mhurhangee/patent-ind-claim-en huggingface dataset:
Exhaust system for an internal combustion engine , having an exhaust duct , in which a particle filter is arranged, and having a differential pressure line , wherein the differential pressure line has a first section which connects the exhaust duct upstream of the particle filter to a differential pressure sensor , and wherein the differential pressure line has a second section which connects the exhaust duct downstream of the particle filter to the differential pressure sensor , wherein a reservoir which is fluidically connected to the exhaust duct is formed at an end of the first section and/or of the second section of the differential pressure line , which end faces the exhaust duct , wherein the reservoir protrudes into the exhaust duct and can be heated by the exhaust gas of the internal combustion engine in such a manner that liquid collected in the reservoir evaporates before exiting into the exhaust duct and is introduced in gaseous form into the exhaust duct , characterized in that a catching region for the condensate and at least one opening or slot for the controlled output of the liquid collected in the reservoir into the exhaust duct are formed on the reservoir , wherein the opening or the slot lies geodetically above a closed end of the reservoir and the liquid caught in the reservoir has to rise counter to gravity in order to emerge from the reservoir into the exhaust duct , and therefore an uncontrolled dripping of the condensate into the exhaust duct is avoided.
A blade for a gas turbine , the blade comprising: - an airfoil having an airfoil tip , and a pressure side and a suction side meeting at a leading edge and a trailing edge and defining an airfoil cavity therein; - a squealer tip arranged at the airfoil tip , wherein the squealer tip comprises a trailing edge tip portion disposed at the trailing edge of the airfoil and a pressure side rail and a suction side rail meeting at the trailing edge tip portion and defining a squealer tip pocket at the airfoil tip ; and - at least one tip cooling hole disposed at the squealer tip pocket and configured to provide cooling air from the airfoil cavity to the squealer tip pocket ; wherein the trailing edge tip portion of the squealer tip comprises: - a chamfer disposed towards the pressure side of the airfoil ; and - a groove extending from the squealer tip pocket to the chamfer and configured to provide cooling air from the squealer tip pocket to the chamfer , characterized in that the chamfer is concavely shaped at a groove-side of the chamfer , and the chamfer is planarly or convexly shape at a trailing-edge-side of the chamfer . - an airfoil having an airfoil tip , and a pressure side and a suction side meeting at a leading edge and a trailing edge and defining an airfoil cavity therein; - a squealer tip arranged at the airfoil tip , wherein the squealer tip comprises a trailing edge tip portion disposed at the trailing edge of the airfoil and a pressure side rail and a suction side rail meeting at the trailing edge tip portion and defining a squealer tip pocket at the airfoil tip ; and - at least one tip cooling hole disposed at the squealer tip pocket and configured to provide cooling air from the airfoil cavity to the squealer tip pocket ; wherein the trailing edge tip portion of the squealer tip comprises: - a chamfer disposed towards the pressure side of the airfoil ; and - a groove extending from the squealer tip pocket to the chamfer and configured to provide cooling air from the squealer tip pocket to the chamfer , characterized in that the chamfer is concavely shaped at a groove-side of the chamfer , and the chamfer is planarly or convexly shape at a trailing-edge-side of the chamfer . - a chamfer disposed towards the pressure side of the airfoil ; and - a groove extending from the squealer tip pocket to the chamfer and configured to provide cooling air from the squealer tip pocket to the chamfer ,
A balloon catheter adapted for use with a guidewire, comprising: an elongated, tubular shaft extending in a longitudinal direction, said shaft having a proximal end and a distal end; an inflatable balloon supported along the distal end of the shaft, the balloon when inflated including first and second spaced ends and a working surface (W) between the ends; and an insert located within the interior compartment of the balloon, characterized in that the insert includes at least a radiopaque portion separate from the shaft , wherein the insert comprises at least one finger, or the insert takes the form of a plurality of radiopaque bands inserted in the interior compartment of the balloon, the bands being positioned along an inner surface of a balloon wall , with one at each end of the working surface. an elongated, tubular shaft extending in a longitudinal direction, said shaft having a proximal end and a distal end; an inflatable balloon supported along the distal end of the shaft, the balloon when inflated including first and second spaced ends and a working surface (W) between the ends; and an insert located within the interior compartment of the balloon, characterized in that the insert includes at least a radiopaque portion separate from the shaft , wherein the insert comprises at least one finger, or the insert takes the form of a plurality of radiopaque bands inserted in the interior compartment of the balloon, the bands being positioned along an inner surface of a balloon wall , with one at each end of the working surface. wherein the insert comprises at least one finger, or the insert takes the form of a plurality of radiopaque bands inserted in the interior compartment of the balloon, the bands being positioned along an inner surface of a balloon wall , with one at each end of the working surface.
Portable vacuum cleaner with a suction channel opening into a suction nozzle and with a housing , a handle, a reservoir for the suction material , with an opening and a suction unit for generating a suction flow which provides a suction vacuum applied to the suction nozzle , with a separating unit , which is capable of separating the suction flow sucked in via the suction nozzle into an exhaust air flow flowing out of the vacuum cleaner and into suction material in the form of particles and/or fluid particles, the separated particles or fluid particles being collected in the reservoir for the suction material and the reservoir for the suction material being capable of being emptied by opening, characterized in that the housing is embodied in several parts with a first housing part, a second housing part and a third housing part, wherein a suction and separation region comprising the separating unit is housed and/or embodied by the first housing part, the second housing part is connected to the third housing part and the reservoir for the suction material is arranged between the second housing part and the third housing part and/or is formed by the second housing part and the third housing part, and wherein connecting regions of the first housing part, the second housing part and the third housing part are covered by a cover housing part.
An inner module structure of an auto strapping packaging tool, comprising: a tension module in which first power generated by a first dedicated motor disposed at a rear side is transmitted to a front side to provide a tensile force to a packaging plastic band; and a welding module which is disposed at one side of the tension module , and in which a gripper unit is opened or closed by second-1 power due to axial rotation in a forward direction of a second dedicated motor disposed at a rear side in the welding module , and the gripper unit linearly reciprocates by second-2 power due to axial rotation in a reverse direction of the second dedicated motor to provide a friction force to the plastic band to which the tensile force is applied through the tension module , wherein each of the tension module and the welding module is formed in units of modules, and driving of the tension module and the welding module is individually controlled. a tension module in which first power generated by a first dedicated motor disposed at a rear side is transmitted to a front side to provide a tensile force to a packaging plastic band; and a welding module which is disposed at one side of the tension module , and in which a gripper unit is opened or closed by second-1 power due to axial rotation in a forward direction of a second dedicated motor disposed at a rear side in the welding module , and the gripper unit linearly reciprocates by second-2 power due to axial rotation in a reverse direction of the second dedicated motor to provide a friction force to the plastic band to which the tensile force is applied through the tension module , wherein each of the tension module and the welding module is formed in units of modules, and driving of the tension module and the welding module is individually controlled.
Method for actuating a thermostatic control valve , characterized in that the valve travel of a plunger for protecting against calcification is executed as a function of a chronological opening state profile of the plunger when the travel distance travelled by the plunger is less than 90% in a prescribed time period, wherein during the valve travel the plunger is moved in order to protect the thermostatic control valve against calcification.
A method for manufacturing a pre-impregnated fibrous material comprising a fibrous material in continuous fibers and at least one thermoplastic polymer matrix, characterized in that said pre-impregnated fibrous material is produced as a single unidirectional ribbon or as a plurality of parallel unidirectional ribbons and in that said method comprises a step of impregnation to the core, of said fibrous material presented in the form of one roving or of a plurality of parallel rovings by said thermoplastic polymer presented in powder form, said impregnation step being carried out with said at least one thermoplastic polymer and said fibrous material in which the D90/D10 ratio by volume of the thermoplastic polymer particles is from 1.5 to 50, in particular from 2 to 10 and the ratio of the median diameter (D50) by volume of the particles of thermoplastic polymer to the median diameter of the unit fibers of said fibrous material is from 3 to 40, to the exclusion of a method for impregnating in an aqueous suspension a fibrous material consisting of carbon fibers by a thermoplastic polymer in which said ratio of D50/median diameter of the unit fibers is from 3 to 8, and to the exclusion of any electrostatic method in voluntary charge, said impregnation step being carried out by fluidized bed , by continuous passage of the fibers in an aqueous dispersion or by spraying by means of gun(s) or powdering nozzle(s) at the roller inlet, the fiber content in said impregnated fibrous material being from 45 to 65% by volume, preferably from 50 to 60% by volume, in particular from 54 to 60% by volume.
A nucleic acid expression cassette, comprising a promoter operably linked to a non-chlorophyll binding Ab transgene, wherein said promoter comprises SEQ ID NO:1 or SEQ ID NO:6, or a sequence that has 95% sequence identity with SEQ ID NO:1 or SEQ ID NO:6, or said promoter consists of SEQ ID NO:1 or SEQ ID NO:6, or a sequence that has 95% sequence identity with SEQ ID NO:1 or SEQ ID NO:6.
A charged particle beam system comprising: a control apparatus configured to control: an ion source configured to generate a plurality of kinds of ions different in weight from each other; an accelerator configured to accelerate ons generated in the ion source; a beam transport system configured to transport an ion beam extracted from the accelerator; an irradiation nozzle configured to irradiate the ion beam to an irradiation target in an irradiation direction; a rotating gantry configured to set the rradiation direction of the ion beam to the irradiation target, wherein the irradiation nozzle is installed in the rotating gantry, and wherein the irradiation nozzle is controlled for irradiating the same target with the plurality of kinds of ions, wherein one of the plurality of kinds of ions generated in the ion source is irradiated from the irradiation direction, and a different one of the plurality of kinds of ons generated in the ion source is irradiated from a different irradiation direction, wherein the target is irradiated with a first kind of ions and a second kind of ions, consecutively. a control apparatus configured to control: an ion source configured to generate a plurality of kinds of ions different in weight from each other; an accelerator configured to accelerate ons generated in the ion source; a beam transport system configured to transport an ion beam extracted from the accelerator; an irradiation nozzle configured to irradiate the ion beam to an irradiation target in an irradiation direction; a rotating gantry configured to set the rradiation direction of the ion beam to the irradiation target, wherein the irradiation nozzle is installed in the rotating gantry, and wherein the irradiation nozzle is controlled for irradiating the same target with the plurality of kinds of ions, wherein one of the plurality of kinds of ions generated in the ion source is irradiated from the irradiation direction, and a different one of the plurality of kinds of ons generated in the ion source is irradiated from a different irradiation direction, a rotating gantry configured to set the rradiation direction of the ion beam to the irradiation target, wherein the irradiation nozzle is installed in the rotating gantry, and wherein the irradiation nozzle is controlled for irradiating the same target with the plurality of kinds of ions, wherein one of the plurality of kinds of ions generated in the ion source is irradiated from the irradiation direction, and a different one of the plurality of kinds of ons generated in the ion source is irradiated from a different irradiation direction, wherein the target is irradiated with a first kind of ions and a second kind of ions, consecutively.
A sputtering target, which comprises a zirconium oxide as a sputtering material, wherein the zirconium oxide represents at least 75 wt% of the sputtering material and the zirconium oxide - has an oxygen deficiency, compared to the oxygen content of its fully oxidized form, of at least 0.40 wt%, - has a total amount of metal elements other than zirconium of less than 3.0 wt%, based on the total amounts of metal elements including zirconium, and - has an X-ray powder diffraction pattern, measured with Cu K α1 radiation, having a peak P1 at 28.2° +/- 0.2° 2-theta, a peak P2 at 31.4° +/- 0.2° 2-theta, and a peak P3 at 30.2° +/- 0.2° 2-theta. - has an oxygen deficiency, compared to the oxygen content of its fully oxidized form, of at least 0.40 wt%, - has a total amount of metal elements other than zirconium of less than 3.0 wt%, based on the total amounts of metal elements including zirconium, and - has an X-ray powder diffraction pattern, measured with Cu K α1 radiation, having a peak P1 at 28.2° +/- 0.2° 2-theta, a peak P2 at 31.4° +/- 0.2° 2-theta, and a peak P3 at 30.2° +/- 0.2° 2-theta.
A portable sound source searching sensor comprising: a front body in which acoustic sensors of MEMS microphones are arranged to face forward, wherein the front body includes a front plate which forms a plane; MEMS microphones of which acoustic sensors are exposed to the front body in a fixed state to the substrate ; a substrate on which the microphones are mounted; an image photographing unit of which a photographing lens is exposed through a lens hole of the front body ; and a rear body for surrounding a rear side of the substrate and a rear side of the image photographing unit in a state that the substrate is positioned at a rear side of the front body , wherein the rear body includes a concavely formed bottom groove at a back center of the rear body , wherein the photographing lens is exposed through the lens hole which is formed in a central deep part of the front plate , and wherein the acoustic sensors of the MEMS microphones are exposed through a plurality of sensing holes which are formed in the front plate , wherein an inner side of a central handle faces the bottom groove . a front body in which acoustic sensors of MEMS microphones are arranged to face forward, wherein the front body includes a front plate which forms a plane; MEMS microphones of which acoustic sensors are exposed to the front body in a fixed state to the substrate ; a substrate on which the microphones are mounted; an image photographing unit of which a photographing lens is exposed through a lens hole of the front body ; and a rear body for surrounding a rear side of the substrate and a rear side of the image photographing unit in a state that the substrate is positioned at a rear side of the front body , wherein the rear body includes a concavely formed bottom groove at a back center of the rear body , wherein the photographing lens is exposed through the lens hole which is formed in a central deep part of the front plate , and wherein the acoustic sensors of the MEMS microphones are exposed through a plurality of sensing holes which are formed in the front plate , wherein an inner side of a central handle faces the bottom groove .
A magnetic lock for a lift fan, comprising: a stationary magnet and a rotating magnet coupled to an arm , wherein the magnetic lock is adapted to magnetically engage when the arm is in a first position placing the rotating magnet parallel to the stationary magnet; wherein the stationary magnet is configured to be coupled via a tab of the lift fan to elements of the lift fan that do not rotate, and the rotating magnet is configured to be coupled via the arm to rotatable elements of the lift fan; wherein the stationary elements of the lift fan comprise a stator or a shaft of the lift fan, and wherein rotatable elements of the lift fan comprise housings or magnet arrays of the lift fan; wherein the magnetic lock is adapted to magnetically engage when the arm is in the first position in response to an amount of gravity pulling down on the arm exceeds an amount of centrifugal force caused by spinning of the lift fan pushing the arm upwards and outwards toward a second position ; wherein the tab is configured to be adjacent to a detent of the lift fan and the arm comprises a stop portion, attached to an underside of the arm, wherein the stop portion is configured to engage with the detent. a stationary magnet and a rotating magnet coupled to an arm , wherein the magnetic lock is adapted to magnetically engage when the arm is in a first position placing the rotating magnet parallel to the stationary magnet; wherein the stationary magnet is configured to be coupled via a tab of the lift fan to elements of the lift fan that do not rotate, and the rotating magnet is configured to be coupled via the arm to rotatable elements of the lift fan; wherein the stationary elements of the lift fan comprise a stator or a shaft of the lift fan, and wherein rotatable elements of the lift fan comprise housings or magnet arrays of the lift fan; wherein the magnetic lock is adapted to magnetically engage when the arm is in the first position in response to an amount of gravity pulling down on the arm exceeds an amount of centrifugal force caused by spinning of the lift fan pushing the arm upwards and outwards toward a second position ; wherein the tab is configured to be adjacent to a detent of the lift fan and the arm comprises a stop portion, attached to an underside of the arm, wherein the stop portion is configured to engage with the detent.
Automatic glass-breaking device formed by a body comprising a needle activated by a pyrotechnic charge and a base plate having an outer surface coated with a means for adhering to a pane of glass, said base plate being extended to the opposite surface by a cylindrical frame defining a tubular cavity inside which is inserted the tubular end of a pyrotechnic component, the triggering of which is performed by an electrical initiator, said pyrotechnic component comprising a pyrotechnic charge in its rear portion and said needle in its front portion, said device consisting of a trigger button integrated into said device and a means of wired or wireless connection with a remote activation means - said body including an electronic module comprising a self-contained power source associated with a contact switch activatable from the outer surface of the body , for delivering an electrical pulse to the electrical initiator - characterized in that said electronic module is controlled by an electrical signal from a vehicle control controlling the deactivation of the trigger button in the presence of said electrical signal, the absence of an electrical signal enabling the triggering of the electrical initiator via a signal produced by action on said trigger button . - said body including an electronic module comprising a self-contained power source associated with a contact switch activatable from the outer surface of the body , for delivering an electrical pulse to the electrical initiator - characterized in that said electronic module is controlled by an electrical signal from a vehicle control controlling the deactivation of the trigger button in the presence of said electrical signal, the absence of an electrical signal enabling the triggering of the electrical initiator via a signal produced by action on said trigger button .
A method of wireless communication at a receiving device, comprising: receiving a first resource reservation from a first transmitting device; receiving a second resource reservation from a second transmitting device; identifying a collision between the first resources reserved by the first transmitting device and the second resources reserved by the second transmitting device based on the received first resource reservation and the received second resource reservation; and transmitting a collision indication to the first transmitting device or the second transmitting device based on the identified collision. receiving a first resource reservation from a first transmitting device; receiving a second resource reservation from a second transmitting device; identifying a collision between the first resources reserved by the first transmitting device and the second resources reserved by the second transmitting device based on the received first resource reservation and the received second resource reservation; and transmitting a collision indication to the first transmitting device or the second transmitting device based on the identified collision.
A mount assembly , comprising: a body configured with a bolt hole ; a bolt comprising a multi-point head and a shaft mated with the bolt hole ; a lock plate configured with a multi-point aperture and a slot , the multi-point aperture receiving the multi-point head , and the slot extending circumferentially about a centerline of the multi-point aperture within the lock plate ; and a fastener projecting through the slot and fixed to the body ; characterised in that the mount assembly further comprises: a turbine engine case comprising a boss ; and a mounting bracket between the boss and the body , wherein the bolt attaches the mounting bracket to the boss . a body configured with a bolt hole ; a bolt comprising a multi-point head and a shaft mated with the bolt hole ; a lock plate configured with a multi-point aperture and a slot , the multi-point aperture receiving the multi-point head , and the slot extending circumferentially about a centerline of the multi-point aperture within the lock plate ; and a fastener projecting through the slot and fixed to the body ; characterised in that the mount assembly further comprises: a turbine engine case comprising a boss ; and a mounting bracket between the boss and the body , wherein the bolt attaches the mounting bracket to the boss . a turbine engine case comprising a boss ; and a mounting bracket between the boss and the body , wherein the bolt attaches the mounting bracket to the boss .