mhurhangee/ep-ind-claims huggingface dataset:
A calcined co-mulled agglomerate catalyst composition comprising alumina powder or powders, a molybdenum component in an amount in the range of from 7.5 wt.% to 11 wt.%, with the wt.% being based on the total weight of said catalyst composition and assuming said molybdenum component is in the oxide form (MoO 3) regardless of its actual form, and a nickel component present in an amount such that said catalyst composition has a weight ratio of said nickel component-to-said molybdenum component in the range of from 0.27 to 0.8, with said weight ratio being computed assuming said nickel component and said molybdenum component are each in the oxide form regardless of their actual forms and optionally either a phosphorus compound or catalyst fines or both, and wherein said catalyst composition has a total surface area, as determined by the nitrogen BET method, in the range of from 240 m 2 /g to 360 m 2 /g, a total pore volume of at least 0.65 cc/g and a pore size distribution such that at least 10% of the total pore volume is present in macropores of diameter greater than 250 Å which pore size distribution and pore volume are determined by mercury penetration porosimetry.
A device for rapidly disassembling a toilet lid, the device comprising: a rotating member rotatably arranged; a push rod which is axially movably arranged on a first side of the rotating member and is connected to a first connecting position of the rotating member; a pull rod which is axially movably arranged on a second side, opposite the first side, of the rotating member, wherein one end of the pull rod is connected to a second connecting position of the rotating member, the other end of the pull rod is provided with a rotating shaft connected, in use, to a toilet bowl, and when the push rod axially moves towards a first direction to drive the rotating member to rotate, the rotating member pulls the pull rod to axially move towards a second direction opposite the first direction; and an elastic member which acts on the push rod to provide a return force for the push rod, characterised in that the rotating member is set as a rotating disc, a first sliding rod and a second sliding rod are arranged, in an axial direction, on the rotating member separately, a first transverse sliding groove for the first sliding rod to slide therein is provided on the push rod, and one end of the pull rod is provided with a second transverse sliding groove for the second sliding rod to slide therein. a rotating member rotatably arranged; a push rod which is axially movably arranged on a first side of the rotating member and is connected to a first connecting position of the rotating member; a pull rod which is axially movably arranged on a second side, opposite the first side, of the rotating member, wherein one end of the pull rod is connected to a second connecting position of the rotating member, the other end of the pull rod is provided with a rotating shaft connected, in use, to a toilet bowl, and when the push rod axially moves towards a first direction to drive the rotating member to rotate, the rotating member pulls the pull rod to axially move towards a second direction opposite the first direction; and an elastic member which acts on the push rod to provide a return force for the push rod, characterised in that the rotating member is set as a rotating disc, a first sliding rod and a second sliding rod are arranged, in an axial direction, on the rotating member separately, a first transverse sliding groove for the first sliding rod to slide therein is provided on the push rod, and one end of the pull rod is provided with a second transverse sliding groove for the second sliding rod to slide therein.
A process for producing heat-expandable microspheres comprising essentially a shell of thermoplastic resin and a blowing agent encapsulated therein: wherein the process comprises the steps of dispersing a polymerizable component and the blowing agent in a basic aqueous dispersion medium having a pH ranging from 9 to 11.8 and containing a fine-particle metal compound and an amphoteric surfactant, wherein the amphoteric surfactant is a betaine amphoteric surfactant, the betaine amphoteric surfactant being alkylene oxide adduct betaine amphoteric surfactant, wherein an amount of the amphoteric surfactant ranges from 0.001 to 40 parts by weight to 100 parts by weight of the fine-particle metal compound, and polymerizing the polymerizable component. wherein the process comprises the steps of dispersing a polymerizable component and the blowing agent in a basic aqueous dispersion medium having a pH ranging from 9 to 11.8 and containing a fine-particle metal compound and an amphoteric surfactant, wherein the amphoteric surfactant is a betaine amphoteric surfactant, the betaine amphoteric surfactant being alkylene oxide adduct betaine amphoteric surfactant, wherein an amount of the amphoteric surfactant ranges from 0.001 to 40 parts by weight to 100 parts by weight of the fine-particle metal compound, and polymerizing the polymerizable component.
An avalanche photodetector comprising: a first electrode; a collector layer on the first electrode; a tunnel barrier layer on the collector layer; a graphene layer on the tunnel barrier layer; an emitter layer on the graphene layer; and a second electrode on the emitter layer, wherein the second electrode at least partially comprises a transparent conductive material; wherein the collector layer and the emitter layer are made of the same semiconductor material or different semiconductor materials; the emitter layer functions as a light absorbing layer in order to generate electron-hole pairs; the detector is configured to provide a high intensity electric field to cause an avalanche phenomenon to occur in the collector layer; and the tunnelling barrier layer has a bandgap much higher than that of the collector layer and has a thickness sufficient for achieving tunnelling of electrons and holes; whereby the electrons or holes generated by the emitter layer cause a photodoping effect in the graphene layer so that the electrons or holes move to the collector layer via the tunnel barrier layer more easily. a first electrode; a collector layer on the first electrode; a tunnel barrier layer on the collector layer; a graphene layer on the tunnel barrier layer; an emitter layer on the graphene layer; and a second electrode on the emitter layer, wherein the second electrode at least partially comprises a transparent conductive material; wherein the collector layer and the emitter layer are made of the same semiconductor material or different semiconductor materials; the emitter layer functions as a light absorbing layer in order to generate electron-hole pairs; the detector is configured to provide a high intensity electric field to cause an avalanche phenomenon to occur in the collector layer; and the tunnelling barrier layer has a bandgap much higher than that of the collector layer and has a thickness sufficient for achieving tunnelling of electrons and holes; whereby the electrons or holes generated by the emitter layer cause a photodoping effect in the graphene layer so that the electrons or holes move to the collector layer via the tunnel barrier layer more easily.
A fluid properties measurement device, including: (a) a symmetric resonant element (15; 115; 215) having a first mass (18; 118; 218; 418) and a second mass (16; 116; 216; 416), balanced to said first mass (18; 118; 218; 418) and coupled to said first mass (18; 118; 218; 418) by a torsional spring (20, 22, 26; 222), having a nodal support (24; 226) between said first mass (18; 118; 218; 418) and said second mass (16; 116; 216; 416); (b) a chamber (14; 214; 414) having at least one opening and accommodating said first mass (18; 118; 218; 418), free of mechanical constraint; (c) a driving and sensing assembly, adapted to drive said first mass (18; 118; 218; 418) in torsion and sense resulting torsional movement of said first mass (18; 118; 218; 418); (d) wherein said second mass (16; 116; 216; 416) is free to be placed into a fluid, for fluid property measurements; characterized in that (e) said torsional spring (20, 22, 26; 222) passes through said opening which is sealed about said torsional spring (20, 22, 26; 222) at said nodal support (24; 226); and (f) said torsional spring (20, 22, 26; 222) includes a radially central element (222; 322), having an outer surface, and a radially outer element (224; 324), having an inner surface, mutually separated by a void defined by said outer surface and said inner surface, and joined together at its longitudinal ends, where said first and second masses are mounted. (a) a symmetric resonant element (15; 115; 215) having a first mass (18; 118; 218; 418) and a second mass (16; 116; 216; 416), balanced to said first mass (18; 118; 218; 418) and coupled to said first mass (18; 118; 218; 418) by a torsional spring (20, 22, 26; 222), having a nodal support (24; 226) between said first mass (18; 118; 218; 418) and said second mass (16; 116; 216; 416); (b) a chamber (14; 214; 414) having at least one opening and accommodating said first mass (18; 118; 218; 418), free of mechanical constraint; (c) a driving and sensing assembly, adapted to drive said first mass (18; 118; 218; 418) in torsion and sense resulting torsional movement of said first mass (18; 118; 218; 418); (d) wherein said second mass (16; 116; 216; 416) is free to be placed into a fluid, for fluid property measurements; characterized in that (e) said torsional spring (20, 22, 26; 222) passes through said opening which is sealed about said torsional spring (20, 22, 26; 222) at said nodal support (24; 226); and (f) said torsional spring (20, 22, 26; 222) includes a radially central element (222; 322), having an outer surface, and a radially outer element (224; 324), having an inner surface, mutually separated by a void defined by said outer surface and said inner surface, and joined together at its longitudinal ends, where said first and second masses are mounted.
A method for continuously providing a processed cellulose-comprising starting material, in particular a processed cellulose-comprising starting material for manufacturing a cellulosic molded body, wherein the method comprises: adjusting a predefined composition of a cellulose-comprising starting material, wherein determining the composition is continuously performed at a flow of used textiles, wherein the determined composition is compared with a target value of the predefined composition, wherein the cellulose-comprising starting material completely or partially comprises remains from a clothing manufacture and/or used clothes, and wherein adjusting comprises selectively enriching at least one composition component and/or selectively depleting at least one composition component corresponding to a deviation from the target value; continuously supplying the cellulose-comprising starting material with the predefined composition to a reactor device; continuously processing the cellulose-comprising starting material in the reactor device, to obtain the processed cellulose-comprising starting material; and discharging the processed cellulose-comprising starting material from the reactor device. adjusting a predefined composition of a cellulose-comprising starting material, wherein determining the composition is continuously performed at a flow of used textiles, wherein the determined composition is compared with a target value of the predefined composition, wherein the cellulose-comprising starting material completely or partially comprises remains from a clothing manufacture and/or used clothes, and wherein adjusting comprises selectively enriching at least one composition component and/or selectively depleting at least one composition component corresponding to a deviation from the target value; continuously supplying the cellulose-comprising starting material with the predefined composition to a reactor device; continuously processing the cellulose-comprising starting material in the reactor device, to obtain the processed cellulose-comprising starting material; and discharging the processed cellulose-comprising starting material from the reactor device.
An implantable device for improving the pump function of the heart of a human patient by applying an external force on a first position of the heart muscle, said implantable device comprising a first pump device adapted to assist the pump function of the heart, said pump device comprising: a first reservoir having a first volume and being adapted to vary said first volume, a second reservoir having a second volume and being adapted to vary said second volume, a fluid connection adapted to fluidly connect said first reservoir with said second reservoir, such that fluid can flow between said first reservoir and said second reservoir, and an internal control unit, wherein said first reservoir, said second reservoir and said fluid connection form a fully implantable pump device adapted to maintain a fluid in a closed system, when in operation, and wherein said fully implantable pump device is adapted to transfer force by transferring fluid from said first reservoir to said second reservoir to apply an external force on the first position of the heart muscle, characterised in that said control unit comprises: an injection port (910, 97, 146b) for calibrating a fluid level of the closed system, and a sensor (913, 98, 146d) configured to directly or indirectly sense muscle contraction of the heart, wherein said control unit is configured to control said implantable device according to the sensed information. a first reservoir having a first volume and being adapted to vary said first volume, a second reservoir having a second volume and being adapted to vary said second volume, a fluid connection adapted to fluidly connect said first reservoir with said second reservoir, such that fluid can flow between said first reservoir and said second reservoir, and an internal control unit, wherein said first reservoir, said second reservoir and said fluid connection form a fully implantable pump device adapted to maintain a fluid in a closed system, when in operation, and wherein said fully implantable pump device is adapted to transfer force by transferring fluid from said first reservoir to said second reservoir to apply an external force on the first position of the heart muscle, characterised in that said control unit comprises: an injection port (910, 97, 146b) for calibrating a fluid level of the closed system, and a sensor (913, 98, 146d) configured to directly or indirectly sense muscle contraction of the heart, wherein said control unit is configured to control said implantable device according to the sensed information. an injection port (910, 97, 146b) for calibrating a fluid level of the closed system, and a sensor (913, 98, 146d) configured to directly or indirectly sense muscle contraction of the heart, wherein said control unit is configured to control said implantable device according to the sensed information.
A method performed by a wireless transmit-receive unit, WTRU, for Long Term Evolution, LTE, operation in unlicensed spectrum, the method comprising: establishing a connection with a first cell on a licensed frequency band; receiving, from a second cell operating on an unlicensed frequency band, a downlink transmission; determining that a synchronization signal transmission from a third cell operating on the unlicensed frequency band is transmitted using one or more resource elements, wherein the one or more resource elements correspond to a portion of at least one resource block of the downlink transmission from the second cell; and performing rate matching around the one or more resource elements that correspond to the synchronization signal transmission when receiving the downlink transmission from the second cell. establishing a connection with a first cell on a licensed frequency band; receiving, from a second cell operating on an unlicensed frequency band, a downlink transmission; determining that a synchronization signal transmission from a third cell operating on the unlicensed frequency band is transmitted using one or more resource elements, wherein the one or more resource elements correspond to a portion of at least one resource block of the downlink transmission from the second cell; and performing rate matching around the one or more resource elements that correspond to the synchronization signal transmission when receiving the downlink transmission from the second cell.
An uplink transmission method comprising: instructing, by a base station, a User Equipment, UE, to send Sounding Reference Signals, SRSs, corresponding to N groups of SRS resources, wherein each group of SRS resources comprises one or more SRS resources, and N is a positive integer greater than 1; receiving, by the base station, the SRSs sent by the UE; determining, by the base station, X groups of uplink scheduling information; wherein each group of uplink scheduling information corresponds to one of the N groups of SRS resources, different groups of uplink scheduling information correspond to different groups of SRS resources in the N groups of SRS resources, and X is a positive integer greater than land less than N, or X is a positive integer greater than 1 and equal to N; and sending, by the base station, the X groups of uplink scheduling information to the UE; wherein, after the base station receives the SRSs sent by the UE, the method further comprises: sending, by the base station, SRS resource set indication information to the UE, wherein the SRS resource set indication information indicates SRS resource sets corresponding to the X groups of uplink scheduling information. instructing, by a base station, a User Equipment, UE, to send Sounding Reference Signals, SRSs, corresponding to N groups of SRS resources, wherein each group of SRS resources comprises one or more SRS resources, and N is a positive integer greater than 1; receiving, by the base station, the SRSs sent by the UE; determining, by the base station, X groups of uplink scheduling information; wherein each group of uplink scheduling information corresponds to one of the N groups of SRS resources, different groups of uplink scheduling information correspond to different groups of SRS resources in the N groups of SRS resources, and X is a positive integer greater than land less than N, or X is a positive integer greater than 1 and equal to N; and wherein each group of uplink scheduling information corresponds to one of the N groups of SRS resources, different groups of uplink scheduling information correspond to different groups of SRS resources in the N groups of SRS resources, and X is a positive integer greater than land less than N, or X is a positive integer greater than 1 and equal to N; and sending, by the base station, the X groups of uplink scheduling information to the UE; wherein, after the base station receives the SRSs sent by the UE, the method further comprises: sending, by the base station, SRS resource set indication information to the UE, wherein the SRS resource set indication information indicates SRS resource sets corresponding to the X groups of uplink scheduling information.
A spectacle lens comprising a lens base material and a multilayer film provided on each surface of an eyeball-side surface and an object-side surface of the lens base material, wherein - the mean reflectance R UV(object) in a wavelength range of 280-380 nm measured on the object-side surface of the spectacle lens is ≥ 16.00 %, - the mean reflectance R uv(eye) in a wavelength range of 280-380 nm measured on the eyeball-side surface of the spectacle lens is ≤ 15.00 %, - the mean reflectance R B(object) in a wavelength range of 430-450 nm measured on the object-side surface of the spectacle lens is ≥ 1.00 %, - the mean reflectance R B(eye) in a wavelength range of 430-450 nm measured on the eyeball-side surface of the spectacle lens is ≥ 1.00%, - the mean reflectance in a wavelength range of 520-580 nm measured on the eyeball-side surface of the spectacle lens and the mean reflectance in a wavelength range of 520-580 nm measured on the object-side surface each are ≤ 0.60 %, and - the mean reflectance in a wavelength range of 580-780 nm measured on the eyeball-side surface of the spectacle lens and the mean reflectance in a wavelength range of 580-780 nm measured on the object-side surface each are ≤ 3.00 %. - the mean reflectance R UV(object) in a wavelength range of 280-380 nm measured on the object-side surface of the spectacle lens is ≥ 16.00 %, - the mean reflectance R uv(eye) in a wavelength range of 280-380 nm measured on the eyeball-side surface of the spectacle lens is ≤ 15.00 %, - the mean reflectance R B(object) in a wavelength range of 430-450 nm measured on the object-side surface of the spectacle lens is ≥ 1.00 %, - the mean reflectance R B(eye) in a wavelength range of 430-450 nm measured on the eyeball-side surface of the spectacle lens is ≥ 1.00%, - the mean reflectance in a wavelength range of 520-580 nm measured on the eyeball-side surface of the spectacle lens and the mean reflectance in a wavelength range of 520-580 nm measured on the object-side surface each are ≤ 0.60 %, and - the mean reflectance in a wavelength range of 580-780 nm measured on the eyeball-side surface of the spectacle lens and the mean reflectance in a wavelength range of 580-780 nm measured on the object-side surface each are ≤ 3.00 %.
A thermoplastic resin composition having impact resistance and colorability comprising: an acrylic graft copolymer; an aromatic vinyl-vinyl cyanide compound copolymer; a polyalkyl(meth)acrylate resin; and an acrylic compound-grafted silicon-based impact reinforcing agent; wherein the aromatic vinyl-vinyl cyanide compound copolymer is present in an amount of 49 to 70wt% in the thermoplastic resin composition. an acrylic graft copolymer; an aromatic vinyl-vinyl cyanide compound copolymer; a polyalkyl(meth)acrylate resin; and an acrylic compound-grafted silicon-based impact reinforcing agent; wherein the aromatic vinyl-vinyl cyanide compound copolymer is present in an amount of 49 to 70wt% in the thermoplastic resin composition.