mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument for cutting an elongated element comprising: first and second arms (20,30) each with an elongated shape, a distal section (22,32), a proximal section (23,33), and a cutting element (21,31) positioned at the distal section (22,32); the first arm further including a first aperture that extends longitudinally through at least a portion of the distal section and includes an inlet and an outlet spaced away from the inlet; the distal section of the second arm further including a pair of spaced apart walls (36,37) that form a longitudinal channel; the distal section of the first arm being positioned in the channel of the second arm and in an overlapping arrangement with the walls (36,37) of the second arm; a pivot member positioned in the distal sections (22,32) of the first and second arms (20,30) at a point where the arms (20,30) are in the overlapping arrangement, the pivot member being fixedly attached to the first arm and movable relative to the second arm, the pivot member including a second aperture that aligns with the first aperture; a passage formed by the first aperture in the first arm and the second aperture in the pivot member, the passage extending through the pivot member to receive a portion of the elongated element; and a force mechanism attached to the proximal sections (23,33) of the first and second arms (20,30) to pivot the first and second arms (20,30) about the pivot member between an open orientation with the cutting elements (21,31) spaced apart and a closed orientation with the cutting elements (21,31) positioned in proximity to each other. first and second arms (20,30) each with an elongated shape, a distal section (22,32), a proximal section (23,33), and a cutting element (21,31) positioned at the distal section (22,32); the first arm further including a first aperture that extends longitudinally through at least a portion of the distal section and includes an inlet and an outlet spaced away from the inlet; the distal section of the second arm further including a pair of spaced apart walls (36,37) that form a longitudinal channel; the distal section of the first arm being positioned in the channel of the second arm and in an overlapping arrangement with the walls (36,37) of the second arm; a pivot member positioned in the distal sections (22,32) of the first and second arms (20,30) at a point where the arms (20,30) are in the overlapping arrangement, the pivot member being fixedly attached to the first arm and movable relative to the second arm, the pivot member including a second aperture that aligns with the first aperture; a passage formed by the first aperture in the first arm and the second aperture in the pivot member, the passage extending through the pivot member to receive a portion of the elongated element; and a force mechanism attached to the proximal sections (23,33) of the first and second arms (20,30) to pivot the first and second arms (20,30) about the pivot member between an open orientation with the cutting elements (21,31) spaced apart and a closed orientation with the cutting elements (21,31) positioned in proximity to each other.
A method for processing data, the method comprising: receiving within a single mobile multimedia processor chip (101a, 202, 402, 502) integrated within a mobile device, a plurality of secure keys (230, 232) from an off-chip device integrated within said mobile device; decrypting within said single mobile multimedia processor chip (101a, 202, 402, 502), said plurality of secure keys (230, 232) utilizing an on-chip key stored within a secure kernel (204, 404, 504) implementing digital rights management functionalities in said single mobile multimedia processor chip (101a, 202, 402, 502); storing said plurality of decrypted secure keys within said single mobile multimedia processor chip (101a, 202, 402, 502); decrypting within said secure kernel (204, 404, 504) in said single mobile multimedia processor chip (101a, 202, 402, 502), received encrypted data using at least one of said plurality of stored decrypted secure keys; and encrypting one or more of said plurality of stored decrypted secure keys that are no longer used for decryption of received encrypted data utilizing said on-chip key. receiving within a single mobile multimedia processor chip (101a, 202, 402, 502) integrated within a mobile device, a plurality of secure keys (230, 232) from an off-chip device integrated within said mobile device; decrypting within said single mobile multimedia processor chip (101a, 202, 402, 502), said plurality of secure keys (230, 232) utilizing an on-chip key stored within a secure kernel (204, 404, 504) implementing digital rights management functionalities in said single mobile multimedia processor chip (101a, 202, 402, 502); storing said plurality of decrypted secure keys within said single mobile multimedia processor chip (101a, 202, 402, 502); decrypting within said secure kernel (204, 404, 504) in said single mobile multimedia processor chip (101a, 202, 402, 502), received encrypted data using at least one of said plurality of stored decrypted secure keys; and encrypting one or more of said plurality of stored decrypted secure keys that are no longer used for decryption of received encrypted data utilizing said on-chip key.
A mixing unit, comprising a low-pressure vessel, a liquid supply system being in communication with the vessel via a liquid inlet, a powder supply system being in communication with the vessel via a powder inlet, and a discharge system being in communication with the vessel via a product outlet, said liquid supply system comprises a deaeration system, said powder supply system comprises an air separator, and said discharge system comprises a pump for increasing the pressure of the mixed product by pumping the mixed product, characterized in that said deaeration system of the liquid supply system comprises a throttling point in direct connection with an inlet of the vessel.
A (8 S,9 R)-5-fluoro-8-(4-fluorophenyl)-9-(1-methyl-1 H -1,2,4-triazol-5-yl)-8,9-dihydro-2 H -pyrido[4,3,2-de]phthalazin-3(7 H)-one mono-tosylate salt, where the salt is in a substantially pure crystalline form, and where the salt exhibits an X-ray powder diffraction pattern comprising at least three peaks at 2θ angle degrees ± 0.2 2θ angle degrees selected from the group consisting of 7.5, 15.1, 18.1, 20.1, 20.5, 22.6, and 24.1, and wherein substantially pure means the salt contains less than 10% by weight of one or more other crystalline form(s).
An aldehyde dehydrogenase inhibitor for use in the treatment or prevention of ocular mucous membrane pemphigoid (OcMMP), wherein the aldehyde dehydrogenase inhibitor is tetraethylthioperoxydicarbonic diamide (disulfiram) or 4-(diethylamino)benzaldehyde (DEAB).
A process for separating at least one first material from a mixture comprising this at least one first material and at least one second material, which comprises the following steps: contacting of the mixture comprising at least one first material and at least one second material with at least one magnetic particle and at least one surface-modifying substance at the same time, so that the at least one first material, the at least one surface-modifying substance and the at least one magnetic particle become attached to one another, if appropriate in the presence of at least one dispersant, if appropriate, addition of at least one dispersion medium to the mixture obtained in step to give a dispersion having a suitable concentration, separation of the addition product from step or from the mixture by application of a magnetic field, if appropriate, cleavage of the addition product which has been separated off in step to obtain the at least one first material and the at least one magnetic particle separately, wherein the surface-modifying substance modifies the surface of the at least one first material in a way that the at least one first material, the at least one surface-modifying substance and the at least one magnetic particle become attached to one another, wherein the first material is a hydrophobic metal compound or coal and the second material is a hydrophilic metal compound, wherein the at least one hydrophobic metal compound is selected from the group consisting of sulfidic ores, oxidic ores, carbonate-comprising ores, noble metals in elemental form, compounds comprising noble metals and mixtures thereof, and wherein the at least one hydrophilic metal compound is selected from the group consisting of oxidic metal compounds, hydroxidic metal compounds and mixtures thereof. contacting of the mixture comprising at least one first material and at least one second material with at least one magnetic particle and at least one surface-modifying substance at the same time, so that the at least one first material, the at least one surface-modifying substance and the at least one magnetic particle become attached to one another, if appropriate in the presence of at least one dispersant, if appropriate, addition of at least one dispersion medium to the mixture obtained in step to give a dispersion having a suitable concentration, separation of the addition product from step or from the mixture by application of a magnetic field, if appropriate, cleavage of the addition product which has been separated off in step to obtain the at least one first material and the at least one magnetic particle separately, wherein the first material is a hydrophobic metal compound or coal and the second material is a hydrophilic metal compound, wherein the at least one hydrophobic metal compound is selected from the group consisting of sulfidic ores, oxidic ores, carbonate-comprising ores, noble metals in elemental form, compounds comprising noble metals and mixtures thereof, and wherein the at least one hydrophilic metal compound is selected from the group consisting of oxidic metal compounds, hydroxidic metal compounds and mixtures thereof.
A method for producing a multilayered pipe for transporting refrigerant in an air-conditioning system, - wherein first, a continuous inner layer made of stainless steel having a layer thickness (s i) of no more than 1 mm, preferably no more than 0.5 mm, and having an inner diameter (d i) of 3 to 20 mm is provided, which forms the innermost layer of the pipe, - wherein the continuous inner layer is then covered, by means of an extrusion process, with a plastic layer having a layer thickness (s a) of no more than 5 mm, and - wherein before applying the plastic layer to the inner layer an adhesion-promoting layer is deposited in an extrusion process to improve the bonding of the plastic layer to the inner layer and to improve the kink resistance of the pipe, - so that the pipe can be bent in a kink-free manner by an angle (α) of 90° with an internal bend radius (r) of 0.2 m. - wherein first, a continuous inner layer made of stainless steel having a layer thickness (s i) of no more than 1 mm, preferably no more than 0.5 mm, and having an inner diameter (d i) of 3 to 20 mm is provided, which forms the innermost layer of the pipe, - wherein the continuous inner layer is then covered, by means of an extrusion process, with a plastic layer having a layer thickness (s a) of no more than 5 mm, and - wherein before applying the plastic layer to the inner layer an adhesion-promoting layer is deposited in an extrusion process to improve the bonding of the plastic layer to the inner layer and to improve the kink resistance of the pipe, - so that the pipe can be bent in a kink-free manner by an angle (α) of 90° with an internal bend radius (r) of 0.2 m.
A method for producing OSB comprising the steps: (a) producing coarse chips, (b) glueing the coarse chips, thus obtaining glued coarse chips, (c) arranging the glued coarse chips on a transport belt, thus obtaining a chipboard layer, (d) applying a flame-retardant liquid to the chipboard layer, (e) applying a pressure difference to the chipboard layer that is or will be wetted by applying a negative pressure to a lower side of the transport belt and/or an overpressure to an upper side of the chipboard layer and (f) pressing the chipboard layer, resulting in the OSB. (a) producing coarse chips, (b) glueing the coarse chips, thus obtaining glued coarse chips, (c) arranging the glued coarse chips on a transport belt, thus obtaining a chipboard layer, (d) applying a flame-retardant liquid to the chipboard layer, (e) applying a pressure difference to the chipboard layer that is or will be wetted by applying a negative pressure to a lower side of the transport belt and/or an overpressure to an upper side of the chipboard layer and (f) pressing the chipboard layer, resulting in the OSB.
A method of generating a pseudotyped lentiviral vector particle comprising: (a) culturing in a culture medium comprising kifunensine a virus packaging cell comprising: a lentiviral vector genome comprising a polynucleotide encoding an expressible sequence of interest, a polynucleotide encoding an alphavirus envelope glycoprotein that preferentially binds dendritic cells expressing DC-SIGN, and a polynucleotide encoding a Vpx protein or a Vpr protein that retains SAMHD1-inhibiting activity; and (b) isolating a pseudotyped lentiviral vector particle that preferentially binds dendritic cells expressing DC-SIGN, wherein said lentiviral vector particles are more highly mannosylated compared to a control composition of the same pseudotyped lentiviral vector particles prepared in the absence of a mannosidase inhibitor. (a) culturing in a culture medium comprising kifunensine a virus packaging cell comprising: a lentiviral vector genome comprising a polynucleotide encoding an expressible sequence of interest, a polynucleotide encoding an alphavirus envelope glycoprotein that preferentially binds dendritic cells expressing DC-SIGN, and a polynucleotide encoding a Vpx protein or a Vpr protein that retains SAMHD1-inhibiting activity; and a lentiviral vector genome comprising a polynucleotide encoding an expressible sequence of interest, a polynucleotide encoding an alphavirus envelope glycoprotein that preferentially binds dendritic cells expressing DC-SIGN, and a polynucleotide encoding a Vpx protein or a Vpr protein that retains SAMHD1-inhibiting activity; and (b) isolating a pseudotyped lentiviral vector particle that preferentially binds dendritic cells expressing DC-SIGN, wherein said lentiviral vector particles are more highly mannosylated compared to a control composition of the same pseudotyped lentiviral vector particles prepared in the absence of a mannosidase inhibitor.
An apparatus for use in a liquid treatment process, the apparatus comprising: an inlet configured to be connected to a source of liquid to be treated; an outlet for discharging liquid from the apparatus; at least one liquid treatment vessel or conduit disposed between the inlet and the outlet, and arranged to expose liquid in the vessel to ultraviolet radiation in an advanced oxidation process reaction; a source of ultraviolet radiation extending along the liquid treatment vessel or conduit, such that an annular flow volume is defined in the vessel or conduit around the source of ultraviolet radiation; a plurality of rotary devices (100, 120) disposed in the annular flow volume, wherein each of the rotary devices (100, 120) comprises a shaft and one or more blade elements (112, 128, 128a, 128b) on the shaft; wherein the plurality of rotary devices is distributed circumferentially in the annular flow volume; a plurality of drive mechanisms, each drive mechanism arranged to drive rotation of a respective one of the plurality of rotary devices (100, 120); wherein a respective drive mechanism is operable to rotate the blade elements at a speed in excess of 5,000 RPM to induce cavitation in a liquid present in the annular flow volume. an inlet configured to be connected to a source of liquid to be treated; an outlet for discharging liquid from the apparatus; at least one liquid treatment vessel or conduit disposed between the inlet and the outlet, and arranged to expose liquid in the vessel to ultraviolet radiation in an advanced oxidation process reaction; a source of ultraviolet radiation extending along the liquid treatment vessel or conduit, such that an annular flow volume is defined in the vessel or conduit around the source of ultraviolet radiation; a plurality of rotary devices (100, 120) disposed in the annular flow volume, wherein each of the rotary devices (100, 120) comprises a shaft and one or more blade elements (112, 128, 128a, 128b) on the shaft; wherein the plurality of rotary devices is distributed circumferentially in the annular flow volume; a plurality of drive mechanisms, each drive mechanism arranged to drive rotation of a respective one of the plurality of rotary devices (100, 120); wherein a respective drive mechanism is operable to rotate the blade elements at a speed in excess of 5,000 RPM to induce cavitation in a liquid present in the annular flow volume.
An LED driving circuit comprising: a first current source connectable to an LED; a transistor configured to control a driving current flowing between the first current source and the LED; a timing generating circuit configured to generate a driving signal that is applied to a control terminal of the transistor; and a temperature compensated current generating circuit configured to provide a temperature compensated current to the first current source; and wherein the temperature compensated current generating circuit in tum comprises: a temperature detecting circuit (10i 1); a first comparator (10i 2) configured to receive at input thereof an output of the temperature detecting circuit (10i 1) and further configured to switch at a predetermined temperature; and a first current increasing circuit (10i 4) configured to increase gradually the temperature compensated current from a point in time at which output switching occurs at the first comparator (10i 2), using a charging/discharging function of a capacitor, by increasing the temperature compensated current over a time that is longer than a pulse width that a photodetecting element, suitable for receiving light from said LED, can respond within. a first current source connectable to an LED; a transistor configured to control a driving current flowing between the first current source and the LED; a timing generating circuit configured to generate a driving signal that is applied to a control terminal of the transistor; and a temperature compensated current generating circuit configured to provide a temperature compensated current to the first current source; and wherein the temperature compensated current generating circuit in tum comprises: a temperature detecting circuit (10i 1); a first comparator (10i 2) configured to receive at input thereof an output of the temperature detecting circuit (10i 1) and further configured to switch at a predetermined temperature; and a first current increasing circuit (10i 4) configured to increase gradually the temperature compensated current from a point in time at which output switching occurs at the first comparator (10i 2), using a charging/discharging function of a capacitor, by increasing the temperature compensated current over a time that is longer than a pulse width that a photodetecting element, suitable for receiving light from said LED, can respond within. a temperature detecting circuit (10i 1); a first comparator (10i 2) configured to receive at input thereof an output of the temperature detecting circuit (10i 1) and further configured to switch at a predetermined temperature; and a first current increasing circuit (10i 4) configured to increase gradually the temperature compensated current from a point in time at which output switching occurs at the first comparator (10i 2), using a charging/discharging function of a capacitor, by increasing the temperature compensated current over a time that is longer than a pulse width that a photodetecting element, suitable for receiving light from said LED, can respond within.
A vehicle braking valve including a valve housing enclosing a port and having an exterior surface and an interior surface, and having a fluid delivery assembly comprising a fitting and a tube, the fitting providing a fluid tight seal between the tube and the valve housing, the fitting comprising a tubular main body having a first end and a second end which is located in the port of the valve housing, a first seal arrangement providing a substantially fluid tight seal between the tube and the fitting, a second sealing arrangement providing a substantially fluid tight seal between the interior surface of the valve housing and the fitting, and a retaining part securing the fitting to the valve housing, wherein the retaining part has first end face which engages with the first end of the main body so as to prevent the main body from being removed from the port, and a retaining formation which engages with a retaining formation provided on the exterior surface of the valve housing so as to releasably secure the retaining part to the valve housing characterised in that the retaining formation is provided on an arm which extends from the first end face generally perpendicular thereto, the retaining formation comprises a lip formation which extends from a free end of the arm into a corresponding recess or aperture provided in the tubular valve housing and wherein the retaining part is configured such that its retaining formation can be released from engagement with the retaining formation of the valve housing by rotational movement of the retaining part relative to the valve housing.
Component carrier, wherein the component carrier comprises: a stack comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure; a component embedded in the stack, wherein the component comprises a redistribution structure having a dielectric material and at least one vertically protruding electrically conductive pad, and electrically conductive material on at least part of the at least one electrically conductive pad; characterized in that the at least one electrically conductive pad vertically protrudes beyond an end surface of dielectric material of the redistribution structure; and further characterized by an underfill on the end surface of the dielectric material and between adjacent electrically conductive pads of the component, wherein material of the underfill also surrounds at least part of sidewalls and/or at least part of an upper main surface of the embedded component for mechanically connecting the component with the stack; and electrically conductive material also on the underfill. a stack comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure; a component embedded in the stack, wherein the component comprises a redistribution structure having a dielectric material and at least one vertically protruding electrically conductive pad, and electrically conductive material on at least part of the at least one electrically conductive pad; characterized in that the at least one electrically conductive pad vertically protrudes beyond an end surface of dielectric material of the redistribution structure; and further characterized by an underfill on the end surface of the dielectric material and between adjacent electrically conductive pads of the component, wherein material of the underfill also surrounds at least part of sidewalls and/or at least part of an upper main surface of the embedded component for mechanically connecting the component with the stack; and electrically conductive material also on the underfill.