mhurhangee/ep-ind-claims huggingface dataset:
Method for producing an inner container for a household refrigeration appliance, which delimits, with its walls (10, 11, 12, 13, 14), a receiving space (5, 6) for food, having the following steps: - providing a plastic material, from which the inner container is formed; - heating the plastic material and forming the heated plastic material to form the inner container, wherein here at least one wall (10, 11, 12, 13, 14) of the inner container is produced with a base wall thickness; characterised in that the method has the following steps: - reducing the basic wall thickness of the wall (10, 11, 12, 13, 14), produced during forming, of the inner container by way of a local, defined compression of the material, so that a local first wall region, which is defined in size and geometry delimited in a defined manner, is produced in the wall (10, 11, 12, 13, 14) with a first wall thickness, so that the first wall thickness is reduced, by the compression in comparison to the base wall thickness and/or in comparison to a second wall thickness of a second wall region of the wall that is produced, in particular is first produced during production of the first wall region, and is directly adjacent to the first wall region; - producing, by compression, an outer side region of the first wall region, which faces away from the receiving space (5, 6), as a contact surface for an add-on part (23, 27, 3), which is provided for installation onto the first wall region in the intended manner; - producing an edge in the wall which delimits the first wall region, which is provided for installation of the add-on part (23, 27, 3) thereon in the intended manner. - providing a plastic material, from which the inner container is formed; - heating the plastic material and forming the heated plastic material to form the inner container, wherein here at least one wall (10, 11, 12, 13, 14) of the inner container is produced with a base wall thickness; characterised in that the method has the following steps: - reducing the basic wall thickness of the wall (10, 11, 12, 13, 14), produced during forming, of the inner container by way of a local, defined compression of the material, so that a local first wall region, which is defined in size and geometry delimited in a defined manner, is produced in the wall (10, 11, 12, 13, 14) with a first wall thickness, so that the first wall thickness is reduced, by the compression in comparison to the base wall thickness and/or in comparison to a second wall thickness of a second wall region of the wall that is produced, in particular is first produced during production of the first wall region, and is directly adjacent to the first wall region; - producing, by compression, an outer side region of the first wall region, which faces away from the receiving space (5, 6), as a contact surface for an add-on part (23, 27, 3), which is provided for installation onto the first wall region in the intended manner; - producing an edge in the wall which delimits the first wall region, which is provided for installation of the add-on part (23, 27, 3) thereon in the intended manner.
A flux which is rosin-free and comprises 50% by mass or more and 90% by mass or less of 2,4-diethyl-1,5-pentanediol, more than 0% by mass and less than 50% by mass of a solvent, 1% by mass or more and 15% by mass or less of an organic acid, wherein the total amount of the 2,4-diethyl-1,5-pentanediol and the solvent is 83% by mass or more and 99% by mass or less, and the solvent is a glycol ether compound and has a boiling point of 200°C or more.
A method for converting alkali metals, phosphates, boron compounds, heavy metals, halogens, sulfur and sulfur compounds into synthetic, naturally occurring mineral products, comprising: providing a waste material comprising at least one of an alkali metal, a phosphate, a boron compound, a heavy metal, a halogen, sulfur or a sulfur compound, and a nitrate; providing a reaction vessel containing a reaction bed, wherein at least one portion of said reaction bed is operated under reducing conditions, and wherein said reaction bed contains at least one catalyst; heating said reaction vessel to an operating temperature of at least 100°C; mixing said waste material with a co-reactant; introducing a fluidizing gas, to form a mineral product comprising at least one of Nosean, Nepheline, Fairchildite, Natrofairchildite, Dawsonite, Eitelite, Shortite, Parantisite, Maricite, Buchwaldite, Bradleyite, Combeite, Olenite, Dravite, Ca-Si, NaPO 4, Na-Al-PO 4, Na-(Ca,Fe,Mg)-Si, Na-Al-PO 4, Na-Al, Na-Mg-PO 4 and related mineral forms; and removing said mineral product from said reaction vessel. providing a waste material comprising at least one of an alkali metal, a phosphate, a boron compound, a heavy metal, a halogen, sulfur or a sulfur compound, and a nitrate; providing a reaction vessel containing a reaction bed, wherein at least one portion of said reaction bed is operated under reducing conditions, and wherein said reaction bed contains at least one catalyst; heating said reaction vessel to an operating temperature of at least 100°C; mixing said waste material with a co-reactant; introducing a fluidizing gas, to form a mineral product comprising at least one of Nosean, Nepheline, Fairchildite, Natrofairchildite, Dawsonite, Eitelite, Shortite, Parantisite, Maricite, Buchwaldite, Bradleyite, Combeite, Olenite, Dravite, Ca-Si, NaPO 4, Na-Al-PO 4, Na-(Ca,Fe,Mg)-Si, Na-Al-PO 4, Na-Al, Na-Mg-PO 4 and related mineral forms; and removing said mineral product from said reaction vessel.
A self-propelled rotary metal-cutting insert comprising: a body having a central axial hole extending between opposite ends of the body and by which the body can be mounted onto a rotor for rotation with the rotor about an axis of the body during and in response to cutting engagement of the insert with a workpiece, wherein the body has an exterior surface which extends between the body ends and is defined as a surface of revolution concentric to the body axis, the exterior surface defining a circular cutting edge concentric to the body axis, the body having an inner surface defining said axial hole, characterized in that said inner surface comprising a plurality of circumferentially spaced apart peak surfaces, said peak surfaces defining a plurality of circumferentially spaced apart valleys, each of said plurality of peak surfaces comprising at least a surface portion for contacting an outer surface of said rotor and maintaining a radial separation from said rotor to said valleys, and wherein the body is defined to impede the transfer of heat generated at the cutting edge across the surface of the central hole of the body.
A cooling arrangement (300, 350, 370) for an electronic device, comprising: a cooling fluid circuit including: a fluidic input line (124, 128) adapted for receiving a cooling fluid from a cooling fluid source, and a fluidic output line (126, 130) adapted for returning the cooling fluid toward a drain; a primary cooling device adapted to be thermally connected to the electronic device, to receive the cooling fluid from the fluidic input line (124, 128) and to transfer heat from the electronic device to the cooling fluid before returning the cooling fluid via the fluidic output line (126, 130); a flow detection device operable to monitor a flow of the cooling fluid in the cooling fluid circuit; a secondary cooling device (250, 372, 374) adapted to be thermally connected to the electronic device and operable to absorb and dissipate heat from the electronic device; and a processor operatively connected to the flow detection device and to the secondary cooling device (250, 372, 374), the processor being configured to cause an activation of the secondary cooling device (250, 372, 374) when receiving, from the flow detection device, an indication of a lack of flow of the cooling fluid in the primary cooling device; wherein the primary cooling device is adapted to be mounted on the electronic device. a cooling fluid circuit including: a fluidic input line (124, 128) adapted for receiving a cooling fluid from a cooling fluid source, and a fluidic output line (126, 130) adapted for returning the cooling fluid toward a drain; a fluidic input line (124, 128) adapted for receiving a cooling fluid from a cooling fluid source, and a fluidic output line (126, 130) adapted for returning the cooling fluid toward a drain; a primary cooling device adapted to be thermally connected to the electronic device, to receive the cooling fluid from the fluidic input line (124, 128) and to transfer heat from the electronic device to the cooling fluid before returning the cooling fluid via the fluidic output line (126, 130); a flow detection device operable to monitor a flow of the cooling fluid in the cooling fluid circuit; a secondary cooling device (250, 372, 374) adapted to be thermally connected to the electronic device and operable to absorb and dissipate heat from the electronic device; and a processor operatively connected to the flow detection device and to the secondary cooling device (250, 372, 374), the processor being configured to cause an activation of the secondary cooling device (250, 372, 374) when receiving, from the flow detection device, an indication of a lack of flow of the cooling fluid in the primary cooling device; wherein the primary cooling device is adapted to be mounted on the electronic device.
A chewing gum composition comprising: a) at least 15% by weight dried fruit powder, wherein the dried fruit powder has a fruit concentration of at least 85% by weight and, b) a gum base content of at least 25% by weight of the chewing gum composition. a) at least 15% by weight dried fruit powder, wherein the dried fruit powder has a fruit concentration of at least 85% by weight and, b) a gum base content of at least 25% by weight of the chewing gum composition.
A cleaning unit, comprising at least one first container, designed and configured to receive at least one receiving element, designed and configured to absorb a liquid, and further comprising at least one second container, designed and configured to hold a cleaning liquid, characterised by at least one third container, designed and configured to hold the at least one receiving element, wherein the at least one second container comprises at least one dosing device and the at least one dosing device comprises a transfer device, wherein the transfer device can be moved from a first position into a second position in that the transfer device can be moved from the first position, from the direction of the base of the at least one second container in the direction of the opening of the at least one second container, into the second position, so that a specific amount of cleaning liquid can be provided or is provided on the transfer device in the second position, and wherein a releasing device is arranged above the opening of the at least one third container, wherein the releasing device is designed and configured to move a closing element of the holder from a closed to an open state.
A workpiece supply device comprising: a workpiece holder that holds a workpiece to be supplied to a machine tool including a supplying area and a machining area of the workpiece, the workpiece holder entering and leaving both of the supplying area and the machining area through an opening part provided in a dividing member between the supplying area and the machining area to transfer the workpiece with the machine tool; a movement mechanism that moves the workpiece holder between the supplying area and the machining area; a cover member that moves integrally with the workpiece holder and closes the opening part when the workpiece holder moves in the supplying area; and a biasing member that biases the cover member in a closing direction of the opening part, wherein the biasing member is configured to press the cover member to the dividing member to close the opening part by the cover member such that the workpiece holder holds the workpiece in the supplying area while the workpiece is machined in the machining area, characterized in that the workpiece holder is connected to the cover member to reciprocate relative to the cover member, and is biased by the biasing member in a direction adjacent to the cover member, and the workpiece holder moves in the supplying area against a biasing force of the biasing member, and holds the workpiece disposed in the supplying area with the opening part being closed by the cover member. a workpiece holder that holds a workpiece to be supplied to a machine tool including a supplying area and a machining area of the workpiece, the workpiece holder entering and leaving both of the supplying area and the machining area through an opening part provided in a dividing member between the supplying area and the machining area to transfer the workpiece with the machine tool; a movement mechanism that moves the workpiece holder between the supplying area and the machining area; a cover member that moves integrally with the workpiece holder and closes the opening part when the workpiece holder moves in the supplying area; and a biasing member that biases the cover member in a closing direction of the opening part, wherein the biasing member is configured to press the cover member to the dividing member to close the opening part by the cover member such that the workpiece holder holds the workpiece in the supplying area while the workpiece is machined in the machining area, characterized in that the workpiece holder is connected to the cover member to reciprocate relative to the cover member, and is biased by the biasing member in a direction adjacent to the cover member, and the workpiece holder moves in the supplying area against a biasing force of the biasing member, and holds the workpiece disposed in the supplying area with the opening part being closed by the cover member.
A robot cleaner comprising: an environment information detecting unit configured to obtain environment information regarding at least a portion of a cleaning area; a first communication unit configured to transmit and receive data to and from a different device (300, 300a, 300b, 300c) positioned within the cleaning area; and a control unit configured to generate a control command for the different device (300, 300a, 300b, 300c) in order to adjust the obtained environment information; and a second communication unit configured to transmit and receive data to and from a terminal device generating a control command for the different device (300, 300a, 300b, 300c); wherein the control unit transmits the environment information to the terminal device; characterized in that when the environment information is outside of a preset range, the second communication unit transmits the environment information to the terminal device through a server and receives a control message for the different device (300, 300a, 300b, 300c) through the server, and the control unit generates a control command for the different device (300, 300a, 300b, 300c) on the basis of the control message. an environment information detecting unit configured to obtain environment information regarding at least a portion of a cleaning area; a first communication unit configured to transmit and receive data to and from a different device (300, 300a, 300b, 300c) positioned within the cleaning area; and a control unit configured to generate a control command for the different device (300, 300a, 300b, 300c) in order to adjust the obtained environment information; and a second communication unit configured to transmit and receive data to and from a terminal device generating a control command for the different device (300, 300a, 300b, 300c); wherein the control unit transmits the environment information to the terminal device; characterized in that when the environment information is outside of a preset range, the second communication unit transmits the environment information to the terminal device through a server and receives a control message for the different device (300, 300a, 300b, 300c) through the server, and the control unit generates a control command for the different device (300, 300a, 300b, 300c) on the basis of the control message.
A child safety seat comprising a belt tensioning mechanism for securing the child safety seat onto a vehicle seat, the child safety seat having a seat shell with a belt pathway through which a vehicle seat belt may be directed to anchor the safety seat to the vehicle seat, the belt tensioning mechanism comprising: a tensioning member moveably connected to the seat shell and partially disposed in the belt pathway, the tensioning member being rotatable between generally opposing tensioned and detensioned positions and further having a belt engagement structure into which a portion of the vehicle seat belt may be received; and a lever operably connected to the tensioning member and configured to rotate the tensioning member from the detensioned to the tensioned position thereby enwrapping the vehicle seat belt engaged in the belt engagement structure around the tensioning member; characterized in that the lever being bi-directionally slidable axially along tensioning member between generally opposing open and closed positions, the lever preventing disengagement of the vehicle seat belt from the belt engagement structure when in the closed position. a tensioning member moveably connected to the seat shell and partially disposed in the belt pathway, the tensioning member being rotatable between generally opposing tensioned and detensioned positions and further having a belt engagement structure into which a portion of the vehicle seat belt may be received; and a lever operably connected to the tensioning member and configured to rotate the tensioning member from the detensioned to the tensioned position thereby enwrapping the vehicle seat belt engaged in the belt engagement structure around the tensioning member; characterized in that the lever being bi-directionally slidable axially along tensioning member between generally opposing open and closed positions, the lever preventing disengagement of the vehicle seat belt from the belt engagement structure when in the closed position.
A near field communication device being operable in a first operating state corresponding to a card emulation feature and a second operating state corresponding to P2P support, the near field communication device comprising a communication unit adapted for communicating with an external device; and a control unit coupled to the communication unit; wherein the control unit is adapted for switching the communication unit from the first operating state to the second operating state upon receipt of a configuration signal received from the external device, wherein, in the first operating state, the communication unit is adapted for providing a service of a contactless card, characterised by the control unit being adapted for controlling the communication unit to be presented to the external device to be in the first operating state by exposing the card emulation feature using only the card emulation parameters for RF initialization and supporting the second operating state by modifying the card emulation parameters to also indicate peer to peer support.
A composition for the post-harvest treatment of crops, the composition comprising: 1% to 20%, by weight percent, of at least one fungicidally-active compound, wherein the at least one fungicidally active compound includes at least one compound chosen from fludioxonil, mefenoxam, metalaxyl, difenoconazole, propiconazole, thiabendazole, and azoxystrobin; 30% to 80%, by weight percent, of at least one glycol ether solvent wherein the at least one ether solvent includes propylene glycol methyl ether; and 5% to 30%, by weight percent, of at least one filler which is oleic acid. 1% to 20%, by weight percent, of at least one fungicidally-active compound, wherein the at least one fungicidally active compound includes at least one compound chosen from fludioxonil, mefenoxam, metalaxyl, difenoconazole, propiconazole, thiabendazole, and azoxystrobin; 30% to 80%, by weight percent, of at least one glycol ether solvent wherein the at least one ether solvent includes propylene glycol methyl ether; and 5% to 30%, by weight percent, of at least one filler which is oleic acid.
A system for providing torque to a human-powered vehicle comprising: a magnetorheological fluid actuator unit including at least one torque source and at least one MR fluid clutch apparatus having an input coupled to the at least one torque source to receive torque from the at least one torque source, the MR fluid clutch apparatus controllable to transmit a variable amount of assistance torque via an output thereof; a vehicle interface configured for coupling the output of the at least one MR fluid clutch apparatus to a powertrain of the vehicle; and a processor unit for controlling the at least one MR fluid clutch apparatus in exerting the variable amount of assistance torque as a function of a requested assistance. a magnetorheological fluid actuator unit including at least one torque source and at least one MR fluid clutch apparatus having an input coupled to the at least one torque source to receive torque from the at least one torque source, the MR fluid clutch apparatus controllable to transmit a variable amount of assistance torque via an output thereof; a vehicle interface configured for coupling the output of the at least one MR fluid clutch apparatus to a powertrain of the vehicle; and a processor unit for controlling the at least one MR fluid clutch apparatus in exerting the variable amount of assistance torque as a function of a requested assistance.
A method of producing resistant starch comprising: (a) selecting a reaction temperature; (b) acidifying unmodified starch to a pH with aqueous or gaseous hydrochloric acid, wherein said pH is optimum to maximize the yield of resistant starch from said unmodified starch when at said reaction temperature; (c) heating said acidified unmodified starch to the reaction temperature; and (d) maintaining said acidified unmodified starch close to the reaction temperature until a maximum yield of resistant starch has been obtained while maintaining a whiteness level of at least 65; wherein the pH is between 1 and 4 and the reaction temperature is between 140° C and 180° C. (a) selecting a reaction temperature; (b) acidifying unmodified starch to a pH with aqueous or gaseous hydrochloric acid, wherein said pH is optimum to maximize the yield of resistant starch from said unmodified starch when at said reaction temperature; (c) heating said acidified unmodified starch to the reaction temperature; and (d) maintaining said acidified unmodified starch close to the reaction temperature until a maximum yield of resistant starch has been obtained while maintaining a whiteness level of at least 65;