mhurhangee/patent-ind-claim-en huggingface dataset:
A child safety seat comprising an extendible protective element , wherein the extendible protective element comprises: a first thread component comprising a first external thread and a first internal thread , and a second thread component comprising a second external thread ; wherein the first thread component is rotatably connected to the second thread component via the first internal thread of the first thread component and the second external thread of the second thread component , wherein the extendible protective element further comprises a housing having a second internal thread and configured to be rotationally coupled to the first thread component via the first external thread of the first thread component and the second internal thread of the housing , wherein a friction occurring between the first internal thread of the first thread component and the second external thread of the second thread component when rotated relatively to each other is different from a friction occurring between the first external thread of the first thread component and the second internal thread of the housing when rotated relatively to each other. a first thread component comprising a first external thread and a first internal thread , and a second thread component comprising a second external thread ; wherein the first thread component is rotatably connected to the second thread component via the first internal thread of the first thread component and the second external thread of the second thread component , wherein the extendible protective element further comprises a housing having a second internal thread and configured to be rotationally coupled to the first thread component via the first external thread of the first thread component and the second internal thread of the housing , wherein a friction occurring between the first internal thread of the first thread component and the second external thread of the second thread component when rotated relatively to each other is different from a friction occurring between the first external thread of the first thread component and the second internal thread of the housing when rotated relatively to each other.
A protection and safety device against the impacts of masses in free and uncontrolled progression comprising a kinetic energy dissipating intercepting screen having an ability to be at least partially deformed during the braking and stopping of the progression of the moving masses striking the intercepting screen to participate in the dissipation of the kinetic energy of said masses, the intercepting screen comprising a structural frame internally delimiting an opening, a mesh network whose peripheral edges are linked to the structural frame so as to be kept deployed across the opening delimited by the structural frame , and fastening elements capable of mechanically linking the structural frame to a framework in a configuration where the structural frame and the mesh network are positioned across an aperture delimited by the framework , where the fastening elements comprise fastening members intended to be connected to the framework and a connecting cable arranged in a closed loop and mechanically linked to the fastening members , characterized in that the connecting cable is mechanically linked successively and alternately to the structural frame and the fastening members and in that the fastening elements further comprise, on the one hand, a plurality of fusible fastening tabs with predetermined breaking under load, secured to the structural frame by being staggered along the perimeter thereof, and on the other hand, a plurality of clamping members where each clamping member is capable of ensuring the clamping of any of the fastening tabs against the framework .
A method of using a chuck device (A), comprising: mounting the chuck device on a spindle of a machine tool for gripping a cutting tool (B), in such a manner that the axis of the spindle and the axis (Q) of the chuck device (A) are coaxial; inserting the cutting tool in the chuck device, the cutting tool being gripped coaxially with the axis (Q) of the chuck device; flowing working fluid in a passage provided inside the chuck device; and discharging, toward the cutting tool, the working fluid through a discharge opening provided at a leading end opening of the passage, characterized in that a discharging direction of the working fluid from the discharge opening is set opposite to a rotational direction (Rd) of the cutting tool and set with a tilt of an angle θ to a tangential direction of a rotation trajectory of the center of the discharge opening relative to a direction of the axis of the cutting tool, and the angle θ is calculated by the following Formula 1; θ = sin − 1 n × Dc × π / 12 × 10 5 × 5 P n: rotational speed of chuck device (min -1 ) Dc: diameter of virtual circle defined by rotation trajectory of center of discharge opening (mm) P: working fluid pressure at discharge opening (MPa) π: circular constant mounting the chuck device on a spindle of a machine tool for gripping a cutting tool (B), in such a manner that the axis of the spindle and the axis (Q) of the chuck device (A) are coaxial; inserting the cutting tool in the chuck device, the cutting tool being gripped coaxially with the axis (Q) of the chuck device; flowing working fluid in a passage provided inside the chuck device; and discharging, toward the cutting tool, the working fluid through a discharge opening provided at a leading end opening of the passage, characterized in that a discharging direction of the working fluid from the discharge opening is set opposite to a rotational direction (Rd) of the cutting tool and set with a tilt of an angle θ to a tangential direction of a rotation trajectory of the center of the discharge opening relative to a direction of the axis of the cutting tool, and the angle θ is calculated by the following Formula 1; θ = sin − 1 n × Dc × π / 12 × 10 5 × 5 P n: rotational speed of chuck device (min -1 ) Dc: diameter of virtual circle defined by rotation trajectory of center of discharge opening (mm) P: working fluid pressure at discharge opening (MPa) π: circular constant n: rotational speed of chuck device (min -1 ) Dc: diameter of virtual circle defined by rotation trajectory of center of discharge opening (mm) P: working fluid pressure at discharge opening (MPa) π: circular constant
A thread embedding therapy rope , which is a suture for thread-embedding therapy, comprising: a linear core including a biodegradable polymer; and a metal wire spirally wound on an outer circumferential surface of the linear core , wherein the metal wire includes at least one biodegradable metal selected from magnesium or zinc only or a mixture thereof, and an alloy formed of magnesium or zinc as a main component.
A method for discovering a security association formed between a first computing device (702-A) and a second computing device (702-B), comprising: obtaining by a third computing device from a fourth computing device a secret (x), wherein the secret (x) is the same secret generated by the first computing device (702-A) based on a seed (S) provided to the first computing device (702-A) by the fourth computing device , wherein the first computing device (702-A) used the secret (x) to compute a session key (xyP) for use in securing communications with the second computing device (702-B), wherein the first computing device (702-A) computed the session key (xyP) on the basis of the secret (x) and a value (yP; b=G^y(modP)) received from the second computing device (702-B) during an authenticated key exchange between the first computing device (702-A) and the second computing device (702-B), the value (yP; b=G^y(modP)) computed by the second computing device (702-B) based on a second secret (y); intercepting by the third computing device communications between the first computing device (702-A) and the second computing device (702-B) unbeknownst to the first computing device (702-A) and the second computing device (702-B), wherein the intercepted communications include the authenticated key exchange between the first computing device (702-A) and the second computing device (702-B) and wherein the intercepting includes intercepting the value (yP; b=G^y(modP)); re-computing by the third computing device the session key (xyP) based on the secret (x) and the intercepted value (yP; b=G^y(modP)). obtaining by a third computing device from a fourth computing device a secret (x), wherein the secret (x) is the same secret generated by the first computing device (702-A) based on a seed (S) provided to the first computing device (702-A) by the fourth computing device , wherein the first computing device (702-A) used the secret (x) to compute a session key (xyP) for use in securing communications with the second computing device (702-B), wherein the first computing device (702-A) computed the session key (xyP) on the basis of the secret (x) and a value (yP; b=G^y(modP)) received from the second computing device (702-B) during an authenticated key exchange between the first computing device (702-A) and the second computing device (702-B), the value (yP; b=G^y(modP)) computed by the second computing device (702-B) based on a second secret (y); intercepting by the third computing device communications between the first computing device (702-A) and the second computing device (702-B) unbeknownst to the first computing device (702-A) and the second computing device (702-B), wherein the intercepted communications include the authenticated key exchange between the first computing device (702-A) and the second computing device (702-B) and wherein the intercepting includes intercepting the value (yP; b=G^y(modP)); re-computing by the third computing device the session key (xyP) based on the secret (x) and the intercepted value (yP; b=G^y(modP)).
A method of manufacturing a fibrous, oxygen barrier film comprising the steps of: - providing at least a first and a second suspension each comprising microfibrillated cellulose (MFC) in an amount of at least 50 wt% calculated on the total solids content of said suspension, - applying said first suspension on a non-porous substrate to form a first web, - drying said first web to a solids content of at least 50 wt% in an intermediate drying step, - applying said second suspension comprising microfibrillated cellulose (MFC) onto the surface of said dried first web to form a second web, - drying the web, comprising said first and second web, in a final drying step to form a film having a basis weight of less than 40 g/m2 and an Oxygen Transmission Rate (OTR) value of below 10 ml/m 2 /per 24h at 50% RH. - providing at least a first and a second suspension each comprising microfibrillated cellulose (MFC) in an amount of at least 50 wt% calculated on the total solids content of said suspension, - applying said first suspension on a non-porous substrate to form a first web, - drying said first web to a solids content of at least 50 wt% in an intermediate drying step, - applying said second suspension comprising microfibrillated cellulose (MFC) onto the surface of said dried first web to form a second web, - drying the web, comprising said first and second web, in a final drying step to form a film having a basis weight of less than 40 g/m2 and an Oxygen Transmission Rate (OTR) value of below 10 ml/m 2 /per 24h at 50% RH.
Hydrodynamic coupling arrangement with a housing which is connected to pressure medium lines (71 to 73) for the introduction or discharge of pressure medium at least into/out of a pressure space which is at least largely sealed by means of a piston of a clutch device with respect to a toroidal space , likewise provided in the housing , of a hydrodynamic circuit , a receiving region which is rotatable relative to the housing being provided for axially movably receiving a radially inner piston boss of the piston of the clutch device , and at least one passage which is rotatable relative to the housing being provided in a passage region for establishing at least one flow connection between at least one pressure medium line and the pressure space , and the receiving region , just like the passage region , being in a rotary connection with a retardation device which influences a flow of pressure medium in the pressure space , the flow of the pressure medium passing, after passage through the passage region , into the pressure space , characterized in that the retardation device has a turbulence blade system which is provided with at least one turbulence blade which at least substantially has an extent radially to the outside into the pressure space .
A genetically attenuated Bordetella pertussis strain that expresses a hybrid protein comprising a part of the filamentous haemagglutinin (FHA) protein in the form of a N-terminal fragment of FHA enabling surface expression and secretion of a heterologous epitope or antigenic protein or protein fragment linked to said N-terminal fragment of FHA, said heterologous epitope or antigenic protein or protein fragment being different from FHA, wherein the gene coding for the native FHA protein is inactivated and the nucleic acid coding for the hybrid protein is in the locus of the deleted dnt gene.
A seal for use with a container for storing and dispensing consumer products comprising a tray having a generally planar top surface into which has been formed one or more discrete cavities for receiving the consumer products, the seal comprising: a cover film to seal the one or more cavities to retain the consumer products in the one or more cavities when secured to the generally planar top surface of the tray , the cover film having pre-formed lines of separation extending around the periphery of an underlying cavity in the tray when the seal is adhered to the top surface , and thereby defining a removable portion per cavity ; < characterised in that > the cover film including a pre-formed tamper-indicating line of separation (19a; 19b; 19c; 19d; 19f), where the cover film is designed to tear along the tamper-indicating line of separation (19a; 19b; 19c; 19d; 19f) if an attempt is made to remove the cover film from the tray , and where the tamper-indicating line of separation (19a; 19b; 19c; 19d; 19f) is defined by a pre-scored and/or pre-perforated tear line, <> the tamper-indicating line of separation (19a; 19b; 19c; 19d; 19f) is formed in the part of the cover film that lies outside the pre-formed lines of separation defining the one or more removable portions of the cover film , and wherein the tamper-indicating line of separation (19a; 19b; 19f) extends along and is adjacent to an edge (12a; 12b) of the cover film . a cover film to seal the one or more cavities to retain the consumer products in the one or more cavities when secured to the generally planar top surface of the tray , the cover film having pre-formed lines of separation extending around the periphery of an underlying cavity in the tray when the seal is adhered to the top surface , and thereby defining a removable portion per cavity ; < characterised in that > the cover film including a pre-formed tamper-indicating line of separation (19a; 19b; 19c; 19d; 19f), where the cover film is designed to tear along the tamper-indicating line of separation (19a; 19b; 19c; 19d; 19f) if an attempt is made to remove the cover film from the tray , and where the tamper-indicating line of separation (19a; 19b; 19c; 19d; 19f) is defined by a pre-scored and/or pre-perforated tear line, <> the tamper-indicating line of separation (19a; 19b; 19c; 19d; 19f) is formed in the part of the cover film that lies outside the pre-formed lines of separation defining the one or more removable portions of the cover film , and wherein the tamper-indicating line of separation (19a; 19b; 19f) extends along and is adjacent to an edge (12a; 12b) of the cover film .
A carbon material having a thermal spray coating layer, characterized by comprising: a carbonaceous substrate; and a silicon carbide-containing carbide layer that contains metallic silicon and a thermal spray coating layer, provided on the carbonaceous substrate in that order from the carbonaceous substrate, and wherein: the silicon carbide-containing carbide layer has an arithmetical mean surface roughness Ra of 1 μm or greater and a Vickers hardness HV of 50 or greater, at least a portion of the silicon carbide-containing carbide layer permeating the carbonaceous substrate, and the silicon carbide-containing carbide layer including a portion in which a permeation depth of the permeating portion is 50 μm or greater; and the thermal spray coating layer comprises a substance, the substance being capable of forming a silicide with silicon in the silicon carbide-containing carbide layer; the substance includes metallic materials capable of forming a silicide with silicon in the silicon carbide-containing carbide layer, alloy materials containing at least one of metallic elements of the metallic materials, or compounds containing at least one carbide or boride of the metallic elements; and a metal silicide layer is provided between the silicon carbide-containing carbide layer and the thermal spray coating layer, the metal silicide layer being formed by a reaction of the substance with the silicon the silicon carbide-containing carbide layer has an arithmetical mean surface roughness Ra of 1 μm or greater and a Vickers hardness HV of 50 or greater, at least a portion of the silicon carbide-containing carbide layer permeating the carbonaceous substrate, and the silicon carbide-containing carbide layer including a portion in which a permeation depth of the permeating portion is 50 μm or greater; and the thermal spray coating layer comprises a substance, the substance being capable of forming a silicide with silicon in the silicon carbide-containing carbide layer; the substance includes metallic materials capable of forming a silicide with silicon in the silicon carbide-containing carbide layer, alloy materials containing at least one of metallic elements of the metallic materials, or compounds containing at least one carbide or boride of the metallic elements; and a metal silicide layer is provided between the silicon carbide-containing carbide layer and the thermal spray coating layer, the metal silicide layer being formed by a reaction of the substance with the silicon
A composition comprising: (a) 0.01 to 5 wt% of 12-hydroxystearic acid; and (b) a hydroxy functionalized solvent, wherein the hydroxy functionalized solvent is methanol, ethanol, benzyl alcohol, 2-(2-ethoxyethoxy) ethanol, phenoxyethanol, pentylene glycol or a mixture thereof, the composition being substantially free of water, and the hydroxy functionalized solvent has an hydroxy group density content of greater than 0.03, wherein hydroxy group density means the molecular weight of total solvent hydroxy group/the molecular weight of the solvent where solvent hydroxy group can include the hydroxy group on a carboxylic acid group. (a) 0.01 to 5 wt% of 12-hydroxystearic acid; and (b) a hydroxy functionalized solvent, wherein the hydroxy functionalized solvent is methanol, ethanol, benzyl alcohol, 2-(2-ethoxyethoxy) ethanol, phenoxyethanol, pentylene glycol or a mixture thereof,
A method for assigning a severity to failure indications of network resources in a communication network, the method comprising: in a processor, receiving one or a plurality of failure indications related to a failure of one or more network resources from a plurality of network resources in a multilayer communication network , said multilayer communication network comprising multiple layers of network resources; assigning a severity to the one or said plurality of failure indications based on an impact on data traffic in the communication network due to the failure of the one or more network resources from said plurality of network resources, the assigning comprising at least one of: assigning a static severity based on a single traffic impact assessment in the communication network due to the failure of the one or more network resources, or assigning a dynamic severity based on continuous or periodic traffic impact assessments in the communication network due to the failure of the one or more network resources; and outputting an indication of the severity of the one or said plurality of failure indications on an output device, wherein assigning the severity comprises correlating failures prior to an assignment of severity by identifying a minimum set of failed network resources from the failure of the one or more network resources that explain all other failed network resources outside of the set. in a processor, receiving one or a plurality of failure indications related to a failure of one or more network resources from a plurality of network resources in a multilayer communication network , said multilayer communication network comprising multiple layers of network resources; assigning a severity to the one or said plurality of failure indications based on an impact on data traffic in the communication network due to the failure of the one or more network resources from said plurality of network resources, the assigning comprising at least one of: assigning a static severity based on a single traffic impact assessment in the communication network due to the failure of the one or more network resources, or assigning a dynamic severity based on continuous or periodic traffic impact assessments in the communication network due to the failure of the one or more network resources; and outputting an indication of the severity of the one or said plurality of failure indications on an output device, wherein assigning the severity comprises correlating failures prior to an assignment of severity by identifying a minimum set of failed network resources from the failure of the one or more network resources that explain all other failed network resources outside of the set. assigning a static severity based on a single traffic impact assessment in the communication network due to the failure of the one or more network resources, or
A method for determining and predicting an individual oil change interval of an internal combustion engine, comprising the following steps: determining influencing variables, which can induce oil wear, and wear indicators of the oil on an internal combustion engine on a test stand, wherein measurements of load cycles are carried out on the test stand and oil analyses are performed, storing the measured influencing variables and wear indicators, creating a model from the measured influencing variables and wear indicators, implementing the model in an engine control unit, displaying a predicted oil change point in time and a remaining oil lifetime in operating hours, characterized in that the time series analysis of output values of the model to predict the individual oil change interval is carried out in the running operation of the internal combustion engine. determining influencing variables, which can induce oil wear, and wear indicators of the oil on an internal combustion engine on a test stand, wherein measurements of load cycles are carried out on the test stand and oil analyses are performed, storing the measured influencing variables and wear indicators, creating a model from the measured influencing variables and wear indicators, implementing the model in an engine control unit, displaying a predicted oil change point in time and a remaining oil lifetime in operating hours, characterized in that the time series analysis of output values of the model to predict the individual oil change interval is carried out in the running operation of the internal combustion engine.