mhurhangee/ep-ind-claims huggingface dataset:
A method for wiring electrical components of an electrical switchgear arranged on a mounting plate, comprising the steps of: - providing a planning of a switchgear comprising at least location information and orientation information about a plurality of electrical components of the switchgear on a mounting plate and wiring information about a plurality of electrical wirings between each two of the electrical components; - optically detecting an actual arrangement of the electrical components on the mounting plate and matching the location information and orientation information to the actual arrangement; and - automated wiring of the electrical components in a wiring order and according to the wiring information and the matched location information and orientation information, characterised in that the optical detection comprises a presence check of the plurality of electrical components of the switchgear, in that the optical detection comprises a component detection of the actual arrangement of the electrical components and a matching of the detected components with the plurality of electrical components of the switchgear according to the planning, and wherein the method further comprises applying a test routine to the wiring information for determining a degree of automation of the wirings and optionally adapting the wiring information for maximising the degree of automation, wherein the automated wiring of the electrical components is carried out according to the adapted wiring information. - providing a planning of a switchgear comprising at least location information and orientation information about a plurality of electrical components of the switchgear on a mounting plate and wiring information about a plurality of electrical wirings between each two of the electrical components; - optically detecting an actual arrangement of the electrical components on the mounting plate and matching the location information and orientation information to the actual arrangement; and - automated wiring of the electrical components in a wiring order and according to the wiring information and the matched location information and orientation information, characterised in that the optical detection comprises a presence check of the plurality of electrical components of the switchgear, in that the optical detection comprises a component detection of the actual arrangement of the electrical components and a matching of the detected components with the plurality of electrical components of the switchgear according to the planning, and wherein the method further comprises applying a test routine to the wiring information for determining a degree of automation of the wirings and optionally adapting the wiring information for maximising the degree of automation, wherein the automated wiring of the electrical components is carried out according to the adapted wiring information.
Method of conducting a liquid-based cooking process for food with a cooking hob assembly which comprises a cooking zone with at least one heating element, a controller and a temperature sensor, in which: - the controller measures the liquid temperature of liquid inside a cooking vessel placed on the heating element of the cooking zone via the temperature sensor which is at least partly immersed in the liquid; - the controller controls the liquid temperature of the liquid in accordance with a preset temperature profile over time by adequately powering (W, R, K) the heating element on which the cooking vessel is placed in dependency of the measured liquid temperature; wherein • the controller determines in an initial or intermediate operational phase an amount of liquid contained in the cooking vessel and uses the amount of liquid thus determined in at least one subsequent operational phase (H, W, R, K) as one of the parameters for calculating or setting the heating power level of the heating element, characterized in that - the determination of the amount of liquid is started only with liquid temperatures lower than 70 °C. - the controller measures the liquid temperature of liquid inside a cooking vessel placed on the heating element of the cooking zone via the temperature sensor which is at least partly immersed in the liquid; - the controller controls the liquid temperature of the liquid in accordance with a preset temperature profile over time by adequately powering (W, R, K) the heating element on which the cooking vessel is placed in dependency of the measured liquid temperature; wherein • the controller determines in an initial or intermediate operational phase an amount of liquid contained in the cooking vessel and uses the amount of liquid thus determined in at least one subsequent operational phase (H, W, R, K) as one of the parameters for calculating or setting the heating power level of the heating element, characterized in that • the controller determines in an initial or intermediate operational phase an amount of liquid contained in the cooking vessel and uses the amount of liquid thus determined in at least one subsequent operational phase (H, W, R, K) as one of the parameters for calculating or setting the heating power level of the heating element, - the determination of the amount of liquid is started only with liquid temperatures lower than 70 °C.
System with a computer for storage of project-planning data (1, 2, 3) in an automation system which contains automation devices (5, 6), • wherein the project-planning data (1, 2, 3) is stored in a generic expandable data storage format, wherein the data storage format is determined by a predefined object model, represented by a project tree and by schema definition files, • wherein parts of the project-planning data (1, 2, 3) are each assigned runtime data (7, 8, 9), and wherein the project-planning data (1, 2, 3) is created with the aid of the computer and is converted in a conversion step into the runtime data (7, 8, 9), • wherein the runtime data (7, 8, 9) is assigned at least one automation device (5, 6) in each case, • wherein the runtime data (7, 8, 9) is parts of programs executable on the automation devices (5, 6) assigned to it, • wherein the parts of the project-planning data (1, 2, 3) are stored distributed in parallel to the runtime data (7, 8, 9) assigned to them in each case in the automation devices (5, 6) assigned to the runtime data (7, 8, 9) in each case, • wherein parts of the project-planning data (1, 2, 3) which are assigned to a plurality of runtime data (7, 8, 9) are stored in each case on the automation devices (5, 6) assigned to this plurality of runtime data (7, 8, 9), and • wherein parts of the project-planning data (1, 2, 3), which are not to be assigned to any runtime data (7, 8, 9), are stored on all automation devices (5, 6) in each case. • wherein the project-planning data (1, 2, 3) is stored in a generic expandable data storage format, wherein the data storage format is determined by a predefined object model, represented by a project tree and by schema definition files, • wherein parts of the project-planning data (1, 2, 3) are each assigned runtime data (7, 8, 9), and wherein the project-planning data (1, 2, 3) is created with the aid of the computer and is converted in a conversion step into the runtime data (7, 8, 9), • wherein the runtime data (7, 8, 9) is assigned at least one automation device (5, 6) in each case, • wherein the runtime data (7, 8, 9) is parts of programs executable on the automation devices (5, 6) assigned to it, • wherein the parts of the project-planning data (1, 2, 3) are stored distributed in parallel to the runtime data (7, 8, 9) assigned to them in each case in the automation devices (5, 6) assigned to the runtime data (7, 8, 9) in each case, • wherein parts of the project-planning data (1, 2, 3) which are assigned to a plurality of runtime data (7, 8, 9) are stored in each case on the automation devices (5, 6) assigned to this plurality of runtime data (7, 8, 9), and • wherein parts of the project-planning data (1, 2, 3), which are not to be assigned to any runtime data (7, 8, 9), are stored on all automation devices (5, 6) in each case.
A heat shield assembly comprising: a skin panel; and a stiffener comprising a base portion, a first bead portion and a second bead portion, the first bead portion and the second bead portion protruding from said base portion, wherein said base portion is connected to said skin panel to define a bead volume between said bead portions and said skin panel, wherein said second bead portion intersects with said first bead portion, wherein the base portion surrounding the first and second bead portions (234', 235') closely corresponds to the first and second bead portions (234', 235'), thereby giving the stiffener an X-shape. a skin panel; and a stiffener comprising a base portion, a first bead portion and a second bead portion, the first bead portion and the second bead portion protruding from said base portion, wherein said base portion is connected to said skin panel to define a bead volume between said bead portions and said skin panel, wherein said second bead portion intersects with said first bead portion, wherein the base portion surrounding the first and second bead portions (234', 235') closely corresponds to the first and second bead portions (234', 235'), thereby giving the stiffener an X-shape.
A vacuum cleaner nozzle comprising a suction plate, which is provided with a suction opening and at least a first lint picker located at one side of the suction opening, the suction plate being connected to a nozzle outlet, such that the suction opening is in fluid communication with the nozzle outlet, the suction plate comprising at least one sealing edge extending substantially vertically from the suction plate, wherein said first lint picker is at least partly located between a first portion of said sealing edge and said suction opening, said first portion of said sealing edge sealing the suction opening and said first lint picker characterized in that said first lint picker extends, at least partly, over the suction opening.
Accessory intended to be adapted on an electric air flow hairbrush comprising: a hollow sleeve (10, 20) presenting a longitudinal axis capable of being assembled on a hairbrush, the sleeve comprising a set of bristles (11, 11', 11", 21) and a set of through-openings (12, 22) able to let the air flow pass through, - the sleeve comprises a first hollow body equipped with a first set of bristles (11, 11', 11") emerging from said body, and a first set of through-openings able to let an air flow pass through, a second hollow body equipped with a second set of bristles emerging from said second body and a second set of through-openings able to let an air flow pass through, - the second body is different from the first body and presents a section (24, 25) able to be fixed so that it can be removed at least partially on the first body, characterised in that the first body presents a cylindrical exterior surface of which the axis of symmetry is combined with the longitudinal axis of the accessory. - the sleeve comprises a first hollow body equipped with a first set of bristles (11, 11', 11") emerging from said body, and a first set of through-openings able to let an air flow pass through, a second hollow body equipped with a second set of bristles emerging from said second body and a second set of through-openings able to let an air flow pass through, - the second body is different from the first body and presents a section (24, 25) able to be fixed so that it can be removed at least partially on the first body, characterised in that the first body presents a cylindrical exterior surface of which the axis of symmetry is combined with the longitudinal axis of the accessory.
An in vitro method of producing a transdifferentiated population of cells having a pancreatic beta cell-like phenotype and function comprising: (a) obtaining an adult mammalian liver cell population enriched for cells predisposed to transdifferentiation, said obtaining the enriched cells comprising: (i) isolating liver cells with an active Wnt-signaling pathway, or (ii) isolating liver cells with an activated glutamine synthetase response element (GSRE), or (iii) isolating adult mammalian pericentral liver cells; (b) contacting said enriched adult mammalian liver cell population with a pancreatic and duodenal homeobox (PDX-1) polypeptide or a nucleic acid encoding a pancreatic and duodenal homeobox (PDX-1) polypeptide under conditions to allow uptake of the polypeptide or nucleic acid at a first time period; (c) contacting the population of cells of step (b) with a Pax-4 polypeptide, or a NeuroD1 polypeptide, or a nucleic acid encoding a Pax-4 polypeptide, or a nucleic acid encoding a NeuroD1 polypeptide under conditions to allow uptake of the polypeptides or nucleic acids at a second time period; and (d) thereafter, contacting the population of cells of step (c) with a MafA polypeptide or a nucleic acid encoding a MafA polypeptide under conditions to allow uptake of the polypeptide or the nucleic acid at a third time period; thereby producing a transdifferentiated population of cells having a pancreatic beta cell-like phenotype and function. (a) obtaining an adult mammalian liver cell population enriched for cells predisposed to transdifferentiation, said obtaining the enriched cells comprising: (i) isolating liver cells with an active Wnt-signaling pathway, or (ii) isolating liver cells with an activated glutamine synthetase response element (GSRE), or (iii) isolating adult mammalian pericentral liver cells; (i) isolating liver cells with an active Wnt-signaling pathway, or (ii) isolating liver cells with an activated glutamine synthetase response element (GSRE), or (iii) isolating adult mammalian pericentral liver cells; (b) contacting said enriched adult mammalian liver cell population with a pancreatic and duodenal homeobox (PDX-1) polypeptide or a nucleic acid encoding a pancreatic and duodenal homeobox (PDX-1) polypeptide under conditions to allow uptake of the polypeptide or nucleic acid at a first time period; (c) contacting the population of cells of step (b) with a Pax-4 polypeptide, or a NeuroD1 polypeptide, or a nucleic acid encoding a Pax-4 polypeptide, or a nucleic acid encoding a NeuroD1 polypeptide under conditions to allow uptake of the polypeptides or nucleic acids at a second time period; and (d) thereafter, contacting the population of cells of step (c) with a MafA polypeptide or a nucleic acid encoding a MafA polypeptide under conditions to allow uptake of the polypeptide or the nucleic acid at a third time period;
A motor cover for a vacuum cleaner, wherein the motor cover has an inlet and an outlet, the motor cover is configured to mount an electric blower, and an air inlet end of the electric blower is configured to be disposed towards the inlet; the motor cover is provided with a plurality of flow guiding channels therein, and the plurality of flow guiding channels are sequentially communicated with each other; one of the flow guiding channels is communicated with an air outlet end of the electric blower, and another flow guiding channel is communicated with the outlet; at least two of the plurality of flow guiding channels are arranged along an axial direction of the electric blower and guide airflow along a circumferential direction of the electric blower, characterized in that, the plurality of flow guiding channels are all annular, and the plurality of flow guiding channels are sequentially arranged along the axial direction of the electric blower; in two flow guiding channels at both ends in the axial direction of the electric blower, an inner wall of one flow guiding channel is provided with a first communication opening for communication with the air outlet end of the electric blower, and an outer wall of the other flow guiding channel is provided with the outlet; a second communication opening is provided between two adjacent flow guiding channels.
A pharmaceutical product comprising: a) a package, and a liquid formulation placed in the package, wherein the liquid formulation comprises 0.25 to 25 w/v% of cilastatin or a pharmaceutically acceptable salt thereof, and 0.01 to 1 w/v% of at least one selected from the group consisting of pyrosulfurous acid, sulfurous acid, substituted or unsubstituted phenol, cysteine, and pharmaceutically acceptable salts thereof, wherein a headspace in the package is purged with inert gas; or b) a package, and a liquid formulation placed in the package, wherein the liquid formulation comprises 0.25 to 25 w/v% of cilastatin or a pharmaceutically acceptable salt thereof, 0.1 to 2 w/v% of nicotinamide or a pharmaceutically acceptable salt thereof, and 0.01 to 1 w/v% of a chelating agent, wherein a headspace in the package is purged with inert gas. a) a package, and a liquid formulation placed in the package, wherein the liquid formulation comprises 0.25 to 25 w/v% of cilastatin or a pharmaceutically acceptable salt thereof, and 0.01 to 1 w/v% of at least one selected from the group consisting of pyrosulfurous acid, sulfurous acid, substituted or unsubstituted phenol, cysteine, and pharmaceutically acceptable salts thereof, wherein a headspace in the package is purged with inert gas; or wherein the liquid formulation comprises 0.25 to 25 w/v% of cilastatin or a pharmaceutically acceptable salt thereof, and 0.01 to 1 w/v% of at least one selected from the group consisting of pyrosulfurous acid, sulfurous acid, substituted or unsubstituted phenol, cysteine, and pharmaceutically acceptable salts thereof, wherein a headspace in the package is purged with inert gas; or b) a package, and a liquid formulation placed in the package, wherein the liquid formulation comprises 0.25 to 25 w/v% of cilastatin or a pharmaceutically acceptable salt thereof, 0.1 to 2 w/v% of nicotinamide or a pharmaceutically acceptable salt thereof, and 0.01 to 1 w/v% of a chelating agent, wherein a headspace in the package is purged with inert gas. wherein the liquid formulation comprises 0.25 to 25 w/v% of cilastatin or a pharmaceutically acceptable salt thereof, 0.1 to 2 w/v% of nicotinamide or a pharmaceutically acceptable salt thereof, and 0.01 to 1 w/v% of a chelating agent, wherein a headspace in the package is purged with inert gas.
Cartridge for separation of a fluid mixture, preferably a gas mixture, comprising a membrane element having: - hollow-fibre or flat-sheet membranes having a front end ME1 and a rear end ME2 on the opposite side, - a front closure V1 at ME1 - a rear closure V2 at ME2 - a barrier which is impermeable to the fluid mixture to be separated and is arranged around the membranes in the region between V1 and V2, and - a sealing element, characterized in that - the sealing element is a separate, independent element of the cartridge which connects the cartridge, after installation into a module housing, in a fluid-tight manner to the inner surface of the module housing and consists of at least two parts, of which • one part is a seal, preferably a sealing ring or a wiper, which, after installation of the cartridge into a module housing of a fluid separation module, tightly adjoins the inner wall of the module housing, and • a further part is a carrier element which bears the seal and which is reversibly attached to the front or back closure V1 or V2 of the membrane element. - hollow-fibre or flat-sheet membranes having a front end ME1 and a rear end ME2 on the opposite side, - a front closure V1 at ME1 - a rear closure V2 at ME2 - a barrier which is impermeable to the fluid mixture to be separated and is arranged around the membranes in the region between V1 and V2, - a sealing element, - the sealing element is a separate, independent element of the cartridge which connects the cartridge, after installation into a module housing, in a fluid-tight manner to the inner surface of the module housing and consists of at least two parts, of which • one part is a seal, preferably a sealing ring or a wiper, which, after installation of the cartridge into a module housing of a fluid separation module, tightly adjoins the inner wall of the module housing, and • a further part is a carrier element which bears the seal and which is reversibly attached to the front or back closure V1 or V2 of the membrane element. • one part is a seal, preferably a sealing ring or a wiper, which, after installation of the cartridge into a module housing of a fluid separation module, tightly adjoins the inner wall of the module housing, and • a further part is a carrier element which bears the seal and which is reversibly attached to the front or back closure V1 or V2 of the membrane element.
A garment steamer with inclinable ironing board comprising a base, a support structure extending upwardly from the base, the support structure comprising an upper part and a lower part, an ironing board attached to the upper part, an inclining structure comprising an inclining linkage that connects the upper part and the lower part in such a way that the upper part is inclinable relative to the lower part and can be fixed in a position in which the upper part is inclined from the lower part at an angle between horizontal and vertical, characterised in that the inclining linkage comprises front and rear link arms (83,84) extending between the upper and lower parts (51,52) of the support structure, the front and rear link arms (83,84) each having an upper end pivotably connected to the upper part and a lower end pivotably connected to the lower part, the front link arm being longer than the rear link arm such that upper part assumes an inclined position relative to the lower part when the upper and lower ends of the front and rear link arms (83,84) are pivoted about the upper and lower parts (51,52), respectively, of the support structure.
A harvesting attachment for a harvester having a frame which comprises a rear wall and a base wall, which includes a fastening region at its end for fastening a plurality of harvesting units (72, 92), each harvesting unit (72, 92) having a connection housing, wherein the frame is formed as an extruded section; and the fastening region includes a guide including an upwardly facing projection provided with latching recesses for the engagement therein of corresponding elevated latching portions provided at the connection housings of the harvesting units (72, 92).
A method for producing a molded body from a particle foam material in a closable mold cavity of a molding tool, comprising the steps: (a) introducing the particle foam material in the form of granulate material into the mold cavity of the molding tool, (b) closing the mold cavity, (c) heating the molding tool and the granulate material contained therein, whereby the particles of the granulate material are bonded to one another, wherein during step (c), the introduction of the thermal energy into the interior of the mold cavity takes place exclusively through the wall of the mold cavity, wherein the passage of the heat energy from the wall of the mold cavity into the interior of the mold cavity takes place free of convection, characterized in that the molding tool has a device for heating the molding tool, in the form of one or multiple channels of a temperature control device for a heating medium, and step (c) is carried out by means of the device for heating the molding tool. (a) introducing the particle foam material in the form of granulate material into the mold cavity of the molding tool, (b) closing the mold cavity, (c) heating the molding tool and the granulate material contained therein, whereby the particles of the granulate material are bonded to one another, during step (c), the introduction of the thermal energy into the interior of the mold cavity takes place exclusively through the wall of the mold cavity, wherein the passage of the heat energy from the wall of the mold cavity into the interior of the mold cavity takes place free of convection, characterized in that the molding tool has a device for heating the molding tool, in the form of one or multiple channels of a temperature control device for a heating medium, and step (c) is carried out by means of the device for heating the molding tool.