mhurhangee/patent-ind-claim-en huggingface dataset:
A film material (10, 10', 10") with a cutting grain including: a surface film layer , one surface thereof forming a cut surface with a cutting grain; another surface of the surface film layer being a second surface ; a thermal bonding layer located on the second surface of the surface film layer , capable of generating adhesion when being heated; the second surface of the surface film layer being directly or indirectly bonded to the thermal bonding layer ; and an adhering layer having an adhering surface ; the cut surface of the surface film layer being bonded to the adhering surface of the adhering layer ; the cutting grain having cut marks formed on the cut surface , and the cut marks cutting into the surface film layer from the cut surface without cutting off the thermal bonding layer . a surface film layer , one surface thereof forming a cut surface with a cutting grain; another surface of the surface film layer being a second surface ; a thermal bonding layer located on the second surface of the surface film layer , capable of generating adhesion when being heated; the second surface of the surface film layer being directly or indirectly bonded to the thermal bonding layer ; and an adhering layer having an adhering surface ; the cut surface of the surface film layer being bonded to the adhering surface of the adhering layer ; the cutting grain having cut marks formed on the cut surface , and the cut marks cutting into the surface film layer from the cut surface without cutting off the thermal bonding layer .
Compound derived from isatin, characterized in that it has a Formulae I, II or III structure, as shown below: whereby in Formulae I, II and III: R 1 is selected from H, CH 3 or Cl R 2 is selected from one of the following radicals: zidovudine, amprenavir or an acyclic phosphonate chain, as shown below. zidovudine amprenavir acrylic phosphonate chain R 1 is selected from H, CH 3 or Cl R 2 is selected from one of the following radicals: zidovudine, amprenavir or an acyclic phosphonate chain, as shown below. zidovudine amprenavir acrylic phosphonate chain
Engine compartment component in co-molded layers for vehicles comprising: - a first layer of carbon fiber fabric consisting of a sheet of thickness of between 0.5 mm and 20 mm and a weight of between 100 g/m 2 and 1,000 g/m 2 , adapted to be positioned inside a common mold for injection molding before the injection of - a second plastic layer , consisting of any one thermoplastic polymer, with a thickness of between 0.5 mm and 5 mm, adapted to be made by back-injection in said mold for injection molding containing said first layer of carbon fiber fabric , determining a co-molding process; said back-injection occurring at an inner side (1.2) of said first layer of carbon fiber fabric ; said first layer of carbon fiber fabric being provided with a weft of the fibers adapted to allow the penetration of said second plastic layer , during the co-molding process, for a predetermined thickness starting from said inner side (1.2) of said first layer of carbon fiber fabric ; characterised in that said first layer of carbon fiber fabric consists of a first portion (1.a), in the vicinity of said inner side (1.2), provided with a wider weave adapted to facilitate the penetration of the plastic polymer during said co-molding up to the desired thickness; said first layer of carbon fiber fabric also consists of a second portion (1.b), in the vicinity of the outer side (1.1), provided with a denser weave adapted to progressively slow down and finally block the penetration of the plastic polymer during said co-molding. - a first layer of carbon fiber fabric consisting of a sheet of thickness of between 0.5 mm and 20 mm and a weight of between 100 g/m 2 and 1,000 g/m 2 , adapted to be positioned inside a common mold for injection molding before the injection of - a second plastic layer , consisting of any one thermoplastic polymer, with a thickness of between 0.5 mm and 5 mm, adapted to be made by back-injection in said mold for injection molding containing said first layer of carbon fiber fabric , determining a co-molding process; said back-injection occurring at an inner side (1.2) of said first layer of carbon fiber fabric ;
Exhaust gas cleaning system for cleaning exhaust gas, which exhaust gas cleaning system comprises a particle filter device , in turn comprising a casing , a plurality of hollow ceramic filter rods arranged at least partly inside an exhaust gas passage of the casing and extending vertically and along each other when the exhaust gas cleaning system is installed, an exhaust gas inlet arranged to allow exhaust gas to flow into the casing upstream said exhaust gas passage , and an exhaust gas outlet arranged to allow exhaust gas to flow out of the casing downstream said exhaust gas passage , wherein the particle filter device is configured to guide exhaust gas from the exhaust gas inlet , through said exhaust gas passage and to the exhaust gas outlet , the particle filter device further comprising a perforated plate arranged downstream the exhaust gas inlet and upstream said exhaust gas passage , which perforated plate extends at least partly along said filter rods and partly blocks an exhaust gas flow path (P) from the exhaust gas inlet to said exhaust gas passage , wherein the perforated plate defines openings arranged to allow exhaust gas to flow into said exhaust gas passage , said filter rods are gas permeable to allow exhaust gas to penetrate, during filtration, a respective wall of said filter rods and flow into said filter rods , and a respective open upper end of the filter rods are in communication with said exhaust gas outlet so as to allow exhaust gas to leave the casing . a casing , a plurality of hollow ceramic filter rods arranged at least partly inside an exhaust gas passage of the casing and extending vertically and along each other when the exhaust gas cleaning system is installed, an exhaust gas inlet arranged to allow exhaust gas to flow into the casing upstream said exhaust gas passage , and an exhaust gas outlet arranged to allow exhaust gas to flow out of the casing downstream said exhaust gas passage , wherein the particle filter device is configured to guide exhaust gas from the exhaust gas inlet , through said exhaust gas passage and to the exhaust gas outlet , the particle filter device further comprising a perforated plate arranged downstream the exhaust gas inlet and upstream said exhaust gas passage , which perforated plate extends at least partly along said filter rods and partly blocks an exhaust gas flow path (P) from the exhaust gas inlet to said exhaust gas passage , wherein the perforated plate defines openings arranged to allow exhaust gas to flow into said exhaust gas passage , said filter rods are gas permeable to allow exhaust gas to penetrate, during filtration, a respective wall of said filter rods and flow into said filter rods , and a respective open upper end of the filter rods are in communication with said exhaust gas outlet so as to allow exhaust gas to leave the casing .
A color calibration system, comprising a color calibration device and a color calibration hologram , the color calibration device , calibrating colors in a captured image of a first imaging device between different imaging devices using the color calibration hologram in which diffracted light changes with an observation angle, the color calibration device comprising: a diffracted light spectral distribution calculation unit adapted to obtain a respective diffracted light spectral distribution of the diffracted light from the color calibration hologram ; a camera sensitivity function estimation unit adapted to estimate spectral sensitivity of the imaging device from the respective diffracted light spectral distribution of the diffracted light and each captured image of the diffracted light; and a color calibration unit adapted to calibrate difference in color of the first imaging device relative to a second imaging device different from the first imaging device using the estimated spectral sensitivity, wherein the system is arranged such that the color calibration hologram is provided adjacent to an imaging object imaged as a captured image for calibration of the difference in color, wherein the imaging object is an anti-counterfeiting medium used for authentication determination of an article and having an observed light pattern changing with change in a light property as a property of irradiated light. a diffracted light spectral distribution calculation unit adapted to obtain a respective diffracted light spectral distribution of the diffracted light from the color calibration hologram ; a camera sensitivity function estimation unit adapted to estimate spectral sensitivity of the imaging device from the respective diffracted light spectral distribution of the diffracted light and each captured image of the diffracted light; and a color calibration unit adapted to calibrate difference in color of the first imaging device relative to a second imaging device different from the first imaging device using the estimated spectral sensitivity, wherein the system is arranged such that the color calibration hologram is provided adjacent to an imaging object imaged as a captured image for calibration of the difference in color, wherein the imaging object is an anti-counterfeiting medium used for authentication determination of an article and having an observed light pattern changing with change in a light property as a property of irradiated light.
A capacitive discharge welder comprising: a capacitor bank for storing energy; a pulse transformer for converting a first voltage stored in the capacitor bank to a second voltage; a secondary circuit electrically connected to the pulse transformer , the secondary circuit for supplying a welding current corresponding to an output having the second voltage of the pulse transformer to a part to be welded, wherein an energy delivered by the secondary circuit depends only upon the value of the capacitor bank and the first voltage according to the formula E= 1⁄2 CV 2 where E is the energy supplied, C is the capacitance of the capacitor bank , and V is the first voltage stored in the capacitor bank , characterized by an insulated gate bipolar transistor (IGBT) for selectively electrically connecting the capacitor bank to the pulse transformer ; a controller adapted to output a control signal to turn the IGBT on and off, wherein the controller is adapted to turn off the IGBT at a point shortly after primary current supplied to a primary side of the pulse transformer starts to further increase while secondary current supplied by a secondary side of the pulse transformer does not increase. a capacitor bank for storing energy; a pulse transformer for converting a first voltage stored in the capacitor bank to a second voltage; a secondary circuit electrically connected to the pulse transformer , the secondary circuit for supplying a welding current corresponding to an output having the second voltage of the pulse transformer to a part to be welded, wherein an energy delivered by the secondary circuit depends only upon the value of the capacitor bank and the first voltage according to the formula E= 1⁄2 CV 2 where E is the energy supplied, C is the capacitance of the capacitor bank , and V is the first voltage stored in the capacitor bank , characterized by an insulated gate bipolar transistor (IGBT) for selectively electrically connecting the capacitor bank to the pulse transformer ; a controller adapted to output a control signal to turn the IGBT on and off, wherein the controller is adapted to turn off the IGBT at a point shortly after primary current supplied to a primary side of the pulse transformer starts to further increase while secondary current supplied by a secondary side of the pulse transformer does not increase.
A storage device for theft-proof storage of valuable articles, comprising: a cabinet , having at least one drawer space (S, S1, S2), a safe drawer , which is received in the drawer space (S, S1, S2), a safe housing , comprising side walls and a top wall connecting the side walls, wherein the safe drawer is slidably connected to the safe housing and wherein the safe housing is mounted to the cabinet in the drawer space (S, S1, S2), a locking member , which is movably connected to the safe drawer or to the safe housing, an actuator , which is operatively connected to the locking member, for controlling a movement of the locking member, and a controller , which is operatively connected to the actuator, and which is configured to control the actuator, wherein the controller is configured for receiving a control signal, based on which the controller is configured to control the actuator, wherein the locking member is movable between a first position, in which the locking member locks safe drawer relative to the cabinet, and a second position, wherein the safe drawer is unlocked relative to the cabinet, and characterised in that the safe drawer is received in the drawer space (S) in a drawer space portion that is situated at least partially, preferably entirely, above side walls of a drawer, which is slidably mounted to the cabinet and received in said drawer space (S). a cabinet , having at least one drawer space (S, S1, S2), a safe drawer , which is received in the drawer space (S, S1, S2), a safe housing , comprising side walls and a top wall connecting the side walls, wherein the safe drawer is slidably connected to the safe housing and wherein the safe housing is mounted to the cabinet in the drawer space (S, S1, S2), a locking member , which is movably connected to the safe drawer or to the safe housing, an actuator , which is operatively connected to the locking member, for controlling a movement of the locking member, and a controller , which is operatively connected to the actuator, and which is configured to control the actuator, wherein the controller is configured for receiving a control signal, based on which the controller is configured to control the actuator, wherein the locking member is movable between a first position, in which the locking member locks safe drawer relative to the cabinet, and a second position, wherein the safe drawer is unlocked relative to the cabinet, and characterised in that the safe drawer is received in the drawer space (S) in a drawer space portion that is situated at least partially, preferably entirely, above side walls of a drawer, which is slidably mounted to the cabinet and received in said drawer space (S).
A method for improving surface roughness of an environmental barrier coating comprising: providing a component having a plasma sprayed environmental barrier coating; applying a slurry to the environmental barrier coating of the component, the slurry comprising a transition layer slurry or an outer layer slurry; drying the environmental barrier coating having the applied slurry; and sintering the component to produce a component having an improved surface roughness wherein the slurry comprises: a solvent; a primary transition material, or a primary outer material; and a slurry sintering aid, wherein the primary transition material is selected from the group consisting of a rare earth disilicate or a doped rare earth disilicate; and the primary outer material is selected from the group consisting of a rare earth monosilicate, or a doped rare earth monosilicate. providing a component having a plasma sprayed environmental barrier coating; applying a slurry to the environmental barrier coating of the component, the slurry comprising a transition layer slurry or an outer layer slurry; drying the environmental barrier coating having the applied slurry; and sintering the component to produce a component having an improved surface roughness wherein the slurry comprises: a solvent; a primary transition material, or a primary outer material; and a slurry sintering aid, wherein the primary transition material is selected from the group consisting of a rare earth disilicate or a doped rare earth disilicate; and the primary outer material is selected from the group consisting of a rare earth monosilicate, or a doped rare earth monosilicate. a solvent; a primary transition material, or a primary outer material; and a slurry sintering aid, wherein the primary transition material is selected from the group consisting of a rare earth disilicate or a doped rare earth disilicate; and the primary outer material is selected from the group consisting of a rare earth monosilicate, or a doped rare earth monosilicate.
A control system of a hybrid vehicle control system comprising: an engine , a motor/generator connected to the engine described above and carries out power driving and the electric power regeneration, and a start clutch , which is arranged in a drive force transmission system from the motor/generator described above to the drive wheels and which is engaged under an input rotational speed control, characterized by a transient control mode switching means that works as follows: when the input rotational speed control of the start clutch is switched from the motor rotational speed control to engine rotational speed control, the motor rotational speed control is kept, and both the motor rotational speed control and the engine rotational speed control are carried out at the same time until a determination is made that the engine torque is stable; after the determination is made that the engine torque is stable, the control is switched from the motor rotational speed control to the motor torque control; and the transient control mode switching means works as follows: when the stability of the engine torque described above is determined, the transient control mode switching means gradually changes the motor lower torque limit in the motor rotational speed control to the target electric power generation torque, and then, the transient control means switches the mode to the motor torque control. an engine , a motor/generator connected to the engine described above and carries out power driving and the electric power regeneration, and a start clutch , which is arranged in a drive force transmission system from the motor/generator described above to the drive wheels and which is engaged under an input rotational speed control, characterized by a transient control mode switching means that works as follows: when the input rotational speed control of the start clutch is switched from the motor rotational speed control to engine rotational speed control, the motor rotational speed control is kept, and both the motor rotational speed control and the engine rotational speed control are carried out at the same time until a determination is made that the engine torque is stable; after the determination is made that the engine torque is stable, the control is switched from the motor rotational speed control to the motor torque control; and the transient control mode switching means works as follows: when the stability of the engine torque described above is determined, the transient control mode switching means gradually changes the motor lower torque limit in the motor rotational speed control to the target electric power generation torque, and then, the transient control means switches the mode to the motor torque control.
A system comprising: a canister (110; 204) comprising a canister fitment ; a carbonation tank configured to receive gas from the canister; a canister connection apparatus comprising: a receiver fitment comprising a valve opening component configured to open a valve of the canister, the receiver fitment being configured to connect to the canister fitment, wherein the receiver fitment is further configured to seal and cover the canister fitment; the receiver fitment further comprising a carbonator throttle configured to restrict a flow of gas from the canister, after release by the valve opening component, to a reduced flow rate to prevent over pressurization of the carbonation tank; and the system further comprising a controller in communication with the receiver fitment and the carbonation tank and configured to control the carbonator throttle. a canister (110; 204) comprising a canister fitment ; a carbonation tank configured to receive gas from the canister; a canister connection apparatus comprising: a receiver fitment comprising a valve opening component configured to open a valve of the canister, the receiver fitment being configured to connect to the canister fitment, wherein the receiver fitment is further configured to seal and cover the canister fitment; the receiver fitment further comprising a carbonator throttle configured to restrict a flow of gas from the canister, after release by the valve opening component, to a reduced flow rate to prevent over pressurization of the carbonation tank; and a receiver fitment comprising a valve opening component configured to open a valve of the canister, the receiver fitment being configured to connect to the canister fitment, wherein the receiver fitment is further configured to seal and cover the canister fitment; the receiver fitment further comprising a carbonator throttle configured to restrict a flow of gas from the canister, after release by the valve opening component, to a reduced flow rate to prevent over pressurization of the carbonation tank; and the system further comprising a controller in communication with the receiver fitment and the carbonation tank and configured to control the carbonator throttle.
A centrifuge assembly with a centrifuge, preferably separator arrangement, with a drum with a preferably vertical axis of rotation, which is placed onto a rotatable drive spindle that can be rotated by a drive and is preferably surrounded by a hood , wherein the drive spindle is mounted rotatably in a machine stand which, in turn, can be installed on a foundation by means of at least one or a plurality of supporting feet , wherein each supporting foot has at least one adjustable first elastic element and at least one second elastic, preferably nonadjustable element , and wherein the at least one second elastic element is designed in particular for vertical support of the machine stand, characterized in that the at least one adjustable first elastic element is designed for setting the horizontal spring rigidity and damping of the mass/spring system.