mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a first smart secure platform, SSP (610, 710), the method comprising: transmitting, to a second SSP (660, 760), a bundle transfer code to be used for transmitting a secondary platform bundle, SPB; receiving, from the second SSP (660, 760), information on the second SSP (660, 760); transmitting, to the second SSP (660, 760), first authentication information for authenticating the first SSP (610, 710) after receiving the information on the second SSP (660, 760); receiving, from the second SSP (660, 760), second authentication information for authenticating the second SSP (660, 760) and the bundle transfer code, wherein the second authentication information is generated based on a result of the verification of the first authentication information; verifying the second authentication information; and transmitting, to the second SSP (660, 760), the SPB in case that the second authentication information is verified. transmitting, to a second SSP (660, 760), a bundle transfer code to be used for transmitting a secondary platform bundle, SPB; receiving, from the second SSP (660, 760), information on the second SSP (660, 760); transmitting, to the second SSP (660, 760), first authentication information for authenticating the first SSP (610, 710) after receiving the information on the second SSP (660, 760); receiving, from the second SSP (660, 760), second authentication information for authenticating the second SSP (660, 760) and the bundle transfer code, wherein the second authentication information is generated based on a result of the verification of the first authentication information; verifying the second authentication information; and transmitting, to the second SSP (660, 760), the SPB in case that the second authentication information is verified.
An antagomir of miRNA-100 molecule or a variant thereof having a homology of at least 85% to SEQ ID NO:3 for use in the treatment of peripheral vascular occlusive disease.
Cable harness for a motor vehicle, - having at least one cable bundle having at least two cables, and a sheathing, - wherein the cable bundle is embedded at least in portions in the sheathing, - wherein the sheathing has a first sheathing portion and a second sheathing portion, - wherein the first sheathing portion has a first transverse extent (b 1) relative to a first longitudinal extent direction of the first sheathing portion, - wherein the second sheathing portion has a second transverse extent (b 2) relative to a second longitudinal extent direction of the second sheathing portion, - wherein the first transverse extent (b 1) is larger than the second transverse extent (b 2), - wherein the sheathing has a transition portion, - wherein the transition portion is disposed between the first sheathing portion and the second sheathing portion, - wherein the first sheathing portion has a first lateral face and the second sheathing portion has a second lateral face, - wherein the transition portion has a transition face which has an inclination relative to the first lateral face and the second lateral face, - wherein the inclination has an angle (α 1), wherein the angle (α 1) has a value of less than 45°, in particular less than 30°, in particular less than 20°, in particular less than 15°, in particular less than 10°. - having at least one cable bundle having at least two cables, and a sheathing, - wherein the cable bundle is embedded at least in portions in the sheathing, - wherein the sheathing has a first sheathing portion and a second sheathing portion, - wherein the first sheathing portion has a first transverse extent (b 1) relative to a first longitudinal extent direction of the first sheathing portion, - wherein the second sheathing portion has a second transverse extent (b 2) relative to a second longitudinal extent direction of the second sheathing portion, - wherein the first transverse extent (b 1) is larger than the second transverse extent (b 2), - wherein the sheathing has a transition portion, - wherein the transition portion is disposed between the first sheathing portion and the second sheathing portion, - wherein the first sheathing portion has a first lateral face and the second sheathing portion has a second lateral face, - wherein the transition portion has a transition face which has an inclination relative to the first lateral face and the second lateral face, - wherein the inclination has an angle (α 1), wherein the angle (α 1) has a value of less than 45°, in particular less than 30°, in particular less than 20°, in particular less than 15°, in particular less than 10°.
Method for enabling a synchronous movement of at least two actuators of a closing system, the actuators connected to at least one element (3; 5) to be moved, in particular a door or a window, the method comprising the steps of: - providing the actuators each with a unique address, and during a subsequent intended use of the closing system: - exchanging information among the actuators via a data communication medium (13; 13') interconnecting the actuators with one another, the information regarding the current individual positions of the actuators during their operation as part of the intended use, and - processing the information, determining correction values for at least one of the actuators and applying the at least one actuator with the correction values, in order to make the actuators move synchronously, characterized by the actuators automatically and autonomously assigning themselves their unique addresses during an initialization procedure executed at least once before the intended use of the closing system, wherein the unique addresses are assigned to the actuators by a) starting at least one timer at the beginning of the initialization procedure, b) when the first actuator of the closing system is provided with an electrical current, determining the current timer count and assigning the current timer count to the first actuator, c) when a further actuator is provided with an electrical current, determining the current timer count and assigning the current timer count to the further actuator, and d) repeating step c) until all actuators of the closing system have been assigned a current timer count. - providing the actuators each with a unique address, and - exchanging information among the actuators via a data communication medium (13; 13') interconnecting the actuators with one another, the information regarding the current individual positions of the actuators during their operation as part of the intended use, and - processing the information, determining correction values for at least one of the actuators and applying the at least one actuator with the correction values, in order to make the actuators move synchronously, a) starting at least one timer at the beginning of the initialization procedure, b) when the first actuator of the closing system is provided with an electrical current, determining the current timer count and assigning the current timer count to the first actuator, c) when a further actuator is provided with an electrical current, determining the current timer count and assigning the current timer count to the further actuator, and d) repeating step c) until all actuators of the closing system have been assigned a current timer count.
Device for qualitative and/or quantitative detection of molecular interactions between probe and target molecules in a sample solution, comprising: a) a microarray having probe molecules immobilized on array elements, wherein the microarray is arranged on a first surface of the device; and b) a reaction chamber which is formed between the first surface having the microarray arranged thereon and a second surface, wherein, at least in the zone below the microarray, the first surface is configured in such a way that the microarray can be guided relative to the second surface such that the distance between the microarray and the second surface is variable in such way that the microarray can be flush with the second surface, characterized in that the first surface is elastically deformable at least in the zone below the microarray. a) a microarray having probe molecules immobilized on array elements, wherein the microarray is arranged on a first surface of the device; and b) a reaction chamber which is formed between the first surface having the microarray arranged thereon and a second surface,
A device for filtering a liquid, in particular a liquefied plastic, comprising a housing of a screen changer, said housing comprising a feed channel and a discharge channel, wherein, in the flow path of the fluid, at least one filter element (5, 6) is arranged in each corresponding screen chamber (7, 8) in a screen carrier (4, 4a) mounted slidably transversely to the direction of fluid flow and is connectable to the feed channel and the discharge channel, characterized in that a storage space fitted with a displacement piston opens into the feed channel of the screen carrier (4, 4a) and a pressure generator is arranged between the storage space and the housing of the screen changer, a sensor detecting a pressure and/or a flow volume is provided in the region of the discharge channel, a control means is provided for the filling level of the feed channel and a control device is provided for the pressure generator arranged in the feed channel, wherein the sensor acts on the control means for the filling level and on the control device for the pressure generator, and wherein the displacing piston comes into operation and the pressure generator operates at a higher power level when there is a drop in pressure or in the flow volume in the region of the discharge channel, or when material is removed from the process by backflushing or venting.
A rotor assembly for a turbine engine comprising a plurality of adjacent rotor blades each manufactured from a base nickel alloy: wherein each of said plurality of adjacent blades includes a first side that defines a first contact face (54P; 54S) with a hardcoat and a second side that defines a second contact face (54P; 54S) without a hardcoat; a said first contact face (54P; 54S) of one rotor blade being in contact with a said second contact face (54S; 54P) of an adjacent rotor blade; wherein said first contact face (54P; 54S) with said hardcoat is the base nickel alloy with a welded or laser deposited cobalt based hardcoat formed on the base nickel alloy and said second contact face (54P; 54S) without said hardcoat is the base nickel alloy of said plurality of blades. wherein each of said plurality of adjacent blades includes a first side that defines a first contact face (54P; 54S) with a hardcoat and a second side that defines a second contact face (54P; 54S) without a hardcoat; a said first contact face (54P; 54S) of one rotor blade being in contact with a said second contact face (54S; 54P) of an adjacent rotor blade; wherein said first contact face (54P; 54S) with said hardcoat is the base nickel alloy with a welded or laser deposited cobalt based hardcoat formed on the base nickel alloy and said second contact face (54P; 54S) without said hardcoat is the base nickel alloy of said plurality of blades.
A process for making a pigment press cake comprising the steps of: (a) grinding a mixture comprising a pigment, a grinding agent and a vehicle to form a premix, wherein said grinding agent is insoluble in said vehicle and soluble in water, (b) adding to said premix a polyetheramine having the formula: (c) grinding said premix and said polyetheramine together; and (d) washing with an aqueous medium to remove said grinding agent to form a press cake; wherein each Q 1, Q 2 and Q 3 is independently -OCH 2 CH 2 - or -OCH 2 CH(CH 3)-; R 1 is C 1 -C 4 alkyl, -CH 2 CH(NH 2)(CH 3) or NH 2; each R 2 and R 3 is independently C 1 -C 4 alkyl or a straight bond; each R 4 is H, C 1 -C 4 alkyl or -(Q 3) q -NH 2; each R 5 is C 1 -C 4 alkyl or a straight bond; n is an integer from 0 to 60; m is an integer from 2 to 30; p is an integer from 0 to 5; and each q is an integer from 0 to 30. (a) grinding a mixture comprising a pigment, a grinding agent and a vehicle to form a premix, wherein said grinding agent is insoluble in said vehicle and soluble in water, (b) adding to said premix a polyetheramine having the formula: (c) grinding said premix and said polyetheramine together; and (d) washing with an aqueous medium to remove said grinding agent to form a press cake;
A method for modifying a fuel gas boiler installed in a heating plant; the boiler (1, 201, 301, 401) comprising a fuel gas burner, a feeding assembly (3; 403) for feeding fuel gas to the burner, a control unit for controlling the flow rate of the fuel gas of the feeding assembly, wherein the feeding assembly of the boiler comprises a pneumatic valve; the method comprising the steps of: intercepting a first control signal (S1; S4) configured to control the feeding assembly (3; 403) and provided by the control unit; connecting a cable providing the first signal (S1; S4) to a processing unit of a retrofit assembly; detecting a second signal correlated to the exhaust gas or fuel gas composition; defining a third control signal according to the second signal and to the first signal (S1; S4); supplying and controlling the feeding assembly (3; 403) by means of the third signal; and performing one of the following steps a)-d): a) installing a flow rate adjustment device downstream of the pneumatic valve and supplying the third signal to the flow rate adjustment device; b) replacing the pneumatic valve with a stepper valve and supplying the third signal to the stepper valve; c) replacing the pneumatic valve with a modulator valve and supplying the third signal to the modulator valve; d) replacing the pneumatic valve with a controllable pneumatic valve and supplying the third signal to the controllable pneumatic valve.
A method of preparing a compound of Formula XI-a 2 the method comprising: forming a reaction mixture comprising a cyanating agent, a Lewis Acid, a Broenstedt acid, a solvent, and a compound of Formula V-a: under conditions suitable to prepare the compound of Formula XI-a 2, wherein each R b is independently a hydroxy protecting group; alternatively, two R b groups on adjacent carbons can be combined to form a - C(R 19) 2 - group; R 10 is H or a silyl group; and R 19 is H, C 1 -C 8 alkyl, phenyl or substituted phenyl. the method comprising: forming a reaction mixture comprising a cyanating agent, a Lewis Acid, a Broenstedt acid, a solvent, and a compound of Formula V-a: under conditions suitable to prepare the compound of Formula XI-a 2, forming a reaction mixture comprising a cyanating agent, a Lewis Acid, a Broenstedt acid, a solvent, and a compound of Formula V-a: under conditions suitable to prepare the compound of Formula XI-a 2, wherein each R b is independently a hydroxy protecting group; alternatively, two R b groups on adjacent carbons can be combined to form a - C(R 19) 2 - group; R 10 is H or a silyl group; and R 19 is H, C 1 -C 8 alkyl, phenyl or substituted phenyl. each R b is independently a hydroxy protecting group; alternatively, two R b groups on adjacent carbons can be combined to form a - C(R 19) 2 - group; R 10 is H or a silyl group; and R 19 is H, C 1 -C 8 alkyl, phenyl or substituted phenyl.
An injection molding apparatus comprising a non-naturally balanced feed system for an injection mold of the injection molding apparatus, the injection mold having a plurality of mold cavities (32, 232), the plurality of mold cavities receiving molten plastic at a substantially constant viscosity, the non-naturally balanced feed system comprising: a hot runner having a first feed channel that terminates at a first mold cavity (32, 232) in the plurality of mold cavities (32, 232) and a second feed channel that terminates at a second mold cavity (32, 232) in the plurality of mold cavities (32, 232), wherein a first cross-sectional shape of the first feed channel varies along a length of the first feed channel and a second cross-sectional shape of the second feed channel varies along a length of the second feed channel, wherein the first cross-sectional shape varies differently than the second cross-sectional shape and/or wherein a length of the first feed channel is different than a length of the second feed channel; a gate (30, 78a, 78b, 178a, 178b) for receiving molten plastic, the gate being in fluid communication with one of the first and second feed channels; characterised in that the injection molding apparatus is configured to inject the molten plastic into the mold cavities (32, 232) at a nozzle pressure that is lower than 703 kilograms force per square centimeter (10,000 psi) and deviates up to 30% from a baseline melt pressure, wherein part weights for all of the mold cavities are within 5% of the mean; wherein the mold and/or the feed system is formed of a material having a thermal conductivity of more than 51,9 W/m·K (30 BTU/HR FT °F). a hot runner having a first feed channel that terminates at a first mold cavity (32, 232) in the plurality of mold cavities (32, 232) and a second feed channel that terminates at a second mold cavity (32, 232) in the plurality of mold cavities (32, 232), wherein a first cross-sectional shape of the first feed channel varies along a length of the first feed channel and a second cross-sectional shape of the second feed channel varies along a length of the second feed channel, wherein the first cross-sectional shape varies differently than the second cross-sectional shape and/or wherein a length of the first feed channel is different than a length of the second feed channel; a gate (30, 78a, 78b, 178a, 178b) for receiving molten plastic, the gate being in fluid communication with one of the first and second feed channels; characterised in that the injection molding apparatus is configured to inject the molten plastic into the mold cavities (32, 232) at a nozzle pressure that is lower than 703 kilograms force per square centimeter (10,000 psi) and deviates up to 30% from a baseline melt pressure, wherein part weights for all of the mold cavities are within 5% of the mean; wherein the mold and/or the feed system is formed of a material having a thermal conductivity of more than 51,9 W/m·K (30 BTU/HR FT °F).
A composition comprising the following components: A) a metal stearate; B) a secondary alcohol ethoxylate as shown below, wherein x = 7; C) a secondary alcohol ethoxylate as shown below, wherein x = 20; D) octanoic acid; E) sodium lauryl sulfate; F) a polydimethylsiloxane (PDMS); and G) water. A) a metal stearate; B) a secondary alcohol ethoxylate as shown below, wherein x = 7; C) a secondary alcohol ethoxylate as shown below, wherein x = 20; D) octanoic acid; E) sodium lauryl sulfate; F) a polydimethylsiloxane (PDMS); and G) water.
A coffee machine comprising at least one light source and one collector for the spent coffee grounds that is built into the machine body in an extractable manner, characterized in that at least one wall of the collector is made of opaque material and has a transparent covering panel on the outer side that can be illuminated by said light source.
A refrigerator unit and/or a freezer unit, in particular a wine storage cabinet, having at least one carcass in which at least one cooled inner space is located and having at least one storage shelf that is arranged in the cooled inner space, characterized in that at least one transparent or translucent element is arranged at the removable storage shelf for the purpose of labeling the storage shelf; and in that the refrigerator unit and/or freezer unit has lighting means that are arranged at the storage shelf such that the lighting means also backlight the named element with a removed storage shelf.
A frame for a land vehicle to be driven using muscular force, which has accommodated components of at least one auxiliary drive in a frame section, wherein the frame has at least one opening in each case in a section upstream of the component mounting in the direction of vehicle travel and in a section downstream of the component mounting in the direction of vehicle travel, characterized in that, in a section upstream of the component mounting in the direction of vehicle travel, two openings are arranged in a frame tube, mirror-symmetrically with respect to the vertical longitudinal central plane of the frame tube and in that air conduction elements are provided, which are placed from the outside onto the frame tube in the region of the openings.
A heat exchanger apparatus for use in an oil cooling system of an aviation engine, the heat exchanger apparatus comprising an air-cooled oil cooler and a valve, the aviation valve in fluid communication with the air-cooled oil cooler; wherein the valve comprises: a valve body having a valve seat; an actuation component including a plate formed from a set of metal layers (94, 96) responsive to a change in at least one of a thermal condition and a pressure exerted thereon such that the valve moves between an opened and a closed position where a portion of the plate engages with the valve seat, and the plate bends to have a curved shape. a valve body having a valve seat; an actuation component including a plate formed from a set of metal layers (94, 96) responsive to a change in at least one of a thermal condition and a pressure exerted thereon such that the valve moves between an opened and a closed position where a portion of the plate engages with the valve seat, and the plate bends to have a curved shape.
Exhaust gas cooler for a motor vehicle, comprising a housing, a first flow path having a multitude of flow ducts for conducting a fluid which is to be cooled, a deflecting region connected downstream of the first flow path, and a second flow path connected downstream of the deflecting region, wherein the flow ducts of the first flow path are continued in the deflecting region and in the second flow path as continuous flow ducts which are separate from one another, and the flow ducts are fixed at the end side to a base element, wherein in each case both ends of the continuous flow ducts open out in the base element and a guide element for guiding the coolant is arranged in the housing, characterized in that, in at least one of the flow ducts, at least in a non-bent state, an inner wall in relation to a bend in the deflecting region has a smaller wall thickness than an outer wall in relation to the bend, wherein support means for holding the flow ducts are arranged in the housing, wherein the guide element also serves as support means for supporting the flow ducts, wherein at least one flow duct of the first flow path bears adjacently against a flow duct of the second flow path in the deflecting region, wherein the deflecting region comprises a separate element which is placed on ends of the two flow ducts (24a, 24b) in order to connect them.
System for the variable firing of a revolver cannon comprising a mechanical trigger mechanism, a hammer and a cocking lever, wherein the trigger mechanism is supplemented by a fast-acting single solenoid, with which the hammer is arrested and released again with each shot by means of a lever of the trigger mechanism, wherein the fast-acting single solenoid is activated in such a way that each individual shot, in particular a rapid single shot, is triggered independently of the cycle of the gun at the desired point in time and the variable firing is quicker than the trigger mechanism.