mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display panel; a front cover including a front part covering an edge of a front surface of the display panel, a side part extended from the front part and covering a side surface of the display panel, and a guide protruded from the side part and supporting the side surface of the display panel; a frame including a rear part positioned in a rear of the display panel and a supporting part extended from the rear part and supporting a rear surface of the display panel; and a back cover positioned in the rear of the frame and coupled to the side part of the front cover, wherein the side part of the front cover is coupled to the frame, wherein the guide is elongated along the side surface of the display panel between the side surface of the display panel and the side part of the front cover, and wherein a gap is formed between the guide and the side part of the front cover. a display panel; a front cover including a front part covering an edge of a front surface of the display panel, a side part extended from the front part and covering a side surface of the display panel, and a guide protruded from the side part and supporting the side surface of the display panel; a frame including a rear part positioned in a rear of the display panel and a supporting part extended from the rear part and supporting a rear surface of the display panel; and a back cover positioned in the rear of the frame and coupled to the side part of the front cover, wherein the side part of the front cover is coupled to the frame, wherein the guide is elongated along the side surface of the display panel between the side surface of the display panel and the side part of the front cover, and wherein a gap is formed between the guide and the side part of the front cover.
Electrical plug connector for a safety restraint system, preferably for an airbag ignition system, comprising: at least two contact terminals (521, 522) assigned to the plug connector; and a shorting clip, that is adapted to short-circuit the at least two contact terminals (521, 522) in an uncoupled or incorrectly coupled condition of the plug connector, wherein the shorting clip comprises at least two contact blades (533, 534), wherein each contact blade (533; 534) is electrically connected with a respective one of the at least two contact terminals (521; 522), characterized in that each of the contact blades (533,534) comprises at least one cutting edge (535, 536), which cutting edges (535, 536) contact each other, such that one edge cuts the other, when the plug connector is in in an uncoupled or incorrectly coupled condition, wherein at least one of the two contact blades (533, 534) comprises a bendable portion (531, 532), which bendable portion (531, 532) is bent to separate the contact between the cutting edges (535, 536) of the contact blades (533, 534) upon correct coupling of the plug-connector, wherein the cutting edges (535, 536) enclose an angle α which is different from 0 and 180°, so that one edge cuts the other, wherein the cutting edges (535, 536) of the at least two contact blades (533, 534) are adapted to at least partly remove residual layers deposited on the cutting edges (535, 536), in order to improve an electrical contact, wherein the residual layers to be removed may comprise oxide layers, deposited contaminants and/or fogged plastic. at least two contact terminals (521, 522) assigned to the plug connector; and a shorting clip, that is adapted to short-circuit the at least two contact terminals (521, 522) in an uncoupled or incorrectly coupled condition of the plug connector, wherein the shorting clip comprises at least two contact blades (533, 534), wherein each contact blade (533; 534) is electrically connected with a respective one of the at least two contact terminals (521; 522), characterized in that each of the contact blades (533,534) comprises at least one cutting edge (535, 536), which cutting edges (535, 536) contact each other, such that one edge cuts the other, when the plug connector is in in an uncoupled or incorrectly coupled condition, wherein at least one of the two contact blades (533, 534) comprises a bendable portion (531, 532), which bendable portion (531, 532) is bent to separate the contact between the cutting edges (535, 536) of the contact blades (533, 534) upon correct coupling of the plug-connector, wherein the cutting edges (535, 536) enclose an angle α which is different from 0 and 180°, so that one edge cuts the other, wherein the cutting edges (535, 536) of the at least two contact blades (533, 534) are adapted to at least partly remove residual layers deposited on the cutting edges (535, 536), in order to improve an electrical contact, wherein the residual layers to be removed may comprise oxide layers, deposited contaminants and/or fogged plastic.
A magnetic resonance, MR, imaging system (100, 200, 300), comprising: a magnetics system (120, 220, 320) having a plurality of magnetics components configured to produce magnetic fields for performing magnetic resonance imaging; a sensor (250, 350) configured to detect electromagnetic interference introduced by a patient into an imaging region of the MR imaging system, wherein the electromagnetic interference is electromagnetic radiation in the environment that couples to the patient's body, the sensor comprises at least one electrical conductor configured for electrically coupling to the patient, and the at least one electrical conductor is configured for capacitively coupling to the patient; and circuitry configured to receive detected electromagnetic interference from the sensor and to suppress and/or compensate for the detected electromagnetic interference. a magnetics system (120, 220, 320) having a plurality of magnetics components configured to produce magnetic fields for performing magnetic resonance imaging; a sensor (250, 350) configured to detect electromagnetic interference introduced by a patient into an imaging region of the MR imaging system, wherein the electromagnetic interference is electromagnetic radiation in the environment that couples to the patient's body, the sensor comprises at least one electrical conductor configured for electrically coupling to the patient, and the at least one electrical conductor is configured for capacitively coupling to the patient; and circuitry configured to receive detected electromagnetic interference from the sensor and to suppress and/or compensate for the detected electromagnetic interference.
Method for electronically controlling a pneumatic brake system (100a, 100b) in a vehicle, in particular a commercial vehicle, characterized by the following steps: - determining whether a failure or a defect occurs in the electronic actuation (SA, SB) of wheel brakes (1, 2, 3, 4) of the pneumatic brake system (100a, 100b); - electronically actuating a pilot valve via a redundancy signal in the event of a failure or a defect being determined in the electronic actuation (SA, SB) so as to actuate the wheel brakes (1, 2, 3, 4) in a redundant electropneumatic manner; wherein the redundancy signal is specified in such a manner that the pilot valve alternately transfers for a pulse time into a second switch position and for a pause time into a first switch position, wherein the pilot valve outputs a low pressure level (pLow) in the first switch position and a high pressure level (pHigh) in the second switch position as the pilot pressure, wherein the wheel brakes (1, 2, 3, 4) are actuated using a service brake braking pressure (p1, p2, p3, p4) that is dependent upon the pilot pressure, wherein the pulse time and the pause time are set in such a manner that a pilot pressure occurs that initiates a service brake braking pressure (p1, p2, p3, p4) at the wheel brakes (1, 2, 3, 4), said service brake braking pressure recurrently dropping at least for a limit time (tGrenz) below a limit pressure (pGrenz) so as to initiate an intermittent braking procedure, wherein the limit pressure (pGrenz) and the limit time (tGrenz) are selected for this purpose in such a manner that it is only ensured that a wheel (5, 6, 7, 8) that tends to lock rotates again by means of specifying the pilot pressure. - determining whether a failure or a defect occurs in the electronic actuation (SA, SB) of wheel brakes (1, 2, 3, 4) of the pneumatic brake system (100a, 100b); - electronically actuating a pilot valve via a redundancy signal in the event of a failure or a defect being determined in the electronic actuation (SA, SB) so as to actuate the wheel brakes (1, 2, 3, 4) in a redundant electropneumatic manner;
A composition containing a combination of respectively effective amounts of (a) Chondroitin sulfate and/or a physiologically acceptable chondroitin sulfate salt in a concentration of (4.5 ± 0.5) mg/ml (component (a)); and (b) Hyaluronic acid and/or a physiologically acceptable hyaluronic acid salt (hyaluronate) in a concentration of (16 ± 1.6) mg/ml (component (b)); wherein the composition has a pH value in the range of 6.1 to 7.9 and/or wherein the composition is adjusted to a pH value in the range of 6.1 to 7.9, characterised in that the composition contains (c) a dihydrogen phosphate/monohydrogen phosphate buffer system (component (c)). (a) Chondroitin sulfate and/or a physiologically acceptable chondroitin sulfate salt in a concentration of (4.5 ± 0.5) mg/ml (component (a)); and (b) Hyaluronic acid and/or a physiologically acceptable hyaluronic acid salt (hyaluronate) in a concentration of (16 ± 1.6) mg/ml (component (b)); (c) a dihydrogen phosphate/monohydrogen phosphate buffer system (component (c)).
A power supply circuit comprising: a power input port configured to receive an input power from an external power source apparatus; a battery module; a first power circuit coupled to the power input port and the battery module, wherein the first power circuit is configured to convert the input power and accordingly configured to generate a first power and to output the first power to a second power circuit and to the battery module to charge the battery module; the second power circuit coupled to the first power circuit and the battery module, and is configured to generate an output voltage signal according to the first power, wherein when the input power is not provided by the external power source apparatus, the first power circuit stops providing the first power to the battery module and the second power circuit, and the battery module provides a stored power to serve as the first power to the second power circuit, and a reset circuit, coupled to the power input port and the second power circuit, and configured to generate a reset pulse signal in response to a start of supply of the input power when the external power source apparatus is plugged to the power input port, wherein the second power circuit is configured to disable the output voltage signal for a predetermined time period in response to the reset pulse signal received from the reset circuit. a power input port configured to receive an input power from an external power source apparatus; a battery module; a first power circuit coupled to the power input port and the battery module, wherein the first power circuit is configured to convert the input power and accordingly configured to generate a first power and to output the first power to a second power circuit and to the battery module to charge the battery module; the second power circuit coupled to the first power circuit and the battery module, and is configured to generate an output voltage signal according to the first power, wherein when the input power is not provided by the external power source apparatus, the first power circuit stops providing the first power to the battery module and the second power circuit, and the battery module provides a stored power to serve as the first power to the second power circuit, and a reset circuit, coupled to the power input port and the second power circuit, and configured to generate a reset pulse signal in response to a start of supply of the input power when the external power source apparatus is plugged to the power input port, wherein the second power circuit is configured to disable the output voltage signal for a predetermined time period in response to the reset pulse signal received from the reset circuit.
A pedicle insulator implant, implantable in a vertebral body of a spine, comprising: a non-continuous cylindrical wall defining an interior cavity and having a first end and a second end, said cylindrical wall comprising a smooth, non-threaded surface or a rough surface, a first segment of the cylindrical wall; a second segment of the cylindrical wall opposing the first segment of the cylindrical wall, wherein: i) the first segment of the cylindrical wall is of a greater thickness than the second segment of the cylindrical wall; and ii) the segments of the cylindrical wall overlap each other, one segment extending into the interior cavity, wherein the pedicle insulator implant is configured to shield a fixture, reduce nerve root irritation, and diminish loosening of the fixture, when the fixture is implanted into a vertebral body. a non-continuous cylindrical wall defining an interior cavity and having a first end and a second end, said cylindrical wall comprising a smooth, non-threaded surface or a rough surface, a first segment of the cylindrical wall; a second segment of the cylindrical wall opposing the first segment of the cylindrical wall, wherein: i) the first segment of the cylindrical wall is of a greater thickness than the second segment of the cylindrical wall; and ii) the segments of the cylindrical wall overlap each other, one segment extending into the interior cavity, i) the first segment of the cylindrical wall is of a greater thickness than the second segment of the cylindrical wall; and ii) the segments of the cylindrical wall overlap each other, one segment extending into the interior cavity, wherein the pedicle insulator implant is configured to shield a fixture, reduce nerve root irritation, and diminish loosening of the fixture, when the fixture is implanted into a vertebral body.
Layer structure for epidermal radionuclide therapy of a patient, comprising: - an adhesive layer, which is proximal from the patient's perspective, for applying the layer structure to the surface of the patient's skin which is to be treated, an adhesive layer consisting of a skin cream and/or a skin gel being excluded, - a flexible, transparent carrier layer film arranged above the adhesive layer in the distal direction from the patient's perspective; and - at least one radionuclide-containing emission layer arranged on the carrier layer; the adhesive layer and the carrier layer being designed in terms of their components and thickness such that they can be substantially penetrated by α, β and γ radiation, the adhesive layer being formed on the surface of the skin prior to the layer structure being assembled, and the adhesive layer being made of a plastics film which can be sprayed onto the surface of the skin, characterised in that the plastics film is made of a spray-on bandage based on polyurethanes, polyacrylates, in particular of poly(butyl methacrylate,methyl methacrylate) or 2-octyl cyanoacrylate; the carrier layer film is selected from the group that consists of: polyurethane film, polyamide film, polyolefin film, in particular polyethylene film and polypropylene film; and in that the emission layer is a water-based polyacrylate matrix having 188 rhenium sulfide, in particular 188 Re 2 S 7, homogenously dispersed therein. - an adhesive layer, which is proximal from the patient's perspective, for applying the layer structure to the surface of the patient's skin which is to be treated, an adhesive layer consisting of a skin cream and/or a skin gel being excluded, - a flexible, transparent carrier layer film arranged above the adhesive layer in the distal direction from the patient's perspective; and - at least one radionuclide-containing emission layer arranged on the carrier layer; polyurethane film, polyamide film, polyolefin film, in particular polyethylene film and polypropylene film; and in that the emission layer is a water-based polyacrylate matrix having 188 rhenium sulfide, in particular 188 Re 2 S 7, homogenously dispersed therein.
An ophthalmic imaging system, comprising an ocular lens and an optical coherence tomography imaging module, wherein the OCT imaging module comprises a retina imaging mode and an anterior segment imaging mode; in the retina imaging mode, the OCT imaging module includes a first intermediate image plane located between the ocular lens and the OCT imaging module; and from the retina imaging mode, an anterior segment imaging via the anterior segment imaging mode is achieved by inserting a switching lens group into the optical path inside the OCT imaging module, characterised in that, after the insertion, the OCT imaging module includes a second new intermediate image plane with a different position from that of the retina imaging mode and located in the OCT imaging module and a conjugate of the entrance pupil of the OCT imaging module being located between the ocular lens and the OCT imaging module. in the retina imaging mode, the OCT imaging module includes a first intermediate image plane located between the ocular lens and the OCT imaging module; and from the retina imaging mode, an anterior segment imaging via the anterior segment imaging mode is achieved by inserting a switching lens group into the optical path inside the OCT imaging module, characterised in that, after the insertion, the OCT imaging module includes a second new intermediate image plane with a different position from that of the retina imaging mode and located in the OCT imaging module and a conjugate of the entrance pupil of the OCT imaging module being located between the ocular lens and the OCT imaging module.
A fuel head assembly for directing pulverized solid fuel entrained in an airstream into a furnace, the fuel head assembly comprising: a casing being a generally surrounding a curved central path, the casing having a top, bottom, a left side, a right side, a front side and back side, the casing having an inlet port on its front side, an outlet port on its bottom side, and an elbow opening between the inlet port and the outlet port on its back side; a back cover removably attached to the casing closing the elbow opening and creating tubular conduit fluidically coupling the inlet port to the outlet port; a casing liner (141, 143, 145) that can be removed through the elbow opening and that is made of wear-resistant material and disposed within the tubular conduit, the casing liner (141,143,145) having at least one curved vane (131, 133) curved in an arcuate direction extending at least partially between the inlet port and the outlet port for directing the pulverized solid fuel and airstream from the inlet port to the outlet port and away from internal surfaces of the casing, characterized in that the outlet port is having an outlet port flange formed in one piece and configured such that the outlet port flange does not need to be disconnected from the nozzle assembly (50, 150) during replacement of the liner (141, 143, 145) and in that the back cover and the liner (141, 143, 145) are configured such that the back cover and the liner (141, 143, 145) can be removed in a substantially horizontal direction. a casing being a generally surrounding a curved central path, the casing having a top, bottom, a left side, a right side, a front side and back side, the casing having an inlet port on its front side, an outlet port on its bottom side, and an elbow opening between the inlet port and the outlet port on its back side; a back cover removably attached to the casing closing the elbow opening and creating tubular conduit fluidically coupling the inlet port to the outlet port; a casing liner (141, 143, 145) that can be removed through the elbow opening and that is made of wear-resistant material and disposed within the tubular conduit, the casing liner (141,143,145) having at least one curved vane (131, 133) curved in an arcuate direction extending at least partially between the inlet port and the outlet port for directing the pulverized solid fuel and airstream from the inlet port to the outlet port and away from internal surfaces of the casing, characterized in that the outlet port is having an outlet port flange formed in one piece and configured such that the outlet port flange does not need to be disconnected from the nozzle assembly (50, 150) during replacement of the liner (141, 143, 145) and in that the back cover and the liner (141, 143, 145) are configured such that the back cover and the liner (141, 143, 145) can be removed in a substantially horizontal direction.
An E. coli strain, wherein: i) the strain lacks the activity of a thioredoxin reductase due to genetic modification of trxB; ii) the strain lacks the activity of a thioredoxin 1 due to genetic modification of trxA; iii) the strain lacks the activity of a glutathione reductase due to genetic modification of gor; iv) the strain expresses a mutated AhpC protein, wherein the mutated AhpC protein has glutathione reductase activity but lacks peroxyreductase activity; and, v) the strain expresses a cytosolic prokaryotic disulfide isomerase. i) the strain lacks the activity of a thioredoxin reductase due to genetic modification of trxB; ii) the strain lacks the activity of a thioredoxin 1 due to genetic modification of trxA; iii) the strain lacks the activity of a glutathione reductase due to genetic modification of gor; iv) the strain expresses a mutated AhpC protein, wherein the mutated AhpC protein has glutathione reductase activity but lacks peroxyreductase activity; and, v) the strain expresses a cytosolic prokaryotic disulfide isomerase.