mhurhangee/ep-ind-claims huggingface dataset:
A method for removing a lytic enzyme from a biological mixture comprising the lytic enzyme and a macromolecule of interest that is sensitive to the lytic enzyme, the method comprising the steps of: providing the biological mixture as a heterogeneous mixture comprising the lytic enzyme, and the macromolecule, wherein at least 50% of the lytic enzyme is dissolved and at least 50% of the macromolecule is in solid form; providing an inhibitor of the lytic enzyme immobilized on a carrier; contacting the heterogeneous mixture with the immobilized inhibitor in batch form; increasing the solubility of the macromolecule in the mixture; and separating the immobilized inhibitor with the bound lytic enzyme from the mixture.
A housing for a selective catalyst reactor for processing exhaust gas from a combustion engine of a combined heat and power system, the housing comprising an annular shaped plate structure forming an elongate accommodation wall defining an inner accommodation volume for containing a catalyst to be flown through by the exhaust gas (G in), wherein the annular shaped plate structure includes a set of plate elements having the same geometry and dimensions, characterized in that the set of plate elements form corner elements of the annular shaped plate structure, wherein the annular shaped plate structure optionally includes an additional set of plate elements (4") having the same geometry and dimensions, and wherein the plate elements (4") of the additional set form intermediate plate elements (4") located between adjacent corner elements, wherein the annular shaped plate structure further optionally includes at least one window module provided with a movable window element (5"), and wherein the corner elements and optionally the intermediate plate elements (4") and/or the at least one window module are provided, along their circumferential contour, with an upstanding flange contacting a corresponding flange of an adjacent corner element, intermediate plate element (4") or window module. wherein the annular shaped plate structure optionally includes an additional set of plate elements (4") having the same geometry and dimensions, and wherein the plate elements (4") of the additional set form intermediate plate elements (4") located between adjacent corner elements, wherein the annular shaped plate structure further optionally includes at least one window module provided with a movable window element (5"), and wherein the corner elements and optionally the intermediate plate elements (4") and/or the at least one window module are provided, along their circumferential contour, with an upstanding flange contacting a corresponding flange of an adjacent corner element, intermediate plate element (4") or window module.
A printing device that is configured to connect to a host apparatus and other printing device via a network and to execute a printing process of a print job including print data, the print job received from the host apparatus, the printing device comprising: a session setup unit configured to set up a session with the host apparatus and the other printing device; a printing processing unit configured to execute the printing process, provided that the printing device has a printing right for the print job; and a job synchronizing unit configured to maintain, whilst executing the printing process, a synchronization of the print job with the other printing device that is in session with the printing device, wherein when the printing device is in a state in which the printing process cannot be executed, the printing processing unit transfers the printing right corresponding to the print job that is left unprinted to the other printing device, when the printing device is in a state in which the printing process can be executed and if the printing right corresponding to the print job that is left unprinted is transferred to the printing device from the other printing device, the printing processing unit executes the printing process; characterized in that: when the printing device receives a print data transmission command, the print data transmission command causing transmission of the print data, the printing device forwards the print data transmission command to the other printing device; and when the printing device performs printing of the transmitted print data, the printing device issues a print data deleting command to the other printing device for each printed and discharged page of the print data; wherein the job synchronizing unit maintains the synchronization by issuing a print data deleting command for each printed and discharged page of the print data. a session setup unit configured to set up a session with the host apparatus and the other printing device; a printing processing unit configured to execute the printing process, provided that the printing device has a printing right for the print job; and a job synchronizing unit configured to maintain, whilst executing the printing process, a synchronization of the print job with the other printing device that is in session with the printing device, wherein when the printing device receives a print data transmission command, the print data transmission command causing transmission of the print data, the printing device forwards the print data transmission command to the other printing device; and when the printing device performs printing of the transmitted print data, the printing device issues a print data deleting command to the other printing device for each printed and discharged page of the print data;
An electric grill, comprising: a housing; a mounting bracket affixed to the housing, the mounting bracket having a front surface, a top surface, a bottom surface, a left side, a right side and a back side opposite the front surface, the front surface defining a slot, the front surface and the back side defining a thermal barrier provided by an air gap between the front surface and the back side, the mounting bracket being formed of an electrically conductive material; a controller to removably couple to the housing via the mounting bracket, the controller having at least one engagement member (170, 180) structured to be received by the slot of the mounting bracket, the thermal barrier positioned between the controller and the housing when the controller is coupled to the mounting bracket, the thermal barrier to protect internal electronics of the controller from heat generated within the housing; and a power cord connected to the controller, the power cord having a voltage line and a neutral line; wherein the controller is in electrical communication with the housing, forming an electrical path from the housing through the mounting bracket, to the controller, and to ground when the controller is coupled to the mounting bracket. a housing; a mounting bracket affixed to the housing, the mounting bracket having a front surface, a top surface, a bottom surface, a left side, a right side and a back side opposite the front surface, the front surface defining a slot, the front surface and the back side defining a thermal barrier provided by an air gap between the front surface and the back side, the mounting bracket being formed of an electrically conductive material; a controller to removably couple to the housing via the mounting bracket, the controller having at least one engagement member (170, 180) structured to be received by the slot of the mounting bracket, the thermal barrier positioned between the controller and the housing when the controller is coupled to the mounting bracket, the thermal barrier to protect internal electronics of the controller from heat generated within the housing; and a power cord connected to the controller, the power cord having a voltage line and a neutral line; wherein the controller is in electrical communication with the housing, forming an electrical path from the housing through the mounting bracket, to the controller, and to ground when the controller is coupled to the mounting bracket.
A method for lubricating a large slow-running two-stroke engine, the engine comprising a cylinder with a piston inside, the piston reciprocating along a longitudinal cylinder axis between a top dead centre, TDC, and a bottom dead centre, BDC, the distance between the TDC and the BDC corresponding to a full stroke; the cylinder being provided with a plurality of lubricant injectors in a single stage distributed along a perimeter of the cylinder between the TDC and the BDC for injection of lubricant into the cylinder at various positions on the perimeter; wherein the method comprises providing the lubricant injectors with a spray nozzle having an aperture for ejecting a spray in a spray direction, which is an average direction of droplets in the spray; the method comprising, during running of the engine, repeatedly injecting sprays with atomized droplets of lubrication oil into scavenging air in the cylinder by the lubricant injectors prior to the piston passing the lubricant injectors in its movement towards the TDC, diffusing the atomized droplets in the scavenging air and distributing the atomized droplets onto a cylinder wall by transporting the atomized droplets in a direction towards the TDC utilising a swirling motion of the scavenging air towards the TDC; characterised in that the method further comprising providing the lubricant injectors at a particular distance from the TDC, the particular distance being more than 1/5 of the full stroke of the piston, and mounting the lubricant injectors with a spray direction towards the TDC at an angle which when measured from a plane normal to the cylinder axis is more than 45 degrees or even larger than 60 degrees and equal to or less than 80 degrees.
Test apparatus for testing an electrical property of a fluid, the apparatus comprising: an electrically conductive container for containing the fluid, the electrically conductive container forming an outer electrode of a test cell; an inner electrode of the test cell protruding into, and electrically isolated from, the electrically conductive container; an inductive heating assembly comprising an inductive heating coil, which surrounds the electrically conductive container, for heating the electrically conductive container and the inner electrode; and cooling means comprising an air channel between the inductive heating assembly and the electrically conductive container. an electrically conductive container for containing the fluid, the electrically conductive container forming an outer electrode of a test cell; an inner electrode of the test cell protruding into, and electrically isolated from, the electrically conductive container; an inductive heating assembly comprising an inductive heating coil, which surrounds the electrically conductive container, for heating the electrically conductive container and the inner electrode; and cooling means comprising an air channel between the inductive heating assembly and the electrically conductive container.
An active material for a battery comprising a composite oxide represented by a following general formula: the general formula: Li x (Nb 1-y Ta y) 2-z Ti 1+0.5z M 0.5z O 7, wherein 0 ≤ x ≤ 5, 0 ≤ y ≤ 1, and 0 < z ≤ 1, and M is at least one metal element selected from the group consisting of Mo and W.
A method (1000, 1100) performed by a client virtualized network function, VNF, for scaling of a server VNF in a virtualized network comprising at least the server VNF, the client VNF connected to the server VNF, and a VNF manager, the method comprising: • receiving (1010, 1110) scaling information from a peer connection management, PCM, server in response to a scaling operation performed by the VNF manager on the server VNF; wherein the scaling operation comprises either adding a server VNF or removing a server VNF, and • initiating, if the scaling operation is said adding a server VNF, a connection to the added server VNF; or • disconnecting, if the scaling operation is said removing a server VNF, the connection from the removed server VNF. • receiving (1010, 1110) scaling information from a peer connection management, PCM, server in response to a scaling operation performed by the VNF manager on the server VNF; wherein the scaling operation comprises either adding a server VNF or removing a server VNF, and • initiating, if the scaling operation is said adding a server VNF, a connection to the added server VNF; or • disconnecting, if the scaling operation is said removing a server VNF, the connection from the removed server VNF.
A power module comprising: a housing (H1, H2) having an opening; a baseplate within the opening and comprising aluminum silicon carbide; a power substrate on the baseplate, the power substrate comprising silicon nitride; a bottom metal trace layer that is arranged between the power substrate and the baseplate; a top metal trace layer that is arranged on an opposite side of the power substrate from the bottom metal trace layer; and characterized by: six switch modules (SM5-SM10) mounted on the top metal trace layer of the power substrate, each switch module comprising a silicon carbide transistor (Q5-Q10) coupled in anti-parallel with a silicon carbide diode, and a plurality of pins (13P-28P) is connected to one or more terminals of the silicon carbide transistor. a housing (H1, H2) having an opening; a baseplate within the opening and comprising aluminum silicon carbide; a power substrate on the baseplate, the power substrate comprising silicon nitride; a bottom metal trace layer that is arranged between the power substrate and the baseplate; a top metal trace layer that is arranged on an opposite side of the power substrate from the bottom metal trace layer; and characterized by: six switch modules (SM5-SM10) mounted on the top metal trace layer of the power substrate, each switch module comprising a silicon carbide transistor (Q5-Q10) coupled in anti-parallel with a silicon carbide diode, and a plurality of pins (13P-28P) is connected to one or more terminals of the silicon carbide transistor.
A DNA molecule comprising a DNA sequence selected from the group consisting of: a) a sequence with at least 95 percent sequence identity to any of SEQ ID NOs: 1, 3, 6, or 8, wherein the sequence has promoter activity; b) a sequence comprising any of SEQ ID NOs: 1, 3, 6, or 8; and c) a fragment of any of SEQ ID NOs: 1, 3, 6, or 8, wherein the fragment has promoter activity; wherein said sequence is operably linked to a heterologous transcribable polynucleotide molecule. a) a sequence with at least 95 percent sequence identity to any of SEQ ID NOs: 1, 3, 6, or 8, wherein the sequence has promoter activity; b) a sequence comprising any of SEQ ID NOs: 1, 3, 6, or 8; and c) a fragment of any of SEQ ID NOs: 1, 3, 6, or 8, wherein the fragment has promoter activity;
A stacked half-bridge package comprising: a control transistor (Q 1) having a control drain (D 1) for connection to a high voltage input (V H), a control source (S 1) coupled to an output terminal (V OUT), and a control gate (G 1) for being driven by a driver IC; a sync transistor (Q 2) having a sync drain (D 2) for connection to said output terminal (V OUT), a sync source (S 2) coupled to a low voltage input (V LI), and a sync gate (G 2) for being driven by said driver IC; said control (Q 1) and sync (Q 2) transistors being stacked on opposite sides of a common conductive leadframe, said common conductive leadframe electrically and mechanically coupling said control source (S 1) with said sync drain (D 2), said common conductive leadframe thereby serving as said output terminal (V OUT) characterized in that said control source (S 1) and said control gate (G 1) being on a surface of said control transistor (Q 1) opposite of said control drain (D 1), wherein a control gate leadframe provides mechanical and electrical connection for said control gate (G 1). a control transistor (Q 1) having a control drain (D 1) for connection to a high voltage input (V H), a control source (S 1) coupled to an output terminal (V OUT), and a control gate (G 1) for being driven by a driver IC; a sync transistor (Q 2) having a sync drain (D 2) for connection to said output terminal (V OUT), a sync source (S 2) coupled to a low voltage input (V LI), and a sync gate (G 2) for being driven by said driver IC; said control (Q 1) and sync (Q 2) transistors being stacked on opposite sides of a common conductive leadframe, said common conductive leadframe electrically and mechanically coupling said control source (S 1) with said sync drain (D 2), said common conductive leadframe thereby serving as said output terminal (V OUT) characterized in that said control source (S 1) and said control gate (G 1) being on a surface of said control transistor (Q 1) opposite of said control drain (D 1), wherein a control gate leadframe provides mechanical and electrical connection for said control gate (G 1).
An electroporation assembly comprising a linear electrode array comprising a plurality of contiguous electrodes provided in a single probe configured to be introduced into a treatment target region, the contiguous electrodes of the linear array configured as one anode array comprising at least two electrodes and one cathode array comprising at least two electrodes, the anode array and the cathode array being placed end to end, where the distance between the cathode array and the anode array is at least 10 μm and less than 5 mm measured as the distance between proximal edges of the closest cathode and anode pairing, and electroporation circuitry configured to generate and to apply to the linear electrode array an electroporation pulse profile to create a close electric field in the target region within millimetre or sub-millimetre dimensional space adjacent the array, to cause electroporation for transfecting one or more cells in the target region exposed to an agent to allow at least some of said agent to enter said one or more cells.
Dressing material (100, 200, 300, 400, 500) for monitoring healing of a wound, comprising: a basic dressing material; a control element disposed in or on the basic dressing material so that a control area of the control element is visible and that a liquid or gaseous secretion of a wound is in contact with the control element once the dressing material has been applied to the wound; and an ion-impermeable matrix disposed between the wound and the control element once the dressing material has been applied to the wound, the control element being configured to cause, upon a change in a characteristic of the wound, a visible change in the control area on the basis of a chemical reaction that is due to the liquid or gaseous secretion so as to enable monitoring of the healing of the wound, the control element comprising at least one receptor configured to selectively respond to one or more analytes selected from the group containing reactive oxygen species, amines, alcohols, thiols, aldehydes, ketones, diols, hydrogen peroxide, nitrogen oxide, amino acids, carboxylic acids, hydrogen sulfide, and mercaptans. a basic dressing material; a control element disposed in or on the basic dressing material so that a control area of the control element is visible and that a liquid or gaseous secretion of a wound is in contact with the control element once the dressing material has been applied to the wound; and an ion-impermeable matrix disposed between the wound and the control element once the dressing material has been applied to the wound, the control element being configured to cause, upon a change in a characteristic of the wound, a visible change in the control area on the basis of a chemical reaction that is due to the liquid or gaseous secretion so as to enable monitoring of the healing of the wound, the control element comprising at least one receptor configured to selectively respond to one or more analytes selected from the group containing reactive oxygen species, amines, alcohols, thiols, aldehydes, ketones, diols, hydrogen peroxide, nitrogen oxide, amino acids, carboxylic acids, hydrogen sulfide, and mercaptans.
An apparatus (100, 700) for monitoring a stability of a spectrum comprising: a spectroscope configured to measure a spectrum of a sample; and a processor configured to calculate a degree of similarity between spectra and configured to calculate a similarity change index of the measured spectrum based on the calculated degree of similarity; the processor being configured to compare the similarity change index with a preset threshold value and to determine the stability of the spectrum based on a result of the comparison; wherein the similarity change index is a measure of the trend of change in similarity between spectra. a spectroscope configured to measure a spectrum of a sample; and a processor configured to calculate a degree of similarity between spectra and configured to calculate a similarity change index of the measured spectrum based on the calculated degree of similarity; the processor being configured to compare the similarity change index with a preset threshold value and to determine the stability of the spectrum based on a result of the comparison; wherein the similarity change index is a measure of the trend of change in similarity between spectra.
Method of treating workpiece of porous carbon material with liquid silicon with the formation of silicon carbide, comprising the stages a. preheating carbon workpieces, possible reinforced with fibres, in inert gas, starting from room temperature up to a selected operating temperature T B 1, c. supplying liquid silicon to the porous carbon workpieces at an operating pressure of p B 2 and an operating temperature of T B 2 and soaking the porous carbon workpieces with liquid silicon d. reaction of the liquid silicon which has penetrated into the workpieces with carbon at a temperature of T B 3 with the formation of silicon carbide e. applying inert gas to the workpieces and cooling from the operating temperature T B 3 to a conditioning temperature T k while continuing the reaction and reducing the stresses occurring in the workpieces f. cooling of the workpieces to room temperature. wherein in stage c. the supply of silicon and the transporting of the workpieces takes place via preferably cylindrical rollers, which are porous at least in the outer area and are rotatably mounted, and their rotational speed determines the dwell time for the supply of silicon in stage c. and the reaction of the silicon with the carbon to form silicon carbide in stage d. and wherein temperature T B 3 is greater than or equal to the temperature T B 2 and in processing stage d. the workpieces are no longer in contact with liquid silicon outside the workpieces. a. preheating carbon workpieces, possible reinforced with fibres, in inert gas, starting from room temperature up to a selected operating temperature T B 1, c. supplying liquid silicon to the porous carbon workpieces at an operating pressure of p B 2 and an operating temperature of T B 2 and soaking the porous carbon workpieces with liquid silicon d. reaction of the liquid silicon which has penetrated into the workpieces with carbon at a temperature of T B 3 with the formation of silicon carbide e. applying inert gas to the workpieces and cooling from the operating temperature T B 3 to a conditioning temperature T k while continuing the reaction and reducing the stresses occurring in the workpieces f. cooling of the workpieces to room temperature.
Rail vehicle with a passenger compartment, which is separated from an operations compartment by means of a fire protection, wherein the fire protection comprises a protective wall, which is covered with an intumescent fire protection covering, and refractory retaining means for retaining the fire protection covering on the protective wall, wherein the refractory retaining means comprise at least one textile sheet-like formation, characterized in that the refractory retaining means are embedded in the fire protection covering.