mhurhangee/patent-ind-claim-en huggingface dataset:
A shoe comprising: an upper ; and a sole located below the upper , the sole including: a midsole covering a lower surface of the upper , the midsole having an external surface having a facing region facing the upper and a non-facing region excluding the facing region, characterized in that the sole further comprises: an additional sole material covering a portion of the non-facing region, the midsole being provided with a notch in a form of a throughhole or a groove reaching both the facing region and the non-facing region, the additional sole material having a body portion stuck to the non-facing region, a bonding portion stuck to both the upper and the midsole to bond the upper and the midsole together, and an embedded portion embedded in the notch of the midsole , the body portion and the bonding portion being connected together via the embedded portion and thus integrated together such that the body portion and the bonding portion are spaced from each other in a thickness-wise direction of the midsole , characterized in that the body portion is in the form of an elongated plate covering a lower surface of the midsole. an upper ; and a sole located below the upper , the sole including: a midsole covering a lower surface of the upper , the midsole having an external surface having a facing region facing the upper and a non-facing region excluding the facing region, characterized in that the sole further comprises: an additional sole material covering a portion of the non-facing region, a midsole covering a lower surface of the upper , the midsole having an external surface having a facing region facing the upper and a non-facing region excluding the facing region, characterized in that the sole further comprises: an additional sole material covering a portion of the non-facing region, the midsole being provided with a notch in a form of a throughhole or a groove reaching both the facing region and the non-facing region, the additional sole material having a body portion stuck to the non-facing region, a bonding portion stuck to both the upper and the midsole to bond the upper and the midsole together, and an embedded portion embedded in the notch of the midsole , the body portion and the bonding portion being connected together via the embedded portion and thus integrated together such that the body portion and the bonding portion are spaced from each other in a thickness-wise direction of the midsole , characterized in that the body portion is in the form of an elongated plate covering a lower surface of the midsole.
A process for the synthesis of a compound of the following formula (I): for which R1 is chosen from among the group constituted of a hydrogen atom and a C1-C6 alkyl group, linear or branched, and R2 is chosen from among the group constituted of a C1-C6 alkyl group, linear or branched, and a C1-C6 alkoxy group, linear or branched, characterized in that it comprises the following successive steps: (a) acetylation of a compound of formula (II) for which R1 and R2 are defined as previously, to lead to a compound of following formula (III): for which R1 and R2 are defined as previously ; (b) subjecting the compound of formula (III) obtained in the previous step (a) to a Fries rearrangement carried out at a temperature of between 95°C and 110°C to lead to a compound of following formula (IV): for which R1 and R2 are defined as previously ; (c) cyclization, reduction and aromatization of the compound of formula (IV) obtained in the previous step (b) to lead to the formation of the compound of formula (I). (a) acetylation of a compound of formula (II) for which R1 and R2 are defined as previously, to lead to a compound of following formula (III): for which R1 and R2 are defined as previously ; (b) subjecting the compound of formula (III) obtained in the previous step (a) to a Fries rearrangement carried out at a temperature of between 95°C and 110°C to lead to a compound of following formula (IV): for which R1 and R2 are defined as previously ; (c) cyclization, reduction and aromatization of the compound of formula (IV) obtained in the previous step (b) to lead to the formation of the compound of formula (I).
System for fracturing a plurality of assemblies of wafers , one of the wafers of each assembly comprising an embrittlement plane and each assembly comprising a peripheral lateral groove , the system comprising: - a pod for holding the assemblies of the plurality of assemblies spaced apart and parallel to each other along a storage axis; - a spreading device for applying spreading forces in the peripheral groove of an assembly arranged in a fracture zone of the spreading device, the spreading forces being intended to spread the wafers of the assembly apart so as to initiate the fracture thereof at the embrittlement plane , the system being characterized in that it further comprises: - a drive device configured to move the pod along the storage axis relative to the spreading device so as to successively place an assembly of the pod in the fracture zone of the spreading device. - a pod for holding the assemblies of the plurality of assemblies spaced apart and parallel to each other along a storage axis; - a spreading device for applying spreading forces in the peripheral groove of an assembly arranged in a fracture zone of the spreading device, the spreading forces being intended to spread the wafers of the assembly apart so as to initiate the fracture thereof at the embrittlement plane , - a drive device configured to move the pod along the storage axis relative to the spreading device so as to successively place an assembly of the pod in the fracture zone of the spreading device.
An automatic pool cleaner comprising: a. a body configured to travel along a surface to be cleaned; b. a shaft positioned at least partially within the body so as to be generally perpendicular to the surface as the body travels therealong; and c. a first brush (i) displaced radially from the shaft , (ii) configured to rotate about the shaft , and (iii) configured to contact the surface as the body travels therealong, characterized in that the automatic pool cleaner comprises a blade (i) configured to rotate about the shaft and (ii) circumferentially displaced from the first brush . a. a body configured to travel along a surface to be cleaned; b. a shaft positioned at least partially within the body so as to be generally perpendicular to the surface as the body travels therealong; and c. a first brush (i) displaced radially from the shaft , (ii) configured to rotate about the shaft , and (iii) configured to contact the surface as the body travels therealong,
A method for distributing packets of a data traffic over aggregated radio links (L1, L2) connecting a node of a packet-switched wireless communication network to a further node of said packet-switched wireless communication network, said aggregated radio links comprising a first radio link (L1) and a second radio link (L2), said method comprising, at an indoor unit of said node: a) configuring at least one set of distribution rules indicating, for each of said first radio link (L1) and second radio link (L2), an association between said radio link (L1, L2) and a subset of values of a priority parameter carried within said packets; and b) upon reception of a packet of said data traffic, distributing said packet over said first radio link (L1) or said second radio link (L2) on the basis of the priority parameter value carried within said packet and said associations, wherein each set of distribution rules is associated with a corresponding operating status of said aggregated radio links (L1, L2), and wherein step b) comprises distributing said packets on the basis of a number of different sets of distribution rules, wherein the method further comprises, before said distributing, selecting one of said different sets of distribution rules on the basis of said operating status of said aggregated radio links (L1, L2). a) configuring at least one set of distribution rules indicating, for each of said first radio link (L1) and second radio link (L2), an association between said radio link (L1, L2) and a subset of values of a priority parameter carried within said packets; and b) upon reception of a packet of said data traffic, distributing said packet over said first radio link (L1) or said second radio link (L2) on the basis of the priority parameter value carried within said packet and said associations, wherein each set of distribution rules is associated with a corresponding operating status of said aggregated radio links (L1, L2), and wherein step b) comprises distributing said packets on the basis of a number of different sets of distribution rules, wherein the method further comprises, before said distributing, selecting one of said different sets of distribution rules on the basis of said operating status of said aggregated radio links (L1, L2).
Method for obtaining one or more Light Emitting Diode, LED, devices bonded to a carrier substrate , the method comprising: providing a silicon-based semiconductor substrate as the carrier substrate , providing , per each of the one or more LED devices, a compound semiconductor stack including an LED layer , applying a silicon carbon nitride, SiCN, layer to the stack and the substrate , respectively, bonding the stack to the substrate , wherein the SiCN layer applied to the stack and the SiCN layer applied to the substrate are contacted, and annealing , after bonding the stack to the substrate , the bonded stack and substrate at a temperature equal to or higher than a processing temperature for completing the LED device from the stack , wherein said temperatures are at least 400°C. providing a silicon-based semiconductor substrate as the carrier substrate , providing , per each of the one or more LED devices, a compound semiconductor stack including an LED layer , applying a silicon carbon nitride, SiCN, layer to the stack and the substrate , respectively, bonding the stack to the substrate , wherein the SiCN layer applied to the stack and the SiCN layer applied to the substrate are contacted, and annealing , after bonding the stack to the substrate , the bonded stack and substrate at a temperature equal to or higher than a processing temperature for completing the LED device from the stack , wherein said temperatures are at least 400°C.
An igniter activated relief valve with a fluid carrying line including a pressurized fluid line , the relief valve being adapted to cut the fluid carrying line and comprising: a housing disposed about the fluid line, the housing has a first body portion having a slotted opening or passageway to receive the pressurized fluid line ; an igniter when activated causes the line to open, the igniter attached to or stored in the first body portion ; a cutting element initially positioned at or proximate to the igniter and initially spaced from the pressurized line and movable into cutting engagement with a wall of the pressurized line to create an opening in the line through which the pressurized fluid can escape; and wherein the igniter when activated propels the cutting element into the line, said cutting element has a cutting body having a diameter substantially the same as the line to sever the line into two pieces, and said cutting element is configured to pierce an adjacent surface of the line tube and an opposite surface of the line tube , and wherein the housing has a second body portion with a chamber for receiving the cutter when moved by activation of the igniter whereby the severed portion of the tube is trapped within a cavity at the lower end of the cutting element in said chamber . a housing disposed about the fluid line, the housing has a first body portion having a slotted opening or passageway to receive the pressurized fluid line ; an igniter when activated causes the line to open, the igniter attached to or stored in the first body portion ; a cutting element initially positioned at or proximate to the igniter and initially spaced from the pressurized line and movable into cutting engagement with a wall of the pressurized line to create an opening in the line through which the pressurized fluid can escape; and
A combination of a sanitary floor element , particularly a shower floor, shower tub or shower tray with a tub-shaped, shell-shaped or tray-shaped sanitary floor body that is open toward the top in an installed state and intended for installation on a wall of a sanitary room, with a wall drain device, characterized in that the sanitary floor body has a completely closed floor area , namely a completely closed shower floor area, shower tub area or shower tray area, as well as at least one protrusion that is realized, in particular, in a beaked manner, serves as a floor area drain and extends away from the floor area , wherein the at least one protrusion has an upper side and an underside , and wherein the upper side of the at least one protrusion is connected to the floor area , particularly in a transition-free manner, or realized in the form of a part or an extension of the floor area , and wherein the wall drain device comprises a wall drain housing that can be arranged in a wall or wall opening, connected to a wastewater line and has at least one inflow opening , wherein the protrusion of the sanitary floor element extends into the at least one inflow opening of the wall drain housing , if applicable with at least one sidewall that laterally delimits the protrusion . the sanitary floor body has a completely closed floor area , namely a completely closed shower floor area, shower tub area or shower tray area, as well as at least one protrusion that is realized, in particular, in a beaked manner, serves as a floor area drain and extends away from the floor area , wherein the at least one protrusion has an upper side and an underside , and wherein the upper side of the at least one protrusion is connected to the floor area , particularly in a transition-free manner, or realized in the form of a part or an extension of the floor area , and wherein the wall drain device comprises a wall drain housing that can be arranged in a wall or wall opening, connected to a wastewater line and has at least one inflow opening , wherein the protrusion of the sanitary floor element extends into the at least one inflow opening of the wall drain housing , if applicable with at least one sidewall that laterally delimits the protrusion .
A ground fault monitoring system for an energy storage system , comprising - an isolation monitoring unit , - a first main switch , - a second main switch , - a control unit , and - a booster DC-DC unit , the isolation monitoring unit being arrangeable between the energy storage system and a ground element , the first main switch and the second main switch being arrangeable between the energy storage system and an external energy supply system , the isolation monitoring unit comprising a first switchable resistor branch , a second switchable resistor branch and a third switchable resistor branch , the control unit being configured to close the first main switch and the second main switch during charging of the energy storage system for connecting the energy storage system to the external energy supply system , the control unit being further configured to disconnect the first switchable resistor branch from the energy storage system and connect the second switchable resistor branch and the third switchable resistor branch to the energy storage system for monitoring a current leakage to the ground element during charging of the energy storage system , and the booster DC-DC unit being interposed between the first main switch and the isolation monitoring unit . - an isolation monitoring unit , - a first main switch , - a second main switch , - a control unit , and - a booster DC-DC unit , the isolation monitoring unit being arrangeable between the energy storage system and a ground element , the first main switch and the second main switch being arrangeable between the energy storage system and an external energy supply system , the isolation monitoring unit comprising a first switchable resistor branch , a second switchable resistor branch and a third switchable resistor branch , the control unit being configured to close the first main switch and the second main switch during charging of the energy storage system for connecting the energy storage system to the external energy supply system , the control unit being further configured to disconnect the first switchable resistor branch from the energy storage system and connect the second switchable resistor branch and the third switchable resistor branch to the energy storage system for monitoring a current leakage to the ground element during charging of the energy storage system , and the booster DC-DC unit being interposed between the first main switch and the isolation monitoring unit .
A copper foil for a secondary battery, wherein a styrene butadiene rubber (SBR) layer is formed on a surface of an electro-deposited copper foil, the thickness of the styrene butadiene rubber (SBR) layer being in a range of 0.5 μm to 5 μm, the SBR layer being immediately coated on the surface of the electro-deposited copper foil prepared on a drum surface from an electrolyzer, without an artificial treatment. the thickness of the styrene butadiene rubber (SBR) layer being in a range of 0.5 μm to 5 μm, the SBR layer being immediately coated on the surface of the electro-deposited copper foil prepared on a drum surface from an electrolyzer, without an artificial treatment.
A method for safeguarding a movable machine part of a machine , in particular a robot arm, wherein at least a part of the movable machine part is safeguarded by a protective mantle , i.e. a surface that forms a safety-relevant access area to the movable machine part, in that, when an object enters the protective mantle , a safety-related reaction of the machine is initiated, the protective mantle being generated by at least one non-contact distance sensor that is moved along with the machine part and that measures a plurality of distance values by means of a plurality of measuring beams , and wherein the geometry of the protective mantle is determined by the origin and orientation of the measuring beams as well as distance thresholds for the respective measuring beams , characterized in that the protective mantle is adapted by changing the origin and/or orientation of the measuring beams by activating other measuring beams and/or by transversely moving or pivoting at least one distance sensor as a whole or a part thereof, that generates at least one measuring beam , with respect to a reference system moved along with the machine part.
Method for charging an energy storage device for use in a cleaning appliance , wherein the method has the following steps: providing a charging signal which causes the energy storage device to be charged only up to a predetermined storage charge state , provided that no predetermined cleaning process is imminent, the execution of which requires a higher charging state of the energy storage device than the storage charge state, wherein the storage charge state represents a charge state of the energy storage device at which the energy storage device is charged to approximately 30% of the capacity of the energy storage device; and reading in an energy consumption signal which represents the energy required by the cleaning appliance for a predetermined cleaning cycle; and receiving a charging time signal which represents an established charging time for charging the required energy; and outputting a charging signal using the energy consumption signal , wherein the charging signal causes the energy storage device to be charged depending on the required energy and using the charging time signal. providing a charging signal which causes the energy storage device to be charged only up to a predetermined storage charge state , provided that no predetermined cleaning process is imminent, the execution of which requires a higher charging state of the energy storage device than the storage charge state, wherein the storage charge state represents a charge state of the energy storage device at which the energy storage device is charged to approximately 30% of the capacity of the energy storage device; and reading in an energy consumption signal which represents the energy required by the cleaning appliance for a predetermined cleaning cycle; and receiving a charging time signal which represents an established charging time for charging the required energy; and outputting a charging signal using the energy consumption signal , wherein the charging signal causes the energy storage device to be charged depending on the required energy and using the charging time signal.
A control device for an internal combustion engine controlling the internal combustion engine including a cylinder , humidity detection means for detecting humidity of outside air supplied to the cylinder , a variable compression ratio mechanism for changing a compression ratio of the cylinder , and an ignition device igniting air-fuel mixture in the cylinder , the control device comprising: a compression ratio control unit controlling the variable compression ratio mechanism ; and an ignition control unit controlling ignition timing of the ignition device , wherein corresponding characteristics between compression ratio and ignition timing are determined for each humidity according to a predetermined condition of an operation state of the internal combustion engine , the compression ratio control unit determines a target compression ratio of the variable compression ratio mechanism according to the detected humidity, characterized in that while the variable compression ratio mechanism changes a compression ratio to the target compression ratio, the ignition control unit controls the ignition device on the basis of corresponding characteristics determined according to the detected humidity and a detected current compression ratio. a compression ratio control unit controlling the variable compression ratio mechanism ; and an ignition control unit controlling ignition timing of the ignition device , wherein corresponding characteristics between compression ratio and ignition timing are determined for each humidity according to a predetermined condition of an operation state of the internal combustion engine , the compression ratio control unit determines a target compression ratio of the variable compression ratio mechanism according to the detected humidity, characterized in that while the variable compression ratio mechanism changes a compression ratio to the target compression ratio, the ignition control unit controls the ignition device on the basis of corresponding characteristics determined according to the detected humidity and a detected current compression ratio.