mhurhangee/ep-ind-claims huggingface dataset:
Conveying storage device (1, 23, 44, 47, 49, 58) for containers such as bottles or cans, comprising: - a first drivable conveyor (2, 24, 50, 62) which is adapted to convey containers on a first conveying surface (4, 25) in a first direction (5, 26, 53, 64), and a second drivable conveyor (6, 27, 51, 63) which is adapted to convey containers on a second conveying surface (7, 28) in a second direction (8, 29, 54, 65), wherein the first conveyor (2, 24, 50, 62) and the second conveyor (6, 27, 51, 63) are positioned parallel to one another such that containers are transferable from the first conveying surface (4, 25) to the second conveying surface (7, 28), and wherein the first direction (5, 26, 53, 64) and the second direction (8, 29, 54, 65) are opposite to each other, - a transfer device (9, 30, 55, 67), which is movable along the conveyor (2, 6, 24, 27, 50, 62) for transferring containers from the first conveying surface (4, 25) to the second conveying surface (7, 28), - a guide body (12, 33, 52, 60) which is movable along a region (11, 32) between the first conveyor (2, 24, 50, 62) and the second conveyor (6, 27, 51, 63) above the first conveying surface (4, 25) and the second conveying surface (7, 28), - a guide railing (14, 35, 56, 68) for guiding and separating containers, which extends at an angle (15, 36) to the second direction (8, 29, 54, 65) and above the second conveying surface (7, 28), characterized in that the guide railing (14, 35, 65, 68) is variable in length and cooperates with the guide body (12, 33, 52, 60) such that the length (L, LL) of the guide railing (14, 35) and the angle (15, 36, 57, 69) can be varied. - a first drivable conveyor (2, 24, 50, 62) which is adapted to convey containers on a first conveying surface (4, 25) in a first direction (5, 26, 53, 64), and a second drivable conveyor (6, 27, 51, 63) which is adapted to convey containers on a second conveying surface (7, 28) in a second direction (8, 29, 54, 65), wherein the first conveyor (2, 24, 50, 62) and the second conveyor (6, 27, 51, 63) are positioned parallel to one another such that containers are transferable from the first conveying surface (4, 25) to the second conveying surface (7, 28), and wherein the first direction (5, 26, 53, 64) and the second direction (8, 29, 54, 65) are opposite to each other, - a transfer device (9, 30, 55, 67), which is movable along the conveyor (2, 6, 24, 27, 50, 62) for transferring containers from the first conveying surface (4, 25) to the second conveying surface (7, 28), - a guide body (12, 33, 52, 60) which is movable along a region (11, 32) between the first conveyor (2, 24, 50, 62) and the second conveyor (6, 27, 51, 63) above the first conveying surface (4, 25) and the second conveying surface (7, 28), - a guide railing (14, 35, 56, 68) for guiding and separating containers, which extends at an angle (15, 36) to the second direction (8, 29, 54, 65) and above the second conveying surface (7, 28),
A tissue fixation construct comprising: a first fastener comprising: a generally flat, circular first body; and a generally cylindrical, solid first post fixedly coupled to a center of the first body and extending perpendicular to the first body, the first post comprising a threaded distal end and a non-threaded proximal end, a length of the first post selected to extend through a bone graft and a portion of bone; a second fastener comprising: a generally flat, circular second body; and a generally cylindrical, solid second post fixedly coupled to a center of the second body and extending perpendicular to the second body; and a cannulation extending through the second body and the second post; wherein at least a portion of the cannulation is threaded to engage the threaded distal end of the first post of the first fastener, characterized in that a length of flexible cable is coupled to the distal end of the first post, wherein the flexible cable is configured to be pulled through the cannulation of the second fastener. a first fastener comprising: a generally flat, circular first body; and a generally cylindrical, solid first post fixedly coupled to a center of the first body and extending perpendicular to the first body, the first post comprising a threaded distal end and a non-threaded proximal end, a length of the first post selected to extend through a bone graft and a portion of bone; a generally flat, circular first body; and a generally cylindrical, solid first post fixedly coupled to a center of the first body and extending perpendicular to the first body, the first post comprising a threaded distal end and a non-threaded proximal end, a length of the first post selected to extend through a bone graft and a portion of bone; a second fastener comprising: a generally flat, circular second body; and a generally cylindrical, solid second post fixedly coupled to a center of the second body and extending perpendicular to the second body; and a cannulation extending through the second body and the second post; a generally flat, circular second body; and a generally cylindrical, solid second post fixedly coupled to a center of the second body and extending perpendicular to the second body; and a cannulation extending through the second body and the second post; wherein at least a portion of the cannulation is threaded to engage the threaded distal end of the first post of the first fastener, characterized in that a length of flexible cable is coupled to the distal end of the first post, wherein the flexible cable is configured to be pulled through the cannulation of the second fastener.
Base plate, in particular for a power module, comprising a matrix formed of metal, in particular of aluminium, wherein at least two reinforcements are provided in said matrix next to each other, and wherein the reinforcements are spaced apart from each other and are plate-shaped, characterized in that a plurality of through holes for securing the base plate to a heat sink are provided in the matrix along the length as well as along the width of the base plate, wherein no reinforcement is provided between the through holes along the width of the base plate.
A process for producing a toner for development of electrostatic images, comprising the following steps to: step: subjecting a polyhydric alcohol component and a polycarboxylic acid component to polycondensation reaction in the presence of a hydroxy group- or carboxy group-containing hydrocarbon wax to obtain a non-crystalline resin comprising a constitutional component derived from the hydrocarbon wax and also comprising a polyester moiety; step: dispersing the non-crystalline resin obtained in the step in an aqueous medium to obtain an aqueous dispersion of resin particles; step: aggregating the resin particles obtained in the step in an aqueous medium in the presence of a crystalline polyester to obtain aggregated particles; and step: coalescing the aggregated particles obtained in the step. step: subjecting a polyhydric alcohol component and a polycarboxylic acid component to polycondensation reaction in the presence of a hydroxy group- or carboxy group-containing hydrocarbon wax to obtain a non-crystalline resin comprising a constitutional component derived from the hydrocarbon wax and also comprising a polyester moiety; step: dispersing the non-crystalline resin obtained in the step in an aqueous medium to obtain an aqueous dispersion of resin particles; step: aggregating the resin particles obtained in the step in an aqueous medium in the presence of a crystalline polyester to obtain aggregated particles; and step: coalescing the aggregated particles obtained in the step.
A top submergible injection lance operable for use in a top submerged lancing injection within a slag layer of a molten bath in a pyrometallurgical process, wherein the lance has an outer shell of three substantially concentric lance pipes comprising an outermost, an innermost and an intermediate pipe, the lance including at least one further lance pipe arranged substantially concentrically within the shell, the shell further including an annular end wall at an outlet end of the lance which joins a respective end of the outermost and innermost lance pipes of the shell at an outlet end of the lance and is spaced from an outlet end of the intermediate lance pipe of the shell, the end wall and an adjacent minor part of the length of each of the three pipes of the shell comprise a replaceable lance tip assembly able to be cut from a major part of the length of the three pipes of the shell to enable replacement thereof; wherein, at a location remote from the outlet end, such as adjacent to an upper or inlet end, the lance has a structure by which it is suspendable so as to hang down vertically, and the shell is adapted whereby coolant fluid is able to be circulated through the shell, by flow between the intermediate lance pipe and one of the innermost and outermost lance pipes to the outlet end and then back along the lance, away from the outlet end, by flow between the intermediate lance pipe and the other one of the innermost and outermost lance pipes, the spacing between the end wall and the outlet end of the intermediate pipe provides a constriction to the flow of coolant fluid operable to cause an increase in coolant fluid flow velocity between the end wall and the outlet end of the intermediate pipe; wherein the at least one further lance pipe defines a central bore and has an outlet end spaced from the outlet end of the outer shell, characterized in that a mixing chamber is defined by the outer shell between the outlet ends of the outer shell and of the at least one further pipe, and the at least one further lance pipe is spaced from the innermost lance pipe of the shell to define therebetween an annular passage, whereby combustible material passing along the bore and oxygen containing gas passing along the annular passage are able to form a combustible mixture in the mixing chamber and adjacent to the outlet end of the lance for combustion of the mixture in being injected within the slag layer.
A control circuit for controlling a bleeder module with fixed bleed time, the control circuit comprising: a detection module, being connectable to an output of a rectifier, and configured to obtain and transmit a trigger signal; a timing module, in connection with the detection module, and configured to start timing upon receiving the trigger signal, and to output an end-of-timing signal when a preset time is reached; a control module, in connection with the timing module, and configured to output a control signal after receiving the end-of-timing signal; and the bleeder module, in connection with the control module, and configured to bleed off a current within the preset time according to the control signal, characterized in that, the bleeder module comprises a switch, a second switch, a third operational amplifier (COMP3) and a fourth resistor, and wherein a controlled end of the switch is connected with the control module, a first end of the switch is grounded via a sixth resistor and a fifth resistor, a second end of the switch is connected in common with an inverting input of the third operational amplifier (COMP3), and an output end of the second switch, a non-inverting input of the third operational amplifier (COMP3) is connected with a second reference voltage signal (Vref2), and an output of the third operational amplifier (COMP3) is connected to a controlled end of the second switch, an input end of the second switch is connected with a first end of the fourth resistor, and a second end of the fourth resistor is connectable to a light emitting diode via a first diode. a detection module, being connectable to an output of a rectifier, and configured to obtain and transmit a trigger signal; a timing module, in connection with the detection module, and configured to start timing upon receiving the trigger signal, and to output an end-of-timing signal when a preset time is reached; a control module, in connection with the timing module, and configured to output a control signal after receiving the end-of-timing signal; and the bleeder module, in connection with the control module, and configured to bleed off a current within the preset time according to the control signal, characterized in that, the bleeder module comprises a switch, a second switch, a third operational amplifier (COMP3) and a fourth resistor, and wherein a controlled end of the switch is connected with the control module, a first end of the switch is grounded via a sixth resistor and a fifth resistor, a second end of the switch is connected in common with an inverting input of the third operational amplifier (COMP3), and an output end of the second switch, a non-inverting input of the third operational amplifier (COMP3) is connected with a second reference voltage signal (Vref2), and an output of the third operational amplifier (COMP3) is connected to a controlled end of the second switch, an input end of the second switch is connected with a first end of the fourth resistor, and a second end of the fourth resistor is connectable to a light emitting diode via a first diode.
A compound of the formula: or a salt or N-oxide thereof, wherein Alk is an alkyl group; M 1 is N or CR 49, wherein R 49 is H or substituted or unsubstituted alkyl; M 2 is N or CR 50, wherein R 50 is H or substituted or unsubstituted alkyl; R 36 and R 37, together with the atoms to which they are attached, form an optionally substituted five-membered heterocycle; and R 38 is H, substituted or unsubstituted alkyl, substituted or unsubstituted cycloalkyl alkyl, substituted or unsubstituted heterocycloalkylalkyl, substituted or unsubstituted aryl, substituted or unsubstituted arylamidoalkyl, substituted or unsubstituted heteroarylamidoalkyl, substituted or unsubstituted arylalkyl, substituted or unsubstituted arylalkoxy, substituted or unsubstituted heteroaryl, substituted or unsubstituted heteroarylalkyl, or haloalkyl, R 47 is H, substituted or unsubstituted alkyl, substituted or unsubstituted alkoxy, substituted or unsubstituted aryl, substituted or unsubstituted arylalkyl, or halo; and R 48 is H, substituted or unsubstituted alkyl, substituted or unsubstituted alkoxy, substituted or unsubstituted aryl, substituted or unsubstituted arylalkyl, or halo. wherein Alk is an alkyl group; M 1 is N or CR 49, wherein R 49 is H or substituted or unsubstituted alkyl; M 2 is N or CR 50, wherein R 50 is H or substituted or unsubstituted alkyl; R 36 and R 37, together with the atoms to which they are attached, form an optionally substituted five-membered heterocycle; and R 38 is H, substituted or unsubstituted alkyl, substituted or unsubstituted cycloalkyl alkyl, substituted or unsubstituted heterocycloalkylalkyl, substituted or unsubstituted aryl, substituted or unsubstituted arylamidoalkyl, substituted or unsubstituted heteroarylamidoalkyl, substituted or unsubstituted arylalkyl, substituted or unsubstituted arylalkoxy, substituted or unsubstituted heteroaryl, substituted or unsubstituted heteroarylalkyl, or haloalkyl, R 47 is H, substituted or unsubstituted alkyl, substituted or unsubstituted alkoxy, substituted or unsubstituted aryl, substituted or unsubstituted arylalkyl, or halo; and R 48 is H, substituted or unsubstituted alkyl, substituted or unsubstituted alkoxy, substituted or unsubstituted aryl, substituted or unsubstituted arylalkyl, or halo.
Supply tank for a fluid, in particular a reducing agent for the aftertreatment of exhaust gases of an internal combustion engine, comprising an outer container which encloses a tank volume, at least one inner container which sections off an inner part volume from the tank volume, at least one first heating element which is configured to heat fluid which is situated in the inner part volume; and a removal apparatus which is configured to remove fluid from the inner container; the inner container being surrounded by an insulating collar which sections off an outer part volume from the tank volume; at least one second heating element being provided which is configured to heat, during operation, fluid which is situated in the outer part volume; characterized in that the at least one second heating element (11, 12) is arranged in at least one groove (19a, 19b) which is configured in the bottom of the supply tank.
A yeast extract containing 0.2% or more of L-γ-glutamyl-L-2-aminobutyric acid (γ-Glu-Abu) based on dry weight of the yeast extract, wherein the yeast belongs to the genus Saccharomyces or Candida.
A method of performing a nucleic acid assay on an automated analyzer, the method comprising the steps of: (a) presenting an interface on a computer enabling a user to use the computer to select, define, or modify one or more user-defined assay parameters of a protocol for extracting, amplifying and detecting a nucleic acid analyte on the analyzer; (b) receiving user-defined assay parameters input to the interface by the user; (c) assembling the protocol from the received user-defined assay parameters combined with one or more system-defined assay parameters; (d) storing the protocol as a series of computer-executable instructions to be executed by the analyzer, wherein the user-defined assay parameters and the system-defined assay parameters of the protocol define steps executed by the analyzer to perform the nucleic acid assay; and (e) executing the computer-executable instructions of the protocol with the analyzer to perform the nucleic acid assay, and collecting assay results data with the analyzer, wherein, the user-defined assay parameters comprise data analysis parameters, wherein the data analysis parameters comprise computer-executable instructions to be executed by a data analysis computer for analyzing the assay results data collected by the analyzer during step (e), and wherein the method further comprises analyzing the assay results data collected during step (e) based on the data analysis parameters. (a) presenting an interface on a computer enabling a user to use the computer to select, define, or modify one or more user-defined assay parameters of a protocol for extracting, amplifying and detecting a nucleic acid analyte on the analyzer; (b) receiving user-defined assay parameters input to the interface by the user; (c) assembling the protocol from the received user-defined assay parameters combined with one or more system-defined assay parameters; (d) storing the protocol as a series of computer-executable instructions to be executed by the analyzer, wherein the user-defined assay parameters and the system-defined assay parameters of the protocol define steps executed by the analyzer to perform the nucleic acid assay; and (e) executing the computer-executable instructions of the protocol with the analyzer to perform the nucleic acid assay, and collecting assay results data with the analyzer,
A device for administering medication, comprising: a lower housing having a bottom surface and a syringe having a plunger and containing a medication therein; a middle housing comprising a body and a distal portion fixedly seated in the lower housing; an upper housing comprising a cap and a plunger rod attached to the upper housing, the upper housing being moveably attached to the middle housing and being movable between a first position, in which the upper housing partially overlies a proximal portion of the middle housing body, to a second position, in which the medication has been delivered and the upper housing completely covers the middle housing body; and wherein movement of the upper housing from the first position to the second position causes the plunger rod to act on the syringe plunger, thereby delivering the medication contained in the syringe. a lower housing having a bottom surface and a syringe having a plunger and containing a medication therein; a middle housing comprising a body and a distal portion fixedly seated in the lower housing; an upper housing comprising a cap and a plunger rod attached to the upper housing, the upper housing being moveably attached to the middle housing and being movable between a first position, in which the upper housing partially overlies a proximal portion of the middle housing body, to a second position, in which the medication has been delivered and the upper housing completely covers the middle housing body; and wherein movement of the upper housing from the first position to the second position causes the plunger rod to act on the syringe plunger, thereby delivering the medication contained in the syringe.
A biopsy incision closure device comprising: a base (12; 26; 106; 122; 154) having an opening (20; 42; 130; 142) and a tissue-adhering surface; and wherein the base has a bottom surface coated with an adhesive and the opening is formed through the bottom surface; and characterized in that a frame (14; 28; 70; 124) is incorporated in the base, the frame having a first leg disposed along one side of the opening and a second leg disposed along an opposed side of the opening; wherein the frame has a first configuration wherein the legs hold the opening in an elliptical shape through which the biopsy can be performed and a second configuration wherein the legs close the opening, wherein the frame (14; 28; 70; 124) comprises a hard, flexible plastic or metal and the base (12; 26; 106; 122; 154) comprises a soft elastomeric material molded over the frame. a base (12; 26; 106; 122; 154) having an opening (20; 42; 130; 142) and a tissue-adhering surface; and wherein the base has a bottom surface coated with an adhesive and the opening is formed through the bottom surface; and characterized in that a frame (14; 28; 70; 124) is incorporated in the base, the frame having a first leg disposed along one side of the opening and a second leg disposed along an opposed side of the opening; wherein the frame has a first configuration wherein the legs hold the opening in an elliptical shape through which the biopsy can be performed and a second configuration wherein the legs close the opening, wherein the frame (14; 28; 70; 124) comprises a hard, flexible plastic or metal and the base (12; 26; 106; 122; 154) comprises a soft elastomeric material molded over the frame.