mhurhangee/ep-ind-claims huggingface dataset:
A humeral implant assembly comprising: a stem portion comprising a stem engagement feature; a metaphyseal portion comprising a metaphyseal engagement feature and a lumen extending longitudinally therethrough; a locking element positioned in the metaphyseal lumen of the metaphyseal portion; characterised in that it further comprises an intermediate portion comprising at least one spacer, each spacer comprising: a proximal engagement feature; a distal engagement feature; lumen extending longitudinally through said spacer, the lumen configured to be longitudinally aligned with the metaphyseal lumen when the assembly is in a locked configuration; and a pin slidable within the lumen of said spacer; wherein distal movement of the locking element translates the pin of each spacer to secure the metaphyseal portion, the intermediate portion, and the stem portion in the locked configuration. a stem portion comprising a stem engagement feature; a metaphyseal portion comprising a metaphyseal engagement feature and a lumen extending longitudinally therethrough; a locking element positioned in the metaphyseal lumen of the metaphyseal portion; characterised in that it further comprises an intermediate portion comprising at least one spacer, each spacer comprising: a proximal engagement feature; a distal engagement feature; lumen extending longitudinally through said spacer, the lumen configured to be longitudinally aligned with the metaphyseal lumen when the assembly is in a locked configuration; and a pin slidable within the lumen of said spacer; a proximal engagement feature; a distal engagement feature; lumen extending longitudinally through said spacer, the lumen configured to be longitudinally aligned with the metaphyseal lumen when the assembly is in a locked configuration; and a pin slidable within the lumen of said spacer; wherein distal movement of the locking element translates the pin of each spacer to secure the metaphyseal portion, the intermediate portion, and the stem portion in the locked configuration.
A method for producing a coal-containing formed product, comprising adding a binder to components constituting the coal-containing formed product, wherein the binder contains an aqueous solution containing a macromolecular polymer or an emulsion containing a macromolecular polymer, wherein the macromolecular polymer has an intrinsic viscosity of 2.0 dl/g or higher as determined at 30°C as described in the description. adding a binder to components constituting the coal-containing formed product, wherein the binder contains an aqueous solution containing a macromolecular polymer or an emulsion containing a macromolecular polymer, wherein the macromolecular polymer has an intrinsic viscosity of 2.0 dl/g or higher as determined at 30°C as described in the description.
A method, comprising: measuring radio frequency parameters of radio frequency communications between a head-end unit and a remote unit (122a; 122b) of a distributed antenna system "DAS"; sending the measurements of the radio frequency parameters to a self-optimizing network "SON" entity; determining, by the SON entity, adjustments to operations and management parameters of a radio base station "RBS" using the measurements of the radio frequency parameters; sending commands to the RBS for changing the operations and management parameters of the RBS using the adjustments determined by the SON entity, wherein the radio frequency parameters include an uplink DAS gain, a downlink DAS gain, and an uplink DAS noise power, wherein the adjustments to the operations and management parameters include an updated value for changing an uplink RBS gain, and wherein the updated value for the uplink RBS gain is determined by calculating an uplink DAS noise rise and summing the uplink DAS noise rise with a difference between the uplink DAS gain and the downlink DAS gain. measuring radio frequency parameters of radio frequency communications between a head-end unit and a remote unit (122a; 122b) of a distributed antenna system "DAS"; sending the measurements of the radio frequency parameters to a self-optimizing network "SON" entity; determining, by the SON entity, adjustments to operations and management parameters of a radio base station "RBS" using the measurements of the radio frequency parameters; sending commands to the RBS for changing the operations and management parameters of the RBS using the adjustments determined by the SON entity, wherein the radio frequency parameters include an uplink DAS gain, a downlink DAS gain, and an uplink DAS noise power, wherein the adjustments to the operations and management parameters include an updated value for changing an uplink RBS gain, and wherein the updated value for the uplink RBS gain is determined by calculating an uplink DAS noise rise and summing the uplink DAS noise rise with a difference between the uplink DAS gain and the downlink DAS gain.
Compositions comprising bromelain and nattokinase as the only active ingredients, wherein the weight ratio between bromelain and nattokinase is 1.6:1.
Luminous module, in particular for a motor vehicle, intended to emit an outgoing light beam and comprising: - at least one semi-conducting laser element configured to emit a laser beam into a first light cone, called an emission cone; - a photoluminescent element configured to convert the wavelength of at least part of said laser beam; - a reflecting surface, a main portion of which reflects light from the photoluminescent element to form said outgoing luminous beam oriented in a first emission direction, - a secondary guide face which reflects the light from the first emission cone into a second light cone, called a measuring cone, oriented in a second measuring direction; - at least one device for detecting incident light exceeding a predetermined threshold of luminous intensity which is arranged in the measuring cone; the optical structure of the guide face causing the light to spread so that the measuring cone has a larger aperture angle than the first emission cone. characterized in that the geometrical profile of the envelope of the guide face causes the light to spread in the measuring cone. - at least one semi-conducting laser element configured to emit a laser beam into a first light cone, called an emission cone; - a photoluminescent element configured to convert the wavelength of at least part of said laser beam; - a reflecting surface, a main portion of which reflects light from the photoluminescent element to form said outgoing luminous beam oriented in a first emission direction, - a secondary guide face which reflects the light from the first emission cone into a second light cone, called a measuring cone, oriented in a second measuring direction; - at least one device for detecting incident light exceeding a predetermined threshold of luminous intensity which is arranged in the measuring cone;
A pattern forming method comprising: a step of forming an actinic ray-sensitive or radiation-sensitive film on a substrate, using an actinic ray-sensitive or radiation-sensitive resin composition; a step of forming an upper layer film on the actinic ray-sensitive or radiation-sensitive film, using a composition for forming an upper layer film; a step of exposing a laminate film including the actinic ray-sensitive or radiation-sensitive film and the upper layer film; and a step of subjecting the exposed laminate film to development using a developer including an organic solvent, wherein the composition for forming an upper layer film contains a resin, a resin containing fluorine atoms, a basic compound, and a solvent, and the resin is a resin not containing fluorine atoms, or in a case where the resin contains fluorine atoms, the resin is a resin having a lower content of fluorine atoms than that in the resin, based on a mass, and wherein the amount of the organic solvent is from 90% by mass to 100% by mass with respect to the total amount of the developer. a step of forming an actinic ray-sensitive or radiation-sensitive film on a substrate, using an actinic ray-sensitive or radiation-sensitive resin composition; a step of forming an upper layer film on the actinic ray-sensitive or radiation-sensitive film, using a composition for forming an upper layer film; a step of exposing a laminate film including the actinic ray-sensitive or radiation-sensitive film and the upper layer film; and a step of subjecting the exposed laminate film to development using a developer including an organic solvent, wherein the composition for forming an upper layer film contains a resin, a resin containing fluorine atoms, a basic compound, and a solvent, and the resin is a resin not containing fluorine atoms, or in a case where the resin contains fluorine atoms, the resin is a resin having a lower content of fluorine atoms than that in the resin, based on a mass, and wherein the amount of the organic solvent is from 90% by mass to 100% by mass with respect to the total amount of the developer.
An optical coupling structure comprising: an optical semiconductor element comprising a light receiving/emitting portion on an upper face thereof and mounted on a substrate on a side of a lower face thereof, the optical semiconductor element having an optical axis; an optical transmission path having an optical axis that intersects the optical axis of the optical semiconductor element at a predetermined angle and is arranged separately from a mounting face of the substrate; and an optical coupling portion (3, 14) configured to convert the optical path between the optical semiconductor element and the optical transmission path and optically couple the optical semiconductor element and the optical transmission path, wherein the optical coupling portion (3, 14) is made of a resin that is transparent with respect to a transmitted light, the resin adhering to both at least a portion of the light receiving/emitting portion of the optical semiconductor element and at least a portion of the end portion of the optical transmission path; wherein the optical semiconductor element and the optical transmission path are bonded to each other with the resin itself that constitutes the optical coupling portion (3, 14); wherein the resin itself is configured to convert the optical path by reflecting at an interface (3a, 14a) between the resin and an adjacent medium, and characterized in that the shape of the optical coupling portion (3, 14) is a fan shape when viewing the optical coupling portion (3, 14) from above. an optical semiconductor element comprising a light receiving/emitting portion on an upper face thereof and mounted on a substrate on a side of a lower face thereof, the optical semiconductor element having an optical axis; an optical transmission path having an optical axis that intersects the optical axis of the optical semiconductor element at a predetermined angle and is arranged separately from a mounting face of the substrate; and an optical coupling portion (3, 14) configured to convert the optical path between the optical semiconductor element and the optical transmission path and optically couple the optical semiconductor element and the optical transmission path, wherein the optical coupling portion (3, 14) is made of a resin that is transparent with respect to a transmitted light, the resin adhering to both at least a portion of the light receiving/emitting portion of the optical semiconductor element and at least a portion of the end portion of the optical transmission path; wherein the optical semiconductor element and the optical transmission path are bonded to each other with the resin itself that constitutes the optical coupling portion (3, 14); wherein the resin itself is configured to convert the optical path by reflecting at an interface (3a, 14a) between the resin and an adjacent medium, and characterized in that the shape of the optical coupling portion (3, 14) is a fan shape when viewing the optical coupling portion (3, 14) from above.
Periscope, in particular for an armoured vehicle, comprising a housing having a region extending into a vehicle with a view in front of a viewing prism, and having a region extending out of a vehicle with a sight in front of a sighting prism, and with a prism core made of transparent material, characterized in that a light-emitting display is arranged behind the viewing prism in a viewing direction, and a medium having a lower refractive index than the material of a reflection surface of the viewing prism adjoins the reflection surface of the viewing prism, and in that a total reflection at the reflection surface takes place at a first viewing angle range into the view, and light incident through the sight is visible, and the light of the display is visible at a second viewing angle range into the view.
A method for producing a lead-free piezoelectric ceramic composition, the method comprising: performing calcining so as to obtain a mother phase calcined product being formed of an alkali perovskite oxide containing at least one of niobium and tantalum having piezoelectric characteristics; performing calcining so as to obtain a subphase calcined product being formed of a compound that contains titanium (Ti), mixing the mother phase calcined product and the subphase calcined product, performing calcining the mixed mother phase calcined product and the subphase calcined product at a first temperature after the mixing, pulverizing the calcined mixed mother phase calcined product and the subphase calcined product, producing a molded product by mixing and molding the calcined mixed mother phase calcined product and the subphase calcined product, which has been pulverized, at the first temperature; and producing a lead-free piezoelectric ceramic composition, in which a first crystal phase is formed by binding a plurality of crystal grains of the first crystal powder in a deposited state and a second crystal phase is formed by melting the second crystal powder to fill spaces between the plurality of crystal grains of the first crystal phase, by firing the molded product at a second temperature higher than the first temperature. performing calcining so as to obtain a mother phase calcined product being formed of an alkali perovskite oxide containing at least one of niobium and tantalum having piezoelectric characteristics; performing calcining so as to obtain a subphase calcined product being formed of a compound that contains titanium (Ti), mixing the mother phase calcined product and the subphase calcined product, performing calcining the mixed mother phase calcined product and the subphase calcined product at a first temperature after the mixing, pulverizing the calcined mixed mother phase calcined product and the subphase calcined product, producing a molded product by mixing and molding the calcined mixed mother phase calcined product and the subphase calcined product, which has been pulverized, at the first temperature; and producing a lead-free piezoelectric ceramic composition, in which a first crystal phase is formed by binding a plurality of crystal grains of the first crystal powder in a deposited state and a second crystal phase is formed by melting the second crystal powder to fill spaces between the plurality of crystal grains of the first crystal phase, by firing the molded product at a second temperature higher than the first temperature.
A method for forming a field effect transistor, the method comprising the steps: providing a release layer with a smooth surface on a carrier substrate depositing source, gate and drain electrodes on the release layer depositing a mouldable polymer overlying the source, gate and drain electrodes on the release layer, so that the source, gate and drain electrodes and the mouldable polymer form a planar surface against the smooth surface of the release layer, removing the carrier substrate and the release layer providing a dielectric on the planar surface overlying the gate electrode and part of the source and drain electrodes depositing a layer of two dimensional material on the dielectric providing a first contact between the source electrode and the two dimensional material so that the first contact provides a direct current path between the source electrode and the two dimensional material, providing a second contact between the drain electrode and the two dimensional material so that the second contact provides a direct current path between the drain electrode and the two dimensional material. providing a release layer with a smooth surface on a carrier substrate depositing source, gate and drain electrodes on the release layer depositing a mouldable polymer overlying the source, gate and drain electrodes on the release layer, so that the source, gate and drain electrodes and the mouldable polymer form a planar surface against the smooth surface of the release layer, removing the carrier substrate and the release layer providing a dielectric on the planar surface overlying the gate electrode and part of the source and drain electrodes depositing a layer of two dimensional material on the dielectric providing a first contact between the source electrode and the two dimensional material so that the first contact provides a direct current path between the source electrode and the two dimensional material, providing a second contact between the drain electrode and the two dimensional material so that the second contact provides a direct current path between the drain electrode and the two dimensional material.
A computer-implemented method executable by a network appliance, the computer-implemented method comprising: storing a plurality of flow table entries in a flow table of a match-action pipeline (901, 170) of the network appliance, wherein the match-action pipeline is implemented via a packet processing circuit configured to process a plurality of network traffic flows associated with the plurality of flow table entries; reading, by an extended packet processing pipeline (1001, 1705) of the network appliance, a flow table entry of the flow table, wherein the extended packet processing pipeline (1001, 1705) is implemented via a pipeline circuit that is external to the packet processing circuit; determining, by the extended packet processing pipeline (1001, 1705), that a network traffic flow associated with the flow table entry is expired or terminated; and deleting, by the network appliance, the flow table entry from the flow table by processing a traffic flow deletion operation after determining that the network traffic flow is expired or terminated, wherein the flow table is stored in a pipeline memory (902, 1702) of the match-action pipeline (901, 1701); a plurality of shards (1902, 1903, 1904) of the flow table contain the plurality of flow table entries; the extended packet processing pipeline includes a plurality of extended packet processing pipeline stages (1004, 1005, 1006, 1007, 1008, 1009); and the extended packet processing pipeline stages are configured to concurrently search the plurality of shards. storing a plurality of flow table entries in a flow table of a match-action pipeline (901, 170) of the network appliance, wherein the match-action pipeline is implemented via a packet processing circuit configured to process a plurality of network traffic flows associated with the plurality of flow table entries; reading, by an extended packet processing pipeline (1001, 1705) of the network appliance, a flow table entry of the flow table, wherein the extended packet processing pipeline (1001, 1705) is implemented via a pipeline circuit that is external to the packet processing circuit; determining, by the extended packet processing pipeline (1001, 1705), that a network traffic flow associated with the flow table entry is expired or terminated; and deleting, by the network appliance, the flow table entry from the flow table by processing a traffic flow deletion operation after determining that the network traffic flow is expired or terminated, the flow table is stored in a pipeline memory (902, 1702) of the match-action pipeline (901, 1701); a plurality of shards (1902, 1903, 1904) of the flow table contain the plurality of flow table entries; the extended packet processing pipeline includes a plurality of extended packet processing pipeline stages (1004, 1005, 1006, 1007, 1008, 1009); and the extended packet processing pipeline stages are configured to concurrently search the plurality of shards.
Method of controlling a selective catalytic reduction system allowing a treatment of nitrogen oxides present in the exhaust gases flowing in an exhaust line of a motor vehicle, the system comprising a catalyst in which is injected a reducing agent suitable for reacting with nitrogen oxides emitted upstream of the catalyst by an internal combustion engine of the vehicle, said method comprising a step of modeling the total flow rate (dT) of said reducing agent downstream of the catalyst to from at least one parameter (Tcat, vvh) representative of the operation of the selective catalytic reduction system, characterized in that it comprises: - a step of determining the desorption rate (dD) of the reducing agent downstream of the catalyst from the mass (m) of reducing agent stored in the catalyst and the maximum storage capacity (Cmax) of the catalyst, - a step of determining the saturation flow rate (dS) of the reducing agent downstream of the catalyst from the flow rate (dR) of reducing agent passing through the catalyst, - the total flow rate (dT) of the reducing agent downstream of the catalyst being modeled by adding the desorption flow rate (dD) and the saturation flow rate (dS). - a step of determining the desorption rate (dD) of the reducing agent downstream of the catalyst from the mass (m) of reducing agent stored in the catalyst and the maximum storage capacity (Cmax) of the catalyst, - a step of determining the saturation flow rate (dS) of the reducing agent downstream of the catalyst from the flow rate (dR) of reducing agent passing through the catalyst, - the total flow rate (dT) of the reducing agent downstream of the catalyst being modeled by adding the desorption flow rate (dD) and the saturation flow rate (dS).
Use of an organic mesomeric compound as organic doping agent for the doping of an organic hole transporting material or as charge injection layer, characterized in that the mesomeric compound is an oxocarbon-, pseudooxocarbon- or radialene compound with the following formula: wherein n = 1; each X 1, X 2 and X 3 is independently selected from the group consisting of wherein Y = CN, NO 2, COR 1 or is perhalogenated alkyl; aryl is a substituted or unsubstituted aromatic hydrocarbon or biaryl, optionally polycyclic; hetaryl is a substituted or unsubstituted aromatic heterocyclic compound or biheteroaryl, preferably electron-poor, optionally polynuclear or partially or completely hydrogenated or fluorinated; and R 1 is selected from hydrogen, halogen, CN, NO 2, alkyl, alkoxy, aryl and heteroaryl.