mhurhangee/patent-ind-claim-en huggingface dataset:
An axial flow blower comprising: a housing including a suction opening , an ejection opening formed thereon, and an outer cylindrical body forming an air blow passage through which the suction opening and the ejection opening are in communication with each other; a motor case disposed in the air blow passage ; a motor housed in the motor case ; an air blow fan disposed in the air blow passage and connected with a driven section of the motor , the air blow fan being configured to rotate on a driving force of the motor to blow air from the suction opening toward the ejection opening ; and an air communication passage provided between an outside of the air blow passage and an inside of the motor case , wherein there is an outflow hole bored through the motor case and disposed between the air blow fan and the suction opening , the outflow hole being in communication with the air blow passage , whereby an outer space outside the housing is in communication with an inner space inside the motor case through the air communication passage , characterized in that the air communication passage is formed inside a flow directing plate , an outer end portion thereof being connected to an inner circumferential face of the outer cylindrical body and an inner end portion thereof being connected to an outer circumferential face of the motor case at a downstream of the motor . a housing including a suction opening , an ejection opening formed thereon, and an outer cylindrical body forming an air blow passage through which the suction opening and the ejection opening are in communication with each other; a motor case disposed in the air blow passage ; a motor housed in the motor case ; an air blow fan disposed in the air blow passage and connected with a driven section of the motor , the air blow fan being configured to rotate on a driving force of the motor to blow air from the suction opening toward the ejection opening ; and an air communication passage provided between an outside of the air blow passage and an inside of the motor case , wherein there is an outflow hole bored through the motor case and disposed between the air blow fan and the suction opening , the outflow hole being in communication with the air blow passage , whereby an outer space outside the housing is in communication with an inner space inside the motor case through the air communication passage , characterized in that the air communication passage is formed inside a flow directing plate , an outer end portion thereof being connected to an inner circumferential face of the outer cylindrical body and an inner end portion thereof being connected to an outer circumferential face of the motor case at a downstream of the motor .
A multi-layer structure comprising: (a) a skin layer comprising at least 50% by weight of an ethylene/α-olefin interpolymer composition (LLDPE) having a Comonomer Distribution Constant (CDC) in the range of from 45 to 400, and wherein the skin layer does not contain any migratory additive; (b) a metal layer disposed on the skin layer to form a metalized film having an optical density from 2.0 to 2.8; and (c) at least one substrate layer laminated onto the metalized film; wherein the ethylene/α-olefin interpolymer composition comprises (i) less than or equal to 100 percent by weight of the units derived from ethylene; and (ii) less than 30 percent by weight of units derived from one or more α-olefin comonomers. (a) a skin layer comprising at least 50% by weight of an ethylene/α-olefin interpolymer composition (LLDPE) having a Comonomer Distribution Constant (CDC) in the range of from 45 to 400, and wherein the skin layer does not contain any migratory additive; (b) a metal layer disposed on the skin layer to form a metalized film having an optical density from 2.0 to 2.8; and (c) at least one substrate layer laminated onto the metalized film; wherein the ethylene/α-olefin interpolymer composition comprises (i) less than or equal to 100 percent by weight of the units derived from ethylene; and (ii) less than 30 percent by weight of units derived from one or more α-olefin comonomers.
A build material container comprising: an outlet through an outer surface of the build material container to enable build material to be extracted from the build material container; and an inlet through an outer surface of the build material container to enable a forced air flow to enter into the build material container in use, the inlet having a longitudinal axis (A), characterised by , a structure having a first element having an outer face and a first aperture and a second element having an innerface and a second aperture , the apertures to define an air flow path therebetween, wherein the first aperture is axially offset from the second aperture along an axis which is substantially parallel to the longitudinal axis of the inlet to disrupt an airflow entering into the build material container in use. an outlet through an outer surface of the build material container to enable build material to be extracted from the build material container; and an inlet through an outer surface of the build material container to enable a forced air flow to enter into the build material container in use, the inlet having a longitudinal axis (A), characterised by , a structure having a first element having an outer face and a first aperture and a second element having an innerface and a second aperture , the apertures to define an air flow path therebetween, wherein the first aperture is axially offset from the second aperture along an axis which is substantially parallel to the longitudinal axis of the inlet to disrupt an airflow entering into the build material container in use.
An anti-tumor necrosis factor receptor superfamily member 25 (TNFRSF25) antibody, wherein the antibody comprises: (i) a heavy chain variable region comprising an amino acid sequence having at least 95% sequence identity to SEQ ID NO: 5, wherein the heavy chain CDR1 sequence is GFTFSNHDLN (SEQ ID NO:12), the heavy chain CDR2 sequence is YISSASGLISYADAVRG (SEQ ID NO:14); and the heavy chain CDR3 sequence is DPAYTGLYALDF (SEQ ID NO:26) or DPPYSGLYALDF (SEQ ID NO:16); and (ii) a light chain variable region comprising an amino acid sequence having at least 95% sequence identity to SEQ ID NO: 6, wherein the light chain CDR1 sequence is TLSSELSWYTIV (SEQ ID NO:25), the light chain CDR2 sequence is LKSDGSHSKGD (SEQ ID NO:21), and the light chain CDR3 sequence is CGAGYTLAGQYGWV (SEQ ID NO:23). (i) a heavy chain variable region comprising an amino acid sequence having at least 95% sequence identity to SEQ ID NO: 5, wherein the heavy chain CDR1 sequence is GFTFSNHDLN (SEQ ID NO:12), the heavy chain CDR2 sequence is YISSASGLISYADAVRG (SEQ ID NO:14); and the heavy chain CDR3 sequence is DPAYTGLYALDF (SEQ ID NO:26) or DPPYSGLYALDF (SEQ ID NO:16); and (ii) a light chain variable region comprising an amino acid sequence having at least 95% sequence identity to SEQ ID NO: 6, wherein the light chain CDR1 sequence is TLSSELSWYTIV (SEQ ID NO:25), the light chain CDR2 sequence is LKSDGSHSKGD (SEQ ID NO:21), and the light chain CDR3 sequence is CGAGYTLAGQYGWV (SEQ ID NO:23).
An output control device, comprising: a signal input unit configured to receive an audio signal; a first output unit configured to output the audio signal to a first reproducing device ; a second output unit configured to output the audio signal to a second reproducing device via communication means in which a delay of a first delay time period occurs; and a buffer unit configured to temporarily store the audio signal, to read the temporarily-stored signal, and to output the read signal to the first output unit and the second output unit , the buffer unit being configured to advance a second read position (T2) ahead of a first read position (T1), the second read position (T2) being a read position in the buffer unit of a buffer signal to be output to the second output unit and the first read position (T1) being a read position of a buffer signal to be output to the first output unit, wherein the second read position (T2) is ahead of the first read position (T1) by an amount of the first delay time period (Td1). a signal input unit configured to receive an audio signal; a first output unit configured to output the audio signal to a first reproducing device ; a second output unit configured to output the audio signal to a second reproducing device via communication means in which a delay of a first delay time period occurs; and a buffer unit configured to temporarily store the audio signal, to read the temporarily-stored signal, and to output the read signal to the first output unit and the second output unit , the buffer unit being configured to advance a second read position (T2) ahead of a first read position (T1), the second read position (T2) being a read position in the buffer unit of a buffer signal to be output to the second output unit and the first read position (T1) being a read position of a buffer signal to be output to the first output unit, wherein the second read position (T2) is ahead of the first read position (T1) by an amount of the first delay time period (Td1).
Use of a fatty acid or a salt thereof for suppressing an influence of bilirubin in a measuring method of a component to be measured, comprising converting the component to be measured in a specimen to hydrogen peroxide through an enzymatic reaction, reacting the formed hydrogen peroxide with an oxidative-coloring chromogen in the presence of a peroxidase, and measuring an absorbance of the colored reaction solution to thereby determine the component to be measured, wherein the fatty acid or a salt thereof coexists, the concentration of the fatty acid or the salt thereof being from 0.1 to 15 mmol/L; wherein the specimen is selected from the group consisting of whole blood, plasma, and serum; and wherein the component to be measured is cholesterol in low-density lipoprotein (LDL-C).
A method for the production of cast bodies made of an electrically conductive material with the levitation melting method, wherein for the realization of the levitation state of a batch electromagnetic alternating fields are used which are generated with at least one pair of induction coils being oppositely arranged and having a core made of a ferromagnetic material , wherein the induction coils with their cores in each pair are arranged in a movable manner to each other and are moved between a melting position with low distance and a casting position with high distance, comprising the following steps of: - bringing the pairs of induction coils into the melting position with low distance, - introducing a batch of a starting material into the zone of influence of at least one electromagnetic alternating field so that the batch is hold in a levitation state, - melting the batch , - positioning a casting mold in a filling zone below the levitating batch , - casting the whole batch into the casting mold by moving the induction coils in at least one pair from the melting position with low distance into the casting position with high distance, - removing the solidified cast body from the casting mold . - bringing the pairs of induction coils into the melting position with low distance, - introducing a batch of a starting material into the zone of influence of at least one electromagnetic alternating field so that the batch is hold in a levitation state, - melting the batch , - positioning a casting mold in a filling zone below the levitating batch , - casting the whole batch into the casting mold by moving the induction coils in at least one pair from the melting position with low distance into the casting position with high distance, - removing the solidified cast body from the casting mold .
Container device for storing an ID transmitter in a vehicle , comprising a key compartment with a cavity in which the ID transmitter can be stored, characterized in that , an actuating mechanism is provided, by means of which actuation of at least a first operating element (2.1) of the ID transmitter can be carried out, wherein the actuating mechanism has a rotary element which is rotatably mounted, wherein the actuation of the first operating element (2.1) can be carried out by rotating the rotary element , wherein at least a first control body (44.1) is arranged on the rotary element , wherein at least one second control body (44.2) is provided, wherein the first operating element (2.1) of the ID transmitter can be actuated by the first control body (44.1) when the rotary element rotates in a first direction of rotation (41.1) and a second operating element (2.2) of the ID transmitter can be actuated by the second control body (44.2) when the rotary element rotates in a second direction of rotation (41.2). an actuating mechanism is provided, by means of which actuation of at least a first operating element (2.1) of the ID transmitter can be carried out, wherein the actuating mechanism has a rotary element which is rotatably mounted, wherein the actuation of the first operating element (2.1) can be carried out by rotating the rotary element , wherein at least a first control body (44.1) is arranged on the rotary element , wherein at least one second control body (44.2) is provided, wherein the first operating element (2.1) of the ID transmitter can be actuated by the first control body (44.1) when the rotary element rotates in a first direction of rotation (41.1) and a second operating element (2.2) of the ID transmitter can be actuated by the second control body (44.2) when the rotary element rotates in a second direction of rotation (41.2).
A process for oligomerization of olefins, said process comprising contacting a feedstock with a zeolite catalyst under conditions of oligomerization at pressure between 8-20 bars and temperature in the range of 60-100 °C to obtain oligomers, wherein, the zeolite catalyst has a pentagonal sheet morphology.
A method for forming a ceramic matrix composite (CMC), comprising: melt infiltrating a silicon mixture into a ceramic matrix composite preform, wherein the silicon mixture comprises SiGa, SiIn, or a mixture thereof; wherein the silicon mixture is melt infiltrated into the ceramic matrix composite preform at an infiltration temperature of 1415 °C or higher. melt infiltrating a silicon mixture into a ceramic matrix composite preform, wherein the silicon mixture comprises SiGa, SiIn, or a mixture thereof; wherein the silicon mixture is melt infiltrated into the ceramic matrix composite preform at an infiltration temperature of 1415 °C or higher.
Security system with a base plate and a tarpaulin , wherein in a security position a packaging material is mounted on the base plate and enclosed by the tarpaulin , wherein the tarpaulin is secured by means of an electrically conductive cable , which is encircling in circumferential direction of the base plate , to this, that the tarpaulin has an electrically conductive structure extending over the area of the tarpaulin, wherein a sensor is provided, by means of which interruptions of this structure are detectable, that the cable forms together with the sensor and an alarm device a closed security circuit and that the alarm device issues check signals on the safety circuit , wherein in a fault-free state a check signal, which transits the security circuit and is read back to the alarm device , agrees with a target value predetermined in the alarm device and wherein in a fault case in the safety circuit a departure of the read-back check signal from the target value is registered in the alarm device , whereupon an alarm report is generated in the alarm device , characterised in that the alarm device is electrically contacted with the free ends of the cable by way of a tightening device.
An apparatus comprising: (a) base housing defining: (i) an upwardly presented support surface , and (ii) a distally oriented tip receiving recess , wherein the distally oriented tip receiving recess is sized and configured to receive a bulbous distal tip of a dilation catheter; (b) an actuator movably coupled with the base housing; and (c) a blade secured to the actuator, wherein the actuator is operable to move the blade downwardly relative to the base housing, wherein the blade is configured to sever a portion of a dilation catheter along a plane longitudinally interposed between the support surface and the tip receiving recess to thereby sever the bulbous distal tip of the dilation catheter in response to movement of the actuator relative to the base housing, wherein the upwardly presented support surface defines a downwardly extending support recess , wherein the downwardly extending support recess is positioned to correspond with the distally oriented tip receiving recess; and characterised in that the actuator defines an upwardly extending lower recess , wherein the upwardly extending lower recess is positioned to correspond with the downwardly extending support recess. (a) base housing defining: (i) an upwardly presented support surface , and (ii) a distally oriented tip receiving recess , wherein the distally oriented tip receiving recess is sized and configured to receive a bulbous distal tip of a dilation catheter; (i) an upwardly presented support surface , and (ii) a distally oriented tip receiving recess , wherein the distally oriented tip receiving recess is sized and configured to receive a bulbous distal tip of a dilation catheter; (b) an actuator movably coupled with the base housing; and (c) a blade secured to the actuator, wherein the actuator is operable to move the blade downwardly relative to the base housing, wherein the blade is configured to sever a portion of a dilation catheter along a plane longitudinally interposed between the support surface and the tip receiving recess to thereby sever the bulbous distal tip of the dilation catheter in response to movement of the actuator relative to the base housing, wherein the upwardly presented support surface defines a downwardly extending support recess , wherein the downwardly extending support recess is positioned to correspond with the distally oriented tip receiving recess; and characterised in that the actuator defines an upwardly extending lower recess , wherein the upwardly extending lower recess is positioned to correspond with the downwardly extending support recess.
Housing cover for fixing to a housing , in particular to a power inverter housing, wherein the housing cover is provided with a plurality of fastening means through-openings and with a sealing bead that comprises an elastomeric material, wherein the sealing bead is arranged on a seal bearing surface of the housing cover , wherein the housing cover comprises at least one deformation limiting element , which projects beyond the seal bearing surface in the same direction as the sealing bead and limits a deformation of the sealing bead in the assembled state of the housing cover , and wherein at least one portion of at least one deformation limiting element extends along the circumferential direction of a fastening means through-opening by a circumferential angle of at least 160° around the fastening means through-opening , characterized in that a recess on the outside of the housing cover facing away from the seal bearing surface is associated with the deformation limiting element . wherein the housing cover is provided with a plurality of fastening means through-openings and with a sealing bead that comprises an elastomeric material, wherein the sealing bead is arranged on a seal bearing surface of the housing cover , wherein the housing cover comprises at least one deformation limiting element , which projects beyond the seal bearing surface in the same direction as the sealing bead and limits a deformation of the sealing bead in the assembled state of the housing cover , and wherein at least one portion of at least one deformation limiting element extends along the circumferential direction of a fastening means through-opening by a circumferential angle of at least 160° around the fastening means through-opening , characterized in that a recess on the outside of the housing cover facing away from the seal bearing surface is associated with the deformation limiting element .
A fluid ejection apparatus comprising: a plurality of fluid ejectors, each fluid ejector comprising: a pumping chamber , a nozzle, and an actuator configured to cause fluid to be ejected from the corresponding nozzle ; a feed channel (14; 28) fluidically connected to each pumping chamber ; and at least one compliant structure formed in a surface of the feed channel , wherein the at least one compliant structure is more compliant than the surface of the feed channel , wherein the at least one compliant structure comprises one or more dummy nozzles formed in the surface of the feed channel , wherein each dummy nozzle includes an inward facing opening on an internal surface of the nozzle layer and an outward facing opening on an external surface of the nozzle layer 11, wherein actuation of one of the actuators causes a change in fluid pressure in the feed channel wherein a convex meniscus is formed at the outward facing opening responsive to an increase in fluid pressure in the feed channel , and wherein the at least one compliant structure is configured to at least partially attenuate the change in fluid pressure in the feed channel , wherein each fluid ejector includes a nozzle formed in a nozzle layer , and wherein the dummy nozzles are formed in the nozzle layer ; characterised in that the dummy nozzles are substantially the same size as the nozzles . a plurality of fluid ejectors, each fluid ejector comprising: a pumping chamber , a nozzle, and an actuator configured to cause fluid to be ejected from the corresponding nozzle ; a pumping chamber , a nozzle, and an actuator configured to cause fluid to be ejected from the corresponding nozzle ; a feed channel (14; 28) fluidically connected to each pumping chamber ; and at least one compliant structure formed in a surface of the feed channel , wherein the at least one compliant structure is more compliant than the surface of the feed channel , wherein the at least one compliant structure comprises one or more dummy nozzles formed in the surface of the feed channel , wherein each dummy nozzle includes an inward facing opening on an internal surface of the nozzle layer and an outward facing opening on an external surface of the nozzle layer 11, wherein actuation of one of the actuators causes a change in fluid pressure in the feed channel wherein a convex meniscus is formed at the outward facing opening responsive to an increase in fluid pressure in the feed channel , and wherein the at least one compliant structure is configured to at least partially attenuate the change in fluid pressure in the feed channel , wherein each fluid ejector includes a nozzle formed in a nozzle layer , and wherein the dummy nozzles are formed in the nozzle layer ; characterised in that the dummy nozzles are substantially the same size as the nozzles .