mhurhangee/ep-ind-claims huggingface dataset:
A female connector intended to be coupled, in use, to a male needle connector of a microfluidic system, the female connector comprising: a containment body having a first, a second and a third body walls, the first body wall opposite to the third body wall; a connector chamber in the containment body, the connector chamber being delimited by at least one first face formed by the first body wall, one second face formed by the second body wall, and one third face formed by the third body wall, the third face opposite to the first face, the first and second faces (236A, 236B) not facing each other; a duct extending in the first body wall of the containment body to a duct opening on the first face of the connector chamber; a needle entry hole extending from a lateral face of the containment body through the second body wall as far as the second face of the connector chamber; and a cup-shaped gasket arranged in the connector chamber, the gasket having a side wall and a bottom wall, the bottom wall extending transversely to the side wall, and internally delimiting a cavity, the bottom wall arranged contiguous to the third face of the connector chamber, wherein the side wall of the gasket extends in part adjacent to the second face of the connector chamber and closes the needle entry hole, and the cavity of the gasket faces the first face of the connector chamber. a containment body having a first, a second and a third body walls, the first body wall opposite to the third body wall; a connector chamber in the containment body, the connector chamber being delimited by at least one first face formed by the first body wall, one second face formed by the second body wall, and one third face formed by the third body wall, the third face opposite to the first face, the first and second faces (236A, 236B) not facing each other; a duct extending in the first body wall of the containment body to a duct opening on the first face of the connector chamber; a needle entry hole extending from a lateral face of the containment body through the second body wall as far as the second face of the connector chamber; and a cup-shaped gasket arranged in the connector chamber, the gasket having a side wall and a bottom wall, the bottom wall extending transversely to the side wall, and internally delimiting a cavity, the bottom wall arranged contiguous to the third face of the connector chamber, wherein the side wall of the gasket extends in part adjacent to the second face of the connector chamber and closes the needle entry hole, and the cavity of the gasket faces the first face of the connector chamber.
A cable detection system, comprising: a source of an input electrical AC signal for coupling to a first lead pin of a cable connector and for providing said input electrical AC signal to the first lead pin; and a detector coupled to a different second lead pin of said cable connector for detecting an electrical AC output signal derived by capacitive coupling of said input electrical AC signal occurring within a multi-lead cable incorporating first and second leads corresponding to said first and second lead pins and for enabling determination of whether said multi-lead cable is connected to said cable connector in response to comparing an amplitude dependent characteristic of said detected AC output signal with a predetermined threshold value to determine if said amplitude dependent characteristic exceeds said threshold value; and wherein said detector determines a type of said multi-lead cable in response to an amplitude dependent characteristic of said detected AC output signal. a source of an input electrical AC signal for coupling to a first lead pin of a cable connector and for providing said input electrical AC signal to the first lead pin; and a detector coupled to a different second lead pin of said cable connector for detecting an electrical AC output signal derived by capacitive coupling of said input electrical AC signal occurring within a multi-lead cable incorporating first and second leads corresponding to said first and second lead pins and for enabling determination of whether said multi-lead cable is connected to said cable connector in response to comparing an amplitude dependent characteristic of said detected AC output signal with a predetermined threshold value to determine if said amplitude dependent characteristic exceeds said threshold value; and wherein said detector determines a type of said multi-lead cable in response to an amplitude dependent characteristic of said detected AC output signal.
A sealed rolling bearing comprising an inner race, an outer race, rolling elements disposed between the inner race and the outer race, and seal assemblies sealing a bearing space defined between the inner race and the outer race, characterized in that each of the seal assemblies comprises a check valve which allows only a flow of gas from outside the bearing into the bearing space and prevents a flow of gas from the bearing space to the outside of the bearing, said check valve having a flow passage through which gas flows and comprising a filter mounted in the flow passage and configured to allow passage of gas and prevent passage of liquid and solids; and each of the seal assemblies further comprises a seal case fitted on one end of the outer race, and a seal retained in position in the seal case, wherein the check valve is mounted in the seal case, said check valve further comprising a cylindrical valve main body defining the fluid passage, and a valve body movable in the valve main body to selectively open and close the flow passage, the seal case is formed with an axially outwardly concave step on a radially inner portion of an axially inner end surface of the seal case, and with an axial through hole of which the axial inner opening is partially located at the step, so that the through hole communicates with a space defined by an end surface of the outer race and the step, a cutout is formed in an axially inner end of the seal and located radially inwardly of the through hole of the seal case, so that the bearing space communicates with the exterior of the sealed rolling bearing through the space defined by an end surface of the outer race and the step, and through the cutout and the through hole, the check valve is fitted into the through hole with a first end thereof located and facing axially outwardly of the sealed rolling bearing and a second end thereof located and facing axially inwardly of the sealed rolling bearing.
A method of controlling a control system being controlled by a controller, wherein said controller delivers the control input to at least one control unit in said system, e.g. a valve, said method comprises the steps of: - detecting the oscillation level in said control input to said control unit, - amplifying said control input by a multiplication factor based on said detected oscillation level, characterized by, said oscillation level is detected by calculating a decay ratio based on detected peaks and where said decay ratio is used for determining said multiplication factor, and where the amplified control input is used as the control input to the at least one control unit - detecting the oscillation level in said control input to said control unit, - amplifying said control input by a multiplication factor based on said detected oscillation level,
A method for use with an aerosol-generating device having a power source, the method comprising: receiving at least one acceleration value; detecting a fall or shock based on the at least one acceleration value; and initiating, using a controller of the aerosol-generating device, at least one response procedure in response to detecting the fall or shock, wherein the at least one response procedure comprises storing data associated with the fall or shock in persistent or non-volatile memory of the controller. receiving at least one acceleration value; detecting a fall or shock based on the at least one acceleration value; and initiating, using a controller of the aerosol-generating device, at least one response procedure in response to detecting the fall or shock, wherein the at least one response procedure comprises storing data associated with the fall or shock in persistent or non-volatile memory of the controller.
A process for preparing a complex of magnesium carbonate particles and a pulp fiber, comprising synthesizing the magnesium carbonate in a reaction solution containing the pulp fiber; wherein the magnesium carbonate is a basic magnesium carbonate and is synthesized from magnesium hydroxide; and wherein a gas containing carbon dioxide is injected into a reaction vessel where it is mixed with the reaction solution. wherein the magnesium carbonate is a basic magnesium carbonate and is synthesized from magnesium hydroxide; and wherein a gas containing carbon dioxide is injected into a reaction vessel where it is mixed with the reaction solution.
A ceiling panel for lining the interior of a vehicle, in particular an aircraft, comprising a plastic composite element having elements disposed at the lateral edges extending substantially in the movement direction of the vehicle for fastening to a supporting structure of the vehicle or parts connected thereto, wherein at least one fixation device is provided on the transverse edge disposed substantially transversely to the movement direction and that at least one counter piece is provided on the opposite transverse edge as viewed in the movement direction, wherein the at least one fixation device is configured to complement the at least one counter piece, and a positive connection can be produced without tools in the substantially perpendicular direction, and detached again, by interaction of each fixation device with one counter piece each, characterised in that each fixation device and each counter piece has a component part which can be moved against the spring force of a spring element during the making and releasing of the positive connection.
Method for determining the age of an electrochemical energy storage unit, comprising the following steps: - providing a first quiescent voltage curve of the electrochemical energy storage unit, which is dependent on the state of charge of the electrochemical energy storage unit, as a reference; - ascertaining a second quiescent voltage curve of the electrochemical energy storage unit, which is dependent on the state of charge of the electrochemical energy storage unit; and - determining the age of the electrochemical energy storage unit by comparing the first and second quiescent voltage curves (201, 202), characterized in that an area between the first and second quiescent voltage curves (201, 202) is used as comparison; and the area is formed by an integral, wherein the lower limit of the integral is determined by an intersection point of the two quiescent voltage curves (201, 202) and the upper limit of the integral is determined by at least one value for the state of charge. - providing a first quiescent voltage curve of the electrochemical energy storage unit, which is dependent on the state of charge of the electrochemical energy storage unit, as a reference; - ascertaining a second quiescent voltage curve of the electrochemical energy storage unit, which is dependent on the state of charge of the electrochemical energy storage unit; and - determining the age of the electrochemical energy storage unit by comparing the first and second quiescent voltage curves (201, 202), characterized in that an area between the first and second quiescent voltage curves (201, 202) is used as comparison; and the area is formed by an integral, wherein the lower limit of the integral is determined by an intersection point of the two quiescent voltage curves (201, 202) and the upper limit of the integral is determined by at least one value for the state of charge.
Compressor arrangement for generating compressed air by means of a motor-driven compressor unit, downstream of which is positioned at least one cooler unit (4a, 4b) for cooling the generated compressed air, which compressed air enters into the cooler unit (4a, 4b) via at least one inlet, flows through a cooling structure around which cooling air flows and which is composed of a plurality of parallel cooling ducts, and leaves the cooler unit (4a, 4b) via at least one outlet, with bypass means being provided between the inlet and the outlet of the cooler unit (4a, 4b) in order to prevent freezing of the cooler unit (4a, 4b) at low ambient temperatures, characterised in that a continuous and permanently open bypass pipe is provided as a bypass means between the region of the inlet and the region of the outlet, the inner cross section of which is matched to the delivery capacity of the compressor unit and to the pressure difference between the inlet and the outlet in such a way that the bypass pipe generates a higher flow resistance than the cooling structure at normal ambient temperatures, whereas with progressive freezing of the cooling structure, the compressed air flows to an increasing extent via the bypass pipe, the ratio between the inner cross-section [mm 2] of the bypass pipe and the output [l/min] at an operating pressure of 10 bar being in the range between 0.8 and 1.2, and in that the bypass pipe is further arranged relative to cooler unit (4a, 4b) in such a way that it lies in the flow of the cooling air passing through cooler unit (4a, 4b).
A water electrolysis system, comprising: a water electrolysis stack configured to electrolyze water and generate hydrogen; a dehumidification device configured to adsorb and remove moisture contained in the hydrogen generated by the water electrolysis stack; a wet line configured to supply the hydrogen generated by the water electrolysis stack to the dehumidification device; a compression device configured to gradually increase pressure of the hydrogen whose moisture is removed in the dehumidification device; and a purge line configured to take out a part of the hydrogen whose pressure is being increased in the compression device allows the part of the hydrogen to pass through the dehumidification device, and allows the part of the hydrogen to join the wet line. a water electrolysis stack configured to electrolyze water and generate hydrogen; a dehumidification device configured to adsorb and remove moisture contained in the hydrogen generated by the water electrolysis stack; a wet line configured to supply the hydrogen generated by the water electrolysis stack to the dehumidification device; a compression device configured to gradually increase pressure of the hydrogen whose moisture is removed in the dehumidification device; and a purge line configured to take out a part of the hydrogen whose pressure is being increased in the compression device allows the part of the hydrogen to pass through the dehumidification device, and allows the part of the hydrogen to join the wet line.
Method for verifying a trusted electronic assembly with a CPU, a bus interface and a secure element with a control unit, wherein the secure element comprises a proof of origin and a record memory with a target state value of the assembly, with the following steps: Determining an actual state value of an actual state of the assembly; Reading the target state value from the record memory, where the target state value represents a target state of the assembly; Checking the authenticity of the Secure element by verifying the proof of origin of the Secure element, Processing the actual state value and the target state value and/or comparing the target state and the actual state; evaluating and deciding in the control unit of the secure element whether the actual state is similar or compatible with the target state or is consistent with the target state that a trust criterion is met; and authorizing and/or influencing the use of the assembly and/or any process that the assembly performs in the control unit of the Secure element and depending on the evaluation performed. Determining an actual state value of an actual state of the assembly; Reading the target state value from the record memory, where the target state value represents a target state of the assembly; Checking the authenticity of the Secure element by verifying the proof of origin of the Secure element, Processing the actual state value and the target state value and/or comparing the target state and the actual state; evaluating and deciding in the control unit of the secure element whether the actual state is similar or compatible with the target state or is consistent with the target state that a trust criterion is met; and authorizing and/or influencing the use of the assembly and/or any process that the assembly performs in the control unit of the Secure element and depending on the evaluation performed.
A probe head of a pitot probe comprising: a mandrel having a groove; and a heater within the groove of the mandrel, characterised in that the probe head further comprises: a swaged outer shell joined to the mandrel and the heater so that an interior surface of the outer shell is in air-tight contact with the mandrel and the heater, and the heater is deformed as a result of pressure swaging of the outer shell such that an exterior surface of the heater is flush with an exterior surface of the mandrel. a mandrel having a groove; and a heater within the groove of the mandrel, characterised in that the probe head further comprises: a swaged outer shell joined to the mandrel and the heater so that an interior surface of the outer shell is in air-tight contact with the mandrel and the heater, and the heater is deformed as a result of pressure swaging of the outer shell such that an exterior surface of the heater is flush with an exterior surface of the mandrel.
A vacuum pump (1, 100, 200), comprising: a housing (2, 3) providing an inlet port and an outlet port; a magnetic bearing device (30, 31, 40) provided in the housing; a shaft rotatably supported by the magnetic bearing device; and a stationary disk-shaped portion having a spiral groove disposed on either side in at least a part thereof, wherein a projection (600, 601, 610, 630,) projecting in an inner peripheral direction is disposed on at least a part of a cylinder-shaped inner peripheral side surface of the stationary disk-shaped portion in which the spiral groove is not disposed, and an inner peripheral end of the spiral groove on the inlet port side of the disk-shaped portion is continuous in an axial direction with an inner peripheral end of the spiral groove on the outlet port side of the disk-shaped portion. a housing (2, 3) providing an inlet port and an outlet port; a magnetic bearing device (30, 31, 40) provided in the housing; a shaft rotatably supported by the magnetic bearing device; and a stationary disk-shaped portion having a spiral groove disposed on either side in at least a part thereof, wherein a projection (600, 601, 610, 630,) projecting in an inner peripheral direction is disposed on at least a part of a cylinder-shaped inner peripheral side surface of the stationary disk-shaped portion in which the spiral groove is not disposed, and an inner peripheral end of the spiral groove on the inlet port side of the disk-shaped portion is continuous in an axial direction with an inner peripheral end of the spiral groove on the outlet port side of the disk-shaped portion.
A coating composition comprising: a dispersion comprising: a core comprising a base polymer, wherein the base polymer is a thermoplastic polymer selected from the group consisting of an ethylene based polymer, a propylene based polymer, and combinations thereof; a shell at least partially surrounding said core, wherein said shell comprising a polar polymeric stabilizing agent; and at least one or more hydrophobic particulate fillers at least partially embedded in said shell. a dispersion comprising: a core comprising a base polymer, wherein the base polymer is a thermoplastic polymer selected from the group consisting of an ethylene based polymer, a propylene based polymer, and combinations thereof; a shell at least partially surrounding said core, wherein said shell comprising a polar polymeric stabilizing agent; and at least one or more hydrophobic particulate fillers at least partially embedded in said shell. a core comprising a base polymer, wherein the base polymer is a thermoplastic polymer selected from the group consisting of an ethylene based polymer, a propylene based polymer, and combinations thereof; a shell at least partially surrounding said core, wherein said shell comprising a polar polymeric stabilizing agent; and at least one or more hydrophobic particulate fillers at least partially embedded in said shell.
Protection apparatus for a battery pack, the protection apparatus comprising: an insulating body; a protection circuit (220, 230, 240, 250) in the body; first and second lead plates (222, 223) extending out of the body; a temperature protection device mounted to a lower surface of the second lead plate; and an electrode tab connected to a bottom surface of the temperature protection device, wherein the second lead plate includes an aperture arranged to receive the electrode tab. an insulating body; a protection circuit (220, 230, 240, 250) in the body; first and second lead plates (222, 223) extending out of the body; a temperature protection device mounted to a lower surface of the second lead plate; and an electrode tab connected to a bottom surface of the temperature protection device, wherein the second lead plate includes an aperture arranged to receive the electrode tab.
A data storage system, wherein the data storage system comprises a storage client (100, 800) and a distributed storage system, the distributed storage system uses an erasure coding, EC, technology to store data, the distributed storage system comprises a management server and a plurality of storage nodes, and a storage node group consisting of N+M storage nodes corresponds to one partition, wherein N storage nodes are configured to store data blocks, M storage nodes are configured to store parity blocks generated based on the data blocks, and N and M are positive integers greater than 2; the storage client (100, 800) is configured to request the management server to assign a data unit for to-be-written data; the management server is configured to: assign a first data unit for the to-be-written data in a first partition, and return an identifier of the first data unit and a status of the first data unit to the storage client (100, 800), wherein the status of the first data unit indicates storage nodes that the storage client is allowed to use in the first partition, and a quantity of the storage nodes that the storage client is allowed to use is less than N+M; the storage client (100, 800) is further configured to obtain the identifier of the first data unit, the status of the first data unit, and a first partition view of the first partition, wherein the first partition view indicates a list of storage nodes comprised in the first partition; the storage client (100, 800) is further configured to: determine, based on the status of the first data unit, quantities of data blocks and parity blocks that need to be generated, and perform EC coding on the to-be-written data, to generate data blocks and parity blocks corresponding to the to-be-written data, wherein a sum of quantities of the generated data blocks and parity blocks is equal to the quantity of the storage nodes that the storage client is allowed to use; and the storage client (100, 800) is further configured to store, based on the first partition view and the status of the first data unit, the generated data blocks and parity blocks into the storage nodes that the storage client is allowed to use in the first partition, wherein each node stores one data block or parity block.