mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus configured to receive wireless charging power and wired charging power, comprising: a battery ; a wireless connection configured to receive wireless charging power, and to charge the battery along a wireless charging path, wherein the wireless charging path comprises a coil configured to receive the wireless charging power; a wired connection configured to receive wired charging power, and to charge the battery along a wired charging path, wherein the wired charging path and the wireless charging path overlap in a combined charging path comprising: a rectifier configured to receive wired charging power through the wired connection, to receive the wireless charging power from the coil and to provide a rectified output; and characterized by a power-factor correction, PFC, module configured to receive the rectified output, and further configured to provide a power-factor corrected output; and an isolated DC-DC converter configured to receive the power factor corrected output, and to provide an isolated DC output to the battery. a battery ; a wireless connection configured to receive wireless charging power, and to charge the battery along a wireless charging path, wherein the wireless charging path comprises a coil configured to receive the wireless charging power; a wired connection configured to receive wired charging power, and to charge the battery along a wired charging path, wherein the wired charging path and the wireless charging path overlap in a combined charging path comprising: a rectifier configured to receive wired charging power through the wired connection, to receive the wireless charging power from the coil and to provide a rectified output; and characterized by a power-factor correction, PFC, module configured to receive the rectified output, and further configured to provide a power-factor corrected output; and an isolated DC-DC converter configured to receive the power factor corrected output, and to provide an isolated DC output to the battery. a rectifier configured to receive wired charging power through the wired connection, to receive the wireless charging power from the coil and to provide a rectified output; and characterized by a power-factor correction, PFC, module configured to receive the rectified output, and further configured to provide a power-factor corrected output; and an isolated DC-DC converter configured to receive the power factor corrected output, and to provide an isolated DC output to the battery.
A spinal drainage kit container comprising: a container body provided with a recessed portion in which a spinal drainage kit that includes a catheter , a puncture needle for introducing the catheter into a living body, and a connector that is connected to the catheter is disposed; a lid ; and a hinge connecting the container body and the lid , the container body including a peripheral portion provided at a periphery of the recessed portion , and a first grip portion that is connected to the peripheral portion and is gripped when the lid is to be opened; the first grip portion being provided at a first corner of the container body , which is opposite to the hinge ; the first grip portion having a first protruding portion protruding in a first direction; the lid including a contact portion that comes into contact with the peripheral portion in a state where the lid is closed, and a second grip portion that is connected to the contact portion and is gripped when the lid is to be opened; the second grip portion being provided at a second corner of the lid , which overlaps with the first corner in plan view in the state where the lid is closed; and the second grip portion having a second protruding portion that protrudes in a second direction and does not overlap with the container body in plan view in the state where the lid is closed, the second direction being orthogonal to the first direction. a container body provided with a recessed portion in which a spinal drainage kit that includes a catheter , a puncture needle for introducing the catheter into a living body, and a connector that is connected to the catheter is disposed; a lid ; and a hinge connecting the container body and the lid , the container body including a peripheral portion provided at a periphery of the recessed portion , and a first grip portion that is connected to the peripheral portion and is gripped when the lid is to be opened; the first grip portion being provided at a first corner of the container body , which is opposite to the hinge ; the first grip portion having a first protruding portion protruding in a first direction; the lid including a contact portion that comes into contact with the peripheral portion in a state where the lid is closed, and a second grip portion that is connected to the contact portion and is gripped when the lid is to be opened; the second grip portion being provided at a second corner of the lid , which overlaps with the first corner in plan view in the state where the lid is closed; and the second grip portion having a second protruding portion that protrudes in a second direction and does not overlap with the container body in plan view in the state where the lid is closed, the second direction being orthogonal to the first direction.
Depressurization and cooling system for steam and/or condensable gases located in the atmosphere within a containment , comprising • a steam condenser having ∘ an upstream port connected to the containment through an exhaust line ∘ a downstream port connected to the containment through a backfeed line ∘ said a backfeed line comprising a backfeed compressor • a re-cooling system for re-cooling the steam condenser , said re-cooling system comprises a closed-loop working fluid thermodynamic cycle system, wherein said steam condenser is a heat source, wherein said re-cooling system comprises along the working fluid circulation closed-loop: • a first heat exchanger thermally coupled to the steam condenser • an expansion engine fluidly connected to said first heat exchanger • a second heat exchanger fluidly connected to said expansion engine • a compressor pump fluidly connected downstream from the second heat exchanger and upstream from the first heat exchanger , characterized in that said expansion engine powers said compressor pump , and a superheater is connected downstream from the first heat exchanger and upstream from the expansion engine , wherein the superheater is thermally coupled to the exhaust line such that it is heated by the exhaust stream. • a steam condenser having ∘ an upstream port connected to the containment through an exhaust line ∘ a downstream port connected to the containment through a backfeed line ∘ said a backfeed line comprising a backfeed compressor ∘ an upstream port connected to the containment through an exhaust line ∘ a downstream port connected to the containment through a backfeed line ∘ said a backfeed line comprising a backfeed compressor • a re-cooling system for re-cooling the steam condenser , said re-cooling system comprises a closed-loop working fluid thermodynamic cycle system, wherein said steam condenser is a heat source, wherein said re-cooling system comprises along the working fluid circulation closed-loop: • a first heat exchanger thermally coupled to the steam condenser • an expansion engine fluidly connected to said first heat exchanger • a second heat exchanger fluidly connected to said expansion engine • a compressor pump fluidly connected downstream from the second heat exchanger and upstream from the first heat exchanger , • a first heat exchanger thermally coupled to the steam condenser • an expansion engine fluidly connected to said first heat exchanger • a second heat exchanger fluidly connected to said expansion engine • a compressor pump fluidly connected downstream from the second heat exchanger and upstream from the first heat exchanger ,
A wire feeding system comprising: a first feeder provided with a first feeding motor that feeds a wire in a wire feeding direction; a second feeder spaced apart from the first feeder in the wire feeding direction and provided with a second feeding motor that feeds the wire in the wire feeding direction; and characterized in that a controller controls a rotation speed of the first feeding motor based on a first speed command and controls a rotation speed of the second feeding motor based on a second speed command, wherein the controller changes the second speed command at once when an amount of change of the second speed command is within a predetermined range, while the controller gradually changes the second speed command over time when the amount of change of the second speed command is not within the predetermined range, wherein the controller changes the first speed command in conjunction with the second speed command when the controller gradually changes the second speed command over time, wherein the first feeder includes a first feeding roll that is rotated by the first feeding motor to feed the wire, and the second feeder includes a second feeding roll that is rotated by the second feeding motor to feed the wire, and wherein the controller, when gradually changing the second speed command over time, changes the first speed command and the second speed command so that a surface speed of the second feeding roll becomes faster than a surface speed of the first feeding roll. a first feeder provided with a first feeding motor that feeds a wire in a wire feeding direction; a second feeder spaced apart from the first feeder in the wire feeding direction and provided with a second feeding motor that feeds the wire in the wire feeding direction; and characterized in that a controller controls a rotation speed of the first feeding motor based on a first speed command and controls a rotation speed of the second feeding motor based on a second speed command, wherein the controller changes the second speed command at once when an amount of change of the second speed command is within a predetermined range, while the controller gradually changes the second speed command over time when the amount of change of the second speed command is not within the predetermined range, wherein the controller changes the first speed command in conjunction with the second speed command when the controller gradually changes the second speed command over time, wherein the first feeder includes a first feeding roll that is rotated by the first feeding motor to feed the wire, and the second feeder includes a second feeding roll that is rotated by the second feeding motor to feed the wire, and wherein the controller, when gradually changing the second speed command over time, changes the first speed command and the second speed command so that a surface speed of the second feeding roll becomes faster than a surface speed of the first feeding roll.
A hearing device comprising - a housing with a frame ; - a battery door attached to the housing and configured to pivot in relation to the housing about a pivot axis , the battery door having a side wall with a first wall surface at least partly defining a battery compartment with a battery axis , the first wall surface comprising contact points for supporting a battery, the contact points having equal distances to the battery axis ; and - a closure mechanism comprising a protruding member with a distal end , and an engagement member having a first arm with a first distal end , and wherein the protruding member is configured to engage with the engagement member when the battery door is in a closed position; wherein the protruding member comprises a first primary recess , wherein the first primary recess is configured to engage with the engagement member when the battery door is in the closed position; wherein the first primary recess is configured to support the first arm along a first primary section of the first primary recess when the battery door is in the closed position, wherein the frame comprises a compartment for receiving the engagement member and connecting the engagement member to the frame , characterised by the engagement member being movable within the compartment such that the engagement member aligns itself to the protruding member, when the battery door is in a closed position, semi-closed position, and/or a position in between the open position and the closed position. - a housing with a frame ; - a battery door attached to the housing and configured to pivot in relation to the housing about a pivot axis , the battery door having a side wall with a first wall surface at least partly defining a battery compartment with a battery axis , the first wall surface comprising contact points for supporting a battery, the contact points having equal distances to the battery axis ; and - a closure mechanism comprising a protruding member with a distal end , and an engagement member having a first arm with a first distal end , and wherein the protruding member is configured to engage with the engagement member when the battery door is in a closed position; wherein the first primary recess is configured to support the first arm along a first primary section of the first primary recess when the battery door is in the closed position, wherein the frame comprises a compartment for receiving the engagement member and connecting the engagement member to the frame , characterised by the engagement member being movable within the compartment such that the engagement member aligns itself to the protruding member, when the battery door is in a closed position, semi-closed position, and/or a position in between the open position and the closed position.
A mastopexy implant, wherein the implant is for anchoring a lifted breast of a patient to supportive tissue, the implant comprising: a flexible, biodegradable lower pole support comprising a body region and a plurality of upper straps and a plurality of lower straps extending from the body region that anchors the lifted breast to the support tissue; wherein the flexible lower pole support is formed from a biodegradable polymer selected from the group consisting of silk-based polymers, polylactic acid, polyglycolic acid and copolymers and mixtures thereof; poly(L-lactide) (PLLA), poly(D,L-lactide) (PLA), polyglycolic acid, polyglycolide (PGA), poly(L-lactide-co-D,L-lactide), poly(L-lactide-co-glycolide), poly(D,L-lactide-co-glycolide), poly(glycolide-co-trimethylene carbonate), poly(D,L-lactide-co-caprolactone) and poly(glycolide-co-caprolactone); polyhydroxyalkanoates, polydioxanone (PDS), polycaprolactone (PCL), polycaprolactone-co-butylacrylate, polyhydroxybutyrate and copolymers of polyhydroxybutyrate, polyiminocarbonates, poly[(97.5% dimethyl-trimethylene carbonate)-co-(2.5% trimethylene carbonate)], tyrosine-derived polyarylates, tyrosine-derived polycarbonates, and mixtures and copolymers thereof. a flexible, biodegradable lower pole support comprising a body region and a plurality of upper straps and a plurality of lower straps extending from the body region that anchors the lifted breast to the support tissue; wherein the flexible lower pole support is formed from a biodegradable polymer selected from the group consisting of silk-based polymers, polylactic acid, polyglycolic acid and copolymers and mixtures thereof; poly(L-lactide) (PLLA), poly(D,L-lactide) (PLA), polyglycolic acid, polyglycolide (PGA), poly(L-lactide-co-D,L-lactide), poly(L-lactide-co-glycolide), poly(D,L-lactide-co-glycolide), poly(glycolide-co-trimethylene carbonate), poly(D,L-lactide-co-caprolactone) and poly(glycolide-co-caprolactone); polyhydroxyalkanoates, polydioxanone (PDS), polycaprolactone (PCL), polycaprolactone-co-butylacrylate, polyhydroxybutyrate and copolymers of polyhydroxybutyrate, polyiminocarbonates, poly[(97.5% dimethyl-trimethylene carbonate)-co-(2.5% trimethylene carbonate)], tyrosine-derived polyarylates, tyrosine-derived polycarbonates, and mixtures and copolymers thereof.
Bottle assembly comprising a bottle for a liquid, and further comprising a pourer allocated in the bottle neck of the bottle , the pourer comprising a cylindrical cap having a first surface , a second surface and a rounded cylindrical outside wall between the first and second surfaces , the pourer further comprising a body with at least a first lateral wall at least partially rounded and one or more longitudinal channels which extends into the second surface of the cylindrical cap wherein the cylindrical outside wall of the cap presents at least an opening at one end of at least one of the one or more longitudinal channel and wherein the maximum diameter of the body is smaller than the diameter of the cap , wherein a longitudinal channel of the one or more longitudinal channels defines a passage configured for allowing air to enter into the bottle to enhance the regularity with which fluid comes out of the opening , said bottle assembly being characterized in that the bottle neck comprises a thread located at the outside of said bottle neck and the bottle assembly comprises a bottle sealing cap for threading onto the thread to seal the bottle .
Unit for pumping flammable products, which can form an explosive atmosphere, from a pumping region to a storage chamber , characterised in that it comprises: - a separator for separating said products into a liquid/pasty phase and a gaseous phase, comprising a cyclonic vessel , a product inlet mouth , a delivery outlet for non-gaseous products, and a suction opening , said separator being suitable for being arranged in said pumping region , - a volumetric pump for delivering non-gaseous products to said storage chamber , said pump being connected to said product delivery outlet of said product separator , - means for evacuating said cyclonic vessel of said product separator , which means are suitable for ensuring suction of the products from said pumping region to said separator without evacuating said storage chamber , - a circuit for discharging gases produced by said unit to at least one marked discharge region . - a separator for separating said products into a liquid/pasty phase and a gaseous phase, comprising a cyclonic vessel , a product inlet mouth , a delivery outlet for non-gaseous products, and a suction opening , said separator being suitable for being arranged in said pumping region , - a volumetric pump for delivering non-gaseous products to said storage chamber , said pump being connected to said product delivery outlet of said product separator , - means for evacuating said cyclonic vessel of said product separator , which means are suitable for ensuring suction of the products from said pumping region to said separator without evacuating said storage chamber , - a circuit for discharging gases produced by said unit to at least one marked discharge region .
A push-button comprising a first switch contact and a second switch contact which are arranged spaced apart and parallel to each other, wherein the first switch contact is designed for approaching the second switch contact until it touches the latter and for establishing an electrical line connection to the second switch contact when force is applied, wherein the push-button comprises a third switch contact which is arranged spaced apart from the second switch contact and in parallel on a side opposite to the first switch contact , characterized in that the third switch contact is designed for approaching the second switch contact until it touches the latter and for establishing an electrical line connection to the second switch contact when force is applied, and the push-button comprises an evaluation unit which is designed for additionally operating the first and/or the third switch contact(s) as a capacitive or inductive touch sensor.
A system comprising: a first device having at least one processor and a secure storage and having a first trusted execution environment (TEE); and an on-boarding system coupled to the first device within a first network , the on-boarding system including a second TEE, the on-boarding system configured to: receive a request to transfer ownership of the first device to a new owner, receive notification information from a spectrum analyzer regarding unknown wireless signal information regarding at least one of unknown wireless signal activity and attacker-based wireless signal activity within the first network, and perform a native communication protocol between the on-boarding system and the first device to communicate ownership information to execute the ownership transfer to the new owner, to cause the first device to store the ownership information in a storage of the first device and to cause the first device to autonomously self-assert that it is in an owned state; wherein the first device is configured to autonomously self-assert that it is in an owned state based at least in part on verifying that the native communication protocol was correctly performed; wherein the on-boarding system is configured to determine if a potential attacker is within a radio range of the first network based on the unknown wireless signal information, and responsive to the determination that the potential attacker is within the radio range, manipulate a signal strength of the on-boarding system and the first device, to limit an emission range of the on-boarding system and the first device. a first device having at least one processor and a secure storage and having a first trusted execution environment (TEE); and an on-boarding system coupled to the first device within a first network , the on-boarding system including a second TEE, the on-boarding system configured to: receive a request to transfer ownership of the first device to a new owner, receive notification information from a spectrum analyzer regarding unknown wireless signal information regarding at least one of unknown wireless signal activity and attacker-based wireless signal activity within the first network, and perform a native communication protocol between the on-boarding system and the first device to communicate ownership information to execute the ownership transfer to the new owner, to cause the first device to store the ownership information in a storage of the first device and to cause the first device to autonomously self-assert that it is in an owned state; wherein the first device is configured to autonomously self-assert that it is in an owned state based at least in part on verifying that the native communication protocol was correctly performed; wherein the on-boarding system is configured to determine if a potential attacker is within a radio range of the first network based on the unknown wireless signal information, and responsive to the determination that the potential attacker is within the radio range, manipulate a signal strength of the on-boarding system and the first device, to limit an emission range of the on-boarding system and the first device.