mhurhangee/ep-ind-claims huggingface dataset:
Electrical circuit comprising two masters (11, 12) and one or more slaves (13, 14), set up to transmit signals between two masters (11, 12) and one or more slaves (13, 14), wherein the two masters (11, 12) and the slave(s) (13, 14) are connected to one another via a bus system, wherein each of the two masters (11, 12) is set up to respectively produce at least one master data signal and to send it via an MO line, wherein the two MO lines coming from the masters (11, 12) are connected to one another and connected to the slave(s) (13, 14) and the master data signal can be received by the slave (s) (13, 14), wherein a respective tristate gate is present at the outputs of the two masters (11, 12) to which the respective master data signal is applied, wherein the tristate gates are active either as closed or as open switches, and wherein the tristate gates are actuated such that the tristate gate associated with one of the two masters acts as a closed switch and the tristate gate associated with the other of the two masters acts as an open switch, characterized in that the two masters (11, 12) each produce at least one selection signal (CS1, CS2) that is received by the slave(s) (13, 14) and that selects the slave or one of the slaves as a receiver, wherein a respective tristate gate is present at the outputs of the two masters (11, 12) to which the respective selection signal is applied, wherein the tristate gates are actuated on the basis of a request signal that is produced by one of the two masters (11, 12) when this master (11, 12) wishes to transmit signals on the bus system, and in that the electrical circuit comprises a circuit portion that actuates the tristate gates on the basis of the respective at least one selection signal (CS1, CS2) and the request signal, so that access to the bus system can be allocated only when the respective selection signals (CS1, CS2) of the two masters are inactive and hence a preceding transmission on the bus system has terminated.
An optical fiber configured to propagate a light beam at a predetermined wavelength at least in an LP01 mode and an LP02 mode, wherein a dopant that changes a Young's modulus is doped to at least a part of a waveguide region in a cladding through which the light beam at the predetermined wavelength is propagated and to a region in a core in which an intensity of the light beam in the LP01 mode is greater than an intensity of the light beam in the LP02 mode, and at least a part of a Young's modulus in the waveguide region in the cladding is smaller than a Young's modulus in the region in the core in which the intensity of the light beam in the LP01 mode is greater than the intensity of the light beam in the LP02 mode, characterized in that in a region in which the intensity of the light beam in the LP02 mode is greater than the intensity of the light beam in the LP01 mode, a Young's modulus in a region on a circumferential side of the waveguide region in the cladding is greater than a Young's modulus in the region in the core on a circumferential side of the region in which the intensity of the light beam in the LP01 mode is greater than the intensity of the light beam in the LP02 mode.
A pharmaceutical composition in the form of a fixed dose combination tablet comprising: a) from 1% to 25% w/w of a solid dispersion comprising Compound I dispersed within a polymer matrix formed by copovidone, wherein the weight ratio of Compound I to copovidone in the solid dispersion is 1:1 and wherein Compound I is substantially amorphous having the formula: b) from 35% to 45% w/w of sofosbuvir characterized by XRPD 2θ-reflections (° ± 0.2θ) at: 6.1 and 12.7 or at: 6.1, 20.1 and 20.8, wherein the sofosbuvir is substantially crystalline having the formula: c) from 1% to 40% w/w of microcrystalline cellulose; d) from 1% to 8% w/w of croscarmellose sodium; and e) from 0.5% to 2.5% w/w of magnesium stearate; for use in treating hepatitis C. a) from 1% to 25% w/w of a solid dispersion comprising Compound I dispersed within a polymer matrix formed by copovidone, wherein the weight ratio of Compound I to copovidone in the solid dispersion is 1:1 and wherein Compound I is substantially amorphous having the formula: b) from 35% to 45% w/w of sofosbuvir characterized by XRPD 2θ-reflections (° ± 0.2θ) at: 6.1 and 12.7 or at: 6.1, 20.1 and 20.8, wherein the sofosbuvir is substantially crystalline having the formula: c) from 1% to 40% w/w of microcrystalline cellulose; d) from 1% to 8% w/w of croscarmellose sodium; and e) from 0.5% to 2.5% w/w of magnesium stearate;
An apparatus for producing bowl-shaped food products from a fat compound, especially a cocoa-containing or chocolate like fat compound, with the apparatus having the following means: - a plurality of hollow molds which can be filled with the fat compound in the free- flowing tempered state and which are arranged as depressions in a block of molds, with the inside surface of the respective hollow mold determining the outside surface of a bowl-shaped food product to be produced; - a plurality of die elements which are arranged as outward bulges on a die block in a support frame for the die block which is movably held in such a way that the die block can be lowered in operation against the mold block, with one die element of the die block being lowerable into one each of the hollow molds of the mold block, and - with the outside surface of a respective die element determining the inside surface of the bowl-shaped food product to be produced, characterized in that the die-block support frame is arranged as a die-block interchangeable frame on which several die blocks are held so as to be movable relative to the interchangeable frame and each of the die blocks is movable relative to the interchangeable frame between an operating position in which it cooperates in the shaping of the food products during the lowering of the die-block interchangeable frame against the mold block and a non-operating position in which it does not cooperate in the shaping of the food products during the lowering of the die-block interchangeable frame against the mold block. - a plurality of hollow molds which can be filled with the fat compound in the free- flowing tempered state and which are arranged as depressions in a block of molds, with the inside surface of the respective hollow mold determining the outside surface of a bowl-shaped food product to be produced; - a plurality of die elements which are arranged as outward bulges on a die block in a support frame for the die block which is movably held in such a way that the die block can be lowered in operation against the mold block, with one die element of the die block being lowerable into one each of the hollow molds of the mold block, and - with the outside surface of a respective die element determining the inside surface of the bowl-shaped food product to be produced,
Slitter for cutting a cord tape, having a frame stand, at least one cutting unit, and a feed installation by way of which the cord tape to be fed to the cutting unit is guided, wherein the cutting unit comprises a first and a second knife shaft, driven by way of a drive means, which are disposed so as to be mutually parallel and interact for cutting, the cord tape to be cut running therebetween, wherein a deflection roller which in portions is wrapped by the cord tape that emanates from the feed installation is disposed upstream of the first knife shaft, the cord tape by way of said deflection roller being deflected towards the first knife shaft in such a manner that said cord tape, prior to the cut, in portions wraps the knife shaft, wherein two guide rollers (23, 24) which in a direction perpendicular to the material transport direction are disposed in an offset manner are disposed downstream of the cutting installation, in each case one cut cord tape strip (35, 36) running over said guide rollers (23, 24), characterized in that the guide rollers (23, 24) are driven by way of a drive means.
A stent having a tubular body in at least some sections, this body being convertible from a compressed state into an expanded state, and comprising a circumferential wall having at least one first lattice structure and a second lattice structure, the first lattice structure and the second lattice structure forming separate layers (14, 15) of the circumferential wall, which are arranged coaxially one inside the other and are connected to one another in at least some points such that the first lattice structure and the second lattice structure can be moved in at least some sections relative to one another, wherein the first lattice structure and the second lattice structure are each formed from closely intertwined wires (112, 122), wherein the first lattice structure has a greater number of wires than the second lattice structure, and wherein the second lattice structure forms an outer layer and the first lattice structure forms an inner layer of the tubular body.
A cytotoxic compound having the structure: where: R 5 is alkyl, alkenyl, alkylacyl, cycloalkyl, heterocycle, -CN, alkoxy, -N(R 6) 2, -CON(R 6) 2, -S R 6, -SR 6, -SO 2 R 6; and R 6 is H, alkyl, or cycloalkyl. R 5 is alkyl, alkenyl, alkylacyl, cycloalkyl, heterocycle, -CN, alkoxy, -N(R 6) 2, -CON(R 6) 2, -S R 6, -SR 6, -SO 2 R 6; and R 6 is H, alkyl, or cycloalkyl.
A fan apparatus for air conditioner, the apparatus comprising: a base case comprising a suction port configured to suck air therethrough; a tower case, which is disposed above the base case, where a first tower and a second tower that have an air flow path therein are spaced apart from each other; a blowing space formed between the first tower and the second tower; a first discharge port which is formed in the first tower and which is configured to discharge the sucked air to the blowing space; a second discharge port which is formed in the second tower and which is configured to discharge the sucked air to the blowing space; a display module which is received in the tower case and exposed to one surface of the tower case, wherein the display module is disposed below the blowing space, a fan disposed inside the base case; and a diffuser which is disposed inside the base case and which is configured to guide air flow generated by the fan; characterized in that the diffuser is formed to, together with the tower case, define a space in which the display module is received. a base case comprising a suction port configured to suck air therethrough; a tower case, which is disposed above the base case, where a first tower and a second tower that have an air flow path therein are spaced apart from each other; a blowing space formed between the first tower and the second tower; a first discharge port which is formed in the first tower and which is configured to discharge the sucked air to the blowing space; a second discharge port which is formed in the second tower and which is configured to discharge the sucked air to the blowing space; a display module which is received in the tower case and exposed to one surface of the tower case, wherein the display module is disposed below the blowing space, a fan disposed inside the base case; and a diffuser which is disposed inside the base case and which is configured to guide air flow generated by the fan; characterized in that the diffuser is formed to, together with the tower case, define a space in which the display module is received.
A biodegradable polymer comprises a biodegradable unit and an imine unit, wherein: the biodegradable unit is selected from the group consisting of polyester, oligoester, poly(amide-ester), oligo(amide-ester) and polyether; and the imine unit has one or more imine bonds, wherein the imine bond constitutes part of a main chain structure of the biodegradable polymer, and the biodegradable polymer has a chemical structure in a form in which the biodegradable units are linked via the imine unit. the biodegradable unit is selected from the group consisting of polyester, oligoester, poly(amide-ester), oligo(amide-ester) and polyether; and the imine unit has one or more imine bonds, wherein the imine bond constitutes part of a main chain structure of the biodegradable polymer, and the biodegradable polymer has a chemical structure in a form in which the biodegradable units are linked via the imine unit.
Device for preventing spying of data stored on a magnetic strip of a magnetic-strip and/or chip card, with a first inductor, which is exposed to a first electric current to generate a first electromagnetic interference field, with a second inductor, which is exposed to a second electric current to generate a second electromagnetic interference field, characterized in that the inductors (104, 106) are arranged and exposed to the respective current and driven in phase in such a way that the first interference field and the second interference field are superimposed in phase between the two inductors (104, 106) and in phase opposition outside the inductors, so that the interference field resulting from the first interference field and the second interference field in an intermediate region between the two inductors (104, 106) has a greater field strength than the first interference field alone and a greater field strength than the second interference field alone, and in that the resultant interference field outside the intermediate region has a lower field strength than the first interference field alone and the second interference field alone.
A tire comprising: a carcass ply forming a carcass layer so as to stride over a pair of bead cores; and a tread part arranged at an outer side of the carcass ply in a tire radial direction, the carcass ply including a body ply extended from the tread part to the bead core, and a folded ply folded around each of the bead cores, wherein: an end part of the folded ply is extended to a height position beyond a tire maximum width position; and a tread width is set in a range of 81% or more of a tire maximum width, wherein a bead filler height of a bead part is set within a range of 40% to 60% of a tire sectional height; and in a tire widthwise cross section, a curvature radius of the carcass ply on an extension line passing the tire maximum width position and extending in a tread width direction is set to be 30 mm or more, characterized in that a bead filler width at a height position corresponding to 30% of the tire sectional height is set within a range of 10% to 30% of a bead filler root part width. a carcass ply forming a carcass layer so as to stride over a pair of bead cores; and a tread part arranged at an outer side of the carcass ply in a tire radial direction, the carcass ply including a body ply extended from the tread part to the bead core, and a folded ply folded around each of the bead cores, wherein: an end part of the folded ply is extended to a height position beyond a tire maximum width position; and a tread width is set in a range of 81% or more of a tire maximum width, wherein a bead filler height of a bead part is set within a range of 40% to 60% of a tire sectional height; and an end part of the folded ply is extended to a height position beyond a tire maximum width position; and a tread width is set in a range of 81% or more of a tire maximum width, wherein a bead filler height of a bead part is set within a range of 40% to 60% of a tire sectional height; and in a tire widthwise cross section, a curvature radius of the carcass ply on an extension line passing the tire maximum width position and extending in a tread width direction is set to be 30 mm or more, characterized in that a bead filler width at a height position corresponding to 30% of the tire sectional height is set within a range of 10% to 30% of a bead filler root part width.
A Fieldbus field device, communicatively connected to a process controller using hardware and software associated with the Fieldbus protocol, the Fieldbus field device comprising: a controller configured to perform at least one operation related to process control, the controller also being configured to perform at least one self-recovery operation relative to the Fieldbus field device; and a process communication module coupled to the controller and configured to couple to a process communication segment and communicate in accordance with a process communication protocol; wherein the controller is configured to detect an erroneous condition and selectively apply the at least one self-recovery operation in response to the detected erroneous condition; wherein the controller is configured to generate a notification in response to the detected erroneous condition, and wherein the notification includes a request to authorize self-recovery; wherein the controller is configured to selectively apply the at least one self-recovery operation if a self-recovery authorization is received from an operator by the controller; and wherein the Fieldbus field device is configured to perform process control functions at locations distributed throughout a process facility. a controller configured to perform at least one operation related to process control, the controller also being configured to perform at least one self-recovery operation relative to the Fieldbus field device; and a process communication module coupled to the controller and configured to couple to a process communication segment and communicate in accordance with a process communication protocol; wherein the controller is configured to detect an erroneous condition and selectively apply the at least one self-recovery operation in response to the detected erroneous condition; wherein the controller is configured to generate a notification in response to the detected erroneous condition, and wherein the notification includes a request to authorize self-recovery; wherein the controller is configured to selectively apply the at least one self-recovery operation if a self-recovery authorization is received from an operator by the controller; and wherein the Fieldbus field device is configured to perform process control functions at locations distributed throughout a process facility.
A low coherence interferometry system comprising: a first multiplexing unit configured to receive a first beam of radiation and comprising a first plurality of optical elements configured to introduce a group delay to the first beam of radiation based on an optical path traversed by the first beam of radiation among a first plurality of optical waveguides having various group delays, wherein the first plurality of optical elements and the first plurality of optical waveguides are integrated in a substrate; and a second multiplexing unit configured to receive a second beam of radiation, and comprising a second plurality of optical elements configured to differentiate the second beam of radiation among a second plurality of optical waveguides to produce one or more output radiation beams, wherein the second plurality of optical elements and the second plurality of optical waveguides are integrated in the substrate, wherein the second plurality of optical waveguides are configured to guide the one or more output radiation beams towards a sample at different regions or direct the one or more output radiation beams from different directions to the sample. a first multiplexing unit configured to receive a first beam of radiation and comprising a first plurality of optical elements configured to introduce a group delay to the first beam of radiation based on an optical path traversed by the first beam of radiation among a first plurality of optical waveguides having various group delays, wherein the first plurality of optical elements and the first plurality of optical waveguides are integrated in a substrate; and a second multiplexing unit configured to receive a second beam of radiation, and comprising a second plurality of optical elements configured to differentiate the second beam of radiation among a second plurality of optical waveguides to produce one or more output radiation beams, wherein the second plurality of optical elements and the second plurality of optical waveguides are integrated in the substrate, wherein the second plurality of optical waveguides are configured to guide the one or more output radiation beams towards a sample at different regions or direct the one or more output radiation beams from different directions to the sample.
A multi-axis integrated MEMS inertial sensing device, the device comprising: a substrate member having a surface region, the surface region having an inner portion and an outer portion, wherein the outer portion surrounds the inner portion, and the outer portion includes at least four corners; a first MEMS inertial sensor overlying the inner portion of the surface region, the first MEMS inertial sensor comprising a three-axis accelerometer; and a second MEMS inertial sensor overlying the outer portion of the surface region wherein the second MEMS inertial sensor comprises a three-axis gyroscope; characterized by said device further comprising at least one bond pad configured overlying each corners of the outer portion of the surface region; and said three-axis gyroscope having three pairs of one-axis gyroscope sensors, the two one-axis gyroscope sensors of each pair being configured to sense along one common direction in space and being located symmetrically at opposite sides of the three-axis accelerometer in a symmetric rectangular or square geometry, two of the pairs of one-axis gyroscope sensors being placed along a first axis of the substrate member and one of the pairs of one-axis gyroscope sensors being placed along a second axis of the substrate member orthogonal to the first axis of the substrate member. a substrate member having a surface region, the surface region having an inner portion and an outer portion, wherein the outer portion surrounds the inner portion, and the outer portion includes at least four corners; a first MEMS inertial sensor overlying the inner portion of the surface region, the first MEMS inertial sensor comprising a three-axis accelerometer; and a second MEMS inertial sensor overlying the outer portion of the surface region wherein the second MEMS inertial sensor comprises a three-axis gyroscope;
A method for controlling a boom of a crane in proximity of obstacles at a worksite, the method executable by a computing device having a processor and memory, comprising: a) saving, in the memory, coordinate data representing a coordinate system at the worksite; b) saving, in the memory, obstacle data representing a forbidden quasi-volume in the coordinate system, the forbidden quasi-volume being a rectangular prism, wherein saving obstacle data comprises using the boom to identify at least two coordinates (410, 411) of the forbidden quasi-volume, the at least two coordinates (410, 411) comprising, as seen by the crane, the front, top left corner of the forbidden quasi-volume and the front, top right corner of the forbidden quasi-volume; c) saving, in the memory, boom data representing the location of the boom; and d) limiting movement of the boom, by the computing device, to avoid the boom entering the forbidden quasi-volume, the limiting based on a computed minimum distance between the boom and the forbidden quasi-volume using the coordinate data, the obstacle data, and the boom data. a) saving, in the memory, coordinate data representing a coordinate system at the worksite; b) saving, in the memory, obstacle data representing a forbidden quasi-volume in the coordinate system, the forbidden quasi-volume being a rectangular prism, wherein saving obstacle data comprises using the boom to identify at least two coordinates (410, 411) of the forbidden quasi-volume, the at least two coordinates (410, 411) comprising, as seen by the crane, the front, top left corner of the forbidden quasi-volume and the front, top right corner of the forbidden quasi-volume; c) saving, in the memory, boom data representing the location of the boom; and d) limiting movement of the boom, by the computing device, to avoid the boom entering the forbidden quasi-volume, the limiting based on a computed minimum distance between the boom and the forbidden quasi-volume using the coordinate data, the obstacle data, and the boom data.