mhurhangee/ep-ind-claims huggingface dataset:
A sliding support comprising: a first elongate slide member of channel section defining a first web and first and second flanges (114, 116), a second elongate slide member of channel section defining a second web and third and fourth flanges (124, 126), an intermediate member positioned between the first and second slide members (110, 120), first locating means positioned between the first slide member and the intermediate member to locate and align the first slide member and the intermediate member for sliding without contact therebetween, and second locating means positioned between the second slide member and the intermediate member to locate and align the second slide member and the intermediate member for sliding without contact therebetween, wherein the first and second flanges (114, 116) are offset relative to the third and fourth flanges (124, 126) in a direction parallel to the first and second webs (112, 122), and the intermediate member has a cross-section comprising a third channel section connected to a fourth channel section by a connecting member arranged at an angle to the first and second webs (112, 122), wherein the third channel section defines a third web and fifth and sixth flanges (152, 153), and the fourth channel section defines a fourth web and seventh and eighth flanges (155, 156), and the fifth flange is connected to the seventh flange by the connecting member, characterised in that: the angle between the connecting member and the first and second webs (112, 122) is in the range of 30 to 85 degrees. a first elongate slide member of channel section defining a first web and first and second flanges (114, 116), a second elongate slide member of channel section defining a second web and third and fourth flanges (124, 126), an intermediate member positioned between the first and second slide members (110, 120), first locating means positioned between the first slide member and the intermediate member to locate and align the first slide member and the intermediate member for sliding without contact therebetween, and second locating means positioned between the second slide member and the intermediate member to locate and align the second slide member and the intermediate member for sliding without contact therebetween, wherein the first and second flanges (114, 116) are offset relative to the third and fourth flanges (124, 126) in a direction parallel to the first and second webs (112, 122), and the intermediate member has a cross-section comprising a third channel section connected to a fourth channel section by a connecting member arranged at an angle to the first and second webs (112, 122), wherein the third channel section defines a third web and fifth and sixth flanges (152, 153), and the fourth channel section defines a fourth web and seventh and eighth flanges (155, 156), and the fifth flange is connected to the seventh flange by the connecting member, characterised in that: the angle between the connecting member and the first and second webs (112, 122) is in the range of 30 to 85 degrees. the angle between the connecting member and the first and second webs (112, 122) is in the range of 30 to 85 degrees.
A polyolefin, wherein polydispersity index is 18 to 20, wherein the polydispersity index is the ratio of weight average molecular weight and number average molecular weight, wherein weight average molecular weight and number average molecular weight are measured by GPC-FTIR at 160 °C; melt flow rate ratio(MFR 21.6 /MFR 2.16) is 200 to 400, wherein MFR 21.6 and MFR 2.16 are measured at 190°C according to ASTM 1238; and the content of long chain branch having a carbon number of 8 or more per 1,000 main chain carbons is 2 or more, wherein the content of long chain branch is measured as disclosed in the specification, wherein density is 0.940 to 0.949 g/cc, wherein the density is measured according to ASTM 1505, wherein the polyolefin is a copolymer of olefin monomer ethylene and alpha olefin comonomer.
A hair care composition comprising: a discrete particle of a mixture composition, wherein the mixture composition comprises a surfactant, a high melting point fatty compound and a benefit agent other than the surfactant and the high melting point fatty compound; wherein the surfactant contained in the discrete particle is a cationic surfactant; wherein the cationic surfactant comprises a mono-long alkyl quaternized ammonium salt selected from the group consisting of behenyl trimethyl ammonium salt, and stearyl trimethyl ammonium salt; wherein the high melting point fatty compound has a melting point of 25°C or higher, wherein the high melting point fatty compound is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof; and an aqueous base composition comprising an aqueous carrier and water soluble polymer, wherein the aqueous base composition comprises a total level of detersive surfactants of 0.1% or less by weight of the aqueous base composition, wherein the detersive surfactant is selected from anionic surfactants, zwitterionic surfactant, amphoteric surfactant, and combinations thereof; and wherein the discrete particle is dispersed in the aqueous base composition, wherein the discrete particle can be observed as discrete particle in the product composition visually, by microscope, however, the discrete particle does not show maltese cross sign when measured by polarized light microscopy. a discrete particle of a mixture composition, wherein the mixture composition comprises a surfactant, a high melting point fatty compound and a benefit agent other than the surfactant and the high melting point fatty compound; wherein the surfactant contained in the discrete particle is a cationic surfactant; wherein the cationic surfactant comprises a mono-long alkyl quaternized ammonium salt selected from the group consisting of behenyl trimethyl ammonium salt, and stearyl trimethyl ammonium salt; wherein the high melting point fatty compound has a melting point of 25°C or higher, wherein the high melting point fatty compound is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof; and an aqueous base composition comprising an aqueous carrier and water soluble polymer, wherein the aqueous base composition comprises a total level of detersive surfactants of 0.1% or less by weight of the aqueous base composition, wherein the detersive surfactant is selected from anionic surfactants, zwitterionic surfactant, amphoteric surfactant, and combinations thereof; and wherein the discrete particle is dispersed in the aqueous base composition, wherein the discrete particle can be observed as discrete particle in the product composition visually, by microscope, however, the discrete particle does not show maltese cross sign when measured by polarized light microscopy.
A hair cosmetic material comprising a first agent containing an alkali agent and a second agent containing an oxidizing agent, wherein the first agent and the second agent are used in a double structure container in which a space for filling the first agent and a space for filling the second agent are each independently provided in the inside of a compressed gas filling space having a propellant for pressurization filled therein, and which is provided with a mechanism of separating the first agent and the second agent, which are each filled in the space for filling the respective agents, from each other and simultaneously discharging the both agents by the propellant; and each of the first agent and the second agent is discharged in a liquid state, the first agent contains an alkali agent, whereas the second agent contains an oxidizing agent, and each of the first agent and the second agent has a viscosity falling within the range of from 7,000 to 30,000 mPa·s at 25°C as measured, for example, by using a B-type viscometer for one minute at a rotating rate of 12 rpm/min under conditions of using a No. 4 rotor.
A system for producing a slurry of a carrier liquid and drill cuttings suitably sized for injection into an earth formation said system comprising: a receiving means for receiving a quantity of said drill cuttings; a means for conducting said drill cuttings to said receiving means; a conduit in communication with said receiving means for discharging a mixture of said drill cuttings and a carrier liquid from said receiving means; characterized in that the system further comprises: at least a first centrifugal pump located within said receiving means having an adjustable restricted discharge orifice for ensuring that said drill cuttings have sufficient grinding residence within said centrifugal pump for reducing the size of said drill cuttings so that a slurry of said drill cuttings and said carrier liquid may be prepared for injection into said earth formation. a receiving means for receiving a quantity of said drill cuttings; a means for conducting said drill cuttings to said receiving means; a conduit in communication with said receiving means for discharging a mixture of said drill cuttings and a carrier liquid from said receiving means; at least a first centrifugal pump located within said receiving means having an adjustable restricted discharge orifice for ensuring that said drill cuttings have sufficient grinding residence within said centrifugal pump for reducing the size of said drill cuttings so that a slurry of said drill cuttings and said carrier liquid may be prepared for injection into said earth formation.
A semiconductor device comprising: a semiconductor substrate; a layer of a first conductivity type on the surface of the substrate; a guard region of the second conductivity type having a rectangular or a square ring shape in plan view formed in the layer, surrounding a part having at least one region of a second conductivity type formed in the layer, and having an apex at each outer corner of the guard region,the guard region being a groove filled with an epitaxial layer a ring-shaped outer circumferential auxiliary diffusion region of the second conductivity type in contact with said said guard region, wherein the outer circumferential auxiliary region surrounds said guard region, and its four corners have a round shape in plan view at an outer circumferential portion thereof, and the depth of the outer circumferential diffusion region is shallower than the depth of the guard region, wherein parts of the layer where the layer adjoins to a side face and bottom face of the guard region, have a plane orientation, and the guard region is formed of semiconductor single crystal. a semiconductor substrate; a layer of a first conductivity type on the surface of the substrate; a guard region of the second conductivity type having a rectangular or a square ring shape in plan view formed in the layer, surrounding a part having at least one region of a second conductivity type formed in the layer, and having an apex at each outer corner of the guard region,the guard region being a groove filled with an epitaxial layer a ring-shaped outer circumferential auxiliary diffusion region of the second conductivity type in contact with said said guard region, wherein the outer circumferential auxiliary region surrounds said guard region, and its four corners have a round shape in plan view at an outer circumferential portion thereof, and the depth of the outer circumferential diffusion region is shallower than the depth of the guard region, wherein parts of the layer where the layer adjoins to a side face and bottom face of the guard region, have a plane orientation, and the guard region is formed of semiconductor single crystal.
A cartridge assembly for an aerosol delivery system, the cartridge assembly comprising: an active part of the cartridge assembly including a capillary tube, the capillary tube configured to receive a liquid formulation; a susceptor configured to be heated by induction, the susceptor configured to partially surround and heat the capillary tube; and a pair of displaceable covers (620, 630), which surround at least the capillary tube and the susceptor. an active part of the cartridge assembly including a capillary tube, the capillary tube configured to receive a liquid formulation; a susceptor configured to be heated by induction, the susceptor configured to partially surround and heat the capillary tube; and a pair of displaceable covers (620, 630), which surround at least the capillary tube and the susceptor.
A method for operating a breastpump, comprising the steps of: providing at least one stimulation sequence for stimulating the breast using a rapid cycle rate; providing at least one expression sequence for extracting milk at a lower cycle rate; and operating said breastpump within a breastpumping session in a pattern of said stimulation and expression sequences, including periods of pauses between certain sequences, which pattern emulates the suckling action of a newborn baby prior to the onset of lactogenesis II. providing at least one stimulation sequence for stimulating the breast using a rapid cycle rate; providing at least one expression sequence for extracting milk at a lower cycle rate; and operating said breastpump within a breastpumping session in a pattern of said stimulation and expression sequences, including periods of pauses between certain sequences, which pattern emulates the suckling action of a newborn baby prior to the onset of lactogenesis II.
A composite styrene polymer foam molding having a density in the range from 10 to 50 kg/m 3 and comprising a) 15 - 50% by volume of organic nanoporous particles, and b) 85 - 50% by volume of pre-foamed styrene polymer particles. a) 15 - 50% by volume of organic nanoporous particles, and b) 85 - 50% by volume of pre-foamed styrene polymer particles.
An organic electroluminescent device comprising a hole injection layer or a hole transport layer, comprising a composition comprising: (a) at least one conductive conjugated polymer doped with a redox dopant and upon doping possessing a band gap of less than 1 eV, said conductive conjugated polymer being a polythiophene; and (b) at least one semiconducting matrix component possessing a band gap of from 1 eV to 3 eV that is different from the conductive conjugated polymer in (a); wherein the semiconducting matrix component is a semiconducting polymer selected from the group consisting of polymers comprised of repeat units comprising hole transporting compound units in the main-chain and/or in a side-chain, polyarylamine ketone polymers, polyaromatic polymers, polyvinyl aromatic polymers, fluorene-based polymers, poly(N,N'-bis(4-butylphenyl)-N, N' -bis(phenyl)benzidine and poly(copper phthalocyanine); and wherein the composition comprises less than 5 % (w/w) of an insulating matrix component calculated on the basis of the weight of all solids in the composition, wherein the insulating matrix component is a polymer possessing a band gap of greater than 3 eV. (a) at least one conductive conjugated polymer doped with a redox dopant and upon doping possessing a band gap of less than 1 eV, said conductive conjugated polymer being a polythiophene; and (b) at least one semiconducting matrix component possessing a band gap of from 1 eV to 3 eV that is different from the conductive conjugated polymer in (a);
Process for starting up a hydroformylation reactor containing a heterogenized hydroformylation catalyst system on a support monolith, where the hydroformylation catalyst system comprises a metal of group 8 or 9 of the Periodic Table of the Elements, at least one organic phosphorus-containing ligand, a stabilizer and optionally an ionic liquid, where the process is characterized in that a gaseous feed mixture comprising C2-C8-olefins to be hydroformylated is introduced together with a synthesis gas mixture into the reactor and the composition of the feed mixture and/or the composition of the synthesis gas mixture is varied at a constant volume flow in a plurality of steps by increasing the proportion of C2-C8-olefins to be hydroformylated in the feed mixture and/or the proportion of synthesis gas in the synthesis gas mixture stepwise, with the proviso that a maximum conversion of the C2-C8-olefins used of from 40 to 90% is not exceeded during the entire startup.
Method to clean with cleaning fluid an apparatus to treat loose objects provided with a machine, to treat said loose objects and comprising introduction means, a section to discharge the loose objects treated by said treatment machine toward a use station operatively and selectively in communication with said discharge section, wherein said method comprises performing a cleaning cycle when said treatment apparatus is not being used to treat said loose objects, which, while said cleaning cycle is performed, are not present in said treatment apparatus, said cleaning cycle comprising: - delivering a cleaning fluid into said treatment apparatus using the same introduction means provided in said treatment machine, said cleaning fluid being made to flow along a cleaning circuit comprising the same passage circuit of the loose objects treated by said treatment apparatus which develops along said treatment machine and said discharge section up to an outlet selectively associated with said use station; - discharging said cleaning fluid through a discharge circuit downstream of said discharge section and which is selectively connected to said outlet by means of a connection pipe only in a first operating condition, which is used to perform the cleaning cycle of said treatment apparatus, when a loading aperture of said treatment machine is sealed closed and said discharge section is in communication with said treatment machine and is not in communication with said use station, while in a second non-operating condition, which is used to treat the loose objects in said treatment apparatus, said discharge circuit is not connected to said outlet by means of said connection pipe and said outlet is therefore in communication with said use station allowing the discharge of said loose objects into said use station by means of said outlet. - delivering a cleaning fluid into said treatment apparatus using the same introduction means provided in said treatment machine, said cleaning fluid being made to flow along a cleaning circuit comprising the same passage circuit of the loose objects treated by said treatment apparatus which develops along said treatment machine and said discharge section up to an outlet selectively associated with said use station; - discharging said cleaning fluid through a discharge circuit downstream of said discharge section and which is selectively connected to said outlet by means of a connection pipe only in a first operating condition, which is used to perform the cleaning cycle of said treatment apparatus, when a loading aperture of said treatment machine is sealed closed and said discharge section is in communication with said treatment machine and is not in communication with said use station, while in a second non-operating condition, which is used to treat the loose objects in said treatment apparatus, said discharge circuit is not connected to said outlet by means of said connection pipe and said outlet is therefore in communication with said use station allowing the discharge of said loose objects into said use station by means of said outlet.
A method implemented in a decoder, the method comprising: receiving, by a receiver of the decoder, a bitstream comprising a flag and a plurality of sub-pictures associated with a picture, wherein the sub-pictures are contained in a plurality of video coding layer, VCL, network abstraction layer, NAL, units; wherein the bitstream includes a picture parameter set, PPS, containing the flag; determining, by a processor of the decoder, based on a value of the flag, that all VCL NAL units of the picture have a same NAL unit type, or that VCL NAL units of one or more of the sub-pictures of the picture all have a particular value of an intra-random access point, IRAP, NAL unit type and all other VCL NAL units of the picture have a particular value of a non-IRAP NAL unit type; and decoding, by the processor, one or more of the sub-pictures based on the particular value of the IRAP NAL unit type or the particular value of the non-IRAP NAL unit type. determining, by a processor of the decoder, based on a value of the flag, that all VCL NAL units of the picture have a same NAL unit type, or that VCL NAL units of one or more of the sub-pictures of the picture all have a particular value of an intra-random access point, IRAP, NAL unit type and all other VCL NAL units of the picture have a particular value of a non-IRAP NAL unit type; and decoding, by the processor, one or more of the sub-pictures based on the particular value of the IRAP NAL unit type or the particular value of the non-IRAP NAL unit type.
A computer-implemented method executed by an industrial controller comprising a network interface adapted to communicate with one or more connectable motor drives, and an electronic computer communicating with the network interface, the method comprising: receiving a control program providing motion control instructions including a motion command; and executing the motion control instructions by: identifying a motor drive associated with the motion command; and determining whether the identified motor drive is capable of executing a motion planner, which provides a time series of motion data for controlling a motor when initiated by the motion command caused by execution of a motion control instruction, and if capable, transmitting the motion command to the identified motor drive over the network interface, otherwise transmitting the motion command to a motion planner in the industrial controller. receiving a control program providing motion control instructions including a motion command; and executing the motion control instructions by: identifying a motor drive associated with the motion command; and determining whether the identified motor drive is capable of executing a motion planner, which provides a time series of motion data for controlling a motor when initiated by the motion command caused by execution of a motion control instruction, and if capable, transmitting the motion command to the identified motor drive over the network interface, otherwise transmitting the motion command to a motion planner in the industrial controller.