherein the image-recording device is arranged at the construction machine and aligned, as a minimum, towards the loading space of the transport vehicle , wherein a reception and display device is arranged at or in the transport vehicle , wherein the data recorded by the image-recording device are transmitted to the reception and display device by means of a transmission device arranged at the construction machine , wherein the construction machine comprises a conveying device , characterized in that the data recorded and transmitted are image data and the image-recording device comprises at least one camera for recording an image stream , wherein the image-recording device is also aligned towards the conveying device , wherein both the loading space and the particularly critical section at the conveying device may be observed with the camera in order to control the proper filling of the loading surface on the one hand, and prevent a collision between the tailboard and the conveying device on the other.
A process for the production of a bouillon tablet comprising salt and cereal bran, the process comprising the steps of: a) dissolving at least 8% of the total amount of the salt in water; b) mixing the cereal bran and the water before, during or after dissolution of the salt in the water; c) drying the mixture of step b) to obtain a dry salt-bran mass; d) optionally milling the dry salt-bran mass; e) mixing the dry salt-bran mass with at least one further ingredient selected from the group consisting of salt, sugar, MSG, flavourings, colourants, fillers, oil, fat, or any combination thereof, to result in a dry composition; f) pressing the dry composition to a bouillon tablet; wherein the bouillon tablet comprises at least 10wt% salt-bran mass; and wherein the salt-bran mass comprises 10 to 90wt% salt and 10 to 90wt% cereal bran and wherein the salt is dissolved in the water at a ratio between 1:2.8 to 1:20 and wherein the drying is done at a temperature between 65 to 120°C. a) dissolving at least 8% of the total amount of the salt in water; b) mixing the cereal bran and the water before, during or after dissolution of the salt in the water; c) drying the mixture of step b) to obtain a dry salt-bran mass; d) optionally milling the dry salt-bran mass; e) mixing the dry salt-bran mass with at least one further ingredient selected from the group consisting of salt, sugar, MSG, flavourings, colourants, fillers, oil, fat, or any combination thereof, to result in a dry composition; f) pressing the dry composition to a bouillon tablet; wherein the bouillon tablet comprises at least 10wt% salt-bran mass; and wherein the salt-bran mass comprises 10 to 90wt% salt and 10 to 90wt% cereal bran and wherein the salt is dissolved in the water at a ratio between 1:2.8 to 1:20 and wherein the drying is done at a temperature between 65 to 120°C.
A three-dimensional drawing device comprising: a housing configured to be held in a user's hand, the housing having a first end and a second end, wherein the device comprises a port configured for introduction of a strand of feed stock into an internal volume of the housing ; a motor disposed within the internal volume ; a gear train operatively coupled with the motor to drive the gear train , disposed within the internal volume to receive the strand of feed stock , and configured to move the strand of feed stock when engaged with the gear train ; an actuator configured to selectably cause the motor to rotate in at least a first direction that causes the feed stock to be extruded out of the exit nozzle to form a three-dimensional object; and a nozzle assembly disposed at the first end of the housing and at least partially within the housing , the nozzle assembly comprising an extruder , an exit nozzle , and a guide tube , characterized by the extruder having a heating element surrounded by an insulator , the guide tube extending between the gear train and the extruder , a first end of the guide tube positioned to receive the strand of feed stock from the gear train , a second end of the guide tube aligned with a chamber of the extruder such that the strand of feed stock is directed from the guide tube into the chamber , the extruder being disposed between the guide tube and the exit nozzle . a housing configured to be held in a user's hand, the housing having a first end and a second end, wherein the device comprises a port configured for introduction of a strand of feed stock into an internal volume of the housing ; a motor disposed within the internal volume ; a gear train operatively coupled with the motor to drive the gear train , disposed within the internal volume to receive the strand of feed stock , and configured to move the strand of feed stock when engaged with the gear train ; an actuator configured to selectably cause the motor to rotate in at least a first direction that causes the feed stock to be extruded out of the exit nozzle to form a three-dimensional object; and a nozzle assembly disposed at the first end of the housing and at least partially within the housing , the nozzle assembly comprising an extruder , an exit nozzle , and a guide tube , characterized by the extruder having a heating element surrounded by an insulator , the guide tube extending between the gear train and the extruder , a first end of the guide tube positioned to receive the strand of feed stock from the gear train , a second end of the guide tube aligned with a chamber of the extruder such that the strand of feed stock is directed from the guide tube into the chamber , the extruder being disposed between the guide tube and the exit nozzle .
Topsheet for use in an absorbent article having at least a first layer , wherein the first layer has a first surface and an opposing second surface and comprises at least 15% by weight of natural fibers by total weight of the first layer, wherein the first layer has a plurality of apertures , wherein the first layer comprises land areas between the majority of the apertures , wherein the First Surface Land Area Contact Angle on the land areas of the first surface of the first layer between the majority of the apertures is more than 70°according to the Contact Angle test method, and wherein the topsheet has a run-off of less than 40% according to the run-off test method; and wherein the Apertures Contact Angle on the majority of the apertures is less than or equal to 70° according to the Contact Angle test method, and wherein the First Surface Land Area Contact Angle is at least 10° higher than the Apertures Contact Angle, and wherein the majority of apertures of the first layer comprise side walls which extend outwardly, away from the land areas on the second surface. wherein the first layer has a plurality of apertures , wherein the first layer comprises land areas between the majority of the apertures , wherein the First Surface Land Area Contact Angle on the land areas of the first surface of the first layer between the majority of the apertures is more than 70°according to the Contact Angle test method, and wherein the topsheet has a run-off of less than 40% according to the run-off test method; and wherein the Apertures Contact Angle on the majority of the apertures is less than or equal to 70° according to the Contact Angle test method, and wherein the First Surface Land Area Contact Angle is at least 10° higher than the Apertures Contact Angle, and wherein the majority of apertures of the first layer comprise side walls which extend outwardly, away from the land areas on the second surface.
A polymer composition comprising: a. from 20 wt.% to 50 wt% of a thermoplastic polymer; b. from 5 wt.% to 30 wt% of a coated stainless steel fiber; c. from 0 wt.% to 15 wt% of a conductive filler; d. from 0 wt.% to 30 wt% of glass fiber; e. from 0 wt.% to 15 wt% of a second polymer; and f. from 0 wt.% to 15 wt% of one or more additives, wherein the coated stainless steel fiber comprises 75 wt% of stainless steel fiber, 9.25 wt% of a polyester material coating and 15.75 wt% of a polysulfone coating. a. from 20 wt.% to 50 wt% of a thermoplastic polymer; b. from 5 wt.% to 30 wt% of a coated stainless steel fiber; c. from 0 wt.% to 15 wt% of a conductive filler; d. from 0 wt.% to 30 wt% of glass fiber; e. from 0 wt.% to 15 wt% of a second polymer; and f. from 0 wt.% to 15 wt% of one or more additives,
A device for incising an aortic valve stenosis, wherein the device is configured to be advanced in proximal direction through the vasculature and aortic valve into the left ventricle of the heart, wherein the device comprises: a substantially straight elongated blade having a proximal end and a distal end , with a sharp cutting edge located therebetween; a means for advancing the elongated blade in a proximal direction through the vasculature and the aortic valve to position the blade at a location proximal to the aortic stenosis, wherein said location is within the left ventricle of the heart; a balloon defining a longitudinal axis and having a distal end and a proximal end for inclining the blade relative to the axis of the balloon with an increasing distance between the blade and said axis in the proximal direction; and a means for retracting the blade in a distal direction along a path into the vasculature of a patient to incise the aortic valve stenosis with the cutting edge of the blade , wherein the advancing and retracting means are a catheter having a distal end and proximal end , wherein the balloon is mounted on the catheter near its proximal end ; and wherein the blade is attached to the distal end of the balloon and wherein the distal end of the blade is positioned adjacent the distal end of the balloon . a substantially straight elongated blade having a proximal end and a distal end , with a sharp cutting edge located therebetween; a means for advancing the elongated blade in a proximal direction through the vasculature and the aortic valve to position the blade at a location proximal to the aortic stenosis, wherein said location is within the left ventricle of the heart; a balloon defining a longitudinal axis and having a distal end and a proximal end for inclining the blade relative to the axis of the balloon with an increasing distance between the blade and said axis in the proximal direction; and a means for retracting the blade in a distal direction along a path into the vasculature of a patient to incise the aortic valve stenosis with the cutting edge of the blade , wherein the advancing and retracting means are a catheter having a distal end and proximal end , wherein the balloon is mounted on the catheter near its proximal end ; and wherein the blade is attached to the distal end of the balloon and wherein the distal end of the blade is positioned adjacent the distal end of the balloon .
Burner nozzle for two fuels, wherein the fuel nozzle has a fuel lance extending in a direction of flow (S) into which a number of first outlet orifices for a first fuel are introduced, and the fuel lance is surrounded by an outer pipe with at least one second outlet orifice for a second fuel, wherein the first outlet orifices are oriented radially and the second outlet orifice is oriented axially, wherein a number of vortex generators are arranged on the fuel lance , characterized in that at least one vortex generator is arranged upstream of the first outlet orifices and downstream of the second outlet orifice .
A vapor cycle liquid cooling system for an aircraft comprises: a vapor cycle system (14A-14D) comprising: a closed refrigerant loop; a cooling liquid outlet ; and a heating liquid outlet ; an air handling unit ; and a closed liquid loop comprising the cooling liquid outlet and the heating liquid outlet , the closed liquid loop in thermal communication with the closed refrigerant loop and the air handling unit; wherein the cooling liquid outlet is configured to deliver a cooling liquid in the liquid loop and the heating liquid outlet is configured to deliver a heating liquid in the liquid loop; and wherein the vapor cycle liquid cooling system is configured to deliver the cooling liquid to the air handling unit and is configured to modulate a flow of the heating liquid to the air handling unit. a vapor cycle system (14A-14D) comprising: a closed refrigerant loop; a cooling liquid outlet ; and a heating liquid outlet ; a closed refrigerant loop; a cooling liquid outlet ; and a heating liquid outlet ; an air handling unit ; and a closed liquid loop comprising the cooling liquid outlet and the heating liquid outlet , the closed liquid loop in thermal communication with the closed refrigerant loop and the air handling unit; wherein the cooling liquid outlet is configured to deliver a cooling liquid in the liquid loop and the heating liquid outlet is configured to deliver a heating liquid in the liquid loop; and wherein the vapor cycle liquid cooling system is configured to deliver the cooling liquid to the air handling unit and is configured to modulate a flow of the heating liquid to the air handling unit.
A corrosion monitoring system, comprising: one or more objects configured to be coupled to respective portions of a transformer tank, the one or more objects configured to corrode before the respective portions of the transformer tank; at least one optical sensor coupled to each of the objects, the at least one optical sensor having an optical output that changes in response to strain of the object; characterized by further comprising at least one additional optical sensor having an optical output that changes in response to a temperature of the object and is not sensitive to strain; and an analyzer coupled to the at least one optical sensor, the analyzer configured to perform detecting corrosion of the transformer tank by subtracting the output of one of the at least one additional optical sensor from the output of one of the at least one optical sensor. one or more objects configured to be coupled to respective portions of a transformer tank, the one or more objects configured to corrode before the respective portions of the transformer tank; at least one optical sensor coupled to each of the objects, the at least one optical sensor having an optical output that changes in response to strain of the object; characterized by further comprising at least one additional optical sensor having an optical output that changes in response to a temperature of the object and is not sensitive to strain; and an analyzer coupled to the at least one optical sensor, the analyzer configured to perform detecting corrosion of the transformer tank by subtracting the output of one of the at least one additional optical sensor from the output of one of the at least one optical sensor.
A method of manufacturing incontinence detection pads that have wireless communication capability, the method comprising readying an RFID tag applicator to place RFID tags on backsheet material that is fed between a pair of nip rollers, the backsheet material having a series of electrode traces thereon; operating a nip roller motor to feed the backsheet material between the pair of nip rollers and toward the RFID tag applicator; operating the RFID tag applicator to place each RFID tag across regions of a respective electrode trace of the series of electrode traces; and operating RFID tag test equipment to energize each RFID tag a first time and a second time using wireless emissions and receiving return signals from each RFID tag in response to the wireless emissions, wherein in response to being energized the first time by the RFID tag test equipment, each RFID tag is configured to respond by sending first data wirelessly, wherein in response to being energized a second time by the RFID tag test equipment, each RFID tag is configured to respond by sending second data wirelessly, the second data being different than the first data, wherein the first data includes at least a tag serial number and a tag status of an RFID chip of the RFID tag, and wherein the second data includes at least an electronic product code (EPC). readying an RFID tag applicator to place RFID tags on backsheet material that is fed between a pair of nip rollers, the backsheet material having a series of electrode traces thereon; operating a nip roller motor to feed the backsheet material between the pair of nip rollers and toward the RFID tag applicator; operating the RFID tag applicator to place each RFID tag across regions of a respective electrode trace of the series of electrode traces; and operating RFID tag test equipment to energize each RFID tag a first time and a second time using wireless emissions and receiving return signals from each RFID tag in response to the wireless emissions, wherein in response to being energized the first time by the RFID tag test equipment, each RFID tag is configured to respond by sending first data wirelessly, wherein in response to being energized a second time by the RFID tag test equipment, each RFID tag is configured to respond by sending second data wirelessly, the second data being different than the first data, wherein the first data includes at least a tag serial number and a tag status of an RFID chip of the RFID tag, and wherein the second data includes at least an electronic product code (EPC).
A system for monitoring a condition of an article comprising a conductive coating , the system comprising: a measurement device electrically connectable to the conductive coating of the article configured to sense an electrical property of the conductive coating; and a processor electrically connected to the measurement device; the processor being configured to: receive the sensed electrical property of the conductive coating from the measurement device; determine an estimated remaining usable life of the article; and generate an output signal representative of the determined estimated remaining usable life; characterised in that the processor is configured to determine a resistance of the conductive coating based on the received sensed electrical property, wherein the estimated remaining usable life of the article is determined based on the determined resistance of the conductive coating. a measurement device electrically connectable to the conductive coating of the article configured to sense an electrical property of the conductive coating; and a processor electrically connected to the measurement device; the processor being configured to: receive the sensed electrical property of the conductive coating from the measurement device; determine an estimated remaining usable life of the article; and generate an output signal representative of the determined estimated remaining usable life; receive the sensed electrical property of the conductive coating from the measurement device; determine an estimated remaining usable life of the article; and generate an output signal representative of the determined estimated remaining usable life;
A method for comparing Optical Time-Domain Reflectometric (OTDR) signatures for optical fiber recognition, the method comprising: receiving a set of backscattering patterns obtained over a first span of a first optical fiber link for different values of optical fiber temperatures or different values of OTDR laser center wavelengths, wherein each backscattering pattern corresponds to at least a portion of an OTDR trace acquired over the first span of the first optical fiber link; receiving a backscattering pattern obtained over a second span of a second optical fiber link and corresponding to at least a portion of an OTDR trace acquired over the second span of the second optical fiber link; and comparing the backscattering pattern of said second span to the set of backscattering patterns of said first span to determine if the backscattering pattern of said second span matches one of the backscattering patterns of said set; wherein said second span is determined to be the same as said first span if a match is found. receiving a set of backscattering patterns obtained over a first span of a first optical fiber link for different values of optical fiber temperatures or different values of OTDR laser center wavelengths, wherein each backscattering pattern corresponds to at least a portion of an OTDR trace acquired over the first span of the first optical fiber link; receiving a backscattering pattern obtained over a second span of a second optical fiber link and corresponding to at least a portion of an OTDR trace acquired over the second span of the second optical fiber link; and comparing the backscattering pattern of said second span to the set of backscattering patterns of said first span to determine if the backscattering pattern of said second span matches one of the backscattering patterns of said set; wherein said second span is determined to be the same as said first span if a match is found.
A method in a first radio network node , for updating external cell information, which external cell information relates to a first cell served by a second radio network node , the method comprising: receiving external cell information from the second radio network node; discarding some of the received external cell information from storing; determining that there is a need to update the external cell information, wherein the need relates to the discarded external cell information; sending , to the second radio network node in response to the determined need, a first message which first message comprises a request for data representing information relating to the first cell , wherein the request comprises an indication of a kind of information requested, the kind of information being at least one of information relating to the first cell , and information relating to at least one second cell neighbouring the first cell; receiving , from the second radio network node , a second message, which second message comprises the requested data; and updating the external cell information based on the received data. receiving external cell information from the second radio network node; discarding some of the received external cell information from storing; determining that there is a need to update the external cell information, wherein the need relates to the discarded external cell information; sending , to the second radio network node in response to the determined need, a first message which first message comprises a request for data representing information relating to the first cell , wherein the request comprises an indication of a kind of information requested, the kind of information being at least one of information relating to the first cell , and information relating to at least one second cell neighbouring the first cell; receiving , from the second radio network node , a second message, which second message comprises the requested data; and updating the external cell information based on the received data.