mhurhangee/ep-ind-claims huggingface dataset:
A method of identifying if a process including oxidation or oxidation followed by treatment with an acid was used to make a heparin sample, comprising: determining if a structural signature is absent from or present in a heparin sample and/or determining the amount of the structural signature in the heparin sample, wherein the absence or presence of the structural signature is determined using nuclear magnetic resonance, wherein the presence of the structural signature and/or the presence in an amount indicates that the heparin sample was made by a process and the absence of the structural signature indicates that the heparin sample was not made by the process; and performing a step regarding the heparin sample if the heparin sample was made by the process, wherein the step is one or more of processing into a drug product, shipping, formulating, labeling, packaging, releasing into commerce, selling, and offering for sale the heparin sample; wherein the structural signature is one or more of: wherein in structure B, X = H or SO 3. determining if a structural signature is absent from or present in a heparin sample and/or determining the amount of the structural signature in the heparin sample, wherein the absence or presence of the structural signature is determined using nuclear magnetic resonance, wherein the presence of the structural signature and/or the presence in an amount indicates that the heparin sample was made by a process and the absence of the structural signature indicates that the heparin sample was not made by the process; and performing a step regarding the heparin sample if the heparin sample was made by the process, wherein the step is one or more of processing into a drug product, shipping, formulating, labeling, packaging, releasing into commerce, selling, and offering for sale the heparin sample; wherein the structural signature is one or more of: wherein in structure B, X = H or SO 3.
A CT-scanner comprising: a radiation source configured to emit radiation into a scanning field of the CT-scanner; a detector array configured to detect radiation emitted into the scanning field that has traversed an object situated therein; a rebinner (110, 308) configured to generate a rebinned axial projection (112, 310) from an axial projection; and a scanner calibrator (138, 302) comprising: a masking component configured to mask a target within an axial image of the object yielded from the rebinned axial projection (112, 310) to generate a masked axial image; a reprojector configured to reproject the masked axial image to generate an axial reprojection; a target axial projection component configured to compare the axial reprojection to the rebinned axial projection (112, 310) yielded from the axial projection to generate a target axial projection which is the difference between data comprising the rebinned axial projection (112, 310) and data comprising the axial reprojection; and a determiner configured to determine the position of the center detector of the detector array using the target axial projection. a radiation source configured to emit radiation into a scanning field of the CT-scanner; a detector array configured to detect radiation emitted into the scanning field that has traversed an object situated therein; a rebinner (110, 308) configured to generate a rebinned axial projection (112, 310) from an axial projection; and a scanner calibrator (138, 302) comprising: a masking component configured to mask a target within an axial image of the object yielded from the rebinned axial projection (112, 310) to generate a masked axial image; a reprojector configured to reproject the masked axial image to generate an axial reprojection; a target axial projection component configured to compare the axial reprojection to the rebinned axial projection (112, 310) yielded from the axial projection to generate a target axial projection which is the difference between data comprising the rebinned axial projection (112, 310) and data comprising the axial reprojection; and a determiner configured to determine the position of the center detector of the detector array using the target axial projection. a masking component configured to mask a target within an axial image of the object yielded from the rebinned axial projection (112, 310) to generate a masked axial image; a reprojector configured to reproject the masked axial image to generate an axial reprojection; a target axial projection component configured to compare the axial reprojection to the rebinned axial projection (112, 310) yielded from the axial projection to generate a target axial projection which is the difference between data comprising the rebinned axial projection (112, 310) and data comprising the axial reprojection; and a determiner configured to determine the position of the center detector of the detector array using the target axial projection.
A jig saw with a drive unit built onto a bottom plate from which a saw blade movable back and forth is passed downwards through the bottom plate and in an area enclosed multilaterally by the bottom plate, wherein the drive unit comprises a housing on which at least a handle and/or a housing section serving as a handle is provided, and wherein the jig saw is suitable for immersing the saw blade into the material from a position with almost horizontally inclined saw blade in a guided swivel movement by working into the material, wherein a retaining plate is provided for this purpose which can be connected with the bottom plate and wherein the bottom plate comprises a hinge section (9, 10) and the retaining plate, on its area located in front in the cutting direction, a counter-hinge section (6, 7) on which the bottom plate can be connected with the retaining plate in a hinge-like manner with rotational degree of freedom around a horizontal swivel axis extending transversely to the cutting direction, characterized in that the retaining plate comprises a handle and/or a fastening means for fixing on the table as well as a recess into which the bottom plate of the jig saw fits, and that the hinge section (9, 10) is located on the front side of the bottom plate positioned in the cutting direction.
A control device for a turbocharging system including a first compressor which is provided in an intake flow path through which intake air supplied to an engine flows and is driven to compress the intake air, an electric motor which drives the first compressor, a second compressor which is provided in the intake flow path independently of the first compressor and compresses the intake air, a turbine which is provided in an exhaust system through which exhaust air from the engine flows and is rotated by the exhaust air so as to drive the second compressor, a bypass flow path which is connected to the intake flow path and bypasses the first compressor, and an on-off valve which opens or closes the bypass flow path, the control device comprising: an electric motor control unit which starts the electric motor based on a drive signal; a valve control unit which switches the on-off valve from an open state to a closed state after the electric motor is started by the electric motor control unit; and a second acquisition unit which acquires a physical quantity relating to a rotation of the second compressor; wherein the electric motor control unit stops the electric motor in a case where the physical quantity acquired by the second acquisition unit exceeds a predetermined threshold value, wherein the valve control unit gradually switches the on-off valve from the closed state to the open state at a speed corresponding to a rotation speed of the electric motor, and wherein the valve control unit gradually increases an opening degree of the on-off valve by an opening degree corresponding to a decrease of the rotation speed with respect to the target rotation speed of the electric motor. an electric motor control unit which starts the electric motor based on a drive signal; a valve control unit which switches the on-off valve from an open state to a closed state after the electric motor is started by the electric motor control unit; and a second acquisition unit which acquires a physical quantity relating to a rotation of the second compressor; wherein the electric motor control unit stops the electric motor in a case where the physical quantity acquired by the second acquisition unit exceeds a predetermined threshold value, wherein the valve control unit gradually switches the on-off valve from the closed state to the open state at a speed corresponding to a rotation speed of the electric motor, and wherein the valve control unit gradually increases an opening degree of the on-off valve by an opening degree corresponding to a decrease of the rotation speed with respect to the target rotation speed of the electric motor.
A method of preparing an agricultural spray tank for use in connection with a second pesticide following use of the tank in connection with a first pesticide, the method comprising: introducing a cleaning mixture into a tank containing a residual amount of the first pesticide, wherein the cleaning mixture comprises (a) a source of transition metal ions, and (b) a source of hydrogen peroxide; allowing the cleaning mixture to remain in the tank for a time sufficient to degrade at least 50% by weight of the residual amount of the first pesticide, thereby forming a waste mixture comprising degradation products of the first pesticide; and removing the waste mixture from the tank; wherein: the first pesticide comprises glyphosate, the cleaning mixture comprises transition metal ions in a molar ratio of at least 3:1 with respect to the amount of glyphosate present in the pesticidal residue prior to introduction of the cleaning mixture into the tank, and the cleaning mixture is not subjected to an artificial light source while in the tank. introducing a cleaning mixture into a tank containing a residual amount of the first pesticide, wherein the cleaning mixture comprises (a) a source of transition metal ions, and (b) a source of hydrogen peroxide; (a) a source of transition metal ions, and (b) a source of hydrogen peroxide; allowing the cleaning mixture to remain in the tank for a time sufficient to degrade at least 50% by weight of the residual amount of the first pesticide, thereby forming a waste mixture comprising degradation products of the first pesticide; and removing the waste mixture from the tank; wherein: the first pesticide comprises glyphosate, the cleaning mixture comprises transition metal ions in a molar ratio of at least 3:1 with respect to the amount of glyphosate present in the pesticidal residue prior to introduction of the cleaning mixture into the tank, and the cleaning mixture is not subjected to an artificial light source while in the tank. the first pesticide comprises glyphosate, the cleaning mixture comprises transition metal ions in a molar ratio of at least 3:1 with respect to the amount of glyphosate present in the pesticidal residue prior to introduction of the cleaning mixture into the tank, and the cleaning mixture is not subjected to an artificial light source while in the tank.
A camera assembly, comprising: a fixed holder; a support means, configured to move relative to the fixed holder; a camera module, arranged on the support means and configured to move between a first position at which the camera module extends out of the fixed holder and a second position at which the camera module retracts into the fixed holder with movement of the support means; a chain device, coupled to the fixed holder, and comprising a chain connected to the support means, and rotatable relative to the fixed holder; and a power device, comprising an output end coupled to the chain device and configured to drive the chain device to rotate, such that the camera module moves between the first position and the second position; wherein the support means comprises: a main body, defining a first receiving groove configured to receive the camera module and characterized by further comprising: an engaging portion, arranged on the main body, and movable during the rotation of the chain device; and a connection body, received in the engaging portion, connected to the chain, and configured to drive the engaging portion together with the main body to move; wherein the chain extends through the connection body along a moving direction of the support means. a fixed holder; a support means, configured to move relative to the fixed holder; a camera module, arranged on the support means and configured to move between a first position at which the camera module extends out of the fixed holder and a second position at which the camera module retracts into the fixed holder with movement of the support means; a chain device, coupled to the fixed holder, and comprising a chain connected to the support means, and rotatable relative to the fixed holder; and a power device, comprising an output end coupled to the chain device and configured to drive the chain device to rotate, such that the camera module moves between the first position and the second position; wherein the support means comprises: a main body, defining a first receiving groove configured to receive the camera module and characterized by further comprising: an engaging portion, arranged on the main body, and movable during the rotation of the chain device; and a connection body, received in the engaging portion, connected to the chain, and configured to drive the engaging portion together with the main body to move; wherein the chain extends through the connection body along a moving direction of the support means. an engaging portion, arranged on the main body, and movable during the rotation of the chain device; and a connection body, received in the engaging portion, connected to the chain, and configured to drive the engaging portion together with the main body to move; wherein the chain extends through the connection body along a moving direction of the support means.
High-voltage insulation device for use in a charged-particle optical apparatus, comprising a plurality of rigid pillars made of electrically insulating material, said pillars being arranged around a central passage which traverses the insulation device along a longitudinal axis thereof, each pillar having two ends which are configured to be respectively fixed to two separate electrostatic housings of a charged-particle optical apparatus, said pillars being oriented at an inclined angle with regard to said longitudinal axis, characterized in that the pillars are provided with mechanical adjustment means (322, 324), said mechanical adjustment means allowing mechanical adjustment of an effective length of the pillars prior to mounting the insulation device to said electrostatic housings.
A method for producing single crystals of silicon carbide with a device comprising a furnace and a chamber with a crucible, the chamber being accommodated in the furnace, wherein a seed crystal and a base material containing silicon carbide is arranged in the crucible, characterized in that the base material contains a mixture of silicon carbide powder and silicon carbide lumps, - wherein the silicon carbide powder has a grain size with a value from a range of 300 μ m to 1000 μm - and the silicon carbide lumps have a grain size with a value from a range of 1 mm to 10 mm, - and that in a first, lower third of the height of the base material, silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 55% silicon carbide powder to 45% silicon carbide lumps and 70% silicon carbide powder to 30% silicon carbide lumps, - and in a second, middle third of the height of the base material, silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 40% silicon carbide powder to 60% silicon carbide lumps and 55% silicon carbide powder to 45% silicon carbide lumps, - and in a third, upper third of the height of the base material, silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 25% silicon carbide powder to 75% silicon carbide lumps and 40% silicon carbide powder to 60% silicon carbide lumps. - wherein the silicon carbide powder has a grain size with a value from a range of 300 μ m to 1000 μm - and the silicon carbide lumps have a grain size with a value from a range of 1 mm to 10 mm, - and that in a first, lower third of the height of the base material, silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 55% silicon carbide powder to 45% silicon carbide lumps and 70% silicon carbide powder to 30% silicon carbide lumps, - and in a second, middle third of the height of the base material, silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 40% silicon carbide powder to 60% silicon carbide lumps and 55% silicon carbide powder to 45% silicon carbide lumps, - and in a third, upper third of the height of the base material, silicon carbide powder and silicon carbide lumps are contained in a mix ratio selected from a range between 25% silicon carbide powder to 75% silicon carbide lumps and 40% silicon carbide powder to 60% silicon carbide lumps.
A heat exchanger assembly comprising an intercooler and housing which encloses said intercooler and is part of a charge air line, wherein - the housing has a charge air inlet, a charge air outlet and an opening through which the intercooler can be inserted into the housing from one side, - the housing has a recess on the side opposite the opening, into which recess the intercooler engages, - an elastic seal is arranged in the region of the recess between the intercooler and the housing, which seal is designed such that it bridges the deformation of the housing occurring during pressure pulsations and thus bridges relative movements between the intercooler and the housing and tightly connects the intercooler to the housing in all operating states, and thus prevents an undesirable bypass flow, characterized in that the seal is injection molded onto the housing. - the housing has a charge air inlet, a charge air outlet and an opening through which the intercooler can be inserted into the housing from one side, - the housing has a recess on the side opposite the opening, into which recess the intercooler engages, - an elastic seal is arranged in the region of the recess between the intercooler and the housing, which seal is designed such that it bridges the deformation of the housing occurring during pressure pulsations and thus bridges relative movements between the intercooler and the housing and tightly connects the intercooler to the housing in all operating states, and thus prevents an undesirable bypass flow,
A horological device, in particular a horological movement or a timepiece, comprising a winding mechanism and at least one mechanism for correcting at least one indicator member, these mechanisms being capable of being actuated by a control stem that can occupy at least two axial positions, each corresponding to the actuation of one of the mechanisms, this control stem comprising: - a winding pinion that can engage with the winding mechanism, the winding pinion being in a fixed rotational connection with the control stem, and - a sliding pinion that can be moved axially, both with respect to the control stem and with respect to the frame of the horological device, and can engage with the at least one correcting mechanism, said horological device being characterized in that the winding mechanism is actuated by a vertical coupling-clutch, in particular by a vertical coupling-clutch that is perpendicular to the longitudinal axis of symmetry of the control stem. - a winding pinion that can engage with the winding mechanism, the winding pinion being in a fixed rotational connection with the control stem, and - a sliding pinion that can be moved axially, both with respect to the control stem and with respect to the frame of the horological device, and can engage with the at least one correcting mechanism,
Production line for producing containers by blow moulding or stretch blow moulding of preforms, the production line comprising: - at least one transporting device for transporting preforms and/or containers that is movable in a periodic movement, comprising at least one transporting element able to transport a series of preforms and/or containers, - at least one determining device for determining the current position of the transporting element of said transporting device in the course of a period of said periodic movement, said determining device generating an output signal (S s) representative of said current position, - at least one control device for controlling the transporting device that controls said periodic movement via a control signal (S c) in accordance with said output signal (S s), - at least one functional unit interacting with at least one preform and/or at least one container transported in the transporting device upon reception of an input signal (S e), characterized in that the input signal (S e) for the functional unit is obtained from the output signal (S s) from the position determining device. - at least one transporting device for transporting preforms and/or containers that is movable in a periodic movement, comprising at least one transporting element able to transport a series of preforms and/or containers, - at least one determining device for determining the current position of the transporting element of said transporting device in the course of a period of said periodic movement, said determining device generating an output signal (S s) representative of said current position, - at least one control device for controlling the transporting device that controls said periodic movement via a control signal (S c) in accordance with said output signal (S s), - at least one functional unit interacting with at least one preform and/or at least one container transported in the transporting device upon reception of an input signal (S e),
A catheter assembly allowing for non-contaminated insertion of a catheter into a urinary canal, said assembly comprising: - a catheter defining a conduit between a proximal end adapted for insertion into a body opening of an individual and an opposite distal end, - a package having a hose with a cavity for accommodation of the catheter and, in a proximal end of the package, an opening for dispensing the proximal end of the catheter from the package, characterised in that the assembly further comprises sealing means adapted to provide a substantially liquid tight seal between the catheter package and the catheter, the sealing means being provided as radially outwardly extending protrusion of the outer surface of the catheter; and in that the catheter being provided with a hydrophilic surface and liquid swelling medium for the hydrophilic surface being provided in the package. - a catheter defining a conduit between a proximal end adapted for insertion into a body opening of an individual and an opposite distal end, - a package having a hose with a cavity for accommodation of the catheter and, in a proximal end of the package, an opening for dispensing the proximal end of the catheter from the package, characterised in that