mhurhangee/ep-ind-claims huggingface dataset:
A dual coil inductor assembly comprising: a first coil including a spirally wound first metal foil; a second coil including a spirally wound second metal foil; a first terminal electrically connected to the first metal foil at a first location on the first metal foil; a second terminal electrically connected to the first metal foil at a second location on the first metal foil; a third terminal electrically connected to the second metal foil at a first location on the second metal foil; and a fourth terminal electrically connected to the second metal foil at a second location on the second metal foil; wherein the dual coil inductor assembly has an inductor assembly longitudinal axis (L-L), a first axial end and an opposing second axial end; characterized in that: the first terminal and the third terminal are located on the first axial end, and the second terminal and the fourth terminal are located on the second axial end. a first coil including a spirally wound first metal foil; a second coil including a spirally wound second metal foil; a first terminal electrically connected to the first metal foil at a first location on the first metal foil; a second terminal electrically connected to the first metal foil at a second location on the first metal foil; a third terminal electrically connected to the second metal foil at a first location on the second metal foil; and a fourth terminal electrically connected to the second metal foil at a second location on the second metal foil; wherein the dual coil inductor assembly has an inductor assembly longitudinal axis (L-L), a first axial end and an opposing second axial end; characterized in that: the first terminal and the third terminal are located on the first axial end, and the second terminal and the fourth terminal are located on the second axial end.
System comprising: a stretch blow moulding device for blowing a container, in particular a bottle; a cooling device for cooling the blown container using dry ice particles or carbon dioxide gas; and a coating device for coating the cooled container, in particular inside the container; characterised in that the system comprises a transport path for transporting the container from the stretch blow moulding device to the cooling device and subsequently to the coating device; and the coating device having a discharge path for discharging the coated container. a stretch blow moulding device for blowing a container, in particular a bottle; a cooling device for cooling the blown container using dry ice particles or carbon dioxide gas; and a coating device for coating the cooled container, in particular inside the container; characterised in that the system comprises a transport path for transporting the container from the stretch blow moulding device to the cooling device and subsequently to the coating device; and the coating device having a discharge path for discharging the coated container.
Zinc strip consisting of high purity zinc, wherein the amount of titanium is at least 10 ppm and 500 ppm or less, and the amount of aluminium is at least 10 ppm and 100 ppm or less, and wherein the balance is zinc, and usual impurities, especially Pb, Cd, Fe, and/or Sn, wherein the total amount of impurities amounts to 0.05 % by weight or less, based on the total weight of the zinc strip, wherein the zinc strip optionally further comprises copper in an amount of 500 ppm or less, based on the total weight of the zinc strip. the amount of titanium is at least 10 ppm and 500 ppm or less, and the amount of aluminium is at least 10 ppm and 100 ppm or less, and wherein the balance is zinc, and usual impurities, especially Pb, Cd, Fe, and/or Sn, wherein the total amount of impurities amounts to 0.05 % by weight or less, based on the total weight of the zinc strip, wherein the zinc strip optionally further comprises copper in an amount of 500 ppm or less, based on the total weight of the zinc strip.
A microencapsulated catalyst-ligand system comprising a transition metal catalyst and a ligand microencapsulated within a permeable polymer microcapsule shell; wherein the ligand is a polymeric ligand; wherein the permeable polymer microcapsule shell is a polyurea microcapsule prepared from at least one polyisocyanate and/or tolylene diisocyanate; and wherein the ligand is obtainable by free radical polymerisation of a ligand of formula: PR 1 R 2 R 3 wherein: R 1, R 2 and R 3 are each independently an optionally substituted hydrocarbyl group, an optionally substituted hydrocarbyloxy group, or an optionally substituted heterocyclyl group or one or more of R 1 & R 2, R 1 & R 3, R 2 & R 3 optionally being linked in such a way as to form an optionally substituted ring(s); and at least one of R 1, R 2 and R 3 comprises a group polymerisable by free radical polymerisation. R 1, R 2 and R 3 are each independently an optionally substituted hydrocarbyl group, an optionally substituted hydrocarbyloxy group, or an optionally substituted heterocyclyl group or one or more of R 1 & R 2, R 1 & R 3, R 2 & R 3 optionally being linked in such a way as to form an optionally substituted ring(s); and at least one of R 1, R 2 and R 3 comprises a group polymerisable by free radical polymerisation.
A medicine for use in treating a stellate cell-related disorder comprising a drug carrier comprising a retinoid derivative and/or vitamin A analogue as a component, and a diagnostic and/or therapeutic drug, wherein the stellate cell-related disorder is selected from the group consisting of fibrosis, hepatitis and pancreatitis, and wherein the retinoid derivative and/or vitamin A analogue are/is selected from vitamin A, tretinoin, adapalene, or retinol palmitate, and Fenretinide (4-HPR), and, by bonding to or being included in the drug carrier, enables the specific transport of the drug to stellate cells.
A method of producing a nutritional product, the method comprising the steps of: a) providing a milk feed, b) subjecting the milk feed to microfiltration or microfiltration/diafiltration, thereby providing an MF retentate enriched with respect to micellar casein and an MF permeate enriched with respect to milk serum protein, c) subjecting the MF permeate to nanofiltration or nanofiltration/diafiltration using a membrane that allows for the passage of monovalent ions but retains milk saccharide so as to obtain an NF retentate and an NF permeate, d) subjecting the NF retentate to electrodialysis, so as to obtain a demineralised, milk saccharide-containing milk serum protein product which has a reduced level of calcium, magnesium and phosphorus, e) adding a casein source, and optionally one or more additional ingredients, to the demineralised, milk saccharide-containing milk serum protein product to obtain the nutritional product, and f) optionally converting the nutritional product to a powder, and, wherein the milk serum protein-containing streams following step b) are not subjected to ultrafiltration that separates milk serum protein from milk saccharide. a) providing a milk feed, b) subjecting the milk feed to microfiltration or microfiltration/diafiltration, thereby providing an MF retentate enriched with respect to micellar casein and an MF permeate enriched with respect to milk serum protein, c) subjecting the MF permeate to nanofiltration or nanofiltration/diafiltration using a membrane that allows for the passage of monovalent ions but retains milk saccharide so as to obtain an NF retentate and an NF permeate, d) subjecting the NF retentate to electrodialysis, so as to obtain a demineralised, milk saccharide-containing milk serum protein product which has a reduced level of calcium, magnesium and phosphorus, e) adding a casein source, and optionally one or more additional ingredients, to the demineralised, milk saccharide-containing milk serum protein product to obtain the nutritional product, and f) optionally converting the nutritional product to a powder,
An isothermal container substantially parallelepipedic, comprising a lower wall, an upper wall, two side walls, a rear wall and a front wall, said front wall being adapted to support a refrigeration generator connected to a refrigerated air intake port and an air suction port, said ports and being formed in said front surface; said isothermal container further comprises at least one refrigerating diffusion device adapted to be fastened on the underside of said upper wall comprising a converging nozzle, a first guide profile and a second guide profile, the first guide profile and the second guide profile being parallel to one another and disposed at a distance from each other, the first guide profile and the second guide profile being positioned in the extension of said converging nozzle, to guide the flow of refrigerated air along the longitudinal axis of said isothermal container, the container being characterized by the distance between the first guide profile and the second guide profile enabling cold air to emerge from the refrigerating diffusion device over a continuous area.
Assembly with a door leaf made of glass and an automatic door seal, wherein the door seal comprises a housing, which has a first leg, a second leg and a web connecting the two legs, wherein an outer side of the web abuts against the lower side of the door leaf at a butt joint and is adhered there to the lower side of the door leaf, wherein the housing has a substantially U-shapedcross-sectional profile, characterized in that neither the first leg nor the second leg of the housing extends beyond the butt joint between the door leaf and housing, the assembly comprises a first cover, which is adhered to an outer side of the first leg of the housing and which extends from a free end of the first leg in the direction of an upper end of the door leaf at least beyond the butt joint between the housing of the seal and the door leaf, and in that the assembly has a second cover (31, 32, 33) which is adhered to an outer side of the second leg of the housing and which extends from a free end of the first leg in the direction of an upper end of the door leaf at least over the butt joint between the housing of the seal and the door leaf. wherein the housing has a substantially U-shapedcross-sectional profile, characterized in that neither the first leg nor the second leg of the housing extends beyond the butt joint between the door leaf and housing, the assembly comprises a first cover, which is adhered to an outer side of the first leg of the housing and which extends from a free end of the first leg in the direction of an upper end of the door leaf at least beyond the butt joint between the housing of the seal and the door leaf, and in that the assembly has a second cover (31, 32, 33) which is adhered to an outer side of the second leg of the housing and which extends from a free end of the first leg in the direction of an upper end of the door leaf at least over the butt joint between the housing of the seal and the door leaf.
Method for obtaining depth information by means of a camera attached to a vehicle, comprising the following steps: - controlling the vehicle such that it follows a defined trajectory, - recording at least two images of the surroundings using the camera at different, defined points (A, B) of the trajectory, and - calculating the depth information from at least two recorded images, characterized in that - the trajectory has a sinusoidal form and - the camera in each case records an image of the surroundings at the extremal points (A, B) of the trajectory. - controlling the vehicle such that it follows a defined trajectory, - recording at least two images of the surroundings using the camera at different, defined points (A, B) of the trajectory, and - calculating the depth information from at least two recorded images, characterized in that - the trajectory has a sinusoidal form and - the camera in each case records an image of the surroundings at the extremal points (A, B) of the trajectory. - the trajectory has a sinusoidal form and - the camera in each case records an image of the surroundings at the extremal points (A, B) of the trajectory.
A method for producing a fluoride fluorescent material, comprising: preparing fluoride particles having a composition containing at least one element or ion A selected from the group consisting of alkali metal elements and NH 4 +, at least one M element selected from the group consisting of Group-4 elements and Group-14 elements, Mn 4+, and F, in which a molar ratio of A in 1 mol of the composition is 2, a total molar ratio of M and Mn 4+ is 1, a molar ratio of Mn 4+ is in a range of more than 0 and less than 0.2, and a molar ratio of F is 6; subjecting the fluoride particles to a first heat treatment at a temperature of 500°C or more in an inert gas atmosphere; washing the first heat-treated fluoride particles with a washing liquid; and bringing the washed fluoride particles into contact with a fluorine-containing substance and subjecting the resulting fluoride particles to a second heat treatment at a temperature of 400°C or more. preparing fluoride particles having a composition containing at least one element or ion A selected from the group consisting of alkali metal elements and NH 4 +, at least one M element selected from the group consisting of Group-4 elements and Group-14 elements, Mn 4+, and F, at least one element or ion A selected from the group consisting of alkali metal elements and NH 4 +, at least one M element selected from the group consisting of Group-4 elements and Group-14 elements, Mn 4+, and F, in which a molar ratio of A in 1 mol of the composition is 2, a total molar ratio of M and Mn 4+ is 1, a molar ratio of Mn 4+ is in a range of more than 0 and less than 0.2, and a molar ratio of F is 6; subjecting the fluoride particles to a first heat treatment at a temperature of 500°C or more in an inert gas atmosphere; washing the first heat-treated fluoride particles with a washing liquid; and bringing the washed fluoride particles into contact with a fluorine-containing substance and subjecting the resulting fluoride particles to a second heat treatment at a temperature of 400°C or more.
A power unit of a kitchen appliance, comprising: a mechanical interface for connecting a tool; a motor for rotating the mechanical interface to drive the tool; a controller for controlling the motor; and a vibration sensor arranged to sense vibrations of a tool (4,6,8) connected to the mechanical interface, the vibration sensor being connected to the controller for feeding vibration information representing the sensed vibration to the controller; wherein, the controller is arranged to identify which of a plurality of classes of tools (4,6,8) is connected to the power unit from the sensed vibration information. a mechanical interface for connecting a tool; a motor for rotating the mechanical interface to drive the tool; a controller for controlling the motor; and a vibration sensor arranged to sense vibrations of a tool (4,6,8) connected to the mechanical interface, the vibration sensor being connected to the controller for feeding vibration information representing the sensed vibration to the controller; wherein, the controller is arranged to identify which of a plurality of classes of tools (4,6,8) is connected to the power unit from the sensed vibration information.
A tangible, non-transitory computer recordable and readable medium storing computer program instructions that, when executed by a processor, cause the processor to control one or more devices (620, 625) to: apply (708, 712) diagnostic vestibular stimulation to a subject to measure a slow phase velocity of nystagmus on the subject's right side and a slow phase velocity of nystagmus on the subject's left side; and apply (806, 808, 820, 822) therapeutic vestibular stimulation to the subject in order to treat the mood disorder in the subject, wherein the therapeutic vestibular stimulation is configured to stimulate the left side of the subject's vestibular system and the right side of the subject's vestibular system, and wherein the therapeutic vestibular stimulation is determined by the processor based on a ratio of the measured slow phase velocity of nystagmus on the subject's right side to the measured slow phase velocity of nystagmus on the subject's left side, and wherein the therapeutic vestibular stimulation comprises: applying rotary stimulation to the subject's left side until the subject's angular velocity is equal to or greater than a predetermined angular velocity, then bringing the subject to rest; applying caloric stimulation to the subject's right ear; applying optokinetic stimulation to the subjects right side; and applying optokinetic stimulation to the subject's left side. apply (708, 712) diagnostic vestibular stimulation to a subject to measure a slow phase velocity of nystagmus on the subject's right side and a slow phase velocity of nystagmus on the subject's left side; and apply (806, 808, 820, 822) therapeutic vestibular stimulation to the subject in order to treat the mood disorder in the subject, wherein the therapeutic vestibular stimulation is configured to stimulate the left side of the subject's vestibular system and the right side of the subject's vestibular system, and wherein the therapeutic vestibular stimulation is determined by the processor based on a ratio of the measured slow phase velocity of nystagmus on the subject's right side to the measured slow phase velocity of nystagmus on the subject's left side, and wherein the therapeutic vestibular stimulation comprises: applying rotary stimulation to the subject's left side until the subject's angular velocity is equal to or greater than a predetermined angular velocity, then bringing the subject to rest; applying caloric stimulation to the subject's right ear; applying optokinetic stimulation to the subjects right side; and applying optokinetic stimulation to the subject's left side. applying rotary stimulation to the subject's left side until the subject's angular velocity is equal to or greater than a predetermined angular velocity, then bringing the subject to rest; applying caloric stimulation to the subject's right ear; applying optokinetic stimulation to the subjects right side; and applying optokinetic stimulation to the subject's left side.
Imaging optics for material machining by means of laser radiation, consisting of: a collimator optics for collimating a divergent working laser beam and a focusing optics for focusing a working laser beam on a workpiece to be machined, characterised in that the collimating optics comprises a first movable lens or lens group with positive focal length for imaging a working laser beam source in a virtual intermediate focal point and a second movable lens or lens group with negative focal length for imaging the virtual intermediate focal point to infinity, and wherein only the first lens or lens group and the second lens or lens group are movable. a collimator optics for collimating a divergent working laser beam and a focusing optics for focusing a working laser beam on a workpiece to be machined, characterised in that the collimating optics comprises a first movable lens or lens group with positive focal length for imaging a working laser beam source in a virtual intermediate focal point and a second movable lens or lens group with negative focal length for imaging the virtual intermediate focal point to infinity, and wherein only the first lens or lens group and the second lens or lens group are movable.
Computer-implemented method for analysing the dependability of a technical system, comprising the following steps: - receiving a configuration of a technical system comprising multiple subsystems (A, B, C), wherein the configuration defines a structure of the technical system comprising the technical subsystems (A, B, C); - receiving operating risks (1, 2, 3, 4, 5, 6) of the subsystems (A, B, C), wherein each operating risk (1, 2, 3, 4, 5, 6) is associated with a subsystem (A, B, C); characterized by the step of - determining a multiplicity of emergent risks for the configuration of the technical system by forming combinations of operating risks (1, 2, 3, 4, 5, 6) of the different subsystems (A, B, C), wherein a combination of operating risks (1, 2, 3, 4, 5, 6) comprises a simultaneous occurrence of at least two operating risks (1, 2, 3, 4, 5, 6) of two different subsystems (A, B, C) of the technical system, and wherein an emergent risk represents a threat to the health of a person by the technical system that results from a simultaneous effect of at least two operating risks (1, 2, 3, 4, 5, 6) of two different subsystems (A, B, C) of the technical system on the person, wherein the determined emergent risks are immediately passed back to the design process by installing additional protective measures in the installation. - receiving a configuration of a technical system comprising multiple subsystems (A, B, C), wherein the configuration defines a structure of the technical system comprising the technical subsystems (A, B, C); - receiving operating risks (1, 2, 3, 4, 5, 6) of the subsystems (A, B, C), wherein each operating risk (1, 2, 3, 4, 5, 6) is associated with a subsystem (A, B, C); characterized by the step of - determining a multiplicity of emergent risks for the configuration of the technical system by forming combinations of operating risks (1, 2, 3, 4, 5, 6) of the different subsystems (A, B, C), wherein a combination of operating risks (1, 2, 3, 4, 5, 6) comprises a simultaneous occurrence of at least two operating risks (1, 2, 3, 4, 5, 6) of two different subsystems (A, B, C) of the technical system, and wherein an emergent risk represents a threat to the health of a person by the technical system that results from a simultaneous effect of at least two operating risks (1, 2, 3, 4, 5, 6) of two different subsystems (A, B, C) of the technical system on the person, wherein the determined emergent risks are immediately passed back to the design process by installing additional protective measures in the installation.
A data center, in which, in a closed room, a plurality of rows of switch cabinets, each formed from multiple switch cabinets, and at least one cooling device are placed on a double floor, into which room air cooled via the cooling device is passed, wherein a cold aisle, which is hermetically sealed off from the room, is formed between two adjacent rows of switch cabinets, into which cold aisle the cooled air from the double floor is fed, wherein the cooled air is supplied to the switch cabinets of the adjacent rows of switch cabinets each at their vertical sides facing the cold aisle and is discharged into the closed room as heated air at opposite vertical sides of the switch cabinets facing away from the cold aisle, and wherein the cooling device comprises a first air-liquid heat exchanger to which a coolant cooled by at least one recooler arranged outside the room is supplied, characterized in that at least one of the switch cabinets has a second air-liquid heat exchanger which is mounted directly on its top side or at a distance (d) therefrom, via which warm air from the room is fed as cooled air into the cold aisle, wherein cooled coolant is supplied to the second air-liquid heat exchanger via a coolant source arranged outside the room, wherein the second air-liquid heat exchanger is accommodated in a cooling housing mounted on the top side of the respective switch cabinet, wherein through opposite housing sides (16, 17) of the cooling housing the warm air from the room is conducted through the cooling housing and into the cold aisle as cooled air, and wherein at least one speed-controlled fan is accommodated in the cooling housing, wherein at a warm air inlet and/or at a cold air outlet of the cooling housing a device, such as a backflow flap or a louvered flap module, is arranged, which is configured to prevent a backflow of cooled air from the cold aisle into the room.