mhurhangee/ep-ind-claims huggingface dataset:
Computer device for determining an appropriate positioning of an instrumentation on a target bone area according to a relative positioning of said instrumentation to said target bone area defined by a surgical planning, said device comprising - an interface for receiving from a 3D camera a depth map of a captured scene comprising at least said target bone area and said instrumentation; - computing means for determining a position element of said target bone area from said depth map, comprising a first positioned shape of said target bone area; characterised in that said device further comprises determining a positioned shape of said instrumentation from said depth map, determining a second positioned shape of said target bone area according to said positioned shape and said relative positioning, and determining data representative of said appropriate positioning on the base of said second positioned shape and said first positioned shape; - a human-machine interface for providing said data. - an interface for receiving from a 3D camera a depth map of a captured scene comprising at least said target bone area and said instrumentation; - computing means for determining a position element of said target bone area from said depth map, comprising a first positioned shape of said target bone area; characterised in that said device further comprises determining a positioned shape of said instrumentation from said depth map, determining a second positioned shape of said target bone area according to said positioned shape and said relative positioning, and determining data representative of said appropriate positioning on the base of said second positioned shape and said first positioned shape; - a human-machine interface for providing said data.
A trocar comprising a silencer, the trocar consisting of a trocar rod and a sheath, and wherein a proximal end sealing assembly of the sheath of the trocar comprises an upper cover, a radial sealing assembly, a silencer and a lower cover; the silencer is an elastic body capable of having elastic deformation, one end of the silencer is installed on the radial sealing assembly, and the other end of the silencer is installed on the lower cover; and the radial sealing assembly is installed between the upper cover and the lower cover, wherein the silencer is configured to hold up the radial sealing assembly so as to reduce a gap between the upper cover and an upper pressing plate of the radial sealing assembly, thereby reducing impact noise when a surgical instrument moves through the trocar.
A fusing unit for an image forming apparatus, comprising: a press roller; an endless heating belt in contact with the press roller to form a fusing nip to apply heat and pressure to print medium onto which a visible image has been transferred as it passes through the nip; first and second parallel support rollers (23,25) spaced from each other to circulatingly support the heating belt; and a biasing member to bias the first and second support rollers (23,25) in opposite directions to maintain substantially constant tension in the heating belt, a fixed frame to rotatably support the first support roller; and a movable frame to rotatably support the second support roller, the moveable frame being slidably coupled to the fixed frame, and the biasing member extends between the fixed and movable frames (30,40) to bias the first and second support rollers (23,25) away from each other, characterised in that one of the fixed frame and the movable frame is provided with a guide rail, and the other is provided with a guide rib that cooperates with the guide rail to slidably guide the guide rail, the guide rib and guide rail being spaced apart from the biasing member. a press roller; an endless heating belt in contact with the press roller to form a fusing nip to apply heat and pressure to print medium onto which a visible image has been transferred as it passes through the nip; first and second parallel support rollers (23,25) spaced from each other to circulatingly support the heating belt; and a biasing member to bias the first and second support rollers (23,25) in opposite directions to maintain substantially constant tension in the heating belt, a fixed frame to rotatably support the first support roller; and a movable frame to rotatably support the second support roller, the moveable frame being slidably coupled to the fixed frame, and the biasing member extends between the fixed and movable frames (30,40) to bias the first and second support rollers (23,25) away from each other, characterised in that one of the fixed frame and the movable frame is provided with a guide rail, and the other is provided with a guide rib that cooperates with the guide rail to slidably guide the guide rail, the guide rib and guide rail being spaced apart from the biasing member.
Variable securing arrangement for an interior equipment element (14; 30) on the body of a vehicle, in particular a passenger seat at the side wall of a rail vehicle, having at least one body-side engagement device (5; 24) and having a securing rail (13; 27) which is connected to the interior equipment element (14; 30), characterized in that the securing arrangement has recesses (3; 21) in the longitudinal direction of the vehicle, at least one retention element (4; 22) of the engagement device (5; 24) engages in the recesses (3; 21), and the engagement device (5; 24) is connected to the securing rail (13; 27) in such a manner that the securing rail (13; 27) can be adjusted with the interior equipment element (14; 30) in the longitudinal direction of the vehicle relative to the engagement device (5; 24) by an adjustment path which corresponds to at least the largest spacing of two sequential recesses (3; 22).
A fuel cell stack having at least one fuel cell which comprises a plurality of media channels, having media guides which are in flow connection with the media channels, and having a clamping system which has clamping means, characterized in that the fuel cell is accommodated in a stack module box, in that the media guides are arranged on the outside of the stack module box and are designed with a spring function, and in that the clamping means are guided around the media channels, the spring function being realized by the media guides being formed from a resilient material.
A method for producing an NK cell-enriched blood product, comprising: a stimulation step of stimulating NK cells comprised in blood collected from an organism, with NK cell growth-stimulating factors comprising at least an anti-CD16 antibody, OK432 (Picibanil), a bisphosphonate derivative or a salt thereof, or a hydrate thereof, and a cytokine; and a culture step of culturing the blood at a physiological cell temperature after the stimulation step, wherein the bisphosphonate derivative is a compound represented by the following general formula 1: in the formula, R 1 represents a hydrogen atom or a lower alkyl group; R 2 and R 3 each independently represent a hydrogen atom, halogen, a hydroxyl group, an amino group, a thiol group, a substituted or unsubstituted aryl group, a substituted or unsubstituted alkyl group, a lower alkylamino group, an aralkyl group, a cycloalkyl group, or a heterocyclic group, or R 2 and R 3 form a portion of a cyclic structure containing them wherein substituents forming the cyclic structure are each independently derived from halogen, a lower alkyl group, a hydroxyl group, a thiol group, an amino group, an alkoxy group, an aryl group, an arylthio group, an aryloxy group, an alkylthio group, a cycloalkyl group, or a heterocyclic group in R 2 and R 3. a stimulation step of stimulating NK cells comprised in blood collected from an organism, with NK cell growth-stimulating factors comprising at least an anti-CD16 antibody, OK432 (Picibanil), a bisphosphonate derivative or a salt thereof, or a hydrate thereof, and a cytokine; and a culture step of culturing the blood at a physiological cell temperature after the stimulation step, wherein the bisphosphonate derivative is a compound represented by the following general formula 1:
A sole component for an article of footwear (1; 75; 100; 200; 201) comprising: an elastomeric material (16; 110; 300; 300C) which includes a mixture of a cured rubber and a polymeric hydrogel, in which the polymeric hydrogel is distributed throughout and at least a portion is entrapped by the cured rubber; and one or more traction elements (95; 138) on a side of the sole component configured to be ground facing, wherein the elastomeric material (16; 110; 300; 300C) is not disposed on tips of the traction elements (95; 138) configured to be ground contacting, wherein the elastomeric material (16; 110; 300; 300C) is disposed in an area separating the traction elements (95; 138), and wherein the elastomeric material (16; 110; 300; 300C) is on the outside surface so to be ground-facing under normal use. an elastomeric material (16; 110; 300; 300C) which includes a mixture of a cured rubber and a polymeric hydrogel, in which the polymeric hydrogel is distributed throughout and at least a portion is entrapped by the cured rubber; and one or more traction elements (95; 138) on a side of the sole component configured to be ground facing, wherein the elastomeric material (16; 110; 300; 300C) is not disposed on tips of the traction elements (95; 138) configured to be ground contacting, wherein the elastomeric material (16; 110; 300; 300C) is disposed in an area separating the traction elements (95; 138), and wherein the elastomeric material (16; 110; 300; 300C) is on the outside surface so to be ground-facing under normal use.
A binding machine comprising: a wire feeding unit (3A, 3B, 3C) configured to feed a wire to be wound on an object to be bound; a binding unit configured to twist the wire wound on the object to be bound; a first guide having an introduction part into which the wire to be fed by the wire feeding unit is to be introduced, and configured to curl the wire introduced from the introduction part; a second guide configured to guide the wire delivered from the first guide toward the binding unit; a main body part having one end portion at which the first guide and the second guide are provided; and an entry regulation part (103A, 103B, 103C, 103D) provided in the main body part, provided at one side of the introduction part of the first guide at a downstream side of the binding unit with respect to a feeding direction of the wire to be fed toward the first guide by the wire feeding unit, and configured to prevent the wire from entering into one side of the introduction part of the first guide, characterized in that the first guide comprises a guide member configured to curl the wire, and a retraction mechanism configured to retract the guide member, and the entry regulation part (103A, 103B, 103C, 103D) is provided at a position at which the wire is prevented from entering into a moveable area of the retraction mechanism. a wire feeding unit (3A, 3B, 3C) configured to feed a wire to be wound on an object to be bound; a binding unit configured to twist the wire wound on the object to be bound; a first guide having an introduction part into which the wire to be fed by the wire feeding unit is to be introduced, and configured to curl the wire introduced from the introduction part; a second guide configured to guide the wire delivered from the first guide toward the binding unit; a main body part having one end portion at which the first guide and the second guide are provided; and an entry regulation part (103A, 103B, 103C, 103D) provided in the main body part, provided at one side of the introduction part of the first guide at a downstream side of the binding unit with respect to a feeding direction of the wire to be fed toward the first guide by the wire feeding unit, and configured to prevent the wire from entering into one side of the introduction part of the first guide, characterized in that the first guide comprises a guide member configured to curl the wire, and a retraction mechanism configured to retract the guide member, and the entry regulation part (103A, 103B, 103C, 103D) is provided at a position at which the wire is prevented from entering into a moveable area of the retraction mechanism.
A method of operating a computer-based gaming system, the method comprising: generating, by the gaming system, a customized game engine data model, GEDM,, configured to represent a math of a given game, wherein the customized GEDM is derived from a unified GEDM by defining customizable parameters meeting a user's specification and related to the math of the given game, and wherein the unified GEDM specifies a math unified for all customized GEDMs derivable from the unified data model by defining the customizable parameters related to the math; generating, by the gaming system, a Game Engine Package comprising the customized GEDM and an executor thereof, wherein the executor is unified and applicable to any customized GEDM derivable from the unified data model; validating the generated Game Engine Package; and deploying the validated Game Engine Package to one or more instances of the gaming system; wherein the validated Game Engine Package is configured as a single sealed unit comprising a logic for a one or more games. generating, by the gaming system, a customized game engine data model, GEDM,, configured to represent a math of a given game, wherein the customized GEDM is derived from a unified GEDM by defining customizable parameters meeting a user's specification and related to the math of the given game, and wherein the unified GEDM specifies a math unified for all customized GEDMs derivable from the unified data model by defining the customizable parameters related to the math; generating, by the gaming system, a Game Engine Package comprising the customized GEDM and an executor thereof, wherein the executor is unified and applicable to any customized GEDM derivable from the unified data model; validating the generated Game Engine Package; and deploying the validated Game Engine Package to one or more instances of the gaming system; wherein the validated Game Engine Package is configured as a single sealed unit comprising a logic for a one or more games.
Process for producing a release liner encompassing at least one crosslinked silicone coating based on addition-crosslinking polysiloxanes, and also hydrosilylation catalysts, wherein the hydrosilylation catalysts are platinum, a platinum-complex compound or a platinum compound, the silicone coating is treated with compounds which act as contact poisons for the hydrosilylation catalysts, wherein the contact poisons are selected from the group consisting of 2-methyl-1H-imidazole, dicyandiamide, diphenylamine, triethylenetetramine, tris(2,4-di-tert-butylphenyl) phosphite, N-(2-aminoethyl)piperazine, dodecylamine, dodecyl mercaptan, distearylpenta-erythritol diphosphite, tributyl phosphite, triphenylphosphine, triphenyl phosphite, 1,4-bisoxazolinebenzene, benzimidazole-2-thiol, didodecyl 3,3'-thiopropionate, 2,4-bis(n-octylthio)-6-(4-hydroxy-3,5-di-tert-butylanilino)-1,3,5-triazine, 2-ethylhexyl thioglycolate and pentaerythritol tetra(3-mercaptopropionate); characterized in that when the contact poisons are applied to the silicone coating by wiping, spraying, printing, rolling, or from the gas phase, or in the form of aerosol, or by any other application method, foreign substances are added, which foreign substances are selected from the group consisting of carrier gases and solvents; and a pressure-sensitive adhesive-mass layer is applied to the treated silicone layer or the release liner is laminated with the treated silicone layer onto a pressure-sensitive adhesive-mass layer.
A vortex tube comprising: a main body; an inlet coupled to a back side of the main body and into which compressed air is introduced; an air circulating chamber in a type of hollow tube installed in the main body; a passage channel disposed between an inner surface of the main body and an outer surface of the air circulating chamber and through which the air introduced through the inlet passes forwards; a vortex generator coupled to a front side of the air circulating chamber so as to enable the air being introduced through the passage channel to spin in the air circulating chamber; a cold air-outlet coupled to a front side of the main body and through which cold air is discharged outside from the air circulating chamber; and a hot air-outlet coupled to a back side of the air circulating chamber and through which hot air is discharged outside from the air circulating chamber, wherein the passage channel is ring-shaped, and the hot air-outlet is disposed at an end phase of the vortex tube in the area of the inlet for compressed air, characterized in that the air circulating chamber is provided on an outer surface on a front side thereof with a plurality of protrusions at regular angular intervals, wherein the compressed air passes through between the protrusions. a main body; an inlet coupled to a back side of the main body and into which compressed air is introduced; an air circulating chamber in a type of hollow tube installed in the main body; a passage channel disposed between an inner surface of the main body and an outer surface of the air circulating chamber and through which the air introduced through the inlet passes forwards; a vortex generator coupled to a front side of the air circulating chamber so as to enable the air being introduced through the passage channel to spin in the air circulating chamber; a cold air-outlet coupled to a front side of the main body and through which cold air is discharged outside from the air circulating chamber; and a hot air-outlet coupled to a back side of the air circulating chamber and through which hot air is discharged outside from the air circulating chamber, wherein the passage channel is ring-shaped, and the hot air-outlet is disposed at an end phase of the vortex tube in the area of the inlet for compressed air, characterized in that the air circulating chamber is provided on an outer surface on a front side thereof with a plurality of protrusions at regular angular intervals, wherein the compressed air passes through between the protrusions.
A sealing device installed in heating treatment equipment through which a steel strip passes, the device comprising: a rotary damper which is placed above the steel strip so as to be in contact with the steel strip; and a roll which is placed below the steel strip so that the roll opposes the rotary damper to form a pair consisting of the rotary damper and the roll opposing each other, the steel strip passing through a gap, which is formed between the rotary damper and the roll opposing each other, wherein two pairs each of which is the pair consisting of the rotary damper and the roll opposing each other are arranged in tandem in a moving direction of the steel strip in the heating treatment equipment, and an inert gas is fed into a space defined by the two pairs arranged in tandem, and wherein the rotary damper has holes which are arranged in a width direction of the steel strip and through which the inert gas is sprayed onto the steel strip. a rotary damper which is placed above the steel strip so as to be in contact with the steel strip; and a roll which is placed below the steel strip so that the roll opposes the rotary damper to form a pair consisting of the rotary damper and the roll opposing each other, the steel strip passing through a gap, which is formed between the rotary damper and the roll opposing each other, wherein two pairs each of which is the pair consisting of the rotary damper and the roll opposing each other are arranged in tandem in a moving direction of the steel strip in the heating treatment equipment, and an inert gas is fed into a space defined by the two pairs arranged in tandem, and wherein the rotary damper has holes which are arranged in a width direction of the steel strip and through which the inert gas is sprayed onto the steel strip.
A method for manufacturing a pellet in a pellet mill, which comprises a roller and a die with a nozzle, which method comprises the steps of pressing a mixture for compaction by the roller through the nozzle to obtain a strand, and comminuting the strand to obtain the pellet, wherein the mixture for compaction comprises the components (i) 87 to 97 wt.% of a polymer stabilizer mixture, which comprises the polymer stabilizers (i-1) 45 to 55 wt.% of tris(2,4-ditert-butylphenyl) phosphite (CAS-No. 31570-04-4), (i-2) 45 to 55 wt.% of tetrakis-[3-(3,5-ditert-butyl-4-hydroxy-phenyl)-propionyloxymethyl]methane (CAS-No. 6683-19-8), and wt.% of the polymer stabilizers (i-1) and (i-2) are based on the weight of the polymer stabilizer mixture, and (ii) 3 to 13 wt.% of a processing aid, which is a propylene-ethylene copolymer and which possesses a melting enthalpy below 20 J / g at 101.32 kPa, wherein the melting enthalpy is determined by a differential scanning calorimetry according to EN ISO 11357-3; and wt.% of the components (i) and (ii) are based on the weight of the mixture for compaction. pressing a mixture for compaction by the roller through the nozzle to obtain a strand, and comminuting the strand to obtain the pellet, (i) 87 to 97 wt.% of a polymer stabilizer mixture, which comprises the polymer stabilizers (i-1) 45 to 55 wt.% of tris(2,4-ditert-butylphenyl) phosphite (CAS-No. 31570-04-4), (i-2) 45 to 55 wt.% of tetrakis-[3-(3,5-ditert-butyl-4-hydroxy-phenyl)-propionyloxymethyl]methane (CAS-No. 6683-19-8), and wt.% of the polymer stabilizers (i-1) and (i-2) are based on the weight of the polymer stabilizer mixture, and (i-1) 45 to 55 wt.% of tris(2,4-ditert-butylphenyl) phosphite (CAS-No. 31570-04-4), (i-2) 45 to 55 wt.% of tetrakis-[3-(3,5-ditert-butyl-4-hydroxy-phenyl)-propionyloxymethyl]methane (CAS-No. 6683-19-8), and wt.% of the polymer stabilizers (i-1) and (i-2) are based on the weight of the polymer stabilizer mixture, and (ii) 3 to 13 wt.% of a processing aid, which is a propylene-ethylene copolymer and which possesses a melting enthalpy below 20 J / g at 101.32 kPa, wherein the melting enthalpy is determined by a differential scanning calorimetry according to EN ISO 11357-3;
A rapid exchange type catheter (240, 300, 700) adapted for placing a self-expanding stent (252, 308, 716), the catheter comprising: an outer member (246, 314, 540, 706) having a proximal portion, a distal portion, and a guidewire port (242, 302) therebetween, the distal portion adapted to cover a self-expanding stent; an inner member (248, 306, 542, 704) positioned within a lumen defined by the outer member, the inner member having a proximal portion and a tubular distal portion, the tubular distal portion defining a guidewire lumen for passing a guidewire, the distal portion adapted to receive a self-expanding stent thereon; and a mandrel member (250, 320, 530, 702) having a ramp (536, 710) at its distal end, a portion of the mandrel member positioned within the outer member; wherein the outer member (246, 314, 540, 706) is movable with respect to the inner member (248, 306, 542, 704). an outer member (246, 314, 540, 706) having a proximal portion, a distal portion, and a guidewire port (242, 302) therebetween, the distal portion adapted to cover a self-expanding stent; an inner member (248, 306, 542, 704) positioned within a lumen defined by the outer member, the inner member having a proximal portion and a tubular distal portion, the tubular distal portion defining a guidewire lumen for passing a guidewire, the distal portion adapted to receive a self-expanding stent thereon; and a mandrel member (250, 320, 530, 702) having a ramp (536, 710) at its distal end, a portion of the mandrel member positioned within the outer member; wherein the outer member (246, 314, 540, 706) is movable with respect to the inner member (248, 306, 542, 704).
A recombinant AAV (rAAV) comprising: a capsid containing a nucleic acid comprising a transgene encoding a human acid beta-galactosidase (βgal) protein, wherein the transgene is operably linked to a hybrid promoter, and wherein the nucleic acid does not comprise a woodchuck hepatitis virus posttranscriptional regulatory element (WPRE).