mhurhangee/ep-ind-claims huggingface dataset:
A method for providing a secure remote collaboration solution between a remote communication device connected to a remote network and a device (210, 210A) connected to a private and secure network, the remote network being different from the private and secure network, the method comprising: determining a location of the remote communication device by at least one of a global positioning system, GPS, low frequency, LF, atomic time radio, earth magnetic signature, internet protocol, IP, address, and cell phone tower triangulation; determining regulations regarding communication from the private and secure network to the remote device based on the determined location and a location of the private and secure network; identifying a bandwidth of a remote network to which the remote communication device is connected; estimating a battery power available at the remote device and the amount of time the available battery power will allow the remote device to communicate with the device of the private and secure network using multiple manners in which communications are transmitted or received; configuring the remote device to transmit and receive communications in a manner compliant with the determined regulations including one of voice over internet protocol, VOIP, communication, hypertext transfer protocol, HTTP, communication, text communication, voice communication, video communication, and augmented reality video communication determined based on the identified bandwidth and the estimated amount of time the available battery power will allow the remote device to communicate. determining a location of the remote communication device by at least one of a global positioning system, GPS, low frequency, LF, atomic time radio, earth magnetic signature, internet protocol, IP, address, and cell phone tower triangulation; determining regulations regarding communication from the private and secure network to the remote device based on the determined location and a location of the private and secure network; identifying a bandwidth of a remote network to which the remote communication device is connected; estimating a battery power available at the remote device and the amount of time the available battery power will allow the remote device to communicate with the device of the private and secure network using multiple manners in which communications are transmitted or received; configuring the remote device to transmit and receive communications in a manner compliant with the determined regulations including one of voice over internet protocol, VOIP, communication, hypertext transfer protocol, HTTP, communication, text communication, voice communication, video communication, and augmented reality video communication determined based on the identified bandwidth and the estimated amount of time the available battery power will allow the remote device to communicate.
A recession resistant gas turbine engine article, comprising a silicon containing substrate coated with a chemically stable porous oxide layer, wherein said porous oxide layer is from about 1 mil to about 50 mils thick and wherein said porous oxide layer protects the substrate from recession in hot gaseous environments, wherein the substrate comprises a SiC--SiC ceramic matrix composite; wherein the porous oxide layer comprises a two phase mixture of an oxide and a silicon-containing compound; wherein the oxide comprises one or more or Rare Earth Disilicates (RE 2 Si 2 O 7), Alkaline Earth Aluminosilicates, and Rare Earth Monosilicates (RE 2 SiO 5); wherein an intermediate layer is used between the substrate and the oxide layer, to improve the structural integrity of the substrate with the porous layer, said intermediate layer comprising an oxide and a silicon or a silicon-containing compound, a two phase mixture of silicon or silicon carbide and Rare Earth Disilicate, or a two phase mixture of silicon nitride and a Rare Earth monosilicate.
A prosthetic valve assembly for replacing a native heart valve, comprising: a radially expandable and compressible support structure, the support structure comprising an annular frame having a lumen extending from an inflow end of the frame to an outflow end of the frame; a blood-impermeable tubular sleeve disposed inside of the frame of the support structure, the sleeve having a lumen extending from an inflow end of the sleeve to an outflow end of the sleeve, wherein the inflow end of the sleeve is spaced radially inward of the inflow end of the frame of the support structure; first and second, axially spaced apart, blood-impermeable end walls (534, 536), the first end wall extending radially inwardly from the frame of the support structure and having an inner peripheral edge defining an orifice and secured to the inflow end of the sleeve, the second end wall extending radially inwardly from the frame of the support structure and having an inner peripheral edge defining an orifice and secured to the outflow end of the sleeve; and a plurality of leaflets supported inside of the sleeve and configured to permit blood to flow through the valve assembly in one direction and block the flow of blood in the opposite direction. a radially expandable and compressible support structure, the support structure comprising an annular frame having a lumen extending from an inflow end of the frame to an outflow end of the frame; a blood-impermeable tubular sleeve disposed inside of the frame of the support structure, the sleeve having a lumen extending from an inflow end of the sleeve to an outflow end of the sleeve, wherein the inflow end of the sleeve is spaced radially inward of the inflow end of the frame of the support structure; first and second, axially spaced apart, blood-impermeable end walls (534, 536), the first end wall extending radially inwardly from the frame of the support structure and having an inner peripheral edge defining an orifice and secured to the inflow end of the sleeve, the second end wall extending radially inwardly from the frame of the support structure and having an inner peripheral edge defining an orifice and secured to the outflow end of the sleeve; and a plurality of leaflets supported inside of the sleeve and configured to permit blood to flow through the valve assembly in one direction and block the flow of blood in the opposite direction.
A wind turbine comprising a tower, a nacelle that is arranged on the tower such that it can turn about the longitudinal axis of the tower, a rotor that is pivot-mounted to the nacelle, and rotor blades that are arranged on the rotor such that they can each turn about their longitudinal axes, wherein the connection of the nacelle to the tower is established via a yaw bearing and wherein the rotor blades are connected to a rotor hub via blade bearings, and comprising a device for orienting at least one component (104, 102) of the wind turbine, said component (104, 102) being arranged in a moving manner and intended to have an effect on the collection of energy from the wind, comprising at least one actuating drive for adjusting an orientation of the component, said actuating drive being operable via a control device, at least one brake assembly for holding an adjusted orientation of the component (104, 102), and at least one sensor that monitors the brake assembly and is configured such that it detects a malfunction of the brake assembly, wherein the device comprises a plurality of actuating drives that are coupled mechanically, wherein at least one of the actuating drives comprises at least one electric motor, wherein the brake assembly is coupled to the electric motor, wherein the sensor is coupled to the control device and reports a malfunction of the brake assembly to the control device and the sensor is configured and arranged such that a change in temperature in the vicinity of the brake assembly can be detected.
Bolt guiding device for a floating caliper disc brake, having at least one guide bolt that is supported in a brake carrier and mounted on a brake caliper, wherein the brake caliper is movably guided over the guide bolt in the axial direction thereof, wherein the bolt guiding device is disposed between an inner circumferential surface of a location hole of the brake carrier and an outer circumferential surface of the guide bolt accommodated therein, wherein the bolt guiding device comprises a slide bush, wherein one surface of the inner circumferential surface and outer circumferential surface acts as a retaining surface on which the slide bush is retained, and wherein the other surface of the inner circumferential surface and outer circumferential surface acts as a sliding surface on which the slide bush slides, characterized in that the slide bush has, facing the sliding surface: - at least one guiding surface (38, 40) on each side of the centre of the slide bush and - at least one intermediate surface (30, 32) extending in the circumferential direction on each side of the centre of the slide bush, wherein the diameter of the at least one guiding surface (38, 40) is dimensioned in such a way that said guiding surface is in close contact with the sliding surface, and wherein the diameter (d 2) of the intermediate surface (30, 32) is dimensioned in such a way that said intermediate surface is provided in direct contact with or with a slight radial spacing from the sliding surface, and wherein the intermediate surfaces (30, 32) are configured to come into supportive action with the sliding surface in the event of a deformation of the guiding surfaces (38, 40). - at least one guiding surface (38, 40) on each side of the centre of the slide bush and - at least one intermediate surface (30, 32) extending in the circumferential direction on each side of the centre of the slide bush,
A circuit arrangement for suppressing an arc occurring during a switching process, wherein a current bypass path, which comprises a PTC resistor and a fuse connected in series with the PTC resistor, is provided in parallel to a switch, characterized in that a circuit unit which limits the voltage drop across the fuse when it has tripped is arranged in parallel to the fuse.
A motion picture decoding method for making the inter-field motion compensation and performing a decoding process of a motion picture signal each frame of which is composed of a top field and a bottom field, wherein the number of pixels in a vertical chrominance component is different from the number of pixels in a vertical luminance component, characterized in that generating a chrominance motion vector from a luminance motion vector according to a calculation method represented by MVCy = MVy/2 + 0.25 when a combination of a reference field and a decoding field is a top field and a bottom field, MVCy = MVy/2 - 0.25 when a combination of a reference field and a decoding field is a bottom field and a top field, MVCy = MVy/2 when a combination of a reference field and a decoding field is both top fields or both bottom fields, and MVCx = MVx/2 for every combination of a reference field and a decoding field, wherein MVx is the horizontal component of the luminance motion vector, MVCx is the horizontal component of the chrominance motion vector, MVy is the vertical component of a luminance motion vector indicating the vertical displacement of one luminance pixel of a field image by a value "1" of a vector component of the luminance motion vector as units, and MVCy is the vertical component of a chrominance motion vector indicating the vertical displacement of one chrominance pixel of a field image by a value "1" of a vector component of the chrominance motion vector as units.
A method for manufacturing a cylindrical structure having an axial direction, comprising: winding a first layer around a mandrel, the first layer including a plurality of fabrics each made of fibers, the fabrics forming a first join line extending in a circumferential direction with edges of the fabrics in contact with each other; winding a second layer around the first layer, the second layer including a plurality of fabrics each made of the fibers, the fabrics forming a second join line extending in the circumferential direction with edges of the fabrics in contact with each other, in such a manner as to displace the second join line from the first join line in the axial direction; winding a third layer around the second layer, the third layer including a plurality of fabrics each made of the fibers, the fabrics forming a third join line extending in the circumferential direction with edges of the fabrics in contact with each other, in such a manner as to displace the third join line from both of the first join line and the second join line in the axial direction; and joining the layers together by using a resin. winding a first layer around a mandrel, the first layer including a plurality of fabrics each made of fibers, the fabrics forming a first join line extending in a circumferential direction with edges of the fabrics in contact with each other; winding a second layer around the first layer, the second layer including a plurality of fabrics each made of the fibers, the fabrics forming a second join line extending in the circumferential direction with edges of the fabrics in contact with each other, in such a manner as to displace the second join line from the first join line in the axial direction; winding a third layer around the second layer, the third layer including a plurality of fabrics each made of the fibers, the fabrics forming a third join line extending in the circumferential direction with edges of the fabrics in contact with each other, in such a manner as to displace the third join line from both of the first join line and the second join line in the axial direction; and joining the layers together by using a resin.
A cathode active material for a lithium secondary battery, wherein at least one coating layer is formed on a surface of the cathode active material, the cathode active material comprising: a core portion represented by the following chemical formula 1; and a surface portion represented by the following chemical formula 2, [chemical formula 1] Li a1 M1 x1 M2 y1 M3 z1 M4 w O 2+δ, [chemical formula 2] Li a2 M1 x2 M2 y2 M3 z2 M4 w O 2+δ, where, in the chemical formulas 1 and 2: M1, M2, and M3 are selected from the group consisting of Ni, Co, Mn, and any combination thereof, M4 is selected from the group consisting of Fe, Na, Mg, Ca, Ti, V, Cr, Cu, Zn, Ge, Sr, Ag, Ba, Zr, Nb, Mo, Al, Ga, B, and any combination thereof; 0<a1≤1.1, 0<a2≤1.1, 0≤x1≤1, 0≤x2≤1, 0≤y1≤1, 0≤y2≤1, 0≤z1≤1, 0≤z2≤1, 0≤w≤0.1, 0.0≤δ≤0.5, 0<x1+y1+z1≤1, 0<x2+y2+z2≤1, y1≤y2, and z2≤z1; 0≤ |x2-x1| ≤0.4, 0.01≤ |y2-y1| ≤0.4, 0.1≤ |z2-z1| ≤0.5, 0.15≤x2≤0.35, 0.01≤y2≤0.3, and 0.5≤z2≤0.7; and M1 is Co, M2 is Mn, and M3 is Ni; or M1 is Mn, M2 is Co, and M3 is Ni; or M1 is Ni, M2 is Co, and M3 is Mn; characterised in that the coating layer includes Li 2 ZrO 3 or Li 2 SeO 4. a core portion represented by the following chemical formula 1; and a surface portion represented by the following chemical formula 2, [chemical formula 1] Li a1 M1 x1 M2 y1 M3 z1 M4 w O 2+δ, [chemical formula 2] Li a2 M1 x2 M2 y2 M3 z2 M4 w O 2+δ, where, in the chemical formulas 1 and 2: M1, M2, and M3 are selected from the group consisting of Ni, Co, Mn, and any combination thereof, M4 is selected from the group consisting of Fe, Na, Mg, Ca, Ti, V, Cr, Cu, Zn, Ge, Sr, Ag, Ba, Zr, Nb, Mo, Al, Ga, B, and any combination thereof; 0<a1≤1.1, 0<a2≤1.1, 0≤x1≤1, 0≤x2≤1, 0≤y1≤1, 0≤y2≤1, 0≤z1≤1, 0≤z2≤1, 0≤w≤0.1, 0.0≤δ≤0.5, 0<x1+y1+z1≤1, 0<x2+y2+z2≤1, y1≤y2, and z2≤z1; 0≤ |x2-x1| ≤0.4, 0.01≤ |y2-y1| ≤0.4, 0.1≤ |z2-z1| ≤0.5, 0.15≤x2≤0.35, 0.01≤y2≤0.3, and 0.5≤z2≤0.7; and M1 is Co, M2 is Mn, and M3 is Ni; or M1 is Mn, M2 is Co, and M3 is Ni; or M1 is Ni, M2 is Co, and M3 is Mn; characterised in that the coating layer includes Li 2 ZrO 3 or Li 2 SeO 4. M1, M2, and M3 are selected from the group consisting of Ni, Co, Mn, and any combination thereof, M4 is selected from the group consisting of Fe, Na, Mg, Ca, Ti, V, Cr, Cu, Zn, Ge, Sr, Ag, Ba, Zr, Nb, Mo, Al, Ga, B, and any combination thereof; 0<a1≤1.1, 0<a2≤1.1, 0≤x1≤1, 0≤x2≤1, 0≤y1≤1, 0≤y2≤1, 0≤z1≤1, 0≤z2≤1, 0≤w≤0.1, 0.0≤δ≤0.5, 0<x1+y1+z1≤1, 0<x2+y2+z2≤1, y1≤y2, and z2≤z1; 0≤ |x2-x1| ≤0.4, 0.01≤ |y2-y1| ≤0.4, 0.1≤ |z2-z1| ≤0.5, 0.15≤x2≤0.35, 0.01≤y2≤0.3, and 0.5≤z2≤0.7; and M1 is Co, M2 is Mn, and M3 is Ni; or M1 is Mn, M2 is Co, and M3 is Ni; or M1 is Ni, M2 is Co, and M3 is Mn; characterised in that the coating layer includes Li 2 ZrO 3 or Li 2 SeO 4.
A ship propulsion device comprising: a rear propeller fixed to a first drive shaft; a front propeller rotatably supported by the first drive shaft in front of the rear propeller; a counter rotation unit configured to cause counter rotation of the front propeller and the rear propeller based on rotation of a second drive shaft which penetrates a hull and is installed perpendicular to the first drive shaft; and a housing configured to surround the second drive shaft and the counter rotation unit, wherein the counter rotation unit includes a driving bevel gear fixed to the second drive shaft, and a first driven bevel gear characterised in that, the first driven bevel gear is fixed to a hub of the front propeller, and a second driven bevel gear is fixed to the first drive shaft, wherein the counter rotation unit transmits rotation of the driving bevel gear to the first driven bevel gear and the second driven bevel gear to cause counter rotation of the front propeller and the rear propeller, and wherein the counter rotation unit further includes an intermediate bevel gear tooth-engaged between the first driven bevel gear and the second driven bevel gear. a rear propeller fixed to a first drive shaft; a front propeller rotatably supported by the first drive shaft in front of the rear propeller; a counter rotation unit configured to cause counter rotation of the front propeller and the rear propeller based on rotation of a second drive shaft which penetrates a hull and is installed perpendicular to the first drive shaft; and a housing configured to surround the second drive shaft and the counter rotation unit,
A print device (1; 2; 3; 4; 6; 7) comprising: a tape mounting portion configured to detachably mount a tape therein, the tape being a strip-shaped print medium; a tape print portion configured to print on the tape mounted in the tape mounting portion, the tape print portion including a first print head that is configured to print characters on the tape; a tape discharge portion configured to discharge the tape printed by the tape print portion to the outside of the print device in a first direction; a tube mounting portion configured to detachably mount a tube therein along a predetermined direction, the tube being a cylindrical print medium; a ribbon mounting portion configured to detachably mount an ink ribbon therein; a tube print portion configured to print on the tube mounted in the tube mounting portion, the tube print portion including a second print head that is configured to print characters on the tube, using the ink ribbon mounted in the ribbon mounting portion; and a tube discharge portion configured to discharge the tube printed by the tube print portion to the outside of the print device in a second direction, the first and second directions being directions that are separate from each other, wherein the tape mounting portion and the ribbon mounting portion are disposed side by side along the predetermined direction, and are disposed on a same side with respect to the tube mounting portion. a tape mounting portion configured to detachably mount a tape therein, the tape being a strip-shaped print medium; a tape print portion configured to print on the tape mounted in the tape mounting portion, the tape print portion including a first print head that is configured to print characters on the tape; a tape discharge portion configured to discharge the tape printed by the tape print portion to the outside of the print device in a first direction; a tube mounting portion configured to detachably mount a tube therein along a predetermined direction, the tube being a cylindrical print medium; a ribbon mounting portion configured to detachably mount an ink ribbon therein; a tube print portion configured to print on the tube mounted in the tube mounting portion, the tube print portion including a second print head that is configured to print characters on the tube, using the ink ribbon mounted in the ribbon mounting portion; and a tube discharge portion configured to discharge the tube printed by the tube print portion to the outside of the print device in a second direction, the first and second directions being directions that are separate from each other, wherein the tape mounting portion and the ribbon mounting portion are disposed side by side along the predetermined direction, and are disposed on a same side with respect to the tube mounting portion.
A ceramic material consisting of β-sialon (Si (6-z) Al z O z N (8-z) 4., polytype 15R, and intergranular phase, and containing yittrium, wherein the polytype 15R comprises twin grains.
Ultrasound-assisted wound cleaner in the form of a handheld appliance with an integrated vibration motor, an integrated energy source for the vibration motor, and a replaceable cleaning attachment which can be driven by the vibration motor for the purpose of abrasively removing wound coatings, wherein the cleaning attachment has bristles and/or lamellas (22, 23) for the abrasive removal, characterized in that the ultrasound-assisted wound cleaner also has an integrated ultrasound generator and the integrated energy source for the ultrasound generator, wherein the cleaning attachment has an acoustic transducer, which is designed to convert the electric oscillations generated by the ultrasound generator into sound waves, and a device for strengthening and/or distributing and/or transmitting the ultrasound waves.
An epoxy-polysiloxane polymer coating composition comprising: water; a polysiloxane having the formula where each R 1 is selected from a hydroxy group or alkyl, aryl, or alkoxy groups having up to six carbon atoms, each R 2 is selected from hydrogen or alkyl or aryl groups having up to six carbon atoms, and where n is selected so that the molecular weight for the polysiloxane is in the range of 400 to 10,000; a non-aromatic epoxide resin comprising more than one 1,2-epoxide group per molecule and an epoxide equivalent weight in the range of from 100 to 5,000; and a cure system comprising a blend of alkoxy functional aminosilanes, where the blend has an average alkoxy functionality value ranging from 2.2 to 2.8 wherein the combined composition reacts to form a cross-linked epoxy polysiloxane polymer structure. water; a polysiloxane having the formula where each R 1 is selected from a hydroxy group or alkyl, aryl, or alkoxy groups having up to six carbon atoms, each R 2 is selected from hydrogen or alkyl or aryl groups having up to six carbon atoms, and where n is selected so that the molecular weight for the polysiloxane is in the range of 400 to 10,000; a non-aromatic epoxide resin comprising more than one 1,2-epoxide group per molecule and an epoxide equivalent weight in the range of from 100 to 5,000; and a cure system comprising a blend of alkoxy functional aminosilanes, where the blend has an average alkoxy functionality value ranging from 2.2 to 2.8 wherein the combined composition reacts to form a cross-linked epoxy polysiloxane polymer structure.