mhurhangee/patent-ind-claim-en huggingface dataset:
Double-acting hydraulic actuating cylinder , particularly for hydraulic steering devices of outboard marine engines, which outboard engines comprise an end for the fastening to the transom of a watercraft on which said engine is mounted so as to rotate about a substantially vertical steering axis, which cylinder is slidably mounted on at least one rod coaxial to said cylinder , which rod sealingly protrudes from at least one head of the actuating cylinder and carries a separating piston that divides the cylinder into two variable-volume chambers, each one of such two chambers has at least one inlet/outlet for the hydraulic control fluid and a sealing head for the relative sliding between the cylinder and the rod , which sealing head is integral with the cylinder itself, said rod being provided to be connected to a fastening bracket to fasten said cylinder to said engine , in a not slidable manner and in such a way as to allow the relative rotation of said engine with respect to the transom along an axis parallel to the axis of the rod , said fastening bracket is constituted by a rod positioned with its longitudinal axis parallel to the longitudinal axis of the stem is connected to the same by means of two arms in the form of L, the rod having at least one flattened surface to be grasped by a tool having at least one corresponding flat engagement surface engaging said flattened surface , wherein the flattened surface is obtained in proximity of at least one, preferably both, the opposite ends of the rod , and wherein the flattened surface is provided at a certain distance from the end of the rod such that, when the bracket is mounted on the rod , the flattened surface is placed into the thickness of the end element of the bracket .
Method for producing hoselines and pipelines with RFID chips , characterized in that a linear structure composed of an electrically conductive material is applied to the outer surface of a hoseline or pipeline blank and RFID chips are mounted on this linear structure at predetermined distances, wherein the RFID chips come into electrically conductive connection with the linear structure , and the applied linear structure and the mounted RFID chips are fixed on the hoseline or pipeline blank and are completed together with the hoseline or pipeline blank and then the completed hoseline or pipeline is split into sections of predetermined length.
A method comprising: receiving , by a computer system, configuration data that defines partitions of address space in a byte-rewritable and byte-erasable non-volatile random access memory, NVRAM, wherein the partitions include a first partition implementing at least a portion of a system memory and a second partition implementing at least a portion of a mass storage; programming a decode table within a processor that is coupled to the NVRAM according to the configuration data; propagating the configuration data to an operating system, OS, of the computer system during boot time by creating an affinity table accessible by the OS; decoding an address in a data access request based on the decode table; and generating an attribute that indicates one of the partitions to be accessed; characterised in that the affinity table stores a logical distance for different portions of the system memory that are implemented with different technologies, wherein the logical distance is a logical distance for a range of memory addresses and represents an access time or distance of a local memory used by the OS for its thread scheduling and resource allocation operations, and wherein the affinity table allows the OS to differentiate between the different portions of the system memory and to appropriate OS page migration policy accordingly. receiving , by a computer system, configuration data that defines partitions of address space in a byte-rewritable and byte-erasable non-volatile random access memory, NVRAM, wherein the partitions include a first partition implementing at least a portion of a system memory and a second partition implementing at least a portion of a mass storage; programming a decode table within a processor that is coupled to the NVRAM according to the configuration data; propagating the configuration data to an operating system, OS, of the computer system during boot time by creating an affinity table accessible by the OS; decoding an address in a data access request based on the decode table; and generating an attribute that indicates one of the partitions to be accessed; characterised in that the affinity table stores a logical distance for different portions of the system memory that are implemented with different technologies, wherein the logical distance is a logical distance for a range of memory addresses and represents an access time or distance of a local memory used by the OS for its thread scheduling and resource allocation operations, and wherein the affinity table allows the OS to differentiate between the different portions of the system memory and to appropriate OS page migration policy accordingly.
Device (D) for reversibly anchoring cladding panels to associated support structures , wherein the device comprises a tubular body into which a braked piston is axially inserted, the tubular body having a rear side configured such as to be enageable with a support structure by means of an elastic surface formed on said rear side , and an opposing front side from which emerges an end of the piston , the piston having an anchoring surface which is configured in such a way that it can be anchored to a cladding panel , wherein said piston is braked by means of plungers (3, 30; 13) arranged on and acting at the side of the tubular body from where the piston emerges, wherein said plungers are arranged in symmetrical positions in relation to the piston , and wherein the plungers are adjustable plungers.
A composition of matter, comprising: a porous cross-linked polymer network; quaternary ammonium ions in the cross-linked polymer network; and at least one counter ion in the cross-linked polymer network that is at least one of hydroxide or a counter ion capable of forming hydroxide upon reaction with water wherein the composition of matter has an average pore diameter between 2 and 50 nm, measured in accordance with Barrett Joyner Halenda (BJH) theory as set out in ISO 15901-2:2022. a porous cross-linked polymer network; quaternary ammonium ions in the cross-linked polymer network; and at least one counter ion in the cross-linked polymer network that is at least one of hydroxide or a counter ion capable of forming hydroxide upon reaction with water wherein the composition of matter has an average pore diameter between 2 and 50 nm, measured in accordance with Barrett Joyner Halenda (BJH) theory as set out in ISO 15901-2:2022.
- Device for manoeuvring a closing panel of a smoke extraction flap or a fire shutter , the closing panel being a panel pivoting about an operating shaft controlled by a pinion and rack device, the said rack being operated by a carriage , pushed in an arming direction towards a position known as the armed position (AR) by the front end of a rod which is movable under the action of a motor and pushed in a release direction towards a position known as the released position (DE) by a spring which has been previously tensioned by the thrust of the rod on the carriage, characterised in that the carriage comprises a disengageable stop mechanism equipped with a latch , provided with a shoulder for supporting the motorised rod and shaped so as to be able to pivot about an axis between an engagement position (A) in which the rod pushes on the said shoulder in the direction of arming and a disengagement position (B) in which the latch is retracted by pivoting and allows the rod to pass, and provided with a locking arm , movable between a position of locking the latch in the engagement position (A) and a position of release of the latch.
Pump unit able to be carried by an operating person for pressurized filling with a fluid, preferably compressed air, of inflatable filling chambers, in particular of lifting bags , blocking bags, tents or the like, comprising a fluid pump , an electric motor for driving the fluid pump , an accumulator , a control unit for controlling the operation of the fluid pump, a connector for connecting a fluid tube leading to the filling chamber, and a control valve in the form of a multi-way valve that is positioned on the pump unit , characterized in that the control valve is manually actuatable, the control valve is connected to the control unit via a signal line , and the electric motor is controllable by actuation of the control valve .
Device, in particular vehicle, intended to be moved by muscle power, comprising an electric machine which influences the movement of the device in addition to the muscle force (F B ) and which produces an additional force (F M ), at least one sensor for measuring the muscle force (F B ) acting on the device, and apparatuses (6-11) for controlling the generation of the additional force (F M ) by the electric machine on the basis of the measurement signal of the sensor , wherein the apparatuses (6-11) for controlling the generation of the additional force (F M ) comprise load means for converting electrical energy generated by the electric machine operating as a generator to another form of energy, and a battery which stores electrical energy generated by the electric machine is provided, characterized in that the control apparatuses (6-11) are also provided to automatically control the distribution of electrical energy generated by the electric machine operating as a generator over the load means and the battery and in that the control apparatuses (6-11) are provided to automatically control the distribution depending on the magnitude of the additional force (F M ) or/and the state of charge of the battery .
Method for testing the correct functioning of an electromechanical fill-level monitoring device in a first pressure medium chamber (150; 214) of a pressure medium circuit (120; 122; 210) that is pressure-controllable by means of an electronic control unit (142; 230), in particular a brake circuit of an electronically slip-controllable vehicle brake system , wherein the pressure medium circuit (120; 122; 210) comprises at least one second pressure medium chamber (146, 148; 216), which is separate from the first pressure medium chamber (150; 214), a pressure medium connection that exists between the pressure medium chambers (146, 148, 150; 214, 216) and an electronically actuable pressure medium conveying device (114; 234) arranged in the pressure medium connection between the pressure medium chambers (146, 148, 150; 214, 216), characterized in that actuation of the pressure medium conveying device (114; 234) over a definable period of time results in the pressure medium contained in the first pressure medium chamber (150; 214) being conveyed to the second pressure medium chamber (146, 148; 216), in that the signal characteristic of the fill-level monitoring device is detected and evaluated by the electronic control unit (142; 230) within the defined period of time, and in that the electronic control unit (142; 230) delivers a warning signal if no sudden signal change or no continuous signal change is identifiable in the signal characteristic within the period of time. wherein the pressure medium circuit (120; 122; 210) comprises at least one second pressure medium chamber (146, 148; 216), which is separate from the first pressure medium chamber (150; 214), a pressure medium connection that exists between the pressure medium chambers (146, 148, 150; 214, 216) and an electronically actuable pressure medium conveying device (114; 234) arranged in the pressure medium connection between the pressure medium chambers (146, 148, 150; 214, 216), characterized in that actuation of the pressure medium conveying device (114; 234) over a definable period of time results in the pressure medium contained in the first pressure medium chamber (150; 214) being conveyed to the second pressure medium chamber (146, 148; 216), in that the signal characteristic of the fill-level monitoring device is detected and evaluated by the electronic control unit (142; 230) within the defined period of time, and in that the electronic control unit (142; 230) delivers a warning signal if no sudden signal change or no continuous signal change is identifiable in the signal characteristic within the period of time.
A three-dimensional, engineered ocular tissue for use in implantation into an eye of a human subject comprising: a three-dimensional, engineered outer blood retinal barrier comprising a first layer comprising a choroid, the choroid comprising a first bio-ink, wherein the first bio-ink comprises 5 to 30 million endothelial cells per milliliter, 10 to 50 million fibroblasts per milliliter, and 0.5 to 3 million pericytes per milliliter ; and a second layer comprising a plurality of retinal pigment epithelial cells, the first layer and the second layer forming the three-dimensional, engineered outer blood retinal barrier; and a biocompatible scaffold, wherein the biocompatible scaffold is between the first layer and the second layer, wherein the scaffold is 2 μm to 45 μm thick. a three-dimensional, engineered outer blood retinal barrier comprising a first layer comprising a choroid, the choroid comprising a first bio-ink, wherein the first bio-ink comprises 5 to 30 million endothelial cells per milliliter, 10 to 50 million fibroblasts per milliliter, and 0.5 to 3 million pericytes per milliliter ; and a second layer comprising a plurality of retinal pigment epithelial cells, the first layer and the second layer forming the three-dimensional, engineered outer blood retinal barrier; and a biocompatible scaffold, wherein the biocompatible scaffold is between the first layer and the second layer, wherein the scaffold is 2 μm to 45 μm thick.
A device for at least partly liquefying a tissue of a living subject, comprising: a reservoir configured to operatively couple an energy source to the tissue of the living subject; a liquefaction promoting medium comprised by the reservoir, the liquefaction promoting medium comprising a non-ionic surfactant and a zwitterionic surfactant; and an abrasive material, the reservoir being configured to apply energy, the abrasive material, and the liquefaction promoting medium to the tissue of the living subject effective to at least partly liquefy the tissue of the living subject. a reservoir configured to operatively couple an energy source to the tissue of the living subject; a liquefaction promoting medium comprised by the reservoir, the liquefaction promoting medium comprising a non-ionic surfactant and a zwitterionic surfactant; and an abrasive material, the reservoir being configured to apply energy, the abrasive material, and the liquefaction promoting medium to the tissue of the living subject effective to at least partly liquefy the tissue of the living subject.
Pressure container system for a motor vehicle, comprising: - at least one pressure container for storing fuel, wherein the pressure container system has an isolating valve which is designed to interrupt, in the deenergized state, the fluid connection between the pressure container and at least one combustion gas consumer ; and - at least one safety switch , wherein the safety switch is designed to interrupt the supply of power to the isolating valve , wherein the safety switch is not an ignition switch of a motor vehicle. - at least one pressure container for storing fuel, wherein the pressure container system has an isolating valve which is designed to interrupt, in the deenergized state, the fluid connection between the pressure container and at least one combustion gas consumer ; and - at least one safety switch , wherein the safety switch is designed to interrupt the supply of power to the isolating valve , wherein the safety switch is not an ignition switch of a motor vehicle.
A light-emitting unit comprising: a first insulator having light transmissive property; a second insulator arranged opposite to the first insulator ; a plurality of conductor patterns(23a-23i) formed on a surface of the first insulator and having transmissive property to light; a plurality of first light-emitting devices having an anode and a cathode on one surface and connected to any two conductor patterns of the plurality of conductor patterns(23a-23i); and a resin layer arranged between the first insulator and the second insulator to hold the first light-emitting devices , wherein the conductor pattern (23a-23i) is a mesh pattern in which an opening allows light to pass through. a first insulator having light transmissive property; a second insulator arranged opposite to the first insulator ; a plurality of conductor patterns(23a-23i) formed on a surface of the first insulator and having transmissive property to light; a plurality of first light-emitting devices having an anode and a cathode on one surface and connected to any two conductor patterns of the plurality of conductor patterns(23a-23i); and a resin layer arranged between the first insulator and the second insulator to hold the first light-emitting devices , wherein the conductor pattern (23a-23i) is a mesh pattern in which an opening allows light to pass through.
A network entity for managing a handover of a link of a plurality of links of a multi-link wireless non-AP station in a wireless network comprising a plurality of multi-link wireless access points, APs, including a source multi-link wireless AP and a target multi-link wireless AP , wherein each multi-link wireless AP is configured to exchange a plurality of data packets with the multi-link wireless non-AP station via one or more of the plurality of links, wherein the network entity comprises: a communication interface configured to receive a station status report from the multi-link wireless non-AP station , wherein the station status report comprises first information indicative of a first sequence number of the last data packet received by the multi-link wireless non-AP station ; wherein the communication interface is further configured to receive an AP status report from a further multi-link wireless AP in communication with the multi-link wireless non-AP station via a first link of the plurality of links, wherein the AP status report comprises second information indicative of a second sequence number of the first data packet transmitted by the further multi-link wireless AP to the multi-link wireless non-AP station ; a processing circuitry configured to confirm a handover decision based on the first information and the second information by triggering, in response to the handover decision, the communication interface to send a handover trigger signal to the multi-link wireless non-AP station for triggering the handover of a second link of the plurality of links of the multi-link wireless non-AP station from the source multi-link wireless AP to the target multi-link wireless AP . a communication interface configured to receive a station status report from the multi-link wireless non-AP station , wherein the station status report comprises first information indicative of a first sequence number of the last data packet received by the multi-link wireless non-AP station ; wherein the communication interface is further configured to receive an AP status report from a further multi-link wireless AP in communication with the multi-link wireless non-AP station via a first link of the plurality of links, wherein the AP status report comprises second information indicative of a second sequence number of the first data packet transmitted by the further multi-link wireless AP to the multi-link wireless non-AP station ; a processing circuitry configured to confirm a handover decision based on the first information and the second information by triggering, in response to the handover decision, the communication interface to send a handover trigger signal to the multi-link wireless non-AP station for triggering the handover of a second link of the plurality of links of the multi-link wireless non-AP station from the source multi-link wireless AP to the target multi-link wireless AP .
A heater comprising: an insulating substrate part formed in a multilayer structure including a plurality of insulating substrates (501-505) which are multi-layered; ; a heat generating section with a rectangular shape which is formed on a first insulating substrate and includes a plurality of members electrically isolated from each other and arrayed in a longitudinal direction of the heat generating section temperature sensors detecting in use temperature of the heat generating section a first wiring pattern for power feed to the temperature sensors ; and a second wiring pattern for power feed to the heat generating section the heater being characterised in that the temperature sensors and the 2. first wiring pattern for power feed to the temperature sensors are formed on a second insulating substrate different from the first insulating substrate , and in that the second wiring pattern for power feed to the heat generating section) is formed on at least one ; third substrate (502-504) different from the first substrate and the second substrate . an insulating substrate part formed in a multilayer structure including a plurality of insulating substrates (501-505) which are multi-layered; ; a heat generating section with a rectangular shape which is formed on a first insulating substrate and includes a plurality of members electrically isolated from each other and arrayed in a longitudinal direction of the heat generating section temperature sensors detecting in use temperature of the heat generating section a first wiring pattern for power feed to the temperature sensors ; and a second wiring pattern for power feed to the heat generating section the heater being characterised in that the temperature sensors and the 2. first wiring pattern for power feed to the temperature sensors are formed on a second insulating substrate different from the first insulating substrate , and in that the second wiring pattern for power feed to the heat generating section) is formed on at least one ; third substrate (502-504) different from the first substrate and the second substrate .