mhurhangee/ep-ind-claims huggingface dataset:
A method for gamut mapping source colors into target colors from a source color gamut towards a target color gamut, comprising: adaptively changing a source hue of at least one source specific color towards a target hue of a corresponding target specific color based on a difference α between a hue of this source specific color and a hue of this target specific color to determine a mapped specific color; performing color gamut mapping for the source colors of the source color gamut towards the target color gamut based on the mapped specific colors, wherein the specific colors are at least one selected from a group of primary colors, secondary colors, a group of primary colors and secondary colors, wherein said changing of hue is represented by a hue rotation angle θ = α ∗ cos γ − β 2 in a hue-chroma plane having an origin O defined by a zero chroma value in this plane, where, if said at least one source specific color and corresponding target specific color are represented respectively by (P s) and (P t) in said hue-chroma plane, α = P t OP s ^, β = OP t P s ^, and γ = OP s P t ^. adaptively changing a source hue of at least one source specific color towards a target hue of a corresponding target specific color based on a difference α between a hue of this source specific color and a hue of this target specific color to determine a mapped specific color; performing color gamut mapping for the source colors of the source color gamut towards the target color gamut based on the mapped specific colors, wherein the specific colors are at least one selected from a group of primary colors, secondary colors, a group of primary colors and secondary colors, wherein said changing of hue is represented by a hue rotation angle θ = α ∗ cos γ − β 2 in a hue-chroma plane having an origin O defined by a zero chroma value in this plane, where, if said at least one source specific color and corresponding target specific color are represented respectively by (P s) and (P t) in said hue-chroma plane, α = P t OP s ^, β = OP t P s ^, and γ = OP s P t ^.
A compound of the formula: wherein either R 1 or R 2 is independently selected from Cl, F, -CF 3, or -CH 3, and the other is hydrogen, or a pharmaceutically acceptable salt thereof.
An apparatus for breaking off the head of a glass ampoule that is composed of a cylindrical body, a neck forming a predetermined breaking point, and a head, having an incline extending in a manner inclined to the axis of the ampoule to be inserted toward the same, wherein during a relative movement of the apparatus to the ampoule in the direction of the axis thereof the incline breaks off the head thereof at the neck thereof, having a first support surface, disposed at a distance from the axis of the apparatus corresponding to the radius of the ampoule on the side of the incline causing a break-off of the head, in the region above the bottom of the ampoule to be inserted, and a second support surface, disposed at a distance corresponding to the radius of the ampoule, on the opposite side beneath the neck of the ampoule, inserted into the apparatus, from the axis of the apparatus, characterized in that in the region of the incline opposite thereto at a distance that is smaller than the clear diameter of the head a spring element is disposed that holds the broken-offhead up to manual action onto its tip.
A constraining sheath comprising: an inverted sheath having an inner layer and an outer layer; the layers at least partially defining a chamber, wherein when the chamber is pressurized by introducing fluid into the chamber, the pressurization causes the inverted sheath to evert by foreshortening of the inverted sheath. an inverted sheath having an inner layer and an outer layer; the layers at least partially defining a chamber, wherein when the chamber is pressurized by introducing fluid into the chamber, the pressurization causes the inverted sheath to evert by foreshortening of the inverted sheath.
A conjugate of a carbohydrate and a dihydroxychlorin for eliminating microorganisms based on the formula 1: wherein: - R is: a a phenyl ring with a substituent X either in the meta- or para- position; wherein X is: a glucosyl, galactosyl, mannosyl, 2-acetamidoglucosyl, lactosyl, cellobiosyl, maltosyl or 3,4,6-trideoxy-3-(dimethylamino)-D- xylo- hexopyranosyl substituent. - R is: a a phenyl ring with a substituent X either in the meta- or para- position; wherein X is: a glucosyl, galactosyl, mannosyl, 2-acetamidoglucosyl, lactosyl, cellobiosyl, maltosyl or 3,4,6-trideoxy-3-(dimethylamino)-D- xylo- hexopyranosyl substituent.
A pharmaceutical composition for use in the prevention or treatment of liver disease, comprising: a pharmaceutically acceptable excipient; and a peptide comprising an amino acid sequence of SEQ ID NO: 42 in a pharmaceutically effective amount, wherein the liver disease is at least one disease selected from the group consisting of simple steatosis, non-alcoholic fatty liver (NAFL), liver inflammation, non-alcoholic steatohepatitis (NASH), metabolic liver disease, cholestatic liver disease, liver fibrosis, liver cirrhosis, liver decompensation, and liver cancer. a pharmaceutically acceptable excipient; and a peptide comprising an amino acid sequence of SEQ ID NO: 42 in a pharmaceutically effective amount, wherein the liver disease is at least one disease selected from the group consisting of simple steatosis, non-alcoholic fatty liver (NAFL), liver inflammation, non-alcoholic steatohepatitis (NASH), metabolic liver disease, cholestatic liver disease, liver fibrosis, liver cirrhosis, liver decompensation, and liver cancer.
An introducer member in combination with an end effector of a surgical stapling device, the introducer member including: a proximal portion and a distal portion, characterized in that the proximal portion includes an outer layer and an inner layer which collectively define a cavity therebetween, the proximal portion including a hollow which is configured to receive a portion of the end effector, wherein the introducer member further includes a passage extending longitudinally therethrough which is in fluid communication with the cavity, and a port supported on the distal portion of the introducer member, the passage providing a fluid communication and allowing a fluid to pass through the port and into the cavity to thereby fill and inflate the cavity, such that a transverse dimension of the hollow is increased to allow positioning of the end effector within the hollow.
An alkaline nickel-cadmium cell comprising at least one negative electrode and at least one positive electrode, characterized in that the negative electrode is designed as a pocket-type plate electrode and the positive electrode is designed as a fibre structure electrode.
A piston for a cylinder for an internal combustion engine, the piston having a piston bowl surface adapted for facing a combustion chamber of the cylinder, the piston bowl surface being provided with a thermal barrier coating layer, characterised in that the thermal barrier coating layer is provided on a plurality of circumferentially spaced surface parts of the piston bowl surface.
A respiratory nosepiece (10, 20) comprising: a first nasal prong configured to be insertable into a nostril of a patient, a first channel extending through the first nasal prong along a first direction; and a first side port connectable to tubes (192, 194) having different first and second diameters, the first side port including a second channel extending along a second direction orthogonal with respect to the first direction, the second channel having a first end configured to insertably receive the tubes (192, 194) and having a second end in communication with the first channel, the second channel comprising a first section at the first end having the first diameter, a second section having the second diameter, a first step between the first and second sections, and a second step between the second section and the second end of the second channel, the first step configured to prevent insertion of first tubes having the first diameter into the second section and the second step configured to prevent insertion of second tubes having the second diameter further into the second channel, wherein the second step consists of a wall portion, which is located only along an upper inner circumference of the second channel and which functions as a hard stop that abuts against an end face of an inserted tube to prevent further insertion of the tube into the second channel. a first nasal prong configured to be insertable into a nostril of a patient, a first channel extending through the first nasal prong along a first direction; and a first side port connectable to tubes (192, 194) having different first and second diameters, the first side port including a second channel extending along a second direction orthogonal with respect to the first direction, the second channel having a first end configured to insertably receive the tubes (192, 194) and having a second end in communication with the first channel, the second channel comprising a first section at the first end having the first diameter, a second section having the second diameter, a first step between the first and second sections, and a second step between the second section and the second end of the second channel, the first step configured to prevent insertion of first tubes having the first diameter into the second section and the second step configured to prevent insertion of second tubes having the second diameter further into the second channel, wherein the second step consists of a wall portion, which is located only along an upper inner circumference of the second channel and which functions as a hard stop that abuts against an end face of an inserted tube to prevent further insertion of the tube into the second channel.
A method implemented in a network node of a cellular radio communications system using speed information regarding a user equipment, UE, the method comprising: receiving an indication of a speed of movement of the UE; analyzing system parameters using the speed of movement indication; and adjusting the system parameters using the analysis; characterized in that receiving an indication comprises receiving a handover report, for example an HO Report or an RLF INDICATION message, from another network node indicating a signal strength measured by the UE during an attempted handover from the network node to another cell, and a time elapsed between a connection request by the UE and a failure of the connection together with the indication of a speed of movement of the UE; wherein the system parameters comprise mobility thresholds for the UE; wherein analyzing comprises analyzing the handover report to determine whether the handover failure is due to UE speed of movement; and wherein adjusting comprises adjusting mobility thresholds for the UE with respect to neighbor cells. receiving an indication of a speed of movement of the UE; analyzing system parameters using the speed of movement indication; and adjusting the system parameters using the analysis; characterized in that receiving an indication comprises receiving a handover report, for example an HO Report or an RLF INDICATION message, from another network node indicating a signal strength measured by the UE during an attempted handover from the network node to another cell, and a time elapsed between a connection request by the UE and a failure of the connection together with the indication of a speed of movement of the UE; wherein the system parameters comprise mobility thresholds for the UE; wherein analyzing comprises analyzing the handover report to determine whether the handover failure is due to UE speed of movement; and wherein adjusting comprises adjusting mobility thresholds for the UE with respect to neighbor cells.
A method, implemented by a network node, for establishing a packet data network, PDN, network connection between a mobile device and a first network, the method comprising: establishing at least one data connection between the mobile device and the first network; receiving a request to establish the PDN network connection; establishing the PDN network connection after receiving the request, wherein the PDN network connection that is established uses a number of network resources, said number of network resources being less than the number of network resources used in the at least one data connection, and characterised by, the step of establishing the PDN network connection further includes: setting one or more parameters that prevents the mobile device from transmitting upstream data packets on the PDN network connection, and transmitting the one or more parameters to the mobile device. establishing at least one data connection between the mobile device and the first network; receiving a request to establish the PDN network connection; establishing the PDN network connection after receiving the request, wherein the PDN network connection that is established uses a number of network resources, said number of network resources being less than the number of network resources used in the at least one data connection, and characterised by, the step of establishing the PDN network connection further includes: setting one or more parameters that prevents the mobile device from transmitting upstream data packets on the PDN network connection, and transmitting the one or more parameters to the mobile device. setting one or more parameters that prevents the mobile device from transmitting upstream data packets on the PDN network connection, and transmitting the one or more parameters to the mobile device.
A chromatographic column assembly comprising: - a channel comprising an inlet for receiving a sample liquid and an outlet, the channel being a chromatographic column adapted for separating the sample liquid into components when said sample liquid flows through the channel in an axial direction from said inlet to said outlet; and - a controllable flow inducer for inducing, when the sample liquid is flowing through the channel, a motion of said sample liquid in the channel in a plane substantially orthogonal to said axial direction, characterized in that the controllable flow inducer is a vortex flow inducer. - a channel comprising an inlet for receiving a sample liquid and an outlet, the channel being a chromatographic column adapted for separating the sample liquid into components when said sample liquid flows through the channel in an axial direction from said inlet to said outlet; and - a controllable flow inducer for inducing, when the sample liquid is flowing through the channel, a motion of said sample liquid in the channel in a plane substantially orthogonal to said axial direction,
Process for loading a blank (32, 38) composed of fused silica with hydrogen, wherein the loading comprises two steps, wherein the blank (32, 38) is loaded at a first temperature (T 1) and a first hydrogen partial pressure (p 1) in the first step and is loaded at a second temperature (T 2) which is different from the first temperature and a second hydrogen partial pressure (p 2) which is different from the first hydrogen partial pressure in the second step, wherein the first and second temperatures (T 1, T 2) are lower than a limit temperature (T L) at which thermal formation of silane in the fused silica of the blank (32, 38) commences and wherein the blank (32, 38) is loaded in the second step at a lower temperature (T 2 < T 1) than in the first step.
A plated steel sheet for hot press forming, the plated steel sheet comprising: a base steel sheet; an Al-Zn-based plating layer formed on at least one surface of the base steel sheet; and an Fe-Al-based interfacial alloy layer formed between the base steel sheet and the Al-Zn-based plating layer, wherein the Al-Zn-based plating layer comprises, by weight percentage, 10 to 30% of Zn, 1% or less of Fe, and a balance of aluminum and impurities, wherein the Fe-AI-based interfacial alloy layer comprises, by wt%, 30 to 60% of aluminum, 30 to 60% of iron, and 20% or less of silicon, and other impurities, wherein the Al-Zn-based plating layer optionally further comprises, by wt%, 0.05 to 10% of at least one selected from the group consisting of beryllium, titanium, and manganese, wherein the Al-Zn-based plating layer optionally further comprises, by wt%, 2% or less of magnesium, wherein a sum of thicknesses of the Al-Zn-based plating layer and the Fe-Al-based interfacial alloy layer is 5 to 40 μm, and wherein a thickness of the Fe-AI-based interfacial alloy layer is 5 to 35% of a sum of thicknesses of the Al-Zn-based plating layer and the Fe-AI-based interfacial alloy layer. a base steel sheet; an Al-Zn-based plating layer formed on at least one surface of the base steel sheet; and an Fe-Al-based interfacial alloy layer formed between the base steel sheet and the Al-Zn-based plating layer, wherein the Al-Zn-based plating layer comprises, by weight percentage, 10 to 30% of Zn, 1% or less of Fe, and a balance of aluminum and impurities, wherein the Fe-AI-based interfacial alloy layer comprises, by wt%, 30 to 60% of aluminum, 30 to 60% of iron, and 20% or less of silicon, and other impurities, wherein the Al-Zn-based plating layer optionally further comprises, by wt%, 0.05 to 10% of at least one selected from the group consisting of beryllium, titanium, and manganese, wherein the Al-Zn-based plating layer optionally further comprises, by wt%, 2% or less of magnesium, wherein a sum of thicknesses of the Al-Zn-based plating layer and the Fe-Al-based interfacial alloy layer is 5 to 40 μm, and wherein a thickness of the Fe-AI-based interfacial alloy layer is 5 to 35% of a sum of thicknesses of the Al-Zn-based plating layer and the Fe-AI-based interfacial alloy layer.
A polymer blend comprising: 50-89.5 % (w/w) of at least one polystyrene (co)polymer, other than styrene methyl methacrylate copolymer (SMMA), wherein said at least one polystyrene (co)polymer comprises more than 50 % (w/w) high impact polystyrene (HIPS); 10-30 % (w/w) of at least one poly(lactic acid); 0.5-20 % (w/w) of at least one styrene methyl methacrylate copolymer (SMMA); and optionally 0-5 % (w/w) of one or more additive(s). 50-89.5 % (w/w) of at least one polystyrene (co)polymer, other than styrene methyl methacrylate copolymer (SMMA), wherein said at least one polystyrene (co)polymer comprises more than 50 % (w/w) high impact polystyrene (HIPS); 10-30 % (w/w) of at least one poly(lactic acid); 0.5-20 % (w/w) of at least one styrene methyl methacrylate copolymer (SMMA); and optionally 0-5 % (w/w) of one or more additive(s).
An insulation film in which an adhesive layer, an interlayer and a resin layer are consecutively laminated, wherein a ratio of tensile strength after maintaining for 1000 hours under a condition of a temperature of 85°C and humidity of 85% (T H) with respect to tensile strength at room temperature (T R) of the insulation film (T H /T R) is from 0.9 to 1.0, wherein the adhesive layer includes a polymer resin, and wherein the polymer resin includes two or more types of polyester resins, and the polyester resin includes a first polyester resin having a molecular weight of 1,000 to 15,000 and a second polyester resin having a molecular weight of 20,000 to 35,000, and wherein the adhesive layer includes at least one or more types of curing agents, and the curing agent is a compound including at least one functional group among an isocyanate group, a block isocyanate group and a carbodiimide group, and wherein the curing agent is included in an amount of 6 parts by weight to 60 parts by weight with respect to 50 parts by weight of a polymer resin. wherein the polymer resin includes two or more types of polyester resins, and the polyester resin includes a first polyester resin having a molecular weight of 1,000 to 15,000 and a second polyester resin having a molecular weight of 20,000 to 35,000, and wherein the adhesive layer includes at least one or more types of curing agents, and the curing agent is a compound including at least one functional group among an isocyanate group, a block isocyanate group and a carbodiimide group, and wherein the curing agent is included in an amount of 6 parts by weight to 60 parts by weight with respect to 50 parts by weight of a polymer resin.
A method for altering a tissue thickness compensator (1104, 1120, 1140, 1150, 1190, 1200), said method comprising the steps of: obtaining a biocompatible polymer comprising a glass transition temperature and a melting temperature; dissolving said biocompatible polymer in a solvent to produce a solution; and lyophilizing said solution to obtain a tissue thickness compensator (1104, 1120, 1140, 1150, 1190, 1200) having a thickness and comprising a tissue-contacting surface and a deck-contacting surface, wherein said tissue-contacting surface and said deck-contacting surface are opposite one another and separated by said thickness, wherein said tissue thickness compensator (1104, 1120, 1140, 1150, 1190, 1200) is compressible in the thickness direction so as to compensate for the thickness of tissue captured within staples deployed from a surgical staple cartridge, wherein at least one of said surfaces (1114, 1142, 1166) is comprised at least partially from a material with a glass transition temperature and a melting temperature; heating said surface (1114, 1142, 1166) to a temperature higher than said glass transition temperature and lower than said melting temperature; manipulating said surface (1114, 1142, 1166); allowing said manipulated surface (1114, 1142, 1166, 1198) to cool below said glass transition temperature; and releasing said surface (1114,1142, 1166, 1198). obtaining a biocompatible polymer comprising a glass transition temperature and a melting temperature; dissolving said biocompatible polymer in a solvent to produce a solution; and lyophilizing said solution to obtain a tissue thickness compensator (1104, 1120, 1140, 1150, 1190, 1200) having a thickness and comprising a tissue-contacting surface and a deck-contacting surface, wherein said tissue-contacting surface and said deck-contacting surface are opposite one another and separated by said thickness, wherein said tissue thickness compensator (1104, 1120, 1140, 1150, 1190, 1200) is compressible in the thickness direction so as to compensate for the thickness of tissue captured within staples deployed from a surgical staple cartridge, wherein at least one of said surfaces (1114, 1142, 1166) is comprised at least partially from a material with a glass transition temperature and a melting temperature; heating said surface (1114, 1142, 1166) to a temperature higher than said glass transition temperature and lower than said melting temperature; manipulating said surface (1114, 1142, 1166); allowing said manipulated surface (1114, 1142, 1166, 1198) to cool below said glass transition temperature; and releasing said surface (1114,1142, 1166, 1198).