mhurhangee/ep-ind-claims huggingface dataset:
Vehicle component made of fibre-reinforced plastic comprising: - a matrix of thermosetting or thermoplastic material and - reinforcing fibres, which are arranged in the matrix, wherein at least one repair marker (11, 12) is provided on the surface of the vehicle component, characterized in that the repair marker is formed straight from the mould. - a matrix of thermosetting or thermoplastic material and - reinforcing fibres, which are arranged in the matrix, at least one repair marker (11, 12) is provided on the surface of the vehicle component, characterized in that the repair marker is formed straight from the mould.
An absorbent core for disposable absorbent articles comprising one or more absorbent structures, said absorbent structure comprising a substrate layer and an absorbent layer, said absorbent layer comprising an absorbent material supported by, and immobilized on said substrate layer by a thermoplastic adhesive material which forms a fibrous network over the absorbent material, wherein said absorbent core is profiled either in a longitudinal dimension or in a transverse dimension as determined by: virtually dividing said absorbent core into nine transverse segments in its longitudinal dimension and six longitudinal segments in its transverse dimension, wherein in each of said transverse segments, the absorbent layer has an average basis weight of absorbent material (APM t BW av) and an average basis weight of thermoplastic adhesive material (TAM t BW av) immobilizing said absorbent material; wherein in each of said longitudinal segments, the absorbent layer has an average basis weight of absorbent material (APM l BW av) and an average basis weight of thermoplastic adhesive material (TAM l BW av) immobilizing said absorbent material; wherein the APM t BW av and TAM t BW av of the absorbent layer in at least one of said transverse segments are lower relative to the APM, BW av and TAM t BW av of the absorbent layer in at least one other of said transverse segments, or wherein the APM l BW av and TAM l BW av of the absorbent layer in at least one of said longitudinal segments are lower relative to the APM l BW av and TAM l BW av of the absorbent layer in at least one other of said longitudinal segments. virtually dividing said absorbent core into nine transverse segments in its longitudinal dimension and six longitudinal segments in its transverse dimension, wherein in each of said transverse segments, the absorbent layer has an average basis weight of absorbent material (APM t BW av) and an average basis weight of thermoplastic adhesive material (TAM t BW av) immobilizing said absorbent material; wherein in each of said longitudinal segments, the absorbent layer has an average basis weight of absorbent material (APM l BW av) and an average basis weight of thermoplastic adhesive material (TAM l BW av) immobilizing said absorbent material; wherein the APM t BW av and TAM t BW av of the absorbent layer in at least one of said transverse segments are lower relative to the APM, BW av and TAM t BW av of the absorbent layer in at least one other of said transverse segments, or wherein the APM l BW av and TAM l BW av of the absorbent layer in at least one of said longitudinal segments are lower relative to the APM l BW av and TAM l BW av of the absorbent layer in at least one other of said longitudinal segments.
Cultivation system comprising an outer wall delimiting a capture zone for capturing outside air, a condensation zone for cooling the captured air and condensing its moisture, a collection zone for collecting condensation water, and a cultivation zone, characterized in that the cultivation zone is in direct contact with the condensation zone and separated from the capture zone delimited by a wall internal to the cultivation system and the outer wall and from the collection zone delimited by a wall internal to the cultivation system and the outer wall, the cultivation zone being arranged between the inner wall and the inner wall.
A method for preparing a rotor assembly of an axial flow turbine engine, comprising the steps of: providing a bladed ring, wherein the step of providing the bladed ring includes the step of diffusion bonding a plurality of turbine blades to a ring so that the turbine blades extend outwardly from the ring; providing a central disk hub having a grain size smaller than a grain size of the ring; and solid-state inertia welding the central disk hub and the ring of the bladed ring at a solid state weld joint; wherein the plurality of turbine blades are diffusion bonded to the ring at a temperature of at least 1149°C (2100°F) and before the solid-state inertia welding of the central disk hub and the ring; wherein the ring is made of a first nickel-base superalloy, and the turbine blades are made of a second nickel-base superalloy. providing a bladed ring, wherein the step of providing the bladed ring includes the step of diffusion bonding a plurality of turbine blades to a ring so that the turbine blades extend outwardly from the ring; providing a central disk hub having a grain size smaller than a grain size of the ring; and solid-state inertia welding the central disk hub and the ring of the bladed ring at a solid state weld joint; wherein the plurality of turbine blades are diffusion bonded to the ring at a temperature of at least 1149°C (2100°F) and before the solid-state inertia welding of the central disk hub and the ring; wherein the ring is made of a first nickel-base superalloy, and the turbine blades are made of a second nickel-base superalloy.
Apparatus for producing wound wire springs whose wire shows a polygonal section, particularly rectangular, comprising: - a first working station provided with a, preferably cylindrical, support member of the wire adapted to be partially wound by a length of wire, and cutting means provided at said working station and adapted to cut said length of wire against said support member acting as an anvil, - a second working station provided with a wire supporting and winding rod and wire engagement and clamping means for securing a portion of said wire at an end portion of said rod, - a wire carriage adapted to transfer a length of wire from said first working station to said second working station with a displacement in a direction that is rectilinear and parallel to the axis of said rod, and provided with a non circular quill ("U") which quill is a projection on a plane orthogonal to the exit direction of said wire from driving means (26, 27, 28, 29) determining the opening of said quill ("U") towards the outside of said wire, characterized in that the apparatus is adapted to impart a rotation to said wire carriage and therefore the relevant quill ("U") around a rotation wm axis which rotation axis is parallel to the orthogonal direction of said quill ("U"), said apparatus further characterized in that it comprises rotating means commanded and controlled by control means so that said rotation is automatically carried out any time and in any position along the path of said rod, both along one direction and along the opposite direction without interruptions. - a first working station provided with a, preferably cylindrical, support member of the wire adapted to be partially wound by a length of wire, and cutting means provided at said working station and adapted to cut said length of wire against said support member acting as an anvil, - a second working station provided with a wire supporting and winding rod and wire engagement and clamping means for securing a portion of said wire at an end portion of said rod, - a wire carriage adapted to transfer a length of wire from said first working station to said second working station with a displacement in a direction that is rectilinear and parallel to the axis of said rod, and provided with a non circular quill ("U") which quill is a projection on a plane orthogonal to the exit direction of said wire from driving means (26, 27, 28, 29) determining the opening of said quill ("U") towards the outside of said wire, characterized in that the apparatus is adapted to impart a rotation to said wire carriage and therefore the relevant quill ("U") around a rotation wm axis which rotation axis is parallel to the orthogonal direction of said quill ("U"), said apparatus further characterized in that it comprises rotating means commanded and controlled by control means so that said rotation is automatically carried out any time and in any position along the path of said rod, both along one direction and along the opposite direction without interruptions.
Monitoring device for cardiac operations with cardiopulmonary bypass on a patient including: - a processor operatively connectable to a heart-lung machine, - CO2 detecting means placed at an oxygenator level of the above heart-lung machine to continuously detect an exhaled CO2 value and send it to the above said processor, - data input means allowing operator to manually input data regarding a gas flow (Ve) of the heart-lung machine, - computing means able to calculate a CO2 production (VCO2i) according to the pre-set gas flow (Ve) and the detected exhaled CO2, - a display connected to said processor to display in real-time the above CO2 production (VCO2i) as calculated, and a comparison means adapted to compare said calculated CO2 production (VCO2i) value with a CO2 production threshold value (VCO2i crit), said VCO2i crit value being pre-set by default at 60 ml/min/m 2, and wherein the CO2 production (VCO2i) is calculated according to the following formula: VCO2 = Ve x eCO2 x 1.15. - a processor operatively connectable to a heart-lung machine, - CO2 detecting means placed at an oxygenator level of the above heart-lung machine to continuously detect an exhaled CO2 value and send it to the above said processor, - data input means allowing operator to manually input data regarding a gas flow (Ve) of the heart-lung machine, - computing means able to calculate a CO2 production (VCO2i) according to the pre-set gas flow (Ve) and the detected exhaled CO2, - a display connected to said processor to display in real-time the above CO2 production (VCO2i) as calculated, and
An apparatus for producing trichlorosilane which decomposes polymer containing high boiling point chlorosilanes generated in a polycrystalline silicon producing process, in a trichlorosilane producing or in a converting process, thereby producing trichlorosilane, the apparatus comprising: a decomposing furnace suitable for reacting hydrogen chloride with the polymer at high temperatures for producing trichlorosilane; a heating unit heating the inside of the decomposing furnace; a raw material supplying tube for guiding the polymer and the hydrogen chloride to the inner bottom portion of the decomposing furnace along the longitudinal direction of the decomposing furnace and supplying to the decomposing furnace through a lower end opening of the raw material supplying tube; a reaction chamber provided between the outer peripheral surface of the raw material supplying tube and the inner peripheral surface of the decomposing furnace; a gas discharge tube for discharging reaction gas from the top of the reaction chamber; and fins which guide the polymer and the hydrogen chloride supplied from the lower end opening of the raw material supplying tube to be agitated and rise upward, wherein the fins, which are formed integrally with the outer peripheral surface of the raw material supplying tube, are close to the inner peripheral surface of the decomposing furnace, and the fins are arranged at intervals in the longitudinal direction of the decomposing furnace to spirally partition the reaction chamber. a decomposing furnace suitable for reacting hydrogen chloride with the polymer at high temperatures for producing trichlorosilane; a heating unit heating the inside of the decomposing furnace; a raw material supplying tube for guiding the polymer and the hydrogen chloride to the inner bottom portion of the decomposing furnace along the longitudinal direction of the decomposing furnace and supplying to the decomposing furnace through a lower end opening of the raw material supplying tube; a reaction chamber provided between the outer peripheral surface of the raw material supplying tube and the inner peripheral surface of the decomposing furnace; a gas discharge tube for discharging reaction gas from the top of the reaction chamber; and fins which guide the polymer and the hydrogen chloride supplied from the lower end opening of the raw material supplying tube to be agitated and rise upward,
A method of manufacturing an electronic device, comprising: laminating an encapsulating film on a diode, wherein the encapsulating film comprises a first layer including a pressure-sensitive adhesive component and a second layer including an adhesive component, wherein the second layer is disposed on one surface of the first layer, wherein the diode comprises a pair of electrodes and a layer of an organic material formed between the pair of electrodes, wherein the laminating is performed such that the second layer is in contact with the diode and covers an entire surface of the diode, wherein the laminating includes contacting the second layer with the diode and heating the resulting layer, wherein a tensile modulus of the first layer is lower than a tensile modulus of the second layer, wherein the tensile modulus of the first layer is from 0.001 to 100 MPa, and wherein the encapsulating film comprises moisture scavengers such that the first layer comprises a larger amount of the moisture scavengers than the second layer. wherein the encapsulating film comprises a first layer including a pressure-sensitive adhesive component and a second layer including an adhesive component, wherein the second layer is disposed on one surface of the first layer, wherein the diode comprises a pair of electrodes and a layer of an organic material formed between the pair of electrodes, wherein the laminating is performed such that the second layer is in contact with the diode and covers an entire surface of the diode, wherein the laminating includes contacting the second layer with the diode and heating the resulting layer, wherein a tensile modulus of the first layer is lower than a tensile modulus of the second layer, wherein the tensile modulus of the first layer is from 0.001 to 100 MPa, and wherein the encapsulating film comprises moisture scavengers such that the first layer comprises a larger amount of the moisture scavengers than the second layer.
A printable recording media comprising a substrate, and, at least, an ink receiving layer that includes a first distinct layer comprising an electrical charged substance, and, on top of said first distinct layer, a second distinct layer containing, at least, a polymeric binder and nano-size inorganic pigment particles; wherein the first distinct layer and the second distinct layer, of the ink receiving layer, have a difference in coating thickness in Z-direction that is, at least, 1:10; wherein the electrical charged substance is a charged ion or associated complex that can be de-coupled in an aqueous environment; wherein the first distinct layer does not include a physical barrier layer that will physically block pigment migration along the z-direction; and wherein the coat weight of the second distinct layer is in the range from about 0.5 gsm to about 15 gsm. wherein the first distinct layer and the second distinct layer, of the ink receiving layer, have a difference in coating thickness in Z-direction that is, at least, 1:10; wherein the electrical charged substance is a charged ion or associated complex that can be de-coupled in an aqueous environment; wherein the first distinct layer does not include a physical barrier layer that will physically block pigment migration along the z-direction; and wherein the coat weight of the second distinct layer is in the range from about 0.5 gsm to about 15 gsm.
A drum type washing machine comprising: a tub; a drum in the tub, configured to receive laundry; a motor coupled to the tub, configured to rotate the drum; a spider configured to transfer torque from the motor to the drum, the spider including a shaft mount connected to a shaft of the motor, a plurality of arms radially extending from the shaft mount, and a plurality of supporting bars extending from the arms; a fixing member configured to fix or attach the drum to the spider; characterized in that, a plurality of drum guides are disposed on an outer circumferential surface of the drum corresponding to the locations of the supporting bars; a plurality of slide guides on at least one of the drum guides and the supporting bars; and a plurality of slide rails on another one of the drum guides and the supporting bars, configured to be inserted into and/or slide along the slide guides, wherein the drum is movable in forward and backward direction of the tub along the side rails, such that the drum can be easily disassembled and reassembled from the washing machine. a tub; a drum in the tub, configured to receive laundry; a motor coupled to the tub, configured to rotate the drum; a spider configured to transfer torque from the motor to the drum, the spider including a shaft mount connected to a shaft of the motor, a plurality of arms radially extending from the shaft mount, and a plurality of supporting bars extending from the arms; a fixing member configured to fix or attach the drum to the spider; characterized in that, a plurality of drum guides are disposed on an outer circumferential surface of the drum corresponding to the locations of the supporting bars; a plurality of slide guides on at least one of the drum guides and the supporting bars; and a plurality of slide rails on another one of the drum guides and the supporting bars, configured to be inserted into and/or slide along the slide guides,
A retractable side protecting airbag for a child safety seat comprising a side protecting base provided on an outer side surface of a seat body, wherein the side protecting base is provided with a retractable side protecting airbag, the retractable side protecting airbag is provided with an air deflating hole, and the retractable side protecting airbag is further provided with a resetting structure for resetting the deflated retractable side protecting airbag, so as to make the retractable side protecting airbag maintain a stretched state, characterized in that an outer end of the retractable side protecting airbag is provided with a side protecting cover, and the side protecting cover and the side protecting base are locked to each other and work collaboratively for folding the retractable side protecting airbag. wherein the side protecting base is provided with a retractable side protecting airbag, the retractable side protecting airbag is provided with an air deflating hole, and the retractable side protecting airbag is further provided with a resetting structure for resetting the deflated retractable side protecting airbag, so as to make the retractable side protecting airbag maintain a stretched state, characterized in that an outer end of the retractable side protecting airbag is provided with a side protecting cover, and the side protecting cover and the side protecting base are locked to each other and work collaboratively for folding the retractable side protecting airbag.
Base, in particular for light poles, comprising a pole and a housing with a base surface which may be filled with a medium and comprises a receiving opening for a noncircular pole, characterized in that said housing and said pole consist of an electrically nonconducting material, said pole having a noncircular cross-section and said housing having a front and a rear region, wherein said front region is round and said rear region comprises a set-up area for an energy supply unit which is at least partially bordered by lateral upstands (13, 14).
A method for producing a bioengineered neuronal organoid (BENO) from pluripotent stem cells (PSCs), the method comprising: culturing PSCs, embedded in a matrix immersed in serum-free cell culture medium; culturing the PSCs in said matrix of step in serum-free cell culture medium comprising a Rho-associated kinase inhibitor (ROCKi) and FGF-2; culturing the forming BENO originating from PSCs and matrix of step in serum-free cell culture medium comprising retinoic acid and one or more inhibitors of SMAD signaling to induce neurogenesis; culturing the forming BENO of step in serum-free cell culture medium comprising TGF-beta and FGF-2 to enhance genesis of glial cells and neurogenesis; culturing the forming BENO of step in serum-free cell culture medium comprising TGF-beta and one or more inhibitors of notch signaling to enhance genesis of glial cells and neurodifferentiation, wherein the matrix comprises collagen and wherein the BENO is produced within a 3D environment, wherein the 3D environment is initially defined by the matrix. culturing PSCs, embedded in a matrix immersed in serum-free cell culture medium; culturing the PSCs in said matrix of step in serum-free cell culture medium comprising a Rho-associated kinase inhibitor (ROCKi) and FGF-2; culturing the forming BENO originating from PSCs and matrix of step in serum-free cell culture medium comprising retinoic acid and one or more inhibitors of SMAD signaling to induce neurogenesis; culturing the forming BENO of step in serum-free cell culture medium comprising TGF-beta and FGF-2 to enhance genesis of glial cells and neurogenesis; culturing the forming BENO of step in serum-free cell culture medium comprising TGF-beta and one or more inhibitors of notch signaling to enhance genesis of glial cells and neurodifferentiation, wherein the matrix comprises collagen and wherein the BENO is produced within a 3D environment, wherein the 3D environment is initially defined by the matrix.
A helmet, comprising: a two-way radio mounted thereon having a circumference, characterized by two extensions (112, 114) extending away from said two-way radio, each extension having a knob at its distal end, a first knob connected to a channel microchip, a second knol connected to an on and off microchip, said second knob also connected to a volume microchip, a battery used to power said first, second and third microchips (104, 106, 108); said first and second knobs (120, 122) are located entirely outside said circumference.