mhurhangee/patent-ind-claim-en huggingface dataset:
Manual resuscitation bag comprising: - a deformable bag comprising a gas inlet and a gas outlet , - a first conduit element fluidly connected to the gas inlet of the deformable bag , and - a first PEP exhaust valve arranged in the first conduit element and fluidly communicating with the ambient atmosphere for venting gas to the atmosphere when the gas pressure, into the first conduit element , exceeds a given pressure threshold, said first PEP exhaust valve comprising a valve body and means (6, 12; 7-10) for setting a desired pressure threshold, characterized in that the means (6,12; 7-10) for setting the pressure threshold comprise: - a rotatable member , actuatable by a user, arranged on the valve body and cooperating with pressure adjusting means (7-10) arranged into the valve body , and - a support member comprising several markings corresponding to several settable pressure values, arranged between the rotatable member and the valve body , and wherein the rotatable member further comprises a reading window that can be positioned so as to face one of the markings , when the user actuates the rotatable member , thereby selecting a pressure threshold corresponding to one of the pressure values indicated by the markings that is readable through said reading window . - a deformable bag comprising a gas inlet and a gas outlet , - a first conduit element fluidly connected to the gas inlet of the deformable bag , and - a first PEP exhaust valve arranged in the first conduit element and fluidly communicating with the ambient atmosphere for venting gas to the atmosphere when the gas pressure, into the first conduit element , exceeds a given pressure threshold, said first PEP exhaust valve comprising a valve body and means (6, 12; 7-10) for setting a desired pressure threshold, - a rotatable member , actuatable by a user, arranged on the valve body and cooperating with pressure adjusting means (7-10) arranged into the valve body , and - a support member comprising several markings corresponding to several settable pressure values, arranged between the rotatable member and the valve body ,
An exhaust gas valve device for selective recirculating of the exhaust gases of an internal combustion engine, comprising an exhaust gas feed opening , a first and a second exhaust gas discharge opening , an exhaust gas valve formed as a butterfly flap, which with the aid of a drive means can be pivoted about a pivot axis between a first and a second flap position in such a manner that, in the first flap position, the exhaust gas feed opening is connected to the first exhaust gas discharge opening and, in the second flap position, the exhaust gas feed opening is connected to the second exhaust gas discharge opening , characterized in that the butterfly flap is of an elliptical design, the butterfly flap in the area of its two main apices S 1 , S 2 comprises a respective sealing edge along a part of its periphery, whereby the sealing edges have the largest width on the two main apices S 1 , S 2 and become continuously smaller starting from the two main apices S 1 , S 2 toward the two secondary apices S 3 , S 4 at the pivot axis of the butterfly flap, whereby in an area around the secondary apices S 3 , S 4 no sealing edge is formed at the butterfly flap and in a sealing zone which extends between the area without sealing edge and the area with the sealing edges the sealing edge incrementally grows without having a distal tip.
A tire comprising a laminated structure , said laminated structure is a single layer and said laminated structure is a dilatant layer , said dilatant layer comprising particles and a binder, wherein a dilatant is a non-newtonian fluid and is a mixture which acts as a fluid when applied with small shear stress and acts as a solid when applied with a large shear stress, wherein said particles are arranged so that density distribution of the particles falls toward an upper and a lower surface from a central part of the layer . said laminated structure is a single layer and said laminated structure is a dilatant layer , said dilatant layer comprising particles and a binder, wherein a dilatant is a non-newtonian fluid and is a mixture which acts as a fluid when applied with small shear stress and acts as a solid when applied with a large shear stress, wherein said particles are arranged so that density distribution of the particles falls toward an upper and a lower surface from a central part of the layer .
A multi-functional frame for an oven, comprising: cross beams , longitudinal beams , a caster , a pedal I (4-1), a pedal II (4-2), a diagonal bracing , a bolt , a connecting piece I (7-1), a connecting piece II (7-2), a hydraulic rod (8-1), a hydraulic cylinder (8-2), a lock rod , a connecting rod I , a connecting rod II , a bracket I (12-1), a bracket II (12-2), a platform , a handle I (14-1), a handle II (14-2), a handle III (14-3), a handle IV (14-4), a groove , a connecting column I (16-1), a connecting column II (16-2), a connecting column III (16-3), a connecting column IV (16-4), a protective cover , a connecting sleeve , reinforcing battens , a shelving bar and a functional groove , wherein the two cross beams and the two longitudinal beams are connected to each other end to end, to form a base frame; the caster , the pedal I (4-1) and the pedal II (4-2) are installed at the bottom of the base frame; two cross-linked diagonal bracings are installed at the upper ends of the left and right sides of the base frame and are hinged through the bolt ; the lock rod is arranged at the rear end of the base frame; one end of the connecting piece I (7-1) and the connecting piece II (7-2) is connected to the diagonal bracing respectively, and the other end thereof is fixed on the platform ; one end of the hydraulic rod (8-1) is connected to the connecting rod I , and the other end thereof is connected to one end of the hydraulic cylinder (8-2), and the other end of the hydraulic cylinder (8-2) is fixed on the base frame; two ends of the connecting rod II are respectively connected to the diagonal bracings at two sides above the base frame; the bracket I (12-1) and the bracket II (12-2) which are cross-linked are installed at the bottom of the platform , the handle I (14-1) and the handle II (14-2) are arranged on the left side wall of the platform , the handle III (14-3) and the handle IV(14-4) are arranged on the right side wall of the platform , the groove is formed at the central position of the platform , and the connecting column I (16-1), the connecting column II (16-2), the connecting column III (16-3) and the connecting column IV (16-4) are arranged on the surface of the platform ; the connecting sleeve is arranged at the bottom of the protective cover , and the protective cover is nested above the connecting column I (16-1), the connecting column II (16-2), the connecting column III (16-3) and the connecting column IV (16-4) on the platform through the connecting sleeve ; the shelving bar is paved on the top surface of the protective cover , and the functional groove is formed on the shelving bar ; and the upper ends of the four reinforcing battens are fixedly connected to the platform , and the lower ends thereof are fixedly connected to the base frame.
A tire comprising an inner surface layer that forms a tire inner surface and is formed of a thermoplastic resin or contains a thermoplastic resin, and a porous body that is partially embedded in the inner surface layer, characterized in that : a release agent (S) is interposed between the inner surface layer and the porous body. an inner surface layer that forms a tire inner surface and is formed of a thermoplastic resin or contains a thermoplastic resin, and a porous body that is partially embedded in the inner surface layer, characterized in that : a release agent (S) is interposed between the inner surface layer and the porous body.
A method executed by a controller of an evacuation station for an autonomous cleaning robot , characterized by : detecting a clog or other obstruction within flow pathways of the evacuation station; and autonomously removing a detected clog or other obstruction by operating an air mover of the evacuation station to remove the clog. detecting a clog or other obstruction within flow pathways of the evacuation station; and autonomously removing a detected clog or other obstruction by operating an air mover of the evacuation station to remove the clog.
A control circuit for controlling operation of a resonance MEMS mirror (100; 1901; 2001), the control circuit comprising: circuitry configured to generate a first set of activation pulses for operating the MEMS mirror and generate a window activation signal for detection of a current through a stator or a rotor of the resonance MEMS mirror, the window activation signal overlapping with an end of an activation pulse, wherein the first set of activation pulses includes a first primary pulse (404A; 508; 708) applied to a first portion of the MEMS mirror and a second primary pulse (404B; 510; 710) applied to a second portion of the MEMS mirror and wherein the first primary pulse commences when an angle of the MEMS mirror is at its greatest positive value and terminates at an angle of maximum capacitance for the first portion of the MEMS mirror, and wherein the second primary pulse commences when the angle of the MEMS mirror is at its greatest negative value and terminates at an angle of maximum capacitance for the second portion of the MEMS mirror; and a detection circuit configured to detect current at the MEMS mirror and to generate a reset signal in response to detecting a change in the direction of the current through the stator or the rotor of the MEMS mirror; wherein the circuitry is further configured to terminate an activation pulse and the window activation signal in response to receiving the reset signal from the detection circuit. circuitry configured to generate a first set of activation pulses for operating the MEMS mirror and generate a window activation signal for detection of a current through a stator or a rotor of the resonance MEMS mirror, the window activation signal overlapping with an end of an activation pulse, wherein the first set of activation pulses includes a first primary pulse (404A; 508; 708) applied to a first portion of the MEMS mirror and a second primary pulse (404B; 510; 710) applied to a second portion of the MEMS mirror and wherein the first primary pulse commences when an angle of the MEMS mirror is at its greatest positive value and terminates at an angle of maximum capacitance for the first portion of the MEMS mirror, and wherein the second primary pulse commences when the angle of the MEMS mirror is at its greatest negative value and terminates at an angle of maximum capacitance for the second portion of the MEMS mirror; and a detection circuit configured to detect current at the MEMS mirror and to generate a reset signal in response to detecting a change in the direction of the current through the stator or the rotor of the MEMS mirror; wherein the circuitry is further configured to terminate an activation pulse and the window activation signal in response to receiving the reset signal from the detection circuit.
A dental probe provided in a laser handpiece for guiding laser light transmitted through an optical fiber to a position to be irradiated during dental treatment, wherein a tip portion of the dental probe comprises a water flow path , an air flow path , a multi-lumen tube including a duct formed therein into which the optical fiber is to be inserted, and the optical fiber inserted into the duct, the multi-lumen tube being formed of a polymer compound having flexibility; characterized in that the optical fiber comprises a resin-coated layer provided on an outer circumference of a cladding , and a metal-coated layer provided on an outer circumference of the resin-coated layer and adapted to hold the shape of the optical fiber which is provided in bending while the optical fiber has deformability, and the resin-coated layer is formed of a polymer compound having a refractive index lower than that of the cladding .
A cooler body , in particular designed for cooling of an electronic element , comprising o a contact piece , comprising a contact surface for contact to the part to be cooled , o a base piece spaced apart from the contact piece by o a middle piece in between the contact piece and the base piece , whereby o the middle piece comprises separate holes forming multiple rows of parallelly arranged coolant pipes (5d, 5u, 5d1, 5u1, 5d2, 5u2-5dN), o each pipe extends substantially from the contact piece to the base piece and o at least two, in particular at least five, parallel coolant channels (C, C1-Cn) are formed by sequences of parallel pipes connected by an enclosing surface of the contact piece and an enclosing surface of the base piece in such a way that the at least two coolant channels (C, C1-Cn) each run multiple times from the contact piece to the base piece and vice versa. o a contact piece , comprising a contact surface for contact to the part to be cooled , o a base piece spaced apart from the contact piece by o a middle piece in between the contact piece and the base piece , o the middle piece comprises separate holes forming multiple rows of parallelly arranged coolant pipes (5d, 5u, 5d1, 5u1, 5d2, 5u2-5dN), o each pipe extends substantially from the contact piece to the base piece and o at least two, in particular at least five, parallel coolant channels (C, C1-Cn) are formed by sequences of parallel pipes connected by an enclosing surface of the contact piece and an enclosing surface of the base piece in such a way that the at least two coolant channels (C, C1-Cn) each run multiple times from the contact piece to the base piece and vice versa.
A method for producing a semi-IPN composite, the method comprising polymerizing a hydrophilic monofunctional acrylate (b1) and a polyfunctional acrylate (b2) in a solution of a polyurethane (A) prepared using an aliphatic polyisocyanate and/or an alicyclic polyisocyanate as a raw material, characterized in that the hydrophilic monofunctional acrylate (b1) comprises an amido group-containing acrylic monomer (b1-1) and an oxyethylene group-containing acrylic monomer (b1-2).
Unmanned aerial vehicle system comprising: - a rotary wing unmanned aerial vehicle comprising a body provided with at least one video camera mounted thereupon, said video camera having an optical axis pivotable around at least one pivot axis at a pivot angle with respect to said body , the rotary wing unmanned aerial vehicle being adapted to transmit images produced by said video camera ; - a control device adapted to communicate bidirectionally with the rotary wing unmanned aerial vehicle , the control device comprising a display unit for displaying images produced by said video camera and a manual control interface for inputting commands from an operator for controlling the movement of the rotary wing unmanned aerial vehicle and to instruct the rotary wing unmanned aerial vehicle to move and said optical axis to pivot based on said commands input by the operator ; wherein the unmanned aerial vehicle system is configured such that said movement instructions are adapted to control movement of the rotary wing unmanned aerial vehicle in a direction dependent on said optical axis irrespective of said pivot angle between said optical axis and said body , and such that the unmanned aerial vehicle system can be flown on the optical axis with a single command from an operator to said control device , characterised by said pivot command from the operator being directly related to the optical axis of the video camera, and then movement instructions for the unmanned aerial vehicle being calculated and transmitted based on the direction of the optical axis. - a rotary wing unmanned aerial vehicle comprising a body provided with at least one video camera mounted thereupon, said video camera having an optical axis pivotable around at least one pivot axis at a pivot angle with respect to said body , the rotary wing unmanned aerial vehicle being adapted to transmit images produced by said video camera ; - a control device adapted to communicate bidirectionally with the rotary wing unmanned aerial vehicle , the control device comprising a display unit for displaying images produced by said video camera and a manual control interface for inputting commands from an operator for controlling the movement of the rotary wing unmanned aerial vehicle and to instruct the rotary wing unmanned aerial vehicle to move and said optical axis to pivot based on said commands input by the operator ;
Gearbox with a ring gear with a ring gear axle , at least one cycloidal disc rolling therein with at least one eccentric opening, a rotary body rotatably mounted on one side of the ring gear and one or more off-centre eccentric shafts rotatably arranged together around the ring gear axle and rotatably mounted with respect to the rotary body with a number of eccentric sections corresponding to the number of cycloidal discs , with which the off-centre eccentric shafts are each rotatably mounted in an eccentric opening of the at least one cycloidal disc , characterised in that in that projections extending parallel to the hollow wheel axis are arranged on the rotary body , around which off-centre eccentric shafts are arranged rotatably with their eccentric sections .
An additive manufacturing system, comprising: an extruder having an opening dimensioned to receive a material ; an extruder output in fluid communication with the extruder , wherein the extruder output extends away from the extruder along a longitudinal axis; one or more heaters positioned along at least a portion of the extruder output, wherein as the material passes through the extruder output, the one or more heaters at least partially melt the material; a gear pump in fluid communication with the extruder output for receiving the at least partially melted material; a nozzle in fluid communication with the gear pump for depositing the at least partially melted material; a controller; characterized by a thermographic camera, configured to measure the temperature of the at least partially melted material as it is deposited from the nozzle ; and by a manually-controllable actuator connected to the controller and configured to cause the controller to increase or decrease a speed at which the at least partially melted material is deposited by the nozzle so as to increase or decrease a cooling time of layers of a part deposited by the additive manufacturing system, wherein the system is further configured to generate an indicator of whether the speed at which the at least partially melted material is deposited should be changed based on the temperature. an extruder having an opening dimensioned to receive a material ; an extruder output in fluid communication with the extruder , wherein the extruder output extends away from the extruder along a longitudinal axis; one or more heaters positioned along at least a portion of the extruder output, wherein as the material passes through the extruder output, the one or more heaters at least partially melt the material; a gear pump in fluid communication with the extruder output for receiving the at least partially melted material; a nozzle in fluid communication with the gear pump for depositing the at least partially melted material; a controller; characterized by a thermographic camera, configured to measure the temperature of the at least partially melted material as it is deposited from the nozzle ; and by a manually-controllable actuator connected to the controller and configured to cause the controller to increase or decrease a speed at which the at least partially melted material is deposited by the nozzle so as to increase or decrease a cooling time of layers of a part deposited by the additive manufacturing system, wherein the system is further configured to generate an indicator of whether the speed at which the at least partially melted material is deposited should be changed based on the temperature.
A headlight assembly for a two-wheeler comprising a left region and a right region, the headlight assembly being configured to reduce an intensity of a light beam when an oncoming automobile is detected, the headlight assembly comprising: at least two high beam light sources wherein at least one high beam light source is positioned in the left region and at least one high beam light source is positioned in the right region; at least two light detectors configured to detect the oncoming automobile and generate a signal, wherein at least one light detector is placed in the left region and at least one light detector is placed in the right region; a control module configured to receive the signal from at least one light detector and reduce the intensity of the light beam by changing beam spread, wherein to change the beam spread, the control module is configured to selectively switch off at least one high beam light source corresponding to the at least one light detector from which the signal is received. at least two high beam light sources wherein at least one high beam light source is positioned in the left region and at least one high beam light source is positioned in the right region; at least two light detectors configured to detect the oncoming automobile and generate a signal, wherein at least one light detector is placed in the left region and at least one light detector is placed in the right region; a control module configured to receive the signal from at least one light detector and reduce the intensity of the light beam by changing beam spread, wherein to change the beam spread, the control module is configured to selectively switch off at least one high beam light source corresponding to the at least one light detector from which the signal is received.
Device for the thermal treatment, sintering or melting of inorganic raw materials or for the production, sintering or thermal post-treatment of ceramics, refractory ceramics, technical ceramics, building ceramics, glass, cement, metals, composite materials or carbonaceous or carbon-bonded products, comprising a) a surface with lining , b) an electric heating element adapted to heat the lined surface to a first low temperature in the range of 600°C to < 1200°C, and c) a microwave plasma torch , designed to be switched on from the first low temperature and to heat the surface with lining to a second, high temperature in the range from 1200°C to 2000°C, where the b) electrical heating element comprises a heating element material composite, wherein the heating element material composite comprises: b1) a ceramic outer shell, and b2) an electrically conductive inner core, based on a ceramic, a metal, carbon or an intermetallic phase or a MAX phase or mixtures thereof. a) a surface with lining , b) an electric heating element adapted to heat the lined surface to a first low temperature in the range of 600°C to < 1200°C, and c) a microwave plasma torch , designed to be switched on from the first low temperature and to heat the surface with lining to a second, high temperature in the range from 1200°C to 2000°C, b) electrical heating element comprises a heating element material composite, wherein the heating element material composite comprises: b1) a ceramic outer shell, and b2) an electrically conductive inner core, based on a ceramic, a metal, carbon or an intermetallic phase or a MAX phase or mixtures thereof. b1) a ceramic outer shell, and b2) an electrically conductive inner core, based on a ceramic, a metal, carbon or an intermetallic phase or a MAX phase or mixtures thereof.