mhurhangee/ep-ind-claims huggingface dataset:
A method for the surface treatment of Corten steel, comprising the steps: (i) providing Corten steel and carrying out a treatment comprising the stages: cleaning at least a portion of at least one surface of the Corten steel; activating at least a portion of the cleaned surface of the Corten steel from stage by bringing the cleaned surface into contact with an aqueous activating solution containing fluoride ions, one or more oxidizing agents, and optionally one or more stabilizers for the oxidizing agent(s); and colouring at least a portion of the activated surface of the Corten steel from stage by treating the activated surface with water for a period of at least 30 minutes and until the desired coloration of the surface of the Corten steel is achieved; and (ii) sealing at least a portion of the coloured surface from stage of step (i) by applying a colourless, transparent coating, as the result of which the surface-treated Corten steel is obtained. (i) providing Corten steel and carrying out a treatment comprising the stages: cleaning at least a portion of at least one surface of the Corten steel; activating at least a portion of the cleaned surface of the Corten steel from stage by bringing the cleaned surface into contact with an aqueous activating solution containing fluoride ions, one or more oxidizing agents, and optionally one or more stabilizers for the oxidizing agent(s); and colouring at least a portion of the activated surface of the Corten steel from stage by treating the activated surface with water for a period of at least 30 minutes and until the desired coloration of the surface of the Corten steel is achieved; and cleaning at least a portion of at least one surface of the Corten steel; activating at least a portion of the cleaned surface of the Corten steel from stage by bringing the cleaned surface into contact with an aqueous activating solution containing fluoride ions, one or more oxidizing agents, and optionally one or more stabilizers for the oxidizing agent(s); and colouring at least a portion of the activated surface of the Corten steel from stage by treating the activated surface with water for a period of at least 30 minutes and until the desired coloration of the surface of the Corten steel is achieved; and (ii) sealing at least a portion of the coloured surface from stage of step (i) by applying a colourless, transparent coating, as the result of which the surface-treated Corten steel is obtained.
A method of performing transfer of data packets requiring a specified Quality of Service, QoS, by a User Equipment, UE, in an end-to-end, E2E, multi-hop sidelink radio communication, said UE comprising a processor operated protocol stack having an ingress and egress, said protocol stack at least arranged for providing Physical, PHY, layer functionality, Media Access Control, MAC, layer functionality (58, 59, 76), Radio Link Control, RLC, layer functionality, and Adaptation, Adapt, layer functionality, said RLC layer functionality providing a plurality of ingress and egress RLC channels for transferring data packets, said method comprising the steps of: - receiving, by said RLC layer functionality, data packets at an ingress RLC channel, - mapping, by said Adapt layer functionality, data packets received at said ingress RLC channel to an egress RLC channel in accordance with a mapping rule, at RLC channel level, for destining said data packets while maintaining said specified QoS, and - transferring, by said RLC layer functionality, said mapped data packets at said egress RLC channel, wherein said mapping in accordance with said mapping rule comprises one of: - mapping data packets received at an ingress RLC channel to an egress RLC channel supporting similar QoS; - mapping data packets received at an ingress RLC channel to an egress RLC channel at least supporting said required QoS; - mapping data packets received at an ingress RLC channel to an egress RLC channel having similar RLC channel configurations, and - mapping data packets received at an ingress RLC channel to an egress RLC channel in accordance with momentary data exchange conditions of an egress RLC channel. - receiving, by said RLC layer functionality, data packets at an ingress RLC channel, - mapping, by said Adapt layer functionality, data packets received at said ingress RLC channel to an egress RLC channel in accordance with a mapping rule, at RLC channel level, for destining said data packets while maintaining said specified QoS, and - transferring, by said RLC layer functionality, said mapped data packets at said egress RLC channel, - mapping data packets received at an ingress RLC channel to an egress RLC channel supporting similar QoS; - mapping data packets received at an ingress RLC channel to an egress RLC channel at least supporting said required QoS; - mapping data packets received at an ingress RLC channel to an egress RLC channel having similar RLC channel configurations, and - mapping data packets received at an ingress RLC channel to an egress RLC channel in accordance with momentary data exchange conditions of an egress RLC channel.
A method for determining an uplink transmission resource, performed by a user equipment, comprising: determining a dedicated uplink transmission resource of the user equipment from a plurality of sets of uplink transmission resources based on an availability determination condition; characterized in that the availability determination condition comprises: a variation amount of a measured value obtained by measuring a downlink transmission corresponding to the uplink transmission resource in an idle state or an inactive state with respect to a reference value obtained by measuring the downlink transmission in a connected state being less than or equal to a set threshold; and a transmission type of an uplink transmission matching a set type configured for the uplink transmission resource; wherein an identifier representing the transmission type comprises at least one or a combination of: a bearer identifier, a bearer type identifier, a data flow identifier, a session identifier, a logic channel identifier, a cell group identifier corresponding to a service, and an uplink transmission resource type. determining a dedicated uplink transmission resource of the user equipment from a plurality of sets of uplink transmission resources based on an availability determination condition; characterized in that the availability determination condition comprises: a variation amount of a measured value obtained by measuring a downlink transmission corresponding to the uplink transmission resource in an idle state or an inactive state with respect to a reference value obtained by measuring the downlink transmission in a connected state being less than or equal to a set threshold; and a transmission type of an uplink transmission matching a set type configured for the uplink transmission resource; wherein an identifier representing the transmission type comprises at least one or a combination of: a bearer identifier, a bearer type identifier, a data flow identifier, a session identifier, a logic channel identifier, a cell group identifier corresponding to a service, and an uplink transmission resource type. a variation amount of a measured value obtained by measuring a downlink transmission corresponding to the uplink transmission resource in an idle state or an inactive state with respect to a reference value obtained by measuring the downlink transmission in a connected state being less than or equal to a set threshold; and a transmission type of an uplink transmission matching a set type configured for the uplink transmission resource; wherein an identifier representing the transmission type comprises at least one or a combination of: a bearer identifier, a bearer type identifier, a data flow identifier, a session identifier, a logic channel identifier, a cell group identifier corresponding to a service, and an uplink transmission resource type.
An extrusion device, in particular a blown film extrusion device, for producing an object, in particular a tube, a blown film or a container, having a cavity, comprising - a material feed which opens into an extrusion die, and - a supporting gas supply, which opens into an injection opening, for introducing supporting gas into the interior of the object being formed, wherein the supporting gas supply has at least one valve for controlling the supporting gas, characterized in that at least one valve for controlling the supporting gas is a proportional valve which can be controlled by a controller, that the proportional valve has a non-linear gas flow characteristic in at least one operating range and that the control circuit has a pilot control - which is superimposed on the controller -, wherein the pilot control is configured to compensate for a non-linear gas flow characteristic of the proportional valve. - a material feed which opens into an extrusion die, and - a supporting gas supply, which opens into an injection opening, for introducing supporting gas into the interior of the object being formed, wherein the supporting gas supply has at least one valve for controlling the supporting gas, characterized in that at least one valve for controlling the supporting gas is a proportional valve which can be controlled by a controller, that the proportional valve has a non-linear gas flow characteristic in at least one operating range and that the control circuit has a pilot control - which is superimposed on the controller -, wherein the pilot control is configured to compensate for a non-linear gas flow characteristic of the proportional valve. wherein the supporting gas supply has at least one valve for controlling the supporting gas, characterized in that at least one valve for controlling the supporting gas is a proportional valve which can be controlled by a controller, that the proportional valve has a non-linear gas flow characteristic in at least one operating range and that the control circuit has a pilot control - which is superimposed on the controller -, wherein the pilot control is configured to compensate for a non-linear gas flow characteristic of the proportional valve.
An automatic bread maker comprising: a body; a heater case having a bottomed and cylindrical shape, the heater case being disposed inside the body and defining a heating chamber; a kneading container disposed inside the heating chamber for accommodating ingredients; a heater disposed at a lower part of the heating chamber for heating the kneading container; a kneading paddle for stirring the ingredients by rotating in the kneading container; a drive unit for rotating the kneading paddle; and a lid assembly including an outer lid exposed outside, a thermal insulation plate having outside dimensions larger than the kneading container in a planar view and disposed inside the outer lid, and an inner lid having heat reflectivity higher than heat reflectivity of the thermal insulation plate and disposed inside the thermal insulation plate, wherein the lid assembly covers a top opening of the heater case, characterized by an outer air layer provided between the thermal insulation plate and the outer lid, an inner air layer provided between the inner lid and the thermal insulation plate, the inner air layer being hermetically sealed, and a communicating hole communicatively connecting a space inside the body and moreover outside the heater case with the outer air layer, at a part positioned outside the top opening of the heater case in a planar view. a body; a heater case having a bottomed and cylindrical shape, the heater case being disposed inside the body and defining a heating chamber; a kneading container disposed inside the heating chamber for accommodating ingredients; a heater disposed at a lower part of the heating chamber for heating the kneading container; a kneading paddle for stirring the ingredients by rotating in the kneading container; a drive unit for rotating the kneading paddle; and a lid assembly including an outer lid exposed outside, a thermal insulation plate having outside dimensions larger than the kneading container in a planar view and disposed inside the outer lid, and an inner lid having heat reflectivity higher than heat reflectivity of the thermal insulation plate and disposed inside the thermal insulation plate, wherein the lid assembly covers a top opening of the heater case, characterized by an outer air layer provided between the thermal insulation plate and the outer lid, an inner air layer provided between the inner lid and the thermal insulation plate, the inner air layer being hermetically sealed, and a communicating hole communicatively connecting a space inside the body and moreover outside the heater case with the outer air layer, at a part positioned outside the top opening of the heater case in a planar view.
An amorphous form of 5-fluoro-2-(6-fluoro-2-methyl-1H-benzimidazol-1-yl)-N-[4-(trifluoromethyl)phenyl]pyrimidine-4,6-diamine, having the formula of Compound A:
A liquid ejecting head, comprising: a nozzle plate including a nozzle opening provided on a first surface of a flow path member (10, 15, 25) with a flow path (17, 18, 19, 12, 16, 26) formed therein; and a protective member (45, 130) including a flexible portion that seals a portion of the flow path provided on the first surface of the flow path member, wherein a position of a portion of the flow path member onto which the nozzle plate is attached and a position of a portion of the flow path member onto which the protective member is attached are different from one another in a discharge direction of a liquid. a nozzle plate including a nozzle opening provided on a first surface of a flow path member (10, 15, 25) with a flow path (17, 18, 19, 12, 16, 26) formed therein; and a protective member (45, 130) including a flexible portion that seals a portion of the flow path provided on the first surface of the flow path member, wherein a position of a portion of the flow path member onto which the nozzle plate is attached and a position of a portion of the flow path member onto which the protective member is attached are different from one another in a discharge direction of a liquid.
Oven cavity enclosing a food preparation space comprising at least a first sheet metal section and an adjacent second sheet metal section that form an area of overlap where they are substantially parallel to each other and form a part of a wall of the oven cavity adjacent to the food preparation space, wherein the first sheet metal section forms a flange protruding away from the wall of the oven cavity, wherein the flange has a bending area protruding freely away from the flange and wherein the first section of sheet metal and the second section of sheet metal are welded to each other.
Control device for actuating a drive, wherein the drive moves a movable element, in particular a window or a roof of a motor vehicle into an elastic receptacle, wherein the control device has a first module for determining a spring stiffness, which is determined from a change in force and the distance by which the moving element moves, characterized in that the control device has a second module for comparing the spring stiffness with a threshold value, wherein the second module of the control device determines a position point in a soft stop region when the spring stiffness exceeds a threshold value, wherein the second module stops the drive at the position point, wherein the control device has a storage unit in which the at least one position point and the threshold value of the spring stiffness are stored.
A genetically modified immunodeficient NOD.Cg- Rag1 tm1Mom Il2rg tmlWjl /SzJ (NRG- Hc 1) mouse, wherein the genome of the NRG- Hc 1 mouse comprises a repaired C5 complement component structural gene such that the genetically modified immunodeficient NRG- Hc 1 mouse expresses the C5 complement component structural gene and is characterized by an intact complement system, a RAG1 deficiency and an IL2Rg deficiency.
A chewing-based oral self-cleaning device, made up of a semi-rigid flexible, elastic and elongated body comprising two slotted tubes (29, 30) tangentially and longitudinally back to back, in the shape of a capital "H", being each of said tubes completely grooved in a longitudinal direction where the openings are lengthways in tangential lines corresponding to zones opposite to the joining zones, each forming a cleaning channel (4 and 5) and which are tangentially superimposed, being joined together by means of an intermediate base plate, forming a frame with cylindrical or prismatic section, and a base plate, these tubes (29, 30) being provided with a set of cleaning, massage and dragging items such as bristles, protrusions and scraping rasps or "radulas" (10 and 11), characterized in that - the shape of the capital "H" formed by the slotted tubes (29,30) has curved arms; - the two edges of the slot in each tube extend towards the interior of the channel to form two cleaning ailerons (6, 7, 8 and 9), able to elastically deform when the tooth arch pushes and penetrates between these until it reaches buffer strips in the base plate; and - the cleaning ailerons (6, 7, 8 and 9) and the base plate are provided with cleaning, massage and dragging items, soundly fitted and located so that these act elastically when they reach the surface area of the teeth and gums when these move during mastication. - the shape of the capital "H" formed by the slotted tubes (29,30) has curved arms; - the two edges of the slot in each tube extend towards the interior of the channel to form two cleaning ailerons (6, 7, 8 and 9), able to elastically deform when the tooth arch pushes and penetrates between these until it reaches buffer strips in the base plate; and - the cleaning ailerons (6, 7, 8 and 9) and the base plate are provided with cleaning,
An aqueous pharmaceutical composition consisting of: (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 20; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% pluronic F-68; (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 150 mM glycine, (iv) 100 mM arginine, and (v) 0.01 wt% polysorbate 80; or (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 20; wherein each of - has a pH of 5.2. (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 20; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 20; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% pluronic F-68; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% pluronic F-68; (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 150 mM glycine, (iv) 100 mM arginine, and (v) 0.01 wt% polysorbate 80; or (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 150 mM glycine, (iv) 100 mM arginine, and (v) 0.01 wt% polysorbate 80; or (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 20; wherein each of - has a pH of 5.2. (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 20;
A buck-boost converter, for receiving an input voltage (V in) to generate an output voltage (V out), comprising: an inductor, comprising a first terminal and a second terminal; a first switch, coupled between the input voltage and the first terminal of the inductor; a second switch, coupled between a reference voltage and the first terminal of the inductor; a third switch, coupled between the output voltage and the second terminal of the inductor; a fourth switch, coupled between the reference voltage and the second terminal of the inductor; and a fifth switch, wherein the fifth switch is connected in parallel with the third switch; a control circuit for generating a plurality of control signals (PG1, NG1, PG2, NG2) to control the first switch, the second switch, the third switch and the fourth switch, respectively, and wherein when the buck-boost converter operates in a buck mode, each of the first switch and the second switch is turned on and off alternately; when the buck-boost converter operates in a boost mode, each of the third switch and the fourth switch is turned on and off alternately; and the fifth switch is controlled to be on or off by referring to a mode control signal that represents the buck mode or the boost mode; characterized in that the control circuit includes a mode control signal generator that generates the mode control signal by referring to at least one of the control signals (PG1, NG1, PG2, NG2). an inductor, comprising a first terminal and a second terminal; a first switch, coupled between the input voltage and the first terminal of the inductor; a second switch, coupled between a reference voltage and the first terminal of the inductor; a third switch, coupled between the output voltage and the second terminal of the inductor; a fourth switch, coupled between the reference voltage and the second terminal of the inductor; and a fifth switch, wherein the fifth switch is connected in parallel with the third switch; a control circuit for generating a plurality of control signals (PG1, NG1, PG2, NG2) to control the first switch, the second switch, the third switch and the fourth switch, respectively, and wherein when the buck-boost converter operates in a buck mode, each of the first switch and the second switch is turned on and off alternately; when the buck-boost converter operates in a boost mode, each of the third switch and the fourth switch is turned on and off alternately; and the fifth switch is controlled to be on or off by referring to a mode control signal that represents the buck mode or the boost mode; characterized in that the control circuit includes a mode control signal generator that generates the mode control signal by referring to at least one of the control signals (PG1, NG1, PG2, NG2).