mhurhangee/patent-ind-claim-en huggingface dataset:
A gear motor comprising: a speed reducer having a plurality of speed reducer casings ; and a motor including a motor casing and a stator core supported by the motor casing ; wherein the speed reducer and the motor are connected to each other and to a device-outside-mating member , and wherein, a connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) is provided through the plurality of speed reducer casings and the motor casing ; and the gear motor comprising: a connection member that is inserted into the connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) and connects the speed reducer casings and the motor casing , characterized in that an outer periphery of the connection member is in direct contact with the stator core of the motor and reaches the speed reducer casing , which is connected to the device-outside-mating member , among the speed reducer casings , such that heat of the stator core is transferred to the device-outside-mating member through the connection member , and the connection member is configured to function as a heat exhaust path through which heat is transferred to the device-outside-mating member . a speed reducer having a plurality of speed reducer casings ; and a motor including a motor casing and a stator core supported by the motor casing ; wherein the speed reducer and the motor are connected to each other and to a device-outside-mating member , and wherein, a connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) is provided through the plurality of speed reducer casings and the motor casing ; and the gear motor comprising: a connection member that is inserted into the connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) and connects the speed reducer casings and the motor casing , characterized in that an outer periphery of the connection member is in direct contact with the stator core of the motor and reaches the speed reducer casing , which is connected to the device-outside-mating member , among the speed reducer casings , such that heat of the stator core is transferred to the device-outside-mating member through the connection member , and the connection member is configured to function as a heat exhaust path through which heat is transferred to the device-outside-mating member . a connection member that is inserted into the connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) and connects the speed reducer casings and the motor casing , characterized in that an outer periphery of the connection member is in direct contact with the stator core of the motor and reaches the speed reducer casing , which is connected to the device-outside-mating member , among the speed reducer casings , such that heat of the stator core is transferred to the device-outside-mating member through the connection member , and the connection member is configured to function as a heat exhaust path through which heat is transferred to the device-outside-mating member .
A compressor, comprising: a drive shaft having a main shaft and an eccentric portion eccentric to a center of the main shaft ; and a compression mechanism having a fitted tubular portion into which a fitted shaft portion of the drive shaft is fitted, the fitted shaft portion of the drive shaft and the fitted tubular portion sliding on each other with an oil film interposed therebetween, the fitted shaft portion having a first sliding surface formed as a portion, in a circumferential direction, of an outer peripheral surface of the fitted shaft portion , and a second sliding surface formed as another portion of the outer peripheral surface in the circumferential direction, the second sliding surface having a smaller axial width than an axial width of the first sliding surface , a sliding portion between the fitted shaft portion and the fitted tubular portion having a gap which is adjacent to the second sliding surface in an axial direction and into which a lubricating oil flows, and an oil retainer for keeping the lubricating oil in the gap from flowing out toward an end surface of the fitted shaft portion , the second sliding surface is provided at an axial middle portion of the fitted shaft portion , and the oil retainer is configured as a boundary portion between the first sliding surface and the gap , characterized in that the boundary portion has a central portion that protrudes further toward the first sliding surface than an end of the boundary portion in a lubricating oil flow-out direction. a drive shaft having a main shaft and an eccentric portion eccentric to a center of the main shaft ; and a compression mechanism having a fitted tubular portion into which a fitted shaft portion of the drive shaft is fitted, the fitted shaft portion of the drive shaft and the fitted tubular portion sliding on each other with an oil film interposed therebetween, the fitted shaft portion having a first sliding surface formed as a portion, in a circumferential direction, of an outer peripheral surface of the fitted shaft portion , and a second sliding surface formed as another portion of the outer peripheral surface in the circumferential direction, the second sliding surface having a smaller axial width than an axial width of the first sliding surface , a sliding portion between the fitted shaft portion and the fitted tubular portion having a gap which is adjacent to the second sliding surface in an axial direction and into which a lubricating oil flows, and an oil retainer for keeping the lubricating oil in the gap from flowing out toward an end surface of the fitted shaft portion , the second sliding surface is provided at an axial middle portion of the fitted shaft portion , and the oil retainer is configured as a boundary portion between the first sliding surface and the gap , characterized in that the boundary portion has a central portion that protrudes further toward the first sliding surface than an end of the boundary portion in a lubricating oil flow-out direction.
A method (300;400) for managing a plurality of rechargeable electrical energy storage modules (106 1 -106 8 ) of an electrical supply installation , said modules each comprising at least one rechargeable electrochemical lithium-metal-polymer battery, and being arranged in parallel with one another, said method (300;400) comprising: - separating said modules into at least two groups , and - supplying from one of said groups at a time; said method (300;400) also comprising a step of replacing a failing module (106 6 ,106 7 ) of a group , called active group, in the process of supply, with an available module (106 3 ,106 4 ) of another group , called available group. - separating said modules into at least two groups , and - supplying from one of said groups at a time;
A ceramic material mold (3; 3') for use in molding a turbine engine blade from a molten metal, the blade comprising a root, an inner platform, an airfoil, and an outer platform, and the mold comprising: - a cavity having the shape of the blade; and - an auxiliary grain duct comprising a first segment (51; 51') and a second segment (52; 52') extending the first segment, said first segment opening out at one end into a first portion of the cavity forming the root of the blade, and at another end into a second portion of the cavity forming a lip of the inner platform of the blade, said second segment (52; 52') opening out at one end into said second portion of the cavity, and at another end into a third portion of the cavity forming a lip of the outer platform of the blade; wherein the first segment of the auxiliary grain duct extends from a wall of the first portion of the cavity in a direction that forms an angle (α) lying in the range 54° to 62° with said wall; wherein the second segment of the auxiliary grain duct extends from the second portion of the cavity in a direction forming an angle (β) lying in the range 110° to 115° with said second portion; and wherein the second segment of the auxiliary grain duct extends from the third portion of the cavity in a direction forming an angle (γ) lying in the range 110° to 115° with said third portion. - a cavity having the shape of the blade; and - an auxiliary grain duct comprising a first segment (51; 51') and a second segment (52; 52') extending the first segment, said first segment opening out at one end into a first portion of the cavity forming the root of the blade, and at another end into a second portion of the cavity forming a lip of the inner platform of the blade, said second segment (52; 52') opening out at one end into said second portion of the cavity, and at another end into a third portion of the cavity forming a lip of the outer platform of the blade; wherein the first segment of the auxiliary grain duct extends from a wall of the first portion of the cavity in a direction that forms an angle (α) lying in the range 54° to 62° with said wall; wherein the second segment of the auxiliary grain duct extends from the second portion of the cavity in a direction forming an angle (β) lying in the range 110° to 115° with said second portion; and wherein the second segment of the auxiliary grain duct extends from the third portion of the cavity in a direction forming an angle (γ) lying in the range 110° to 115° with said third portion. wherein the first segment of the auxiliary grain duct extends from a wall of the first portion of the cavity in a direction that forms an angle (α) lying in the range 54° to 62° with said wall; wherein the second segment of the auxiliary grain duct extends from the second portion of the cavity in a direction forming an angle (β) lying in the range 110° to 115° with said second portion; and wherein the second segment of the auxiliary grain duct extends from the third portion of the cavity in a direction forming an angle (γ) lying in the range 110° to 115° with said third portion.
A method for fixing a workpiece during machining by a machining head , in particular a drill head, of a machine tool , wherein the workpieces are machined from a machining side at a machining point, comprising the steps: - fixing of the workpiece relative to the machining head on the machining side of the workpiece and adjacent to the machining point by means of a fixing device , when a control command is given, wherein the fixing is realized by exerting a holding force (H) which is directed to the fixing device and to the machining head ; - machining of the workpiece at the machining point by the machining head ; - removing dirt and/or residues resulting from machining from the machining side of the workpiece by an extracting device with at least one compressed air inlet ; and - releasing the workpiece from the fixing device when a control command is given. - fixing of the workpiece relative to the machining head on the machining side of the workpiece and adjacent to the machining point by means of a fixing device , when a control command is given, wherein the fixing is realized by exerting a holding force (H) which is directed to the fixing device and to the machining head ; - machining of the workpiece at the machining point by the machining head ; - removing dirt and/or residues resulting from machining from the machining side of the workpiece by an extracting device with at least one compressed air inlet ; and - releasing the workpiece from the fixing device when a control command is given.
Composite pane with an antenna structure and an integrated switching surface comprising an outer pane with an outer surface (I) and an inner surface (II), an inner pane with an inner surface (III) and an outer surface (IV), and a thermoplastic intermediate layer , at least comprising: - a first electrically conductive structure which is an antenna conductor, and - a second electrically conductive structure which is a switching surface , and wherein the second electrically conductive structure serves as an antenna conductor, wherein the first electrically conductive structure and the second electrically conductive structure are arranged on the outer pane on the outer surface (I), on the inner surface (II), on the inner pane on the inner surface (III), on the outer surface (IV) or in the thermoplastic intermediate layer and are formed as wires, as printed conductive structures or as transparent conductive coatings. - a first electrically conductive structure which is an antenna conductor, and - a second electrically conductive structure which is a switching surface , and
A method for sequencing a target region in a DNA library comprising: a) providing a DNA library comprising double-stranded DNA fragments with adapters that are resistant to exonuclease digestion on both ends, wherein one or more of the double-stranded DNA fragments are target fragments that comprise the target region; b) providing a nuclease engineered to target a DNA sequence that is present only once within at least one of the target fragments and not within the target region; wherein the engineered nuclease is an RNA-directed Cas9 endonuclease complex, a TAL Effector Nuclease, a zinc-finger nuclease, or a bacteriophage P1 recombination enhancement function protein; c) combining the engineered nuclease with the DNA library in a reaction mixture under conditions that promote cleavage of the target fragments at the DNA sequence by the engineered nuclease to produce double-stranded ends; d) linking adapters that are resistant to exonuclease digestion to the double-stranded ends produced by the engineered nuclease cleavage in the reaction mixture, wherein the adapters are stem loop adapters having a different sequence than the exonuclease-resistant adapters, thereby forming asymmetric-adapter-ligated fragments; e) treating the reaction mixture with one or more exonucleases that degrade DNA fragments that have at least one end that does not have an adapter; and f) sequencing the asymmetric-adapter-ligated fragments. a) providing a DNA library comprising double-stranded DNA fragments with adapters that are resistant to exonuclease digestion on both ends, wherein one or more of the double-stranded DNA fragments are target fragments that comprise the target region; b) providing a nuclease engineered to target a DNA sequence that is present only once within at least one of the target fragments and not within the target region; wherein the engineered nuclease is an RNA-directed Cas9 endonuclease complex, a TAL Effector Nuclease, a zinc-finger nuclease, or a bacteriophage P1 recombination enhancement function protein; c) combining the engineered nuclease with the DNA library in a reaction mixture under conditions that promote cleavage of the target fragments at the DNA sequence by the engineered nuclease to produce double-stranded ends; d) linking adapters that are resistant to exonuclease digestion to the double-stranded ends produced by the engineered nuclease cleavage in the reaction mixture, wherein the adapters are stem loop adapters having a different sequence than the exonuclease-resistant adapters, thereby forming asymmetric-adapter-ligated fragments; e) treating the reaction mixture with one or more exonucleases that degrade DNA fragments that have at least one end that does not have an adapter; and f) sequencing the asymmetric-adapter-ligated fragments.
Configurable hardware device comprising - a configuration memory of a known total size, - a configurable fabric arranged for being configured according to information from said configuration memory and segmented in a static partition and at least two dynamic partitions, said static partition arranged for receiving a bit stream and a cryptographic nonce and comprising a read/write mechanism for interacting with said configuration memory, whereby said received bit stream is stored in said configuration memory and used to configure an intended application in a first dynamic partition, a second dynamic partition different from said first dynamic partition comprising a register to store said cryptographic nonce, and whereby said static partition is arranged for computing, based on said cryptographic nonce, a checksum of the entire configuration memory and for outputting said checksum. - a configuration memory of a known total size, - a configurable fabric arranged for being configured according to information from said configuration memory and segmented in a static partition and at least two dynamic partitions, said static partition arranged for receiving a bit stream and a cryptographic nonce and comprising a read/write mechanism for interacting with said configuration memory, whereby said received bit stream is stored in said configuration memory and used to configure an intended application in a first dynamic partition, a second dynamic partition different from said first dynamic partition comprising a register to store said cryptographic nonce,
A method for assembling a rotor blade assembly having a blade insert and a first blade segment , the blade insert including a top side extending between a forward edge and an aft edge and a bottom side extending between a forward edge and an aft edge , the method comprising: securing a forward end of the blade insert adjacent to a first joint end of the first blade segment , at least a portion of the forward edge of the top side being offset relative to the forward edge of the bottom side such that an access window is defined between the blade insert and the first blade segment ; positioning a window cover so as to cover at least a portion of the access window ; and, bonding, via a bonding agent, the window cover within the access window , the method further comprising forming one or more flanges around a periphery of the access window and prepping the one or more flanges before positioning the window cover , and forming a joint assembly at one or more of the flanges of the access window , characterized in that the joint assembly comprises a transition from two sets of inner skin layers to one set of inner skin layers , wherein the two sets of inner skin layers comprise a set of inner skin layers of the rotor blade assembly and a set of inner skin layers of the window cover. securing a forward end of the blade insert adjacent to a first joint end of the first blade segment , at least a portion of the forward edge of the top side being offset relative to the forward edge of the bottom side such that an access window is defined between the blade insert and the first blade segment ; positioning a window cover so as to cover at least a portion of the access window ; and, bonding, via a bonding agent, the window cover within the access window , the method further comprising forming one or more flanges around a periphery of the access window and prepping the one or more flanges before positioning the window cover , and forming a joint assembly at one or more of the flanges of the access window , characterized in that the joint assembly comprises a transition from two sets of inner skin layers to one set of inner skin layers , wherein the two sets of inner skin layers comprise a set of inner skin layers of the rotor blade assembly and a set of inner skin layers of the window cover.
Household electrical apparatus, comprising: - a man-machine interface, - a first contact-less detection sensor of a presence or of a proximity with a user, - a second contact-less detection sensor of a presence or of a proximity with a user, characterised in that : - the first contact-less detection sensor is arranged to detect a presence or a proximity with the user in a first spatial zone at least partially arranged facing the man-machine interface, - the second contact-less detection sensor is arranged to detect a presence or a proximity with the user in a second spatial zone at least partially arranged facing the man-machine interface and comprising at least one separate portion of the first spatial zone . - a man-machine interface, - a first contact-less detection sensor of a presence or of a proximity with a user, - a second contact-less detection sensor of a presence or of a proximity with a user, - the first contact-less detection sensor is arranged to detect a presence or a proximity with the user in a first spatial zone at least partially arranged facing the man-machine interface, - the second contact-less detection sensor is arranged to detect a presence or a proximity with the user in a second spatial zone at least partially arranged facing the man-machine interface and comprising at least one separate portion of the first spatial zone .
A method of monitoring an HVAC system , the HVAC system comprising a plurality of HVAC devices and a plurality of HVAC controllers , each of the HVAC controllers comprising a communication module , the method comprising: receiving and storing in a cloud-based computer system HVAC data reporting messages, each HVAC data reporting message including one or more operational data values included by one of the HVAC controllers ; generating by the cloud-based computer system of remote diagnoses for a particular HVAC device of the HVAC system ; and transmitting by the cloud-based computer system of a diagnosis message to a diagnosis processing system for the particular HVAC device , the diagnosis message including a remote diagnosis for the particular HVAC device , characterized in that the cloud-based computer system generates the remote diagnosis for the particular HVAC device using a plurality of HVAC data reporting messages received in the cloud-based computer system from a plurality of the HVAC controllers of more than one HVAC systems , wherein each remote diagnosis is generated by using more than one operational data value. receiving and storing in a cloud-based computer system HVAC data reporting messages, each HVAC data reporting message including one or more operational data values included by one of the HVAC controllers ; generating by the cloud-based computer system of remote diagnoses for a particular HVAC device of the HVAC system ; and transmitting by the cloud-based computer system of a diagnosis message to a diagnosis processing system for the particular HVAC device , the diagnosis message including a remote diagnosis for the particular HVAC device , characterized in that the cloud-based computer system generates the remote diagnosis for the particular HVAC device using a plurality of HVAC data reporting messages received in the cloud-based computer system from a plurality of the HVAC controllers of more than one HVAC systems , wherein each remote diagnosis is generated by using more than one operational data value.