mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting device comprising: - a channel-shaped housing having two ends with a main axis (X14) of the housing extending between said ends , - a pair of mounting fixtures for a pair of light radiation sources within said housing with said light radiation sources radiating light radiation in opposite directions along said main axis (X14), and - a pair of reflectors each facing a respective one of said mounting fixtures to receive light radiation along said main axis (X14) and reflect it to the outside of the housing , wherein at least one of said reflectors is mounted in said housing rotatable with respect to said main axis (X14) to vary the direction in which the light radiation is reflected to the outside of the housing , characterized in that said reflectors are mounted removably by snap fitting in said housing . - a channel-shaped housing having two ends with a main axis (X14) of the housing extending between said ends , - a pair of mounting fixtures for a pair of light radiation sources within said housing with said light radiation sources radiating light radiation in opposite directions along said main axis (X14), and - a pair of reflectors each facing a respective one of said mounting fixtures to receive light radiation along said main axis (X14) and reflect it to the outside of the housing , wherein at least one of said reflectors is mounted in said housing rotatable with respect to said main axis (X14) to vary the direction in which the light radiation is reflected to the outside of the housing , characterized in that said reflectors are mounted removably by snap fitting in said housing .
A computer implemented method for monitoring cooling of an enclosure comprising at least one electric device, the method comprising: receiving temperature data on a temperature outside the enclosure ; receiving temperature data on a temperature inside the enclosure ; receiving data indicative of heat generated by the at least one electric device into the enclosure ; determining a thermal resistance of the enclosure and/or a thermal capacitance of the enclosure on the basis of the received data; and determining a cooling status of the enclosure on the basis of the determined thermal resistance of the enclosure and thermal resistance reference data and/or on the basis of the determined thermal capacitance of the enclosure and thermal capacitance reference data, wherein the determining of the cooling status of the enclosure comprises comparing the determined thermal resistance of the enclosure with the thermal resistance reference data and/or comparing the determined thermal capacitance of the enclosure with the thermal capacitance reference data and wherein the thermal resistance reference data and/or the thermal capacitance reference data comprise historical data of the enclosure or a comparable enclosure. receiving temperature data on a temperature outside the enclosure ; receiving temperature data on a temperature inside the enclosure ; receiving data indicative of heat generated by the at least one electric device into the enclosure ; determining a thermal resistance of the enclosure and/or a thermal capacitance of the enclosure on the basis of the received data; and determining a cooling status of the enclosure on the basis of the determined thermal resistance of the enclosure and thermal resistance reference data and/or on the basis of the determined thermal capacitance of the enclosure and thermal capacitance reference data, wherein the determining of the cooling status of the enclosure comprises comparing the determined thermal resistance of the enclosure with the thermal resistance reference data and/or comparing the determined thermal capacitance of the enclosure with the thermal capacitance reference data and wherein the thermal resistance reference data and/or the thermal capacitance reference data comprise historical data of the enclosure or a comparable enclosure.
A laser welding method for repair of melting and erasing a crack (Wa) generated in a structural member (W) of an existing structure, the method comprising: moving laser light (L) having a spot diameter (φ) of less than 3 mm and enlarging a heat input area so as for the crack (Wa) to be located within the heat input area, the heat input area being formed by irradiating the structural member (W) with the laser light (L), and enlarging the heat input area, irradiating, with the laser light (L), a region where a temperature detected by a temperature sensor is equal to or less than a mechanical melting temperature of the structural member (W), or a region where a temperature equal to or less than the mechanical melting temperature of the structural member (W) is obtained, after elapse of a cooling time acquired as data in advance, wherein the laser light (L) is passed along the crack (Wa) a plurality of times and the molten portion by the preceding pass is cooled to obtain the temperature equal to or less than the mechanical melting temperature, and then the subsequent pass is performed, the mechanical melting temperature being the temperature at which yield strength of the structural member that is lowered by heating is lost and at which the yield strength of the structural member recovers when the member is cooled by heat dissipation after operation. moving laser light (L) having a spot diameter (φ) of less than 3 mm and enlarging a heat input area so as for the crack (Wa) to be located within the heat input area, the heat input area being formed by irradiating the structural member (W) with the laser light (L), and enlarging the heat input area, irradiating, with the laser light (L), a region where a temperature detected by a temperature sensor is equal to or less than a mechanical melting temperature of the structural member (W), or a region where a temperature equal to or less than the mechanical melting temperature of the structural member (W) is obtained, after elapse of a cooling time acquired as data in advance, wherein the laser light (L) is passed along the crack (Wa) a plurality of times and the molten portion by the preceding pass is cooled to obtain the temperature equal to or less than the mechanical melting temperature, and then the subsequent pass is performed, the mechanical melting temperature being the temperature at which yield strength of the structural member that is lowered by heating is lost and at which the yield strength of the structural member recovers when the member is cooled by heat dissipation after operation.
A compound of Formula I wherein R 1 is -C (1-4) alkyl, -NH 2 , -NHC (1-4) alkyl, -N(C (1-4) alkyl) 2 , -NHC(O)NH 2 , NHC(O)C (1-4) alkyl, - NHC(O)H, or -NHC(O)NHC (1-4) alkyl; R 2 is H, -OH, or -NH 2 ; R 3 is -H, -OH, -CN, -NH 2 , -CONH 2 , -CO 2 H, -CO 2 C (1-4) alkyl, -CH 2 OH, -CH 2 NH 2 , -CH 2 CN, -NHC (1-4) alkyl, or -CONHC (1-4) alkyl; R 4 is -H, -Cl, -C (1-4) alkyl, -F, -CN, -C(O)NH 2 , or ; wherein said -C (1-4) alkyl is optionally substituted with up to six fluorine atoms; R 5 is -C (1-4) alkyl, wherein said -C (1-4) alkyl is optionally substituted with -CN, -OH, -OCH 3 , - OCF 3 , or up to six fluorine atoms; Q 1 is N or CR c ; Q 2 is N or CH; provided that Q 2 is not N if Q 1 is N; R a is -F, -Cl, -OCD 3 , -CN, -OC (1-3) alkyl, or -C (1-3) alkyl, wherein said -C (1-3) alkyl and said OC (1-3) alkyl are optionally substituted with up to three fluorine atoms; R b is -NA 1 A 2 , -C (3-6) alkyl, or -OC (1-3) alkyl, wherein said -C (3-6) alkyl is optionally substituted with -OH or oxo, and the -C (3-6) alkyl may additionally be substituted with up to six fluorine atoms, and said -OC (1-3) alkyl is optionally substituted with up to three fluorine atoms; R c is -H, -OCH 3 , -F, -CH 3 , -CF 3 , -OCF 3 , or -Cl; A 1 is -C (2-3) alkyl, wherein said -C (2-3) alkyl is optionally substituted with up to six fluorine atoms; A 2 is H, or A 1 and A 2 are taken together with their attached nitrogen to form and pharmaceutically acceptable salts thereof. R 1 is -C (1-4) alkyl, -NH 2 , -NHC (1-4) alkyl, -N(C (1-4) alkyl) 2 , -NHC(O)NH 2 , NHC(O)C (1-4) alkyl, - NHC(O)H, or -NHC(O)NHC (1-4) alkyl; R 2 is H, -OH, or -NH 2 ; R 3 is -H, -OH, -CN, -NH 2 , -CONH 2 , -CO 2 H, -CO 2 C (1-4) alkyl, -CH 2 OH, -CH 2 NH 2 , -CH 2 CN, -NHC (1-4) alkyl, or -CONHC (1-4) alkyl; R 4 is -H, -Cl, -C (1-4) alkyl, -F, -CN, -C(O)NH 2 , or ; wherein said -C (1-4) alkyl is optionally substituted with up to six fluorine atoms; R 5 is -C (1-4) alkyl, wherein said -C (1-4) alkyl is optionally substituted with -CN, -OH, -OCH 3 , - OCF 3 , or up to six fluorine atoms; Q 1 is N or CR c ; Q 2 is N or CH; provided that Q 2 is not N if Q 1 is N; R a is -F, -Cl, -OCD 3 , -CN, -OC (1-3) alkyl, or -C (1-3) alkyl, wherein said -C (1-3) alkyl and said OC (1-3) alkyl are optionally substituted with up to three fluorine atoms; R b is -NA 1 A 2 , -C (3-6) alkyl, or -OC (1-3) alkyl, wherein said -C (3-6) alkyl is optionally substituted with -OH or oxo, and the -C (3-6) alkyl may additionally be substituted with up to six fluorine atoms, and said -OC (1-3) alkyl is optionally substituted with up to three fluorine atoms; R c is -H, -OCH 3 , -F, -CH 3 , -CF 3 , -OCF 3 , or -Cl; A 1 is -C (2-3) alkyl, wherein said -C (2-3) alkyl is optionally substituted with up to six fluorine atoms; A 2 is H, or A 1 and A 2 are taken together with their attached nitrogen to form and pharmaceutically acceptable salts thereof.
A safety helmet lighting device comprising: a frame formed in a ring shape to be mounted on the outer circumferential surface of a safety helmet; a plurality of light-emitting portions (L) provided on the outer face of the frame ; a battery (B) for supplying electric power; a controller for controlling brightness and colors of the light-emitting portions (L); and close contact means for preventing the frame from being separated from the safety helmet, characterized in that the close contact means include a plate spring formed by a metal plate bent disposed on the inner face of the frame and elastically transformed when the frame is mounted on the safety helmet; and a friction pad surrounding an end of the plate spring and made of a material that is configured to get in contact with the safety helmet and to prevent slipping, and wherein the frame includes a guide groove for allowing the plate springs disposed on the frame to be movable along the inner surface of the frame . a frame formed in a ring shape to be mounted on the outer circumferential surface of a safety helmet; a plurality of light-emitting portions (L) provided on the outer face of the frame ; a battery (B) for supplying electric power; a controller for controlling brightness and colors of the light-emitting portions (L); and close contact means for preventing the frame from being separated from the safety helmet, characterized in that the close contact means include a plate spring formed by a metal plate bent disposed on the inner face of the frame and elastically transformed when the frame is mounted on the safety helmet; and a friction pad surrounding an end of the plate spring and made of a material that is configured to get in contact with the safety helmet and to prevent slipping, and wherein the frame includes a guide groove for allowing the plate springs disposed on the frame to be movable along the inner surface of the frame .
A headphone listening device , comprising: at least one speaker included in an earpiece and configured to playback first audio content from a first audio source; at least one microphone configured to detect ambient noise; at least one sensor configured to detect a trigger event relating to a user interaction with the at least one earpiece , wherein the at least one sensor includes a gyroscope configured to detect an angle or change in angle of the headphone listening device , and wherein the trigger event is an angle or change in angle of the headphone listening device ; and a controller configured to, in response to receiving the detection of the trigger event from the sensor : enable the at least one microphone to acquire second audio content including ambient noise; fade a volume of the first audio content or cease playback of the first audio content; and playback the second audio content via the at least one speaker . at least one speaker included in an earpiece and configured to playback first audio content from a first audio source; at least one microphone configured to detect ambient noise; at least one sensor configured to detect a trigger event relating to a user interaction with the at least one earpiece , wherein the at least one sensor includes a gyroscope configured to detect an angle or change in angle of the headphone listening device , and wherein the trigger event is an angle or change in angle of the headphone listening device ; and a controller configured to, in response to receiving the detection of the trigger event from the sensor : enable the at least one microphone to acquire second audio content including ambient noise; fade a volume of the first audio content or cease playback of the first audio content; and playback the second audio content via the at least one speaker . enable the at least one microphone to acquire second audio content including ambient noise; fade a volume of the first audio content or cease playback of the first audio content; and playback the second audio content via the at least one speaker .
An anode material, comprising silicon-based particles, wherein the silicon-based particles comprise a silicon-containing substrate , wherein the silicon-containing substrate comprises micro Si, nano Si, or a combination thereof; at least a part of the surface of the silicon-containing substrate has an M y SiO z layer ; characterized in that , M comprises Li, Mg, Ca, Sr, Ba, Al, Ti, Zn, or any combination thereof; the M y SiO z layer comprises Li 2 SiO 3 and at least one of Mg 2 SiO 4 , MgSiO 3 , CaSiO 3 , SrSiO 3 , BaSiO 3 , Al 2 SiO 5 , TiSiO 4 , or Zn 2 SiO 4 ; and 0<y<3, and 0.5<z<6. at least a part of the surface of the silicon-containing substrate has an M y SiO z layer ; characterized in that , M comprises Li, Mg, Ca, Sr, Ba, Al, Ti, Zn, or any combination thereof; the M y SiO z layer comprises Li 2 SiO 3 and at least one of Mg 2 SiO 4 , MgSiO 3 , CaSiO 3 , SrSiO 3 , BaSiO 3 , Al 2 SiO 5 , TiSiO 4 , or Zn 2 SiO 4 ; and 0<y<3, and 0.5<z<6.
A medical device comprising: a needle configured for use in suturing tissue, the needle comprising: a cylindrical body extending along a longitudinal axis (X-X) between first and second ends of the cylindrical body; a lumen extending through the cylindrical body transverse to the longitudinal axis, the lumen having a first opening and a second opening opposite the first opening; and a first end portion at the first end of the cylindrical body, wherein the first end portion includes a first sharp point configured to pierce tissue; wherein an outer surface of the cylindrical body defines a first recess in communication with the first opening of the lumen and configured to receive an end region of a suture ; and a sleeve configured to slide over the cylindrical body and compress the end region of the suture within the first recess, wherein the first recess is a first channel extending longitudinally from the first opening of the lumen toward the first sharp point, wherein the outer surface of the cylindrical body defines a second recess in communication with the first opening of the lumen, wherein the second recess is a second channel extending longitudinally from the first opening of the lumen in a direction away from the first sharp point. a needle configured for use in suturing tissue, the needle comprising: a cylindrical body extending along a longitudinal axis (X-X) between first and second ends of the cylindrical body; a lumen extending through the cylindrical body transverse to the longitudinal axis, the lumen having a first opening and a second opening opposite the first opening; and a first end portion at the first end of the cylindrical body, wherein the first end portion includes a first sharp point configured to pierce tissue; wherein an outer surface of the cylindrical body defines a first recess in communication with the first opening of the lumen and configured to receive an end region of a suture ; and a cylindrical body extending along a longitudinal axis (X-X) between first and second ends of the cylindrical body; a lumen extending through the cylindrical body transverse to the longitudinal axis, the lumen having a first opening and a second opening opposite the first opening; and a first end portion at the first end of the cylindrical body, wherein the first end portion includes a first sharp point configured to pierce tissue; wherein an outer surface of the cylindrical body defines a first recess in communication with the first opening of the lumen and configured to receive an end region of a suture ; and a sleeve configured to slide over the cylindrical body and compress the end region of the suture within the first recess, wherein the first recess is a first channel extending longitudinally from the first opening of the lumen toward the first sharp point, wherein the outer surface of the cylindrical body defines a second recess in communication with the first opening of the lumen, wherein the second recess is a second channel extending longitudinally from the first opening of the lumen in a direction away from the first sharp point.
Method for connecting at least two profile parts , in particular for producing door frames or door leaves, or window frames or window casements, consisting of a thermoplastic material, wherein, in an incipient-melting step, the at least two profile parts , secured on profile supports which can be displaced relative to one another, are incipiently melted in each case on an end-side joining surface by means of a heating element and, once the heating element has been removed, in a joining step, they are pressed against one another, by way of the incipiently melted joining surfaces , until such time as the molten materials brought into contact with one another there cool and solidify to form a weld connection, wherein a limiting element with a separating edge rests and/or butts against at least one outer surface of at least one profile part , and this limiting element controls and/or limits the escape of excess molten material at the transition of the respective joining surface to the outer surface of the profile part during the incipient-melting step, wherein, in an isolating step which takes place prior to the joining step, a mating tool is guided through the molten material along the separating edge of the limiting element , in order to isolate the excess molten material which has escaped over the separating edge , wherein the mating tool performs a rolling movement.
A method, comprising: positioning a distal end of a base of an inserter on a skin surface; applying a predetermined force on a housing of the inserter to displace an analyte monitoring assembly operatively coupled to an introducer mechanism from a first position within the housing to a second position wherein at least a portion of an analyte sensor of the analyte monitoring assembly is in contact with an analyte under the skin surface, and further, wherein a distal surface of the analyte monitoring assembly is positioned on the skin surface, and wherein the analyte sensor comprises a glucose sensor; providing a bias mechanism within a hollow space of the housing to automatically retract the introducer mechanism from the second position to the first position; automatically retracting the introducer mechanism from the second position to the first position to be entirely retained within the housing; and providing, using Bluetooth communication, one or more data associated with a monitored level of an analyte to a remote location only in response to a request for data received from the remote location; wherein the method further comprises: prior to positioning the distal end of the base , disengaging an end cap from a bottom end of the housing to expose the hollow space of the housing; and preventing the displacement of the analyte monitoring assembly within the hollow space between the first position and the second position when the end cap is engaged via an annular ridge of the end cap with the bottom end of the housing . positioning a distal end of a base of an inserter on a skin surface; applying a predetermined force on a housing of the inserter to displace an analyte monitoring assembly operatively coupled to an introducer mechanism from a first position within the housing to a second position wherein at least a portion of an analyte sensor of the analyte monitoring assembly is in contact with an analyte under the skin surface, and further, wherein a distal surface of the analyte monitoring assembly is positioned on the skin surface, and wherein the analyte sensor comprises a glucose sensor; providing a bias mechanism within a hollow space of the housing to automatically retract the introducer mechanism from the second position to the first position; automatically retracting the introducer mechanism from the second position to the first position to be entirely retained within the housing; and providing, using Bluetooth communication, one or more data associated with a monitored level of an analyte to a remote location only in response to a request for data received from the remote location; prior to positioning the distal end of the base , disengaging an end cap from a bottom end of the housing to expose the hollow space of the housing; and preventing the displacement of the analyte monitoring assembly within the hollow space between the first position and the second position when the end cap is engaged via an annular ridge of the end cap with the bottom end of the housing .
A method of cleaning and sterilizing a drink filling apparatus that includes drink supply piping that feeds a product into a filling machine through a heating sterilization part , the method comprising a CIP (Cleaning in Place) process of circulating a cleaner in the drink supply piping to remove a remaining foreign matter from a product or the like on an interior of the drink supply piping and an SIP (Sterilizing in Place) process of sterilizing the interior of the drink supply piping , wherein the CIP process and the SIP process are performed at the same time or in sequence without an interruption between the CIP process and the SIP process, the SIP process uses the cleaner circulating in the drink supply piping to sterilize the interior of the drink supply piping , characterized in that after the SIP process, while the cleaner is kept circulating, a temperature condition at a predetermined position of the heating sterilization part in the drink supply piping is adjusted to a predetermined temperature for manufacture, and after the temperature condition at the predetermined position of the heating sterilization part in the drink supply piping is adjusted to the predetermined temperature for manufacture, the cleaner in the drink supply piping is removed. wherein the CIP process and the SIP process are performed at the same time or in sequence without an interruption between the CIP process and the SIP process, the SIP process uses the cleaner circulating in the drink supply piping to sterilize the interior of the drink supply piping , characterized in that after the SIP process, while the cleaner is kept circulating, a temperature condition at a predetermined position of the heating sterilization part in the drink supply piping is adjusted to a predetermined temperature for manufacture, and after the temperature condition at the predetermined position of the heating sterilization part in the drink supply piping is adjusted to the predetermined temperature for manufacture, the cleaner in the drink supply piping is removed.