mhurhangee/ep-ind-claims huggingface dataset:
A fabric assembly suitable for resisting a ballistic object comprising: (a) at least one first section comprising a first stack of a plurality of connected and compacted fabric layers made from yarn having a tenacity of at least 7.3 grams per dtex and a modulus of at least 100 grams per dtex, wherein the connected and compacted fabric layers are secured together by connectors having a force to break in tension not greater than 65 N so as to provide a compacted bundle of fabric layers, wherein said connectors define areas within and on surfaces of the plurality of fabric layers in a range from 15 to 350 square mm., and wherein the thickness of the compacted bundle of fabric layers of the first section is reduced by at least 2% with respect to the thickness of said first stack of fabric layers before compaction, and (b) at least one second section comprising a second stack of a plurality of fabric layers made from yarn having a tenacity of at least 7.3 grams per dtex and a modulus of at least 100 grams per dtex wherein the fabric layers are not connected to define areas in a range from 15 to 350 square mm., and wherein the fabric layers of the second section are substantially non-compacted and the reduction of thickness of said second stack due to normal handling and manufacture is not greater than 0.5% with respect to the thickness of the second stack before handling and manufacture. (a) at least one first section comprising a first stack of a plurality of connected and compacted fabric layers made from yarn having a tenacity of at least 7.3 grams per dtex and a modulus of at least 100 grams per dtex, wherein the connected and compacted fabric layers are secured together by connectors having a force to break in tension not greater than 65 N so as to provide a compacted bundle of fabric layers, wherein said connectors define areas within and on surfaces of the plurality of fabric layers in a range from 15 to 350 square mm., and wherein the thickness of the compacted bundle of fabric layers of the first section is reduced by at least 2% with respect to the thickness of said first stack of fabric layers before compaction, and (b) at least one second section comprising a second stack of a plurality of fabric layers made from yarn having a tenacity of at least 7.3 grams per dtex and a modulus of at least 100 grams per dtex wherein the fabric layers are not connected to define areas in a range from 15 to 350 square mm., and wherein the fabric layers of the second section are substantially non-compacted and the reduction of thickness of said second stack due to normal handling and manufacture is not greater than 0.5% with respect to the thickness of the second stack before handling and manufacture.
Pull-out guide for a microwave cooking appliance or an industrial oven, having a body rail and a running rail, which can be moved relative thereto, for depositing a carrier, wherein means are provided for electrically contacting the running rail with the body rail that comprise at least one contact roller, which is rotatably mounted on the body rail and/or the running rail, and which contacts the respective other of the rails, and which is arranged in such a way that it moves into the respective other rail when the pull-out guide is retracted, characterized in that at least one ramp (16, 17) is arranged in the area of the other rail into which the at least one contact roller enters, and that the contact roller is mounted resiliently, thereby additionally serving to implement a guard locking and/or self-closing mechanism.
A method of culturing cells, comprising: a) providing a microfluidic device comprising a porous membrane, said membrane comprising a top surface and a bottom surface; b) seeding brain microvascular endothelial cells on said bottom surface so as to create seeded-cells on said bottom surface of said membrane; c) seeding stem cell-derived neuronal cells or neuronal cells differentiated from stem cells on said top surface to create seeded cells on said top surface of said membrane; and d) culturing said top surface seeded cells under flow conditions that support the maturation of neurons and culturing said bottom surface seeded cells under conditions that support maturation of said brain microvascular endothelial cells wherein said neurons exhibit a more mature electrophysiology, in terms of one or more features selected from the group consisting of action potential patterns, negative sodium channel current, positive potassium channel current and action potential spikes of amplitude, duration and frequency, or increased frequency after exposure to said flow as compared to the same neurons cultured in a static culture. a) providing a microfluidic device comprising a porous membrane, said membrane comprising a top surface and a bottom surface; b) seeding brain microvascular endothelial cells on said bottom surface so as to create seeded-cells on said bottom surface of said membrane; c) seeding stem cell-derived neuronal cells or neuronal cells differentiated from stem cells on said top surface to create seeded cells on said top surface of said membrane; and d) culturing said top surface seeded cells under flow conditions that support the maturation of neurons and culturing said bottom surface seeded cells under conditions that support maturation of said brain microvascular endothelial cells wherein said neurons exhibit a more mature electrophysiology, in terms of one or more features selected from the group consisting of action potential patterns, negative sodium channel current, positive potassium channel current and action potential spikes of amplitude, duration and frequency, or increased frequency after exposure to said flow as compared to the same neurons cultured in a static culture.
A pharmaceutically acceptable composition of a parasiticidally effective, subtoxic amount of imidacloprid from 0.01 mg/kg body weight to 30 mg/kg body weight for use in a method to eliminate blood-sucking or consuming parasites on mammals, wherein imidacloprid is the only parasiticidal agent present in the pharmaceutical composition and wherein the parasites are ectoparasites and wherein the method comprises orally delivering said composition to said mammals.
An automobile antenna assembly comprising: a housing adapted for installation on a roof of an automobile; a radio antenna disposed within the housing; and a photo radiation intensity sensor disposed within the housing, wherein the housing includes a base portion and a fin portion extending from the base portion, and wherein the photo radiation intensity sensor includes a first light detecting element located on a first side of the fin portion and a second light detecting element located on a second side of the fin portion opposite the first side, the fin portion providing a light barrier between the first light detecting element and the second light detecting element. a housing adapted for installation on a roof of an automobile; a radio antenna disposed within the housing; and a photo radiation intensity sensor disposed within the housing, wherein the housing includes a base portion and a fin portion extending from the base portion, and wherein the photo radiation intensity sensor includes a first light detecting element located on a first side of the fin portion and a second light detecting element located on a second side of the fin portion opposite the first side, the fin portion providing a light barrier between the first light detecting element and the second light detecting element.
A detection analyzer, comprising a first sample input/output element, a second sample input/output element, a sample compartment, a vibration platform, a vibration generator, a data acquisition system, and a data display; wherein the first sample input/ output element and the second sample input/output element are respectively in communication with the sample compartment; the vibration platform is located in the sample compartment; the vibration generator is located outside the sample compartment and the vibration platform is connected to the vibration generator; the data acquisition system is located outside the sample compartment and is connected to the vibration platform; and the data display is connected to the data acquisition system; the vibration platform is comprised of a pressure sensitive material, wherein the pressure sensitive material is piezoelectric crystal, such as a quartz material; the vibration generator has a function of driving the vibration platform to vibrate at a fixed frequency by applying a voltage; the detection analyzer being characterized in that a laser converter is located below the sample compartment, and the lower surface of the sample compartment is transparent; wherein the laser converter is suitable for generating different wavelengths of excitation light required by different materials to generate photoinduced biochemical reactions, thereby causing corresponding changes in an organism to be tested; and in that the vibration platform is suitable for one-side two-way vibration, such that it can vibrate up and down or left and right, to reduce vibration difference of each point on the vibration platform and ensure measurement accuracy. the vibration platform is comprised of a pressure sensitive material, wherein the pressure sensitive material is piezoelectric crystal, such as a quartz material; the vibration generator has a function of driving the vibration platform to vibrate at a fixed frequency by applying a voltage; the detection analyzer being characterized in that a laser converter is located below the sample compartment, and the lower surface of the sample compartment is transparent; wherein the laser converter is suitable for generating different wavelengths of excitation light required by different materials to generate photoinduced biochemical reactions, thereby causing corresponding changes in an organism to be tested; and in that the vibration platform is suitable for one-side two-way vibration, such that it can vibrate up and down or left and right, to reduce vibration difference of each point on the vibration platform and ensure measurement accuracy.
A method for setting the axis of rotation between a virtual maxillary model and a virtual mandible model to a virtual hinge axis representing the axis of rotation of the mandibular condyles, the method comprises the steps of: - obtaining at least one 2D photograph of the face of a patient comprising at least one facial feature, - obtaining a virtual dental model comprising the virtual maxillary model and the virtual mandible model representing at least a part of the dental situation of the patient, - aligning the virtual dental model with the at least one facial feature, wherein the method further comprises the steps of, - determining the virtual hinge axis based on the at least one 2D photograph of the face of the patient, - setting the axis of rotation to the virtual hinge axis, and arranging the virtual dental model in a virtual articulator simulating a corresponding physical articulator comprising the steps of: - defining an alignment reference plane F-F in the 2D photograph, - arranging the virtual dental model in the virtual articulator by aligning the articulator alignment reference plane F-F with a corresponding alignment reference plane F'-F' in the virtual articulator. - obtaining at least one 2D photograph of the face of a patient comprising at least one facial feature, - obtaining a virtual dental model comprising the virtual maxillary model and the virtual mandible model representing at least a part of the dental situation of the patient, - aligning the virtual dental model with the at least one facial feature, wherein the method further comprises the steps of, - determining the virtual hinge axis based on the at least one 2D photograph of the face of the patient, - setting the axis of rotation to the virtual hinge axis, and arranging the virtual dental model in a virtual articulator simulating a corresponding physical articulator comprising the steps of: - defining an alignment reference plane F-F in the 2D photograph, - arranging the virtual dental model in the virtual articulator by aligning the articulator alignment reference plane F-F with a corresponding alignment reference plane F'-F' in the virtual articulator.
Turbine vane for a turbine engine, such as a turbojet engine, comprising: - a blade including a leading edge and a trailing edge and intended to be submerged in an air flow circulating from upstream to downstream from the leading edge to the trailing edge; - at least one platform (39; 41) ending an end of the blade, this platform comprising an air glide face (39a; 41a) at the interface thereof with the blade; - at least one air circulation circuit (44; 46) including: - an air intake opening (48; 51) formed onto the glide face (39a; 41a) of the platform (39; 41), in a zone upstream from the leading edge or in a zone corresponding to the upstream half of the blade; characterized in that the air circulation conduit (44; 46) includes: - an air discharge opening (49; 52) formed onto the trailing edge of the blade; - an inner conduit (47; 53) connecting the air intake opening (48, 51) to the air discharge opening (49, 52). - a blade including a leading edge and a trailing edge and intended to be submerged in an air flow circulating from upstream to downstream from the leading edge to the trailing edge; - at least one platform (39; 41) ending an end of the blade, this platform comprising an air glide face (39a; 41a) at the interface thereof with the blade; - at least one air circulation circuit (44; 46) including: - an air intake opening (48; 51) formed onto the glide face (39a; 41a) of the platform (39; 41), in a zone upstream from the leading edge or in a zone corresponding to the upstream half of the blade; characterized in that the air circulation conduit (44; 46) includes: - an air discharge opening (49; 52) formed onto the trailing edge of the blade; - an inner conduit (47; 53) connecting the air intake opening (48, 51) to the air discharge opening (49, 52). - an air intake opening (48; 51) formed onto the glide face (39a; 41a) of the platform (39; 41), in a zone upstream from the leading edge or in a zone corresponding to the upstream half of the blade; characterized in that the air circulation conduit (44; 46) includes: - an air discharge opening (49; 52) formed onto the trailing edge of the blade; - an inner conduit (47; 53) connecting the air intake opening (48, 51) to the air discharge opening (49, 52). - an air discharge opening (49; 52) formed onto the trailing edge of the blade; - an inner conduit (47; 53) connecting the air intake opening (48, 51) to the air discharge opening (49, 52).
A resistance soldering device configured for use with an electrical terminal having a first surface and a second surface opposite the first surface on which a layer of a solder composition is disposed, said resistance soldering device comprising: an electrode having a first electrical conductor configured to be connected to a positive pole of an electrical power supply, a second electrical conductor configured to be connected to a negative pole of the electrical power supply and, being characterised by: an electrically resistive bridge interconnecting the first and second electrical conductors (114, 116), and further characterised in that the bridge has a fixed end connected to the first electrical conductor and a free end configured to directly contact the first surface of the electrical terminal, wherein the second electrical conductor contacts the bridge at a location closer to the free end than the fixed end, in that the bridge deflects the second electrical conductor, thereby providing a contact spring force between the bridge and the second electrical conductor, and in that the second electrical conductor defines a V-shaped notch at a contact point between the second electrical conductor and the bridge. an electrode having a first electrical conductor configured to be connected to a positive pole of an electrical power supply, a second electrical conductor configured to be connected to a negative pole of the electrical power supply and, being characterised by: an electrically resistive bridge interconnecting the first and second electrical conductors (114, 116), and further characterised in that the bridge has a fixed end connected to the first electrical conductor and a free end configured to directly contact the first surface of the electrical terminal, wherein the second electrical conductor contacts the bridge at a location closer to the free end than the fixed end, in that the bridge deflects the second electrical conductor, thereby providing a contact spring force between the bridge and the second electrical conductor, and in that the second electrical conductor defines a V-shaped notch at a contact point between the second electrical conductor and the bridge. an electrically resistive bridge interconnecting the first and second electrical conductors (114, 116), and further characterised in that the bridge has a fixed end connected to the first electrical conductor and a free end configured to directly contact the first surface of the electrical terminal, wherein the second electrical conductor contacts the bridge at a location closer to the free end than the fixed end, in that the bridge deflects the second electrical conductor, thereby providing a contact spring force between the bridge and the second electrical conductor, and in that the second electrical conductor defines a V-shaped notch at a contact point between the second electrical conductor and the bridge.
A ventilation apparatus, comprising: a casing formed with an interior air suction port (4, 6), an interior air discharge port, an exterior air suction port and an exterior air discharge port (12,14); a frame disposed in the inside of the casing; a heat transfer heat exchanger (32, 34) disposed in the frame and formed with an interior air passage (38, 39) and an exterior air passage (36, 37); an exhaust fan configured to move interior air into the interior air passage; and an air supply fan (44, 46) configured to move exterior air into the exterior air passage, and characterised in that the exterior air passage (36, 37) is formed vertically and the interior air passage (38, 39) is formed horizontally in the heat transfer heat exchanger (32, 34); wherein the frames include a lower frame (52, 54) formed with a first opening (60, 62) passing the exterior air blown from the air supply fan, wherein the first opening (60, 62) is opened vertically in a bottom of the heat transfer heat exchanger (32, 34); a vertical frame (80, 82) vertical to the lower frame and formed with a second opening (81, 83) passing the interior air moved from the interior air passage wherein the second opening (81, 83) is opened horizontally next to the heat transfer exchanger (32, 34); and an upper frame (84, 86) disposed at the top of the vertical frame and formed with a third opening (85, 87) passing the exterior air moved from the exterior air passage (36, 37). a casing formed with an interior air suction port (4, 6), an interior air discharge port, an exterior air suction port and an exterior air discharge port (12,14); a frame disposed in the inside of the casing; a heat transfer heat exchanger (32, 34) disposed in the frame and formed with an interior air passage (38, 39) and an exterior air passage (36, 37); an exhaust fan configured to move interior air into the interior air passage; and an air supply fan (44, 46) configured to move exterior air into the exterior air passage, and characterised in that the exterior air passage (36, 37) is formed vertically and the interior air passage (38, 39) is formed horizontally in the heat transfer heat exchanger (32, 34); wherein the frames include a lower frame (52, 54) formed with a first opening (60, 62) passing the exterior air blown from the air supply fan, wherein the first opening (60, 62) is opened vertically in a bottom of the heat transfer heat exchanger (32, 34); a vertical frame (80, 82) vertical to the lower frame and formed with a second opening (81, 83) passing the interior air moved from the interior air passage wherein the second opening (81, 83) is opened horizontally next to the heat transfer exchanger (32, 34); and an upper frame (84, 86) disposed at the top of the vertical frame and formed with a third opening (85, 87) passing the exterior air moved from the exterior air passage (36, 37).
A multilayer film comprising: (a) two or more non-plasticized layers comprising lactic acid polymer; and (b) one or more plasticized layers comprising lactic acid polymer and plasticizer sandwiched between the two or more lactic acid polymer layers; wherein the thickness of the one or more plasticized layers comprises from 65% to 70% of the total thickness of the multilayer film. (a) two or more non-plasticized layers comprising lactic acid polymer; and (b) one or more plasticized layers comprising lactic acid polymer and plasticizer sandwiched between the two or more lactic acid polymer layers;
A semiconductor die comprising at least a first light-emitting diode and a second light-emitting diode, wherein - the first light-emitting diode comprises a first diode formed in a first die area and a first phosphor layer deposited over the first die area; - the second light-emitting diode comprises a second diode and a second phosphor layer deposited over the second die area; - the first diode and the second diode are electrically connected in anti-parallel; and characterized in that - the optical properties of the second phosphor layer differ from the optical properties of the first phosphor layer. - the first light-emitting diode comprises a first diode formed in a first die area and a first phosphor layer deposited over the first die area; - the second light-emitting diode comprises a second diode and a second phosphor layer deposited over the second die area; - the first diode and the second diode are electrically connected in anti-parallel; and characterized in that - the optical properties of the second phosphor layer differ from the optical properties of the first phosphor layer.
An acoustic panel for attenuation of acoustic waves for an aircraft engine intake, comprising: a core having first and second sides (14, 16) and a plurality of cells extending between the first and second sides (14, 16); an air-impermeable backsheet on the first side of the core; and a linear acoustic facesheet on the second side of the core, including a layer of linear material that acts as an impedance layer to reduce the amplitude of acoustic waves entering the plurality of cells, to substantially the same degree, over a range of acoustic wave frequencies and pressure levels; wherein the linear acoustic facesheet includes an outer facesheet layer that is substantially transparent to the acoustic waves, wherein the outer facesheet layer includes perforations therein forming an open area in the outer facesheet layer of between approximately 40% to 50% and wherein the outer facesheet layer comprises a plurality of laminated plies of composite material, each of the plies comprising spaced apart unidirectional prepreg tape strips of a desired fiber orientation; wherein the layer of linear material is sandwiched between the plurality of laminated plies. a core having first and second sides (14, 16) and a plurality of cells extending between the first and second sides (14, 16); an air-impermeable backsheet on the first side of the core; and a linear acoustic facesheet on the second side of the core, including a layer of linear material that acts as an impedance layer to reduce the amplitude of acoustic waves entering the plurality of cells, to substantially the same degree, over a range of acoustic wave frequencies and pressure levels;