mhurhangee/ep-ind-claims huggingface dataset:
A multilayer polymeric film, comprising: a top layer comprising poly(methyl methacrylate); a bottom layer comprising a bottom layer composition; and an inner layer disposed between an inside surface of the top layer and an inside surface of the bottom layer, wherein the inner layer comprises polycarbonate, characterized by the bottom layer composition comprising polycarbonate and polyester or copolymers thereof wherein a glass transition temperature of the bottom layer is less than or equal to 140 °C; wherein an average surface roughness Rz of an outside surface of the bottom layer is less than or equal to 0.75 micrometers as measured according to ISO 4287. a top layer comprising poly(methyl methacrylate); a bottom layer comprising a bottom layer composition; and an inner layer disposed between an inside surface of the top layer and an inside surface of the bottom layer, wherein the inner layer comprises polycarbonate, characterized by the bottom layer composition comprising polycarbonate and polyester or copolymers thereof wherein a glass transition temperature of the bottom layer is less than or equal to 140 °C; wherein an average surface roughness Rz of an outside surface of the bottom layer is less than or equal to 0.75 micrometers as measured according to ISO 4287.
A system for processing confidential material, which system comprises a device for processing confidential material as well as a storage compartment, wherein the device is configured as a rear loader which is disposed at a rear side of the storage compartment, wherein the device is provided with a lifting mechanism for moving at least one bin (13, 15) for collecting confidential material, which lifting mechanism is disposed in a closable space of the device, wherein the device is configured such that the bin can be moved from a loading position to an emptying position by means of the lifting mechanism, wherein, once the bin has been placed in the loading position, the closed closable space makes access to the bin impossible and the bin can be moved to the emptying position for being emptied, characterised in that the device is further provided with a collecting unit and a shredding mechanism and the bin can be moved to the emptying position for being emptied into the collecting unit, under which collecting unit the shredding mechanism is disposed by means of which the confidential material from the bin can be shredded, wherein the collecting unit, the shredding mechanism and a rotatable processing unit of the device are disposed centrally in the transverse direction (b) of the closable space, wherein the centre of the collecting unit, the centre of the shredding mechanism and the centre of the rotatable processing unit coincide with the centre of the closable space, seen in the transverse direction of the closable space.
A myofascial trigger point and acupuncture point stimulator, configured to connect a fluid ejection device and transmit a fluid pressure to a skin surface in direct contact with the myofascial trigger point and acupuncture point stimulator, characterized in that the stimulator comprises: a base having a transmission channel; and at least one contact member movably disposed on the base and having a discharge channel, wherein one end of the contact member is configured to be in contact with a skin surface directly, and the contact member is switchable between a closed position and a communication position; wherein the contact member moves, in the direction of the discharge channel, from the closed position to the communication position, when a force is applied to the one end of the contact member; wherein when the contact member moves from the closed position to the communication position relative to the base, the discharge channel of the contact member changes from not communicating with the transmission channel to communicating with the transmission channel for ejecting the fluid provided by the fluid ejection device on the skin surface. a base having a transmission channel; and at least one contact member movably disposed on the base and having a discharge channel, wherein one end of the contact member is configured to be in contact with a skin surface directly, and the contact member is switchable between a closed position and a communication position; wherein the contact member moves, in the direction of the discharge channel, from the closed position to the communication position, when a force is applied to the one end of the contact member; wherein when the contact member moves from the closed position to the communication position relative to the base, the discharge channel of the contact member changes from not communicating with the transmission channel to communicating with the transmission channel for ejecting the fluid provided by the fluid ejection device on the skin surface.
An electronic device, comprising a first cover, a first shell, and a second shell, wherein the first cover comprises a first side portion, a middle portion, and a second side portion, the middle portion is connected between the first side portion and the second side portion, the first side portion and the second side portion are spaced apart from and opposite to each other to form an opening, and the first side portion, the middle portion, and the second side portion are enclosed to form an accommodating cavity; the first shell and the second shell are both mounted in the accommodating cavity; in a direction from the first side portion to the second side portion, the first shell and the second shell are adjacent to each other side by side; the first shell and the second shell are fixedly connected; and the first shell and the second shell are matched to support the first cover. a first cover, a first shell, and a second shell, wherein the first cover comprises a first side portion, a middle portion, and a second side portion, the middle portion is connected between the first side portion and the second side portion, the first side portion and the second side portion are spaced apart from and opposite to each other to form an opening, and the first side portion, the middle portion, and the second side portion are enclosed to form an accommodating cavity; the first shell and the second shell are both mounted in the accommodating cavity; in a direction from the first side portion to the second side portion, the first shell and the second shell are adjacent to each other side by side; the first shell and the second shell are fixedly connected; and the first shell and the second shell are matched to support the first cover.
Method for connecting a fibre composite component to a structural component of an aircraft and spacecraft, comprising the steps of: providing a metal foil as a transverse reinforcement element between the fibre composite component and the structural component; forming the metal foil with at least one anchoring portion which protrudes from the surface facing the fibre composite component, wherein the metal foil is formed with at least one anchoring portion (7, 8) by means of a punch-bending method, in which anchoring elements are arranged substantially perpendicularly or at a predetermined angle with respect to the respective surface (9, 10) of the metal foil, or by welding separately produced anchoring pins; and inserting the metal foil between the fibre composite component and the structural component. providing a metal foil as a transverse reinforcement element between the fibre composite component and the structural component; forming the metal foil with at least one anchoring portion which protrudes from the surface facing the fibre composite component, wherein the metal foil is formed with at least one anchoring portion (7, 8) by means of a punch-bending method, in which anchoring elements are arranged substantially perpendicularly or at a predetermined angle with respect to the respective surface (9, 10) of the metal foil, or by welding separately produced anchoring pins; and inserting the metal foil between the fibre composite component and the structural component.
A propylene/ethylene/1-hexene terpolymer containing from 1.0 wt% to 2.5 wt%, of ethylene derived units and from 2.0wt% to 3.5wt% of 1-hexene derived units, the sum of the amounts of propylene, ethylene and 1-.hexene derived units being 100, the terpolymer having the following features: a) it fulfils the following relation (i): 0.5 < C 6 − C 2 < 1.7 wherein C2 is the content (%wt) of ethylene derived units and C6 is the content (%wt) of 1-hexene derived units; b) it has a Polydispersity Index ranging from 2 to 4.5; c) it has a melting temperature ranging from 125° C, to 138° C; d) its melting temperature (Tm) and the sum of ethylene content (C2 wt%) and 1-hexene content (C6 wt%) fulfil the following relation (ii): C 2 + C 6 < 37 − 0.24 * Tm e) it has a melt flow rate, measured according to ISO method 1133, ranging from 4 to 7 g/10' dg/min. a) it fulfils the following relation (i): 0.5 < C 6 − C 2 < 1.7 wherein C2 is the content (%wt) of ethylene derived units and C6 is the content (%wt) of 1-hexene derived units; b) it has a Polydispersity Index ranging from 2 to 4.5; c) it has a melting temperature ranging from 125° C, to 138° C; d) its melting temperature (Tm) and the sum of ethylene content (C2 wt%) and 1-hexene content (C6 wt%) fulfil the following relation (ii): C 2 + C 6 < 37 − 0.24 * Tm e) it has a melt flow rate, measured according to ISO method 1133, ranging from 4 to 7 g/10' dg/min.
Module holder comprising a housing enclosing an installation space for standardized electronic circuit boards, at least one fan tray which is disposed above or below the installation space and includes one or more electric fans, an air intake chamber for incoming cold air and an air outlet chamber for hot waste air, an air distribution duct which is disposed laterally next to the installation space and which connects the air intake chamber to the installation space to direct the incoming cold air onto the electronic circuit boards, an air collecting duct which is disposed on the opposite side of the installation space and which connects the installation space to the air outlet chamber to discharge the hot waste air, at least one power supply unit which supplies the electronic circuit boards and the fan with electrical energy, characterized in that the fan tray is inserted into a compartment of the housing and is extensible, and the power supply unit is an integral component of the fan tray.
A method for reporting channel status information, CSI, at a user equipment, UE, in a radio access system supporting a multi-connectivity mode, the method performed by the UE and comprising: receiving a first physical downlink control channel, PDCCH, signal including first resource allocation information from a first small cell in the multi-connectivity mode; receiving a second PDCCH signal including second resource allocation information from a second small cell in the multi-connectivity mode; selecting one or both of the first small cell and the second small cell for reporting the CSI according to whether the first resource allocation information and the second resource allocation information indicate the same resource region; and reporting the CSI based on the first resource allocation information and the second resource allocation information, wherein the UE maintains connection with two or more small cells including the first small cell and the second small cell in the multi-connectivity mode, and wherein the first small cell and the second small cell are connected to each other via a non-ideal backhaul link. receiving a first physical downlink control channel, PDCCH, signal including first resource allocation information from a first small cell in the multi-connectivity mode; receiving a second PDCCH signal including second resource allocation information from a second small cell in the multi-connectivity mode; selecting one or both of the first small cell and the second small cell for reporting the CSI according to whether the first resource allocation information and the second resource allocation information indicate the same resource region; and reporting the CSI based on the first resource allocation information and the second resource allocation information, wherein the UE maintains connection with two or more small cells including the first small cell and the second small cell in the multi-connectivity mode, and wherein the first small cell and the second small cell are connected to each other via a non-ideal backhaul link.
Carbon black having a specific surface area of 150 m 2 /g or more and 400 m 2 /g or less, and a ratio (Lc/SSA) of a crystallite size (Lc (Å)) to a specific surface area (SSA (m 2 /g)) of 0.06 or more and 0.10 or less, a DBP absorption of 200 mL/100 g or more and 350 mL/100 g or less, and an average primary particle size of less than 25nm. a DBP absorption of 200 mL/100 g or more and 350 mL/100 g or less, and an average primary particle size of less than 25nm.
An absorbent article comprising a liquid permeable topsheet, a liquid impermeable backsheet, and an absorbent core between the topsheet and the backsheet, wherein the absorbent core comprises an absorbent material enclosed in a core wrap having a top layer and a bottom layer, wherein the bottom layer of the core wrap comprises a nonwoven comprising synthetic fibers, wherein the nonwoven has a basis weight from 6 g/m 2 to 10 g/m 2 and the nonwoven has a static coefficient of friction as measured in cross-machine direction of from 0.20 to no more than 0.40, as measured according to ASTM D1894 - 01, wherein the fibers of the nonwoven comprises a slip agent that reduces the coefficient of friction of the nonwoven, characterized in that the nonwoven is a multilayer nonwoven comprising at least one S layer and at least one M layer, where S designates a spunbond layer and M a meltblown layer, and the slip agent is comprised in the S layer.
A method to determine whether a warning sign will occur in a subject being infected with a dengue virus and suffering from dengue fever, the method characterized by comprising steps of: (a) providing a serum of the subject in a febrile phase of the illness of the subject; (b) measuring a level of a hyaluronan in the serum; and (c) determining that the warning sign will occur in an illness course of the subject when the level is higher than or equal to 70 ng/mL. (a) providing a serum of the subject in a febrile phase of the illness of the subject; (b) measuring a level of a hyaluronan in the serum; and (c) determining that the warning sign will occur in an illness course of the subject when the level is higher than or equal to 70 ng/mL.
A method for processing radioactive waste stored in an organic matrix in the form of bitumen, epoxy resin, or urea resin, or in an inorganic matrix in the form of cement, by means of pyrolysis, comprising the method steps of - introducing the radioactive waste located in a container (18, 28) into a reaction chamber, in which a steam-containing or CO 2 -containing atmosphere is set to a temperature T where T ≥ 200°C, - carrying out the pyrolysis, - removing gases (exhaust gas) from the reaction chamber, - removing the container (18, 28) from the reaction chamber, wherein, in addition, at least one method step from the following group is carried out: - introducing oxygen and/or CO 2 into the reaction chamber during the pyrolysis in an under-stoichiometric or maximum stoichiometric quantity, - adjusting steam or CO 2 to be introduced into the reaction chamber on the basis of oxidizable substance in the exhaust gas, - adjusting oxygen and/or CO 2 to be introduced into the reaction chamber on the basis of oxidizable substance in the exhaust gas, - introducing steam and/or oxygen and/or CO 2 into the radioactive waste located in the container (18, 28) or in the region thereof in a targeted manner, - conducting steam and/or oxygen and/or CO 2 within the reaction chamber in a targeted manner. - introducing the radioactive waste located in a container (18, 28) into a reaction chamber, in which a steam-containing or CO 2 -containing atmosphere is set to a temperature T where T ≥ 200°C, - carrying out the pyrolysis, - removing gases (exhaust gas) from the reaction chamber, - removing the container (18, 28) from the reaction chamber, - introducing oxygen and/or CO 2 into the reaction chamber during the pyrolysis in an under-stoichiometric or maximum stoichiometric quantity, - adjusting steam or CO 2 to be introduced into the reaction chamber on the basis of oxidizable substance in the exhaust gas, - adjusting oxygen and/or CO 2 to be introduced into the reaction chamber on the basis of oxidizable substance in the exhaust gas, - introducing steam and/or oxygen and/or CO 2 into the radioactive waste located in the container (18, 28) or in the region thereof in a targeted manner, - conducting steam and/or oxygen and/or CO 2 within the reaction chamber in a targeted manner.
A method of using hexanedioic acid or at least one salt thereof, and/or citric acid or at least one salt thereof, to modulate the immunogenicity of a pharmaceutical formulation comprising an anti-TNFα antibody.
A nozzle module for an energy converter, comprising a first nozzle for introducing a propellant fluid into a mixing chamber and comprising an introduction opening for introducing a suction fluid into the mixing chamber, wherein the mixing chamber has a geometry for merging the propellant fluid and the suction fluid in the mixing chamber in a flow-intensifying manner, wherein a gas pressure in the mixing chamber in a region downstream of the first nozzle is lower than a gas pressure in the mixing chamber in a region downstream of the introduction opening, characterised in that a vapor pressure of the propellant fluid upstream of the first nozzle is lower than a vapor pressure of the suction fluid upstream of the introduction opening, and in that the mixing chamber is connected to the reservoir by means of an adjustable gap opening, wherein the introduction opening is formed by the gap opening.
A device for aliquoting and filtering blood, the device comprising: • a collector element (1, 10) for collecting blood; • a capillary duct presenting a capillary force stronger than that of said collector element and in fluid flow communication therewith; and • a dispenser element presenting a capillary force stronger than that of the capillary duct and in fluid communication therewith; said dispenser element including a filter device for separating blood corpuscles from plasma; the device being characterized in that said filter device is adapted to become saturated in corpuscles after filtering a volume of blood that depends on the hematocrit content of said blood and that is in any event less than the content of said collector element plus said capillary duct; and wherein visible marks (R1 - R4) are provided that make it possible, by mere inspection, to estimate the volume of liquid present in said capillary duct; thereby enabling the hematocrit content of said blood to be determined on the basis of an estimate of the volume of blood remaining in the capillary duct after the filter device has saturated • a collector element (1, 10) for collecting blood; • a capillary duct presenting a capillary force stronger than that of said collector element and in fluid flow communication therewith; and • a dispenser element presenting a capillary force stronger than that of the capillary duct and in fluid communication therewith; said dispenser element including a filter device for separating blood corpuscles from plasma; the device being characterized in that said filter device is adapted to become saturated in corpuscles after filtering a volume of blood that depends on the hematocrit content of said blood and that is in any event less than the content of said collector element plus said capillary duct; and wherein visible marks (R1 - R4) are provided that make it possible, by mere inspection, to estimate the volume of liquid present in said capillary duct; thereby enabling the hematocrit content of said blood to be determined on the basis of an estimate of the volume of blood remaining in the capillary duct after the filter device has saturated
Axial ball stud (1, 2, 3, 4, 5, 6) for use in vehicle steering devices or vehicle suspensions, having a straight or curved metal rod, preferably made of steel or aluminium, a threaded section arranged at one end of the metal rod, and a joint ball (18, 18-2, 18-3, 18-4, 18-5, 18-6) arranged at the other end of the metal rod, wherein a kink region is provided between the threaded section and the end pin (22, 22-2, 22-3, 22-4, 22-5, 22-6), characterised in that the axial ball pin (1, 2, 3, 4, 5, 6) is designed in two parts, in that the joint ball (18, 18-2, 18-3, 18-4, 18-5, 18-6) has a longitudinal opening (20, 20-2, 20-3, 20-4, 20-5, 20-6) running at least to its centre, preferably through its centre, into which the metal rod with an end pin (22, 22-2, 22-3, 22-4, 22-5, 22-6) protrudes, wherein the joint ball (18, 18-2, 18-3, 18-4, 18-5, 18-6) and end pin (22, 22-2, 22-3, 22-4, 22-5, 22-6) are positively and/or non-positively connected to one another in this longitudinal opening (20, 20-2, 20-3, 20-4, 20-5, 20-6), wherein the end pin (22, 22-2, 22-3, 22-4, 22-5, 22-6) has a strength that is at least 100 N/mm 2 greater than an area of the metal rod that adjoins the end pin (22, 22-2, 22-3, 22-4, 22-5, 22-6) on the threaded section side.
A method of measuring the value of an external magnetic field by using a magnetoresistive sensor, the method comprising a first step consisting in applying, in situ, prior to each measurement of the external magnetic field, at least one additional magnetic field pulse in the space containing the magnetoresistive sensor, said first step itself comprising a first substep consisting in applying a first additional magnetic field pulse presenting a first value of positive polarity and of magnitude sufficient for saturating the sensor, characterized in that it comprises measuring the maximum value at high saturation (R max) of the resistance of the sensor, and a second substep consisting in applying a second additional magnetic field pulse presenting a second value having negative polarity and magnitude sufficient for saturating the sensor, and in measuring the minimum value at low saturation (R min) of the resistance of the sensor; and • a second step during which a predetermined value of said additional magnetic field is applied that does not saturate the sensor, and in which the effective resistance (R eff) of the magnetoresistive sensor is measured and the measurement of the effective resistance (R eff) is automatically calibrated using the maximum and minimum values at high and low saturation (R max, R min) as previously measured in order to determine a corrected resistance value (R cor) from which the value of the external magnetic field is determined. a first step consisting in applying, in situ, prior to each measurement of the external magnetic field, at least one additional magnetic field pulse in the space containing the magnetoresistive sensor, said first step itself comprising a first substep consisting in applying a first additional magnetic field pulse presenting a first value of positive polarity and of magnitude sufficient for saturating the sensor, characterized in that it comprises measuring the maximum value at high saturation (R max) of the resistance of the sensor, and a second substep consisting in applying a second additional magnetic field pulse presenting a second value having negative polarity and magnitude sufficient for saturating the sensor, and in measuring the minimum value at low saturation (R min) of the resistance of the sensor; and • a second step during which a predetermined value of said additional magnetic field is applied that does not saturate the sensor, and in which the effective resistance (R eff) of the magnetoresistive sensor is measured and the measurement of the effective resistance (R eff) is automatically calibrated using the maximum and minimum values at high and low saturation (R max, R min) as previously measured in order to determine a corrected resistance value (R cor) from which the value of the external magnetic field is determined.