mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a) compound being characterized by at least the following features: comprising a backbone unit comprising a tricyclodecane moiety, two spacer units each comprising a hydrocarbon chain being directly connected to the backbone unit via an urethane moiety, wherein the urethane moiety is connected to the backbone unit through the oxygen, and at least two reactive groups being connected to the hydrocarbon chain via an ester linkage, with being a non-branched hydrocarbon chain selected from C3 to C8 alkylene moieties, not comprising ether moieties and being selected from acroyl and methacroyl, b) initiator and c) optionally filler, the composition being a dental composition. a) compound being characterized by at least the following features: comprising a backbone unit comprising a tricyclodecane moiety, two spacer units each comprising a hydrocarbon chain being directly connected to the backbone unit via an urethane moiety, wherein the urethane moiety is connected to the backbone unit through the oxygen, and at least two reactive groups being connected to the hydrocarbon chain via an ester linkage, with being a non-branched hydrocarbon chain selected from C3 to C8 alkylene moieties, not comprising ether moieties and being selected from acroyl and methacroyl, comprising a backbone unit comprising a tricyclodecane moiety, two spacer units each comprising a hydrocarbon chain being directly connected to the backbone unit via an urethane moiety, wherein the urethane moiety is connected to the backbone unit through the oxygen, and at least two reactive groups being connected to the hydrocarbon chain via an ester linkage, with being a non-branched hydrocarbon chain selected from C3 to C8 alkylene moieties, not comprising ether moieties and being selected from acroyl and methacroyl, b) initiator and c) optionally filler, the composition being a dental composition.
A solid pharmaceutical dosage form for use in the treatment of HIV, the dosage form comprising a solid dispersion comprising at least one HIV protease inhibitor in at least one pharmaceutically acceptable water-soluble polymer and at least one pharmaceutically acceptable non-ionic surfactant, wherein said HIV protease inhibitor comprises lopinavir, and wherein said pharmaceutically acceptable non-ionic surfactant comprises a surfactant having an HLB value of from 4 to 10.
A device (10A, 10D) for encasing a penis having a penis shaft and a glans penis, said device comprising: a hood adapted to fit over said glans penis wherein said hood is constructed of an absorbent material that is adapted to absorb a body fluid; and a covering that is a flat fabric sheet, adapted for encasing said penis shaft, said covering being attached to said hood; wherein said penis shaft has a circumference dimension; characterised in that said covering has a wrap dimension that is at least twice said circumference dimension, so as to be wrappable about said penis shaft with an overlap of said fabric sheet, such that a second portion of said fabric sheet wraps onto a first portion of said fabric sheet, with said first portion then forming an underlying layer and said second portion forming an outer layer on top of at least a portion of said underlying layer. a hood adapted to fit over said glans penis wherein said hood is constructed of an absorbent material that is adapted to absorb a body fluid; and a covering that is a flat fabric sheet, adapted for encasing said penis shaft, said covering being attached to said hood; wherein said penis shaft has a circumference dimension;
Oscillator-based sensor interface circuit comprising - an oscillator having an input and arranged for oscillating at a frequency determined by a signal applied to said input, - switching means arranged for switching between at least two signals (110,111) to be applied to said oscillator via said input, at least one of said signals being an electrical signal representative of an electrical quantity, said electrical quantity being a converted physical quantity, - a counter arranged to count a number of cycles or half cycles produced by said oscillator when receiving from an output of said oscillator a signal derived from a first signal of said at least two signals applied to said oscillator, - control logic arranged to control said switching means and to derive a control output signal from a first number of counted oscillator cycles when said first signal is applied to said oscillator and a further number of counted oscillator cycles when another signal of said at least two signals different from said first signal is applied to said oscillator, - a feedback element arranged for converting a representation of said control output signal into a feedback signal used directly or indirectly to maintain a given relation between said first number of counted oscillator cycles when said first signal is applied to said oscillator and said further number of counted oscillator cycles when said other signal different from said first signal is applied to said oscillator. - an oscillator having an input and arranged for oscillating at a frequency determined by a signal applied to said input, - switching means arranged for switching between at least two signals (110,111) to be applied to said oscillator via said input, at least one of said signals being an electrical signal representative of an electrical quantity, said electrical quantity being a converted physical quantity, - a counter arranged to count a number of cycles or half cycles produced by said oscillator when receiving from an output of said oscillator a signal derived from a first signal of said at least two signals applied to said oscillator, - control logic arranged to control said switching means and to derive a control output signal from a first number of counted oscillator cycles when said first signal is applied to said oscillator and a further number of counted oscillator cycles when another signal of said at least two signals different from said first signal is applied to said oscillator, - a feedback element arranged for converting a representation of said control output signal into a feedback signal used directly or indirectly to maintain a given relation between said first number of counted oscillator cycles when said first signal is applied to said oscillator and said further number of counted oscillator cycles when said other signal different from said first signal is applied to said oscillator.
A method for fabricating a display device, the method comprising: a first step of attaching a display panel and a first substrate member to each other with a first adhesive sandwiched between the display panel and the first substrate member; and a second step of attaching a second substrate member to the first substrate member on a surface of the first substrate member opposite to the display panel with a second adhesive sandwiched between the first and second substrate members, the second step being carried out subsequently to the first step, wherein the second adhesive used in the second step has a glass transition point higher than a glass transition point of the first adhesive. a first step of attaching a display panel and a first substrate member to each other with a first adhesive sandwiched between the display panel and the first substrate member; and a second step of attaching a second substrate member to the first substrate member on a surface of the first substrate member opposite to the display panel with a second adhesive sandwiched between the first and second substrate members, the second step being carried out subsequently to the first step, wherein the second adhesive used in the second step has a glass transition point higher than a glass transition point of the first adhesive.
A fuel tank arrangement of a marine vessel comprising a fuel tank for Liquefied Natural Gas, the fuel tank comprising a shell, a heat insulation in connection therewith, connections for a pipeline for bunkering LNG to the fuel tank, a pipeline for taking boil-off gas from the fuel tank and a pipeline for taking LNG from the fuel tank, a deep well pump for pumping LNG from the tank to the pipeline, and at least one recess extending inwardly from the shell and being arranged on top of the fuel tank, the deep well pump being installed in the at least one recess the recess having a bottom and a side wall (56"), the deep well pump comprising a pump, a riser and a drive motor, the riser passing through the bottom, characterized in that the drive motor of the deep well pump is located at least partially inside the recess.
A household appliance comprising: a main body; a drying space placed in the main body and having an air suction hole and an air drain hole; a drying duct having an inside-air suction hole communicating with the air drain hole, an inside-air discharge hole communicating with the air suction hole, and an outside-air suction hole and an outside-air discharge hole communicating with the outside of the drying space; and a dehumidifying agent placed in the drying duct, wherein the drying duct includes an inside-air suction path into which air inside the drying space is suctioned, an outside-air suction path into which air outside the drying space is suctioned, and an inside/outside air movement path communicating with the inside-air suction path and the outside-air suction path, characterized by a partition placed between the inside-air suction path and the outside-air suction path to guide movement of air suctioned into the drying duct. a main body; a drying space placed in the main body and having an air suction hole and an air drain hole; a drying duct having an inside-air suction hole communicating with the air drain hole, an inside-air discharge hole communicating with the air suction hole, and an outside-air suction hole and an outside-air discharge hole communicating with the outside of the drying space; and a dehumidifying agent placed in the drying duct, wherein the drying duct includes an inside-air suction path into which air inside the drying space is suctioned, an outside-air suction path into which air outside the drying space is suctioned, and an inside/outside air movement path communicating with the inside-air suction path and the outside-air suction path, characterized by a partition placed between the inside-air suction path and the outside-air suction path to guide movement of air suctioned into the drying duct.
A device, comprising: a rectifier including a first switch (110, T3, T4) having a variable resistance; a current sensor coupled to an output of the rectifier; and a rectifier controller coupled to an output of the current sensor and to the first switch (110, T3, T4),., wherein the rectifier is configured to output a current, wherein the current sensor is configured to sense a magnitude of the current and to output a sensor signal (Is) indicative of the magnitude of the current, and the rectifier controller is configured to receive the sensor signal (Is) and to adjust a resistance of the first switch (110, T3, T4) responsive to sensor signal (Is), characterized in that the rectifier controller is configured to adjust the resistance of the first switch (110, T3, T4) with an inverse relationship to the magnitude of the current. a rectifier including a first switch (110, T3, T4) having a variable resistance; a current sensor coupled to an output of the rectifier; and a rectifier controller coupled to an output of the current sensor and to the first switch (110, T3, T4),., wherein the rectifier is configured to output a current, wherein the current sensor is configured to sense a magnitude of the current and to output a sensor signal (Is) indicative of the magnitude of the current, and the rectifier controller is configured to receive the sensor signal (Is) and to adjust a resistance of the first switch (110, T3, T4) responsive to sensor signal (Is), characterized in that the rectifier controller is configured to adjust the resistance of the first switch (110, T3, T4) with an inverse relationship to the magnitude of the current.
A method of making an antibody, said method comprising culturing a host cell comprising polynucleotide comprising a first translation initiation region operably linked to a polynucleotide encoding an antibody heavy chain, wherein the TIR comprises a DsbA co-translation prokaryotic secretion signal sequence selected from the group consisting of SEQ ID NOs: 36-39, 41 and 42; and a second TIR operably linked to a polynucleotide encoding an antibody light chain, wherein the second TIR comprises a co-translation or post-translation prokaryotic secretion signal sequence, whereby upon expression of the antibody in a host cell, the heavy and light chains are folded and assembled to form a biologically active antibody.
A method comprising: distributing netflow packet collectors across all switches in a network fabric of switches to yield a virtual netflow collector; calculating a first hash at a source switch of an incoming packet on each possible combination of a 5-tuple IP packet header; calculating a second hash at the source switch of an incoming packet on each possible combination of at least one virtual attribute of the network fabric of switches; creating an N-Tuple flow from the first hash and the second hash; exporting the N-Tuple flow to the virtual netflow collector; and mapping, via a virtual extensible local area network multicast address group, the virtual netflow collector to one or more physical netflow collector. distributing netflow packet collectors across all switches in a network fabric of switches to yield a virtual netflow collector; calculating a first hash at a source switch of an incoming packet on each possible combination of a 5-tuple IP packet header; calculating a second hash at the source switch of an incoming packet on each possible combination of at least one virtual attribute of the network fabric of switches; creating an N-Tuple flow from the first hash and the second hash; exporting the N-Tuple flow to the virtual netflow collector; and mapping, via a virtual extensible local area network multicast address group, the virtual netflow collector to one or more physical netflow collector.
A method for managing a package in a secure element comprising an initial operating system, the method comprising a step of updating the initial operating system to generate an updated operating system, the method comprising the step of linking the package to the updated operating system, said linking step being triggered by the step of updating the initial operating system, characterized in that the package is created from a CAP file previously downloaded in the secure element, said CAP file comprising a plurality of components, in that the method comprises the step of selecting, from said plurality of components, items that are required to retrieve references to be updated during the linking step and permanently storing said items in the secure element and in that the method comprises the step of removing at least one component of the CAP file from the secure element.
A body suit comprising: a body including a torso, a pair of arms, a pair of legs, and a plurality of fins located on the body, the torso including a chest region, a sternum region, an abdominal region, a pelvic region, and a back region; wherein the plurality of fins include: one or more chest fins (110a, 110b) located in the chest region on the torso; one or more arm fins (120a, 120b) on each arm of the body; one or more leg fins (120c, 120d) on each leg of the body; wherein each fin provides a directional control surface and a buoyancy element, the body suit is characterized in that the body suit is segmented (211, 212, 214, 230) and in that a segmentation overlaps (240a-240f) over another adjacent segmentation. a body including a torso, a pair of arms, a pair of legs, and a plurality of fins located on the body, the torso including a chest region, a sternum region, an abdominal region, a pelvic region, and a back region; wherein the plurality of fins include: one or more chest fins (110a, 110b) located in the chest region on the torso; one or more arm fins (120a, 120b) on each arm of the body; one or more leg fins (120c, 120d) on each leg of the body; one or more chest fins (110a, 110b) located in the chest region on the torso; one or more arm fins (120a, 120b) on each arm of the body; one or more leg fins (120c, 120d) on each leg of the body; wherein each fin provides a directional control surface and a buoyancy element, the body suit is characterized in that the body suit is segmented (211, 212, 214, 230) and in that a segmentation overlaps (240a-240f) over another adjacent segmentation.
A linear shaped charge comprising an explosive element, a liner, a face for application to a target object and a space between the liner and the face, the liner being arranged for projection through the space, towards the face, when the explosive element is detonated, and the explosive element and the liner having a V-shaped cross section, the liner lying in a groove of the V-shaped cross section of the explosive element, the liner having a length L of a side furthest from the face and the liner having a thickness T taken perpendicular to said length L, wherein an angle α of an apex of the liner nearest the face is 101.5 to 106.5 degrees, and a stand-off distance SD between the face and a point of the liner nearest the face is 0.99S to 1.21S, S being a distance, parallel the stand-off distance SD, between the point of the liner nearest the face and the apex of the liner nearest the face.
Hybrid device comprising, in a first zone, thermoelectric elements allowing an electric current to be generated from a temperature gradient applied between two of its active faces (4a, 4p), said device comprising a first circuit, referred to as the hot circuit, able to allow the circulation of a first fluid, referred to as hot fluid, and a second circuit, referred to as the cold circuit, able to allow the circulation of a second fluid, referred to as cold fluid, of a temperature lower than that of the hot fluid so as to create said gradient, said hybrid device comprising a second zone, said second zone comprises a second part of the cold circuit, wherein said hot circuit and the second part of said cold circuit are directly in contact so as to allow an exchange of heat between the cold fluid and the hot fluid, said hybrid device being designed so that the hot fluid passes through it by travelling in a single direction, referred to as first direction, said first zone and said second zone being situated in series in the first direction, wherein the thermoelectric elements are grouped together into modules, at least two of said modules forming a row of modules in which row said modules are spaced apart, and in that adjacent modules of two adjacent rows are offset from one another so that they are arranged in a staggered configuration.
Method for producing a collector for a commutating device for transmitting current to an armature of an electrical machine, in particular a starter motor for an internal combustion engine, in which a contact portion of the collector and a connecting portion of the collector connected to an armature winding are connected to one another by friction stir welding using a friction stir tool in the connecting region between the portions (23, 24), wherein the contact portion and the connecting portion consist of different materials, wherein the contact portion and the connecting portion are each formed rotationally symmetrically and are connected to one another along a circular connecting region, and wherein the contact portion and the connecting portion abut against one another at the end faces and the common end face forms the connecting region, wherein the contact portion and the connecting portion comprise the same outer diameter, and wherein the friction stir tool in use is located radially outside of the connecting area between the contact portion and the connecting portion.
A method suitable for driving a display device having an RGBG layout with RGBG-formatted image data, wherein the RGBG formatted image data comprises a red value, R, a blue value, B, and two green values, G 0, G 1,the method comprising, at a display driver: receiving image data, in a first format comprising a first luma value, Y 0, a second luma value, Y 1, a first chroma value and a second chroma value; representing the data in the first format as a first vector; applying, to generate a reconstructed image, a transform in the form of a matrix to the first vector to generate a second vector representing the image data in RGBG format; and providing the reconstructed image in RGBG format to a display device, characterized in that the transform is one of: R G 0 B G 1 = 1 α ∗ 1 2 1 2 1 − 1 3 2 − 1 2 0 1 1 2 1 2 − 1 − 1 − 1 2 3 2 0 1 Y 0 Y 1 Co Cg wherein the first chroma value is an orange chroma value C o and the second chroma value is a green chroma value C g; or R G 0 B G 1 = 1 α ∗ 1 2 1 2 − 1 4 3 4 3 2 − 1 2 − 1 4 − 1 4 1 2 1 2 3 4 − 1 4 − 1 2 3 2 − 1 4 − 1 4 Y 0 Y 1 Cb Cr wherein the first chroma value is a blue chroma value C b and the second chroma value is a red chroma value C r; and wherein, in each transform, α is a scaling factor. receiving image data, in a first format comprising a first luma value, Y 0, a second luma value, Y 1, a first chroma value and a second chroma value; representing the data in the first format as a first vector; applying, to generate a reconstructed image, a transform in the form of a matrix to the first vector to generate a second vector representing the image data in RGBG format; and providing the reconstructed image in RGBG format to a display device, characterized in that the transform is one of: R G 0 B G 1 = 1 α ∗ 1 2 1 2 1 − 1 3 2 − 1 2 0 1 1 2 1 2 − 1 − 1 − 1 2 3 2 0 1 Y 0 Y 1 Co Cg wherein the first chroma value is an orange chroma value C o and the second chroma value is a green chroma value C g; or R G 0 B G 1 = 1 α ∗ 1 2 1 2 − 1 4 3 4 3 2 − 1 2 − 1 4 − 1 4 1 2 1 2 3 4 − 1 4 − 1 2 3 2 − 1 4 − 1 4 Y 0 Y 1 Cb Cr wherein the first chroma value is a blue chroma value C b and the second chroma value is a red chroma value C r; and wherein, in each transform, α is a scaling factor.
A light detecting device comprising: a light detector; a heat exchanger thermally connected to the light detector; a coolant flow channel configured to be connected to the heat exchanger and allow a coolant for cooling the light detector to flow; a pump configured to cause the coolant to flow in the coolant flow channel; and a control unit configured to control the pump, wherein the control unit performs control such that a first drive power is supplied to the pump during a detection period in which the light detector performs light detection, and a second drive power is supplied to the pump during a standby period in which the light detector stands by without performing light detection, and the first drive power is smaller than the second drive power. a light detector; a heat exchanger thermally connected to the light detector; a coolant flow channel configured to be connected to the heat exchanger and allow a coolant for cooling the light detector to flow; a pump configured to cause the coolant to flow in the coolant flow channel; and a control unit configured to control the pump, wherein the control unit performs control such that a first drive power is supplied to the pump during a detection period in which the light detector performs light detection, and a second drive power is supplied to the pump during a standby period in which the light detector stands by without performing light detection, and the first drive power is smaller than the second drive power.