mhurhangee/ep-ind-claims huggingface dataset:
A minimally invasive skin treatment device comprising: a handpiece having a perimeter elevation and a top which cooperatively define a recessed area, an inner side of the perimeter elevation and the top defining an apposition surface facing into the recessed area; a conduit extending through a side of the perimeter elevation to the recessed area; a tool configured to at least partially extend through the conduit and into the recessed area, characterized in that the device is for modifying subdermal structures and in that the device further comprises a guidance track operably connected to the handpiece, wherein the guidance track is configured to constrain a portion of the tool in contact with the guidance track to move along a predetermined path to cooperatively move a distal end of the tool within the recessed area in a plane substantially parallel to the top of the handpiece and within a region of a predetermined shape defined by the predefined path, wherein the tool is a cutting tool and the conduit is configured to provide a movement of the cutting tool in forward, reverse, and side-to-side directions within a plane at the depth from the apposition surface. a handpiece having a perimeter elevation and a top which cooperatively define a recessed area, an inner side of the perimeter elevation and the top defining an apposition surface facing into the recessed area; a conduit extending through a side of the perimeter elevation to the recessed area; a tool configured to at least partially extend through the conduit and into the recessed area, characterized in that the device is for modifying subdermal structures and in that the device further comprises a guidance track operably connected to the handpiece, wherein the guidance track is configured to constrain a portion of the tool in contact with the guidance track to move along a predetermined path to cooperatively move a distal end of the tool within the recessed area in a plane substantially parallel to the top of the handpiece and within a region of a predetermined shape defined by the predefined path, wherein the tool is a cutting tool and the conduit is configured to provide a movement of the cutting tool in forward, reverse, and side-to-side directions within a plane at the depth from the apposition surface. a guidance track operably connected to the handpiece, wherein the guidance track is configured to constrain a portion of the tool in contact with the guidance track to move along a predetermined path to cooperatively move a distal end of the tool within the recessed area in a plane substantially parallel to the top of the handpiece and within a region of a predetermined shape defined by the predefined path, wherein the tool is a cutting tool and the conduit is configured to provide a movement of the cutting tool in forward, reverse, and side-to-side directions within a plane at the depth from the apposition surface.
Vehicle sliding roof device with a cover unit which has a cover and a cover frame, is mounted displaceably by means of a bearing device (7, 8) on guides (9, 10) of the sliding roof device and is adjustable between a closed position covering a roof opening and at least one open position, characterized in that the cover is attached releaseably to the cover frame, which is mounted displaceably on the guides (9, 10), and, for release of a roof opening, is removable from the cover frame arranged in particular in the closed position.
An axial flux electrical machine (10, 210) comprising: a housing (12, 212) comprising a center portion (22, 222) comprising a cylindrical wall; a stator assembly coupled to said housing; at least one bearing assembly (16, 18, 218) coupled to said stator assembly, said at least one bearing assembly including an outer ring (54, 60, 254); a rotor assembly (14, 214) rotatably coupled to said at least one bearing assembly; and a bearing mount system (24, 224) comprising: a resilient bearing isolator (28, 228) coupled to said cylindrical wall of said housing, the axial flux electrical machine characterized by a bearing cup (30, 230) coupled to said bearing isolator, said bearing cup configured to receive said at least one bearing assembly therein and engage said outer ring of said at least one bearing assembly. a housing (12, 212) comprising a center portion (22, 222) comprising a cylindrical wall; a stator assembly coupled to said housing; at least one bearing assembly (16, 18, 218) coupled to said stator assembly, said at least one bearing assembly including an outer ring (54, 60, 254); a rotor assembly (14, 214) rotatably coupled to said at least one bearing assembly; and a bearing mount system (24, 224) comprising: a resilient bearing isolator (28, 228) coupled to said cylindrical wall of said housing, the axial flux electrical machine characterized by a bearing cup (30, 230) coupled to said bearing isolator, said bearing cup configured to receive said at least one bearing assembly therein and engage said outer ring of said at least one bearing assembly. a resilient bearing isolator (28, 228) coupled to said cylindrical wall of said housing, the axial flux electrical machine characterized by a bearing cup (30, 230) coupled to said bearing isolator, said bearing cup configured to receive said at least one bearing assembly therein and engage said outer ring of said at least one bearing assembly.
A method for migrating very high speed broadband VHBB services from ADSL/2/2+ technique to VDSL2 technique, in which a port is reconfigured into VDSL2 mode by means of DSL system elements, including an access multiplexer and a modem, characterised in that a VDSL2 port in a Backward Compatibility mode, with connected modem in ADSL/2/2+ technique is monitored by a server, and after connection of a VDSL2 technique modem to the VDSL2 port, at the level of DSL physical layer, the modem is synchronised with the access multiplexer, then at least one modem identification parameter is transmitted from the modem to the access multiplexer, the at least one identification parameter is retrieved from the access multiplexer with the use of a communication protocol through the server, and the type of modem is verified, and after the confirmation of the modem change, VDSL2 port operating mode is changed using the server by leaving the Backward Compatibility mode.
A sensor mounting for an electric machine for the drive of a motor vehicle, having a retaining body for accommodating a temperature sensor, a metal retaining plate that is fastened to the retaining body and is intended for fastening to the electric machine in a defined installation position relative to the electric machine, wherein, in the installation position, the temperature sensor is oriented substantially in the radial direction of the electric machine, and having a spring element that is supported on the retaining body and is intended for providing spring prestressing in the axial direction for the purpose of pressing the temperature sensor against a radially inner edge of a winding, wherein the spring element is designed in one piece with the retaining plate.
A hair dryer, comprising: a sensor mounted on the hair dryer to sense a hair property; and a removable attachment provided with a first channel for passing air from the hair dryer to hair, and a second channel for allowing the sensor to sense the hair property through the second channel, the second channel being distinct from the first channel. a sensor mounted on the hair dryer to sense a hair property; and a removable attachment provided with a first channel for passing air from the hair dryer to hair, and a second channel for allowing the sensor to sense the hair property through the second channel, the second channel being distinct from the first channel.
A bipolar secondary battery, comprising: a plurality of bipolar battery stacks, each bipolar battery stack sandwiched between a first outer collector and a second outer collector and including at least one electrolyte layer and at least one bipolar electrode alternately stacked, each bipolar electrode comprising a cathode formed at a first side of a collector and an anode formed at an opposite side of the collector; and an electrode tab (50, 60) disposed on a respective collector positioned at opposing ends of the plurality of bipolar battery stacks in a stacking direction of the bipolar battery stacks; wherein each electrode tab (50, 60) is fixedly bonded to the bipolar battery stack by a bonding portion disposed between the electrode tab (50, 60) and its adjacent bipolar battery stack; and characterized in that adjacent bipolar battery stacks are fixedly bonded by a bonding portion disposed between facing first and second outer collectors of the adjacent bipolar battery stacks. a plurality of bipolar battery stacks, each bipolar battery stack sandwiched between a first outer collector and a second outer collector and including at least one electrolyte layer and at least one bipolar electrode alternately stacked, each bipolar electrode comprising a cathode formed at a first side of a collector and an anode formed at an opposite side of the collector; and an electrode tab (50, 60) disposed on a respective collector positioned at opposing ends of the plurality of bipolar battery stacks in a stacking direction of the bipolar battery stacks; wherein each electrode tab (50, 60) is fixedly bonded to the bipolar battery stack by a bonding portion disposed between the electrode tab (50, 60) and its adjacent bipolar battery stack; and characterized in that adjacent bipolar battery stacks are fixedly bonded by a bonding portion disposed between facing first and second outer collectors of the adjacent bipolar battery stacks.
Method of closing scaffolding anchor holes, comprising the following steps: providing a scaffolding anchor hole plug with a plug head, a substantially cylindrical, pin-shaped shaft and a sealingly acting expansion section arranged on the shaft and made of a compressible and elastically recoverable, sleeve-shaped foam material with a cylindrical outer contour and with an expanded diameter, the plug head being designed as a disc-shaped flat head, and inserting the scaffolding anchor hole plug with precompressed expansion section into the scaffolding anchor hole so that the expansion section expands substantially in the scaffolding anchor hole, characterized by the following further steps: milling a countersunk hole substantially coaxial with the scaffolding anchor hole in an external rendering; and inserting the scaffolding anchor hole plug such that the plug head is substantially received by the countersunk hole, wherein a diameter of the plug head is larger than the diameter of the expanded expansion section and the visible side of the plug head has a roughcast-like surface profiling. providing a scaffolding anchor hole plug with a plug head, a substantially cylindrical, pin-shaped shaft and a sealingly acting expansion section arranged on the shaft and made of a compressible and elastically recoverable, sleeve-shaped foam material with a cylindrical outer contour and with an expanded diameter, the plug head being designed as a disc-shaped flat head, and inserting the scaffolding anchor hole plug with precompressed expansion section into the scaffolding anchor hole so that the expansion section expands substantially in the scaffolding anchor hole, characterized by the following further steps: milling a countersunk hole substantially coaxial with the scaffolding anchor hole in an external rendering; and inserting the scaffolding anchor hole plug such that the plug head is substantially received by the countersunk hole, wherein a diameter of the plug head is larger than the diameter of the expanded expansion section and the visible side of the plug head has a roughcast-like surface profiling. milling a countersunk hole substantially coaxial with the scaffolding anchor hole in an external rendering; and inserting the scaffolding anchor hole plug such that the plug head is substantially received by the countersunk hole, wherein a diameter of the plug head is larger than the diameter of the expanded expansion section and the visible side of the plug head has a roughcast-like surface profiling.
A sealing apparatus for use in establishing a seal around a tubular, comprising: at least two radially deployable sealing arrangements engageable with an internal wall of a tubular so as to form respective sealed areas against the internal wall and anchor the sealing apparatus against an internal wall of a tubular, the at least two sealing arrangements being radially deployable relative to a tubular; an integral perforation arrangement for providing a perforation through the wall of the tubular within the sealed area of each of the at least two radially deployable sealing arrangements; and an integral injection arrangement for injecting sealant through a perforation within the sealed area of each of the at least two radially deployable sealing arrangements. at least two radially deployable sealing arrangements engageable with an internal wall of a tubular so as to form respective sealed areas against the internal wall and anchor the sealing apparatus against an internal wall of a tubular, the at least two sealing arrangements being radially deployable relative to a tubular; an integral perforation arrangement for providing a perforation through the wall of the tubular within the sealed area of each of the at least two radially deployable sealing arrangements; and an integral injection arrangement for injecting sealant through a perforation within the sealed area of each of the at least two radially deployable sealing arrangements.
A reservoir (116; 216; 316) for use in a wearable infusion device, comprising: a substantially rigid base (120; 220; 320), the base (120; 220; 320) having a perimeter; a substantially rigid top (140; 240;340), the top (140; 240; 340) having a perimeter; and a flexible rolling diaphragm (130; 230; 330) between the base (120; 220; 320) and the top (140; 240; 340), the diaphragm (130; 230; 330) having an outer perimeter sealed along the perimeter of the base (120; 220; 320) and an inner perimeter sealed along the perimeter of the top (140; 240; 340), the diaphragm (130; 230; 330) being arranged to dispose the top (140; 240; 340) and the base (120; 220; 320) immediately adjacent each other when the reservoir (116; 216; 316) is empty and to dispose the top (140; 240; 340) and the base (120; 220; 320) in spaced apart relation when the reservoir (116; 216 316) is full. a substantially rigid base (120; 220; 320), the base (120; 220; 320) having a perimeter; a substantially rigid top (140; 240;340), the top (140; 240; 340) having a perimeter; and a flexible rolling diaphragm (130; 230; 330) between the base (120; 220; 320) and the top (140; 240; 340), the diaphragm (130; 230; 330) having an outer perimeter sealed along the perimeter of the base (120; 220; 320) and an inner perimeter sealed along the perimeter of the top (140; 240; 340), the diaphragm (130; 230; 330) being arranged to dispose the top (140; 240; 340) and the base (120; 220; 320) immediately adjacent each other when the reservoir (116; 216; 316) is empty and to dispose the top (140; 240; 340) and the base (120; 220; 320) in spaced apart relation when the reservoir (116; 216 316) is full.
A method of producing a thermoplastic resin composition comprising: (a) at a temperature of 0 to 50°C, mixing carbon nanofibers into an elastomer including an unsaturated bond or a group having affinity to the carbon nanofibers, and dispersing the carbon nanofibers by applying a shear force to obtain a composite elastomer; and (b) mixing the composite elastomer and a thermoplastic resin, wherein the thermoplastic resin is selected from a polyolefin resin, a polystyrene resin, a polyvinyl chloride resin, a polyamide resin, a polyacrylate resin, a polyester resin and a polycarbonate resin. (a) at a temperature of 0 to 50°C, mixing carbon nanofibers into an elastomer including an unsaturated bond or a group having affinity to the carbon nanofibers, and dispersing the carbon nanofibers by applying a shear force to obtain a composite elastomer; and (b) mixing the composite elastomer and a thermoplastic resin, wherein the thermoplastic resin is selected from a polyolefin resin, a polystyrene resin, a polyvinyl chloride resin, a polyamide resin, a polyacrylate resin, a polyester resin and a polycarbonate resin.
A compound of formula: or a pharmaceutically acceptable salt thereof, wherein: Y is a group of formula: Y'-NH- or (Y') 2 -N-, wherein Y' is the same or different and is selected from the group consisting of: a linear or branched saturated or unsaturated C 1 -C 20 alkyl group; a C 1 -C 10 alkyl group interrupted by one or more atom or group selected between: -P- and -O-(HO-P=O)-O-, said C 1 -C 10 alkyl group being optionally substituted by one or more groups selected from: hydroxy -OH, carboxy -COOR 1, oxycarbonyl-(C 1 -C 30)alkyl and oxycarbonyl-(C 2 -C 30)alkenyl group and wherein R 1 is selected from: hydrogen H and a linear or branched C 1 -C 10 alkyl group; L is a bivalent linker selected from: aliphatic C 3 -C 10 cyclic or heterocyclic ring, linear or branched C 1 -C 6 alkyl group and C 2 -C 6 alkenyl or alkynyl group, optionally substituted and optionally interrupted with a group or atom selected from: carbonyl -C=O, thiocarbonyl -C=S, amino -NR1-, carboxy-COO-, oxy-carbonyl -OCO-, amido -NR1CO- or -CONR1-, oxygen -O- and sulphur -S-, wherein R 1 is as above defined; R I-IV are each independently selected from: hydrogen H, carboxy-COOR 1, and -(C 1 -C 6)alkylcarboxy group, wherein R 1 is as above defined. Y is a group of formula: Y'-NH- or (Y') 2 -N-, wherein Y' is the same or different and is selected from the group consisting of: a linear or branched saturated or unsaturated C 1 -C 20 alkyl group; a C 1 -C 10 alkyl group interrupted by one or more atom or group selected between: -P- and -O-(HO-P=O)-O-, said C 1 -C 10 alkyl group being optionally substituted by one or more groups selected from: hydroxy -OH, carboxy -COOR 1, oxycarbonyl-(C 1 -C 30)alkyl and oxycarbonyl-(C 2 -C 30)alkenyl group and wherein R 1 is selected from: hydrogen H and a linear or branched C 1 -C 10 alkyl group; L is a bivalent linker selected from: aliphatic C 3 -C 10 cyclic or heterocyclic ring, linear or branched C 1 -C 6 alkyl group and C 2 -C 6 alkenyl or alkynyl group, optionally substituted and optionally interrupted with a group or atom selected from: carbonyl -C=O, thiocarbonyl -C=S, amino -NR1-, carboxy-COO-, oxy-carbonyl -OCO-, amido -NR1CO- or -CONR1-, oxygen -O- and sulphur -S-, wherein R 1 is as above defined; R I-IV are each independently selected from: hydrogen H, carboxy-COOR 1, and -(C 1 -C 6)alkylcarboxy group, wherein R 1 is as above defined.
An encryption processing apparatus, comprising: a polynomial converter (206, 606, 1104, 1604) configured to obtain a first polynomial from a first vector by using a first conversion polynomial, and also obtain a second polynomial from a second vector by using a second conversion polynomial; a weight calculator (208, 608, 1106, 1606) configured to obtain a first weight for a secure distance of the first vector, and also obtain a second weight for a secure distance of the second vector; a homomorphic encrypter (210, 610, 1110, 1608) configured to obtain a first encrypted polynomial, a second encrypted polynomial, a first encrypted weight, and a second encrypted weight by respectively encrypting the first polynomial, the second polynomial, the first weight, and the second weight by using the homomorphic encryption scheme; and a secure distance calculator configured to obtain an encrypted secure distance corresponding to encryption of a secure distance between the first vector and the second vector from the first encrypted polynomial, the second encrypted polynomial, the first encrypted weight, and the second encrypted weight. a polynomial converter (206, 606, 1104, 1604) configured to obtain a first polynomial from a first vector by using a first conversion polynomial, and also obtain a second polynomial from a second vector by using a second conversion polynomial; a weight calculator (208, 608, 1106, 1606) configured to obtain a first weight for a secure distance of the first vector, and also obtain a second weight for a secure distance of the second vector; a homomorphic encrypter (210, 610, 1110, 1608) configured to obtain a first encrypted polynomial, a second encrypted polynomial, a first encrypted weight, and a second encrypted weight by respectively encrypting the first polynomial, the second polynomial, the first weight, and the second weight by using the homomorphic encryption scheme; and a secure distance calculator configured to obtain an encrypted secure distance corresponding to encryption of a secure distance between the first vector and the second vector from the first encrypted polynomial, the second encrypted polynomial, the first encrypted weight, and the second encrypted weight.
A cross-domain clock synchronization method, applied to a cross-domain synchronization network, the method comprising: exchanging, by a Path Calculate Element, PCE, a clock synchronization type with a controller participating in clock synchronization path calculation, to match the clock synchronization type supported by the PCE and the controller; acquiring, by the PCE, physical topological information of the cross-domain synchronization network; acquiring, by the PCE, at least one of synchronization information of synchronization nodes of the cross-domain synchronization network and hop number information between the synchronization nodes; calculating, by the PCE, a clock synchronization path of the cross-domain synchronization network according to the physical topological information as well as at least one of the synchronization information and the hop number information; and sending, by the PCE, the clock synchronization path to the controller according to the physical topological information, to enable the controller to send a clock synchronization instruction to synchronization nodes on the clock synchronization path. exchanging, by a Path Calculate Element, PCE, a clock synchronization type with a controller participating in clock synchronization path calculation, to match the clock synchronization type supported by the PCE and the controller; acquiring, by the PCE, physical topological information of the cross-domain synchronization network; acquiring, by the PCE, at least one of synchronization information of synchronization nodes of the cross-domain synchronization network and hop number information between the synchronization nodes; calculating, by the PCE, a clock synchronization path of the cross-domain synchronization network according to the physical topological information as well as at least one of the synchronization information and the hop number information; and sending, by the PCE, the clock synchronization path to the controller according to the physical topological information, to enable the controller to send a clock synchronization instruction to synchronization nodes on the clock synchronization path.