mhurhangee/patent-ind-claim-en huggingface dataset:
A wrist-worn emergency-detection device , such as a fall-detection device, the emergency detection device comprising a sensor interface , a processor and a touch-sensitive display , wherein the processor is arranged to: trigger an alarm based on an emergency-detection input from the sensor interface; select a cancel configuration of the device to accept a cancel alarm input from a user, the cancel alarm input instructing alarm cancellation with an input that varies from a previous time a cancel configuration was selected; format the display with user instructions according to the cancel configuration; and cancel the alarm when there is a cancel alarm input by the user in accordance with the user instructions. trigger an alarm based on an emergency-detection input from the sensor interface; select a cancel configuration of the device to accept a cancel alarm input from a user, the cancel alarm input instructing alarm cancellation with an input that varies from a previous time a cancel configuration was selected; format the display with user instructions according to the cancel configuration; and cancel the alarm when there is a cancel alarm input by the user in accordance with the user instructions.
A graft copolymer comprising a rubbery polymer, wherein the rubbery polymer comprises a conjugated diene-based monomer unit, and one or more compound units selected from the group consisting of compounds represented by the following Formula 1, the graft copolymer comprises an alkyl (meth)acrylate-based monomer unit and an aromatic vinyl-based monomer unit, wherein the alkyl (meth)acrylate-based monomer unit is grafted into the rubbery polymer, and the aromatic vinyl-based monomer unit is grafted into the rubbery polymer and the alkyl (meth)acrylate-based monomer unit, the content of the one or more compound units selected from the group consisting of the compounds represented by Formula 1 is from 0.1 wt% to 5.0 wt% with respect to the graft copolymer, the alkyl (meth)acrylate-based monomer unit is crosslinked from a crosslinking agent, and a weight average molecular weight of the aromatic vinyl-based monomer unit is from 20,000 g/mol to 100,000 g/mol, wherein the weight average molecular weight is measured as disclosed in the specification: in Formula 1, R 1 is an alkylene group of 1 to 10 carbon atoms, and R 2 is a saturated or unsaturated fatty acid ester group of 10 to 20 carbon atoms. wherein the rubbery polymer comprises a conjugated diene-based monomer unit, and one or more compound units selected from the group consisting of compounds represented by the following Formula 1, the graft copolymer comprises an alkyl (meth)acrylate-based monomer unit and an aromatic vinyl-based monomer unit, wherein the alkyl (meth)acrylate-based monomer unit is grafted into the rubbery polymer, and the aromatic vinyl-based monomer unit is grafted into the rubbery polymer and the alkyl (meth)acrylate-based monomer unit, the content of the one or more compound units selected from the group consisting of the compounds represented by Formula 1 is from 0.1 wt% to 5.0 wt% with respect to the graft copolymer, the alkyl (meth)acrylate-based monomer unit is crosslinked from a crosslinking agent, and a weight average molecular weight of the aromatic vinyl-based monomer unit is from 20,000 g/mol to 100,000 g/mol, wherein the weight average molecular weight is measured as disclosed in the specification: in Formula 1, R 1 is an alkylene group of 1 to 10 carbon atoms, and R 2 is a saturated or unsaturated fatty acid ester group of 10 to 20 carbon atoms.
A cooking device comprising: - a controlling unit ; - a cooking plate on which the food to be cooked is directly laid down; - a removable and repositionable anti-splash guard comprising two positions, a working position surrounding the heating zones by edges rising towards the rear side of the cooking device and a storing position characterized in that , in the storing position, the anti-splash guard is flipped upside down and is slid onto a side groove on the side contour of the cooking device . - a controlling unit ; - a cooking plate on which the food to be cooked is directly laid down; - a removable and repositionable anti-splash guard comprising two positions, a working position surrounding the heating zones by edges rising towards the rear side of the cooking device and a storing position
Method for processing a binary-coded structure document (BCS) in a device, wherein the binary-coded structure document (BCS) is based on a structure document (SD) compiled in a text-based description language, and wherein a binary-coded index document (BCI) is based on a structural subset of the structure document (SD); comprising the steps: - storing a storage representation of the binary-coded index document (BCI) in a working memory of the device, wherein the structure of the binary-coded index document (BCI) is identical to the structure of the binary-coded structure document (BCS); - storing the binary-coded structure document (BCS) in a background storage unit assigned to the device; - carrying out processing operations by means of at least one processing process (XP1, XP2, XP3) by accessing the storage representation of the binary-coded index document (BCI) via an object interface (OI), wherein fragments of the binary-coded structure document (BCS) are loaded into the working memory by the object interface (OI) as required. - storing a storage representation of the binary-coded index document (BCI) in a working memory of the device, wherein the structure of the binary-coded index document (BCI) is identical to the structure of the binary-coded structure document (BCS); - storing the binary-coded structure document (BCS) in a background storage unit assigned to the device; - carrying out processing operations by means of at least one processing process (XP1, XP2, XP3) by accessing the storage representation of the binary-coded index document (BCI) via an object interface (OI), wherein fragments of the binary-coded structure document (BCS) are loaded into the working memory by the object interface (OI) as required.
A method for operating a system with at least two automatically moving floor processing devices , wherein at least one of the floor processing devices detects environmental features in an environment, and generates an area map based on the detected environmental features, wherein the area map is divided into partial areas (10 - 19), and the partial areas (10 - 19) are assigned to the floor processing devices in such a way that each partial area (10 - 19) is only processed by one of the floor processing devices , characterized in that a movement route of the floor processing device tracked during the detection of environmental features as well as a movement timespan that elapsed during the movement along the movement route are detected and stored with the area map , wherein several partial areas (10 - 19) are combined into partial area groups (4 - 7), and wherein the partial areas (10 - 19) are allocated to the floor processing devices taking into consideration the stored movement route and movement timespan in such a way that a floor processing of a first partial area group (4 - 7) by a first floor processing device takes place at essentially the same time as a floor processing of a second partial area group (4 - 7) by a second floor processing device is ended, wherein the travel time period elapsed during the detection of the environmental features of the environment is converted to an individual time period required by a certain floor processing device for processing the respective partial area (10 - 19) by comparing a travel speed of the floor processing device detecting the ambient features is compared with a characteristic travel speed of a floor processing device to be scheduled, and wherein information is assigned to each partial area (10 - 19) of the environment in such a way whether the floor processing device detecting the ambient features has travelled through the partial area (10 - 19) and how long the floor processing device has stayed in the partial area (10 - 19) in the process.
A method of measuring a rotational position of an assembly, the method comprising: applying an excitation signal to an actuator that is coupled to the assembly that includes an array of ferromagnetic teeth that are arranged circumferentially about the assembly, wherein the excitation signal causes a first rotational displacement of a first ferromagnetic tooth included in the array from a first rotational position to a second rotational position; measuring one or more signal outputs from a magnetoresistive sensor when the first ferromagnetic tooth is disposed at the second rotational position; generating one or more corrected signals by modifying each of the one or more signal outputs with a respective signal offset value; and based on the corrected signals, determining a rotational position of the assembly. applying an excitation signal to an actuator that is coupled to the assembly that includes an array of ferromagnetic teeth that are arranged circumferentially about the assembly, wherein the excitation signal causes a first rotational displacement of a first ferromagnetic tooth included in the array from a first rotational position to a second rotational position; measuring one or more signal outputs from a magnetoresistive sensor when the first ferromagnetic tooth is disposed at the second rotational position; generating one or more corrected signals by modifying each of the one or more signal outputs with a respective signal offset value; and based on the corrected signals, determining a rotational position of the assembly.
A process for the conversion of ethane-1,2-diol to ethane-1,2-diamine and/or linear polyethylenimines of the formula H 2 N-[CH 2 CH 2 NH] n -CH 2 CH 2 NH 2 wherein n ≥ 1 comprising (i) providing a catalyst comprising a zeolitic material comprising YO 2 and X 2 O 3 , wherein Y is a tetravalent element and X is a trivalent element, wherein the zeolitic material is selected from the group consisting of zeolitic materials having the MOR, FAU, CHA and/or GME framework structure, including combinations of two or more thereof; (ii) providing a gas stream comprising ethane-1,2-diol and ammonia; (iii) contacting the catalyst provided in (i) with the gas stream provided in (ii) for converting ethane-1,2-diol to ethane-1,2-diamine and/or linear polyethylenimines. (i) providing a catalyst comprising a zeolitic material comprising YO 2 and X 2 O 3 , wherein Y is a tetravalent element and X is a trivalent element, wherein the zeolitic material is selected from the group consisting of zeolitic materials having the MOR, FAU, CHA and/or GME framework structure, including combinations of two or more thereof; (ii) providing a gas stream comprising ethane-1,2-diol and ammonia; (iii) contacting the catalyst provided in (i) with the gas stream provided in (ii) for converting ethane-1,2-diol to ethane-1,2-diamine and/or linear polyethylenimines.
Application device for a viscous adhesive, comprising a base body having a first inlet for a viscous adhesive and a nozzle body which is rotatable about an axis with respect to the base body and which surrounds a portion of the base body radially on the outside with respect to the axis , wherein the nozzle body has a nozzle channel which has a nozzle opening at a first end for discharging the adhesive from the application device and an inflow entry at a second end , wherein the nozzle body and the base body are aligned in such a way that adhesive can be conveyed into the inflow entry of the nozzle channel via an orifice of the first inlet, wherein a first dynamic seal covers the base body , which rests with an inner side against an outer wall of the base body and with an outer side against an inner wall of the nozzle body , characterized in that a separating agent chamber is formed which surrounds the base body in the circumferential direction and which is delimited radially inside by the outer wall of the base body and radially outside by the inner wall of the nozzle body , wherein a second inlet for separating agent is formed in the base body , which is fluidically connected to the separating agent chamber for feeding separating agent, wherein the first dynamic seal is formed in the direction of the axis between the separating agent chamber and the inflow entry of the nozzle channel of the nozzle body , wherein an outlet is formed in the base body and is in fluid communication with the separating agent chamber . comprising a base body having a first inlet for a viscous adhesive and a nozzle body which is rotatable about an axis with respect to the base body and which surrounds a portion of the base body radially on the outside with respect to the axis , wherein the nozzle body has a nozzle channel which has a nozzle opening at a first end for discharging the adhesive from the application device and an inflow entry at a second end , wherein the nozzle body and the base body are aligned in such a way that adhesive can be conveyed into the inflow entry of the nozzle channel via an orifice of the first inlet, wherein a first dynamic seal covers the base body , which rests with an inner side against an outer wall of the base body and with an outer side against an inner wall of the nozzle body , characterized in that a separating agent chamber is formed which surrounds the base body in the circumferential direction and which is delimited radially inside by the outer wall of the base body and radially outside by the inner wall of the nozzle body , wherein a second inlet for separating agent is formed in the base body , which is fluidically connected to the separating agent chamber for feeding separating agent, wherein the first dynamic seal is formed in the direction of the axis between the separating agent chamber and the inflow entry of the nozzle channel of the nozzle body , wherein an outlet is formed in the base body and is in fluid communication with the separating agent chamber .
A process for producing a sound absorbing hollow body by twin-sheet thermoforming, comprising the steps: a. providing a lower sheet made of a thermoplastic material to be vacuum-formed by a lower mould of a twin-sheet thermoforming device, b. providing an upper sheet made of a thermoplastic material to be vacuum-formed by an upper mould of a twin-sheet thermoforming device, c. providing at least one intermediate sheet made of a thermoplastic material, d. heating the upper and lower sheets to their respective thermoforming temperatures, e. vacuum-forming the upper and lower sheets by applying vacuum to the upper and lower moulds, and f. moving the upper and lower moulds towards each other to bring the edges of the moulds in contact, whereby the upper and lower sheet are peripherally welded to each other, the intermediate sheet being sandwiched between them, to form a hollow body in which the intermediate sheet extends within the hollow space of the hollow body without contacting the upper and lower sheets, the process being characterized in the steps c and d comprising: c. providing at least one intermediate sheet made of a thermoplastic material in contact with the surface of either the lower sheet or the upper sheet, d. using the arrangement of sheets obtained in step c., heating the upper and lower sheets to their respective thermoforming temperatures. a. providing a lower sheet made of a thermoplastic material to be vacuum-formed by a lower mould of a twin-sheet thermoforming device, b. providing an upper sheet made of a thermoplastic material to be vacuum-formed by an upper mould of a twin-sheet thermoforming device, c. providing at least one intermediate sheet made of a thermoplastic material, d. heating the upper and lower sheets to their respective thermoforming temperatures, e. vacuum-forming the upper and lower sheets by applying vacuum to the upper and lower moulds, and f. moving the upper and lower moulds towards each other to bring the edges of the moulds in contact, whereby the upper and lower sheet are peripherally welded to each other, the intermediate sheet being sandwiched between them, to form a hollow body in which the intermediate sheet extends within the hollow space of the hollow body without contacting the upper and lower sheets, c. providing at least one intermediate sheet made of a thermoplastic material in contact with the surface of either the lower sheet or the upper sheet, d. using the arrangement of sheets obtained in step c., heating the upper and lower sheets to their respective thermoforming temperatures.
Cushion cover for a vehicle seat , having a surface layer and at least one embossing in the surface layer , characterized in that a cavity on the reverse side of the at least one embossing is completely filled with an insert .
A box-type structure comprising shielding plates made of a sintered body of lithium fluoride, having neutron-shielding performance, wherein edge portions of the shielding plates are abutted and joined to each other, the edge portions of the shielding plates have a halving joint structure, and the halving joint structure has a stepped or inclined cutout shape, the box-type structure has a plurality of faces, and a part of the faces has an opening portion, and the box-type structure has a cube or rectangular parallelepiped shape. edge portions of the shielding plates are abutted and joined to each other, the edge portions of the shielding plates have a halving joint structure, and the halving joint structure has a stepped or inclined cutout shape, the box-type structure has a plurality of faces, and a part of the faces has an opening portion, and the box-type structure has a cube or rectangular parallelepiped shape.
A faceshield for blocking arc flash thermal energy, the faceshield comprising: a lens providing color acuity within the visible light spectrum, wherein the lens provides at least 30 % 11% light transmission across the visible light spectrum, the lens comprised of a particulate consisting of antimony doped tin oxide that blocks infrared radiation, and a optically clear polycarbonate, the optically clear polycarbonate and the particulate chosen and blended in proportion so that the faceshield will block a range from 3 to 40 cal/cm 2 of arc flash thermal energy, the lens further comprising the particulate of antimony doped tin oxide coated with a dispersant dispersed within the optically clear polycarbonate.
Use of an aqueous composition comprising water and at least one miscible liquid for indirect inkjet printing, characterized in that said at least one miscible liquid has an evaporation rate lower than 1/30 of the evaporation rate of the water, said rate being measured in the presence of air with a rate of 0.2 m/s in a direction parallel to the surface of the liquid, at a pressure of 103,3 kPa (1033 mbar), a temperature of 40 °C, and relative humidity of 20%, and in that said aqueous composition does not contain pigments or other materials intended to remain present in the final decoration.
Coating system for coating objects, comprising a) an electrostatically operating application device with a dispensing device by means of which a coating material can be dispensed; b) at least one supply container for coating material, the supply container being connected to an inlet valve device via an inlet line and to the dispensing device via a supply line ; wherein c) an insulation device is provided, which ca) defines a section of the inlet line as an insulation channel ; cb) comprises a clearing body ; cc) comprises a mechanical drive device with a drive element, by means of which the clearing body can be moved in the insulation channel at least from a parking position into an insulation position, wherein the clearing body frees the inner circumferential surface of the insulation channel from material during this insulation movement, whereby an electrical insulation path can be formed between the supply container and the inlet valve device , characterized in that d) the inlet line comprises a pigging line extending between a start pigging station and a target pigging station ; e) the pigging line is arranged upstream of the insulation device . a) an electrostatically operating application device with a dispensing device by means of which a coating material can be dispensed; b) at least one supply container for coating material, the supply container being connected to an inlet valve device via an inlet line and to the dispensing device via a supply line ; wherein c) an insulation device is provided, which ca) defines a section of the inlet line as an insulation channel ; cb) comprises a clearing body ; cc) comprises a mechanical drive device with a drive element, by means of which the clearing body can be moved in the insulation channel at least from a parking position into an insulation position, wherein the clearing body frees the inner circumferential surface of the insulation channel from material during this insulation movement, whereby an electrical insulation path can be formed between the supply container and the inlet valve device , characterized in that ca) defines a section of the inlet line as an insulation channel ; cb) comprises a clearing body ; cc) comprises a mechanical drive device with a drive element, by means of which the clearing body can be moved in the insulation channel at least from a parking position into an insulation position, wherein the clearing body frees the inner circumferential surface of the insulation channel from material during this insulation movement, whereby an electrical insulation path can be formed between the supply container and the inlet valve device , d) the inlet line comprises a pigging line extending between a start pigging station and a target pigging station ; e) the pigging line is arranged upstream of the insulation device .
A method for producing 1,5-pentamethylene diisocyanate, by phosgenation, or carbamation and thermal decomposition of 1,5-pentamethylenediamine, wherein the 1,5-pentamethylenediamine is obtained by liquid-liquid extraction, at 15° to 50°C, of an aqueous solution containing 1,5-pentamethylenediamine with a monohydric alcohol having 4 to 7 carbon atoms as extractant, without heating the aqueous solution containing 1,5-pentamethylenediamine at 90°C or more, and wherein the aqueous solution is a reaction solution obtained by decarboxylation of lysine. wherein the 1,5-pentamethylenediamine is obtained by liquid-liquid extraction, at 15° to 50°C, of an aqueous solution containing 1,5-pentamethylenediamine with a monohydric alcohol having 4 to 7 carbon atoms as extractant, without heating the aqueous solution containing 1,5-pentamethylenediamine at 90°C or more, and wherein the aqueous solution is a reaction solution obtained by decarboxylation of lysine.