mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising DGLA for use in the prophylaxis of allergic disease in an offspring of a mammalian subject, comprising administration of the composition to said subject pre-pregnancy and/or during pregnancy and/or during lactation and preferably wherein said composition is a composition enriched in DGLA; wherein said composition also contains an omega-3 polyunsaturated fatty acid, selected from the group consisting of DHA and EPA or a combination of DHA and EPA; wherein said DGLA is comprised in said composition in a concentration of at least 3wt% relative to the total fatty acid content of the composition and more preferably in a concentration of at least 5wt%, at least 10wt%, at least 20wt%, at least 30wt%, at least 35wt%, or at least 40wt% relative to the total fatty acid content of the composition; and wherein the concentration of DGLA is greater than the concentration of DHA or EPA.
Heat exchanger arrangement , comprising a first heat absorbing section and a second heat releasing section , wherein a plurality of heat exchange structures are arranged, preferably in parallel to each other, in a plane of extension , wherein the first heat absorbing section comprises a first plurality of fluid guiding means and wherein the second heat releasing section comprises a second plurality of fluid guiding means , wherein each heat exchange structure comprises at least one fluid guiding means of the first plurality and at least one fluid guiding means of the second plurality thermally coupled to each other, and preferably arranged in parallel to each other, wherein a clearance is disposed between at least two adjacent heat exchange structures to allow airflow between said adjacent heat exchange structures and/or wherein each heat exchange structure comprises a heat sink to thermally couple the at least one fluid guiding means of the first plurality and the at least one fluid guiding means of the second plurality, wherein the heat exchanger arrangement further comprises a third heat absorbing section , wherein the second heat releasing section and the third heat absorbing section form a first cooling circuit , wherein the first cooling circuit is a heat pipe , a thermosiphon, or a pulsating heat pipe, wherein the first heat absorbing section is an evaporator for a second cooling circuit configured as a vapor compression cycle circuit, wherein the third heat absorbing section comprises a third plurality of fluid guiding means , wherein each fluid guiding means of the second plurality is directly connected to a fluid guiding means of the third plurality in the primary direction of extension of the fluid guiding means to form a combined fluid guiding means , characterised in that the combined fluid guiding means are fluidically interconnected in a serpentine configuration.
A method of generating pulses of plasma using a device comprising a cathode assembly comprising multiple cathodes and an anode , the method comprising: a. passing a plasma-generating gas from the cathode assembly , through a plasma channel , and toward the anode , and repeatedly performing the following steps: b. generating a spark discharge by applying a high frequency, high amplitude voltage wave between the anode and the cathode assembly ; c. generating a glow discharge by applying a transient voltage between the anode and the cathode assembly and by passing a current through the cathode assembly , the plasma-generating gas, and the anode , thereby heating ends of each of the cathodes of the cathode assembly such that thermionic emission begins and an electric arc discharge is generated, wherein the plasma is attached to all the cathodes of the cathode assembly ; d. lowering the current to decrease the area of attachment of the plasma such that attachment occurs only at a single one of the cathodes of the cathode assembly ; e. after a period of time, increasing the current to an operational level for a predetermined duration of a pulse; and f. terminating the electric arc discharge by setting the voltage and current to zero. a. passing a plasma-generating gas from the cathode assembly , through a plasma channel , and toward the anode , and repeatedly performing the following steps: b. generating a spark discharge by applying a high frequency, high amplitude voltage wave between the anode and the cathode assembly ; c. generating a glow discharge by applying a transient voltage between the anode and the cathode assembly and by passing a current through the cathode assembly , the plasma-generating gas, and the anode , thereby heating ends of each of the cathodes of the cathode assembly such that thermionic emission begins and an electric arc discharge is generated, wherein the plasma is attached to all the cathodes of the cathode assembly ; d. lowering the current to decrease the area of attachment of the plasma such that attachment occurs only at a single one of the cathodes of the cathode assembly ; e. after a period of time, increasing the current to an operational level for a predetermined duration of a pulse; and f. terminating the electric arc discharge by setting the voltage and current to zero.
A field device for detecting a process variable, the field device comprising: a control unit ; at least one electrical load ; and a monitoring device ; which is configured to detect a presence of a user in an environment of the field device and to transmit a monitoring signal to the control unit in response to a detection of the user , wherein the monitoring signal is indicative and/or representative of the presence of the user of the field device in the environment of the field device ; wherein the control unit is configured to receive the monitoring signal of the monitoring device for detecting the presence of the user of the field device in the environment of the field device ; wherein the control unit is configured to actuate the at least one electrical load based on the monitoring signal, so that the at least one electrical load can be actuated by the user without contact, characterized in that the control unit is further configured to set and/or activate an authorization for use of the field device by the user based on the monitoring signal; and in that the monitoring device comprises an RFID sensor for detecting an RFID transponder of the user. a control unit ; at least one electrical load ; and a monitoring device ; which is configured to detect a presence of a user in an environment of the field device and to transmit a monitoring signal to the control unit in response to a detection of the user , wherein the monitoring signal is indicative and/or representative of the presence of the user of the field device in the environment of the field device ; wherein the control unit is configured to receive the monitoring signal of the monitoring device for detecting the presence of the user of the field device in the environment of the field device ; wherein the control unit is configured to actuate the at least one electrical load based on the monitoring signal, so that the at least one electrical load can be actuated by the user without contact, characterized in that the control unit is further configured to set and/or activate an authorization for use of the field device by the user based on the monitoring signal; and in that the monitoring device comprises an RFID sensor for detecting an RFID transponder of the user.
An arrangement comprising a rotor or stator of an electric machine and a device for mounting a magnet to the rotor or stator of the electric machine, wherein the rotor or stator is arranged to magnetically interact with the magnet to allow a magnetic force to magnetically attach the magnet to a first mounting surface on the rotor or stator, the device comprising a mounting element having a second mounting surface , wherein the mounting element is arranged to magnetically interact with the magnet to allow a magnetic force to magnetically attach the magnet to the second mounting surface; means for moving the mounting element having the magnet magnetically attached to the second mounting surface to a predetermined distance from the first mounting surface of the rotor or stator; means for moving the mounting element away from the first mounting surface when the mounting element is at the predetermined distance from the first mounting surface, wherein the magnetic force exerted between the magnet and the mounting element and the magnet and the rotor or stator is arranged to allow the magnetic force between the rotor or stator and the magnet to retain the magnet to the first mounting surface when the mounting element is moved away from the first mounting surface, characterized by means for varying the flux density between the mounting element and the magnet.
A key vault method, comprising: securely storing a key for an encryption system according to a key use policy; sending a vault attestation report of a key vault enclave to a vault client, wherein the vault client is an enclave and the vault client and key vault enclave are hosted on different native enclave platforms; and performing an operation in the key vault enclave with the key, wherein the method further comprises: receiving , at the key vault enclave, a client attestation report of the vault client; and verifying the integrity of the client attestation report by verifying a signature of the client attestation report with a public key associated vault client's native enclave platform and not associated with the key vault enclave's native enclave platform, wherein performing the operation comprises: receiving an indication of a key derivation function from the vault client; and deriving a new key from the key and the indicated key derivation function. securely storing a key for an encryption system according to a key use policy; sending a vault attestation report of a key vault enclave to a vault client, wherein the vault client is an enclave and the vault client and key vault enclave are hosted on different native enclave platforms; and performing an operation in the key vault enclave with the key, wherein the method further comprises: receiving , at the key vault enclave, a client attestation report of the vault client; and verifying the integrity of the client attestation report by verifying a signature of the client attestation report with a public key associated vault client's native enclave platform and not associated with the key vault enclave's native enclave platform, receiving , at the key vault enclave, a client attestation report of the vault client; and verifying the integrity of the client attestation report by verifying a signature of the client attestation report with a public key associated vault client's native enclave platform and not associated with the key vault enclave's native enclave platform, wherein performing the operation comprises: receiving an indication of a key derivation function from the vault client; and deriving a new key from the key and the indicated key derivation function. receiving an indication of a key derivation function from the vault client; and deriving a new key from the key and the indicated key derivation function.
A method , comprising: generating , by a module of a network stack of communication modules, a first command message for a target entity, the first command message including a name unique to the target entity, wherein the network stack enables a respective communication module to communicate with a layer that is not directly above or directly below the respective communication module; sending the first command message, via a message delivery system, to the target entity by inserting the first command message into a queue corresponding to the module, wherein the message delivery system uses the name unique to the target entity and a value that represents content of the queue corresponding to the module; and receiving a second command message from a sending entity via a queue corresponding to the sending entity, the second command message including a name unique to the module. generating , by a module of a network stack of communication modules, a first command message for a target entity, the first command message including a name unique to the target entity, wherein the network stack enables a respective communication module to communicate with a layer that is not directly above or directly below the respective communication module; sending the first command message, via a message delivery system, to the target entity by inserting the first command message into a queue corresponding to the module, wherein the message delivery system uses the name unique to the target entity and a value that represents content of the queue corresponding to the module; and receiving a second command message from a sending entity via a queue corresponding to the sending entity, the second command message including a name unique to the module.
Shift assembly for a motor vehicle powertrain which has a plurality of gear stages (1-3; 1-7), the shift assembly having a shift actuator system with a mechanically predefined shift sequence (24-1) for the plurality of gear stages (1-3; 1-7), the shift sequence (24-1) permitting gear changes merely in a sequential manner, it being possible for the shift actuator system to be actuated in such a way that, during driving operation, in each case one of the plurality of gear stages (1-3; 1-7) is shifted in a manner which is dependent on at least one operating parameter (26-6), the shift actuator system having at least one further mechanically predefined shift sequence (24-2; 24-3) for a predefined part quantity (1, 3; 5, 2, 3; 7, 4, 5) of the plurality of gear stages, the further shift sequence (24-2; 24-3) comprising at least one multiple shift operation which takes place between gear stages which are not adjacent, it being possible for the shift actuator system to be actuated in such a way that the one shift sequence (24-1) or the further shift sequence (24-2; 24-3) is preselected in a manner which is dependent on at least one further operating parameter (26-7), the shift actuator system having a shift rotational assembly (60; 80), on which base shift features (64; 90) are configured to set up the one shift sequence (24-1), which base shift features (64; 90) come into effect sequentially in the case of a rotation of the shift rotational assembly (60; 80), in order to engage the plurality of gear stages of the powertrain , and, in addition to the base shift features (64; 90), additional shift features (24-2'; 24-3'; 92) for setting up the further shift sequence (24-2; 24-3) being configured on the shift rotational assembly (60; 80), which additional shift features (24-2'; 24-3'; 92) come into effect one after another in the case of a rotation of the shift rotational assembly (60; 80), in order to engage the predefined part quantity of the plurality of gear stages of the powertrain , characterized in that the base shift features (64; 90) and the additional shift features (24-2'; 24-3'; 92) are arranged on the shift rotational assembly (60; 80) such that they are spaced apart from one another in the circumferential direction.
A method of manufacturing an article, the method comprising: forming a sealed shell of gas impervious material, the shell comprising a collapsible hopper portion opening to a main body portion , the main body portion and at least part of the hopper portion containing a powder material ; applying vibratory energy to the shell and powder material to substantially empty the hopper portion of powder material and compact the powder material within the main body portion; and subjecting the shell and compacted powder material to isostatic pressure to collapse the hopper portion and consolidate the compacted powder material within the main body portion to form the article. forming a sealed shell of gas impervious material, the shell comprising a collapsible hopper portion opening to a main body portion , the main body portion and at least part of the hopper portion containing a powder material ; applying vibratory energy to the shell and powder material to substantially empty the hopper portion of powder material and compact the powder material within the main body portion; and subjecting the shell and compacted powder material to isostatic pressure to collapse the hopper portion and consolidate the compacted powder material within the main body portion to form the article.
System for detecting tire pressure loss in at least one of a plurality of tires of a vehicle , comprising: - a sensor , the sensor being -- arranged at the vehicle remotely from the tires, -- mechanically coupled at least indirectly to a chassis of the vehicle, and -- configured to detect a property indicative of tilting spatial movement of the chassis; - a processing unit , the processing unit being -- communicatively coupled with the sensor, -- configured to receive sensor signals from the sensor, the sensor signals being indicative of tilting spatial movement of the chassis, wherein the sensor signals comprises (i) a reference reading from the sensor collected responsive to the detection of a standstill of the vehicle and (ii) a detection reading from the sensor collected responsive to the detection of ignition of the vehicle, and -- configured to detect a tire pressure based on the sensor signals, wherein the processing unit is configured to detect a tire pressure loss responsive to the sensor signals indicating a tilting spatial movement of the chassis towards the at least one tire based on a comparison of the detection reading with the reference reading. - a sensor , the sensor being -- arranged at the vehicle remotely from the tires, -- mechanically coupled at least indirectly to a chassis of the vehicle, and -- configured to detect a property indicative of tilting spatial movement of the chassis; -- arranged at the vehicle remotely from the tires, -- mechanically coupled at least indirectly to a chassis of the vehicle, and -- configured to detect a property indicative of tilting spatial movement of the chassis; - a processing unit , the processing unit being -- communicatively coupled with the sensor, -- configured to receive sensor signals from the sensor, the sensor signals being indicative of tilting spatial movement of the chassis, wherein the sensor signals comprises (i) a reference reading from the sensor collected responsive to the detection of a standstill of the vehicle and (ii) a detection reading from the sensor collected responsive to the detection of ignition of the vehicle, and -- configured to detect a tire pressure based on the sensor signals, -- communicatively coupled with the sensor, -- configured to receive sensor signals from the sensor, the sensor signals being indicative of tilting spatial movement of the chassis, wherein the sensor signals comprises (i) a reference reading from the sensor collected responsive to the detection of a standstill of the vehicle and (ii) a detection reading from the sensor collected responsive to the detection of ignition of the vehicle, and -- configured to detect a tire pressure based on the sensor signals,
A hidden hanging-bracket with regulation from above, comprising a slide and a support that can be fixed to a wall (P), the hidden hanging-bracket being equipped with an anti-disengagement device of the type comprising: a base on which at least one mechanism is assembled, for regulating the height i.e. vertical position of the hanging-bracket , provided with at least one hooking element for hooking said hanging-bracket to said support , wherein vertical run-end elements and respectively of the hanging bracket are inserted on said base and on said hooking element , with respect to said support , said vertical run-end elements (163; 167a) being made operative by the regulation of said mechanism wherein said run-end elements consist of stops and respectively provided on said base and on said hooking element wherein said hooking element with relative stops is situated in correspondence with the lower edge of said slide destined for sliding on said base by means of a manoeuvring screw of said mechanism , said manoeuvring screw acting on the edge of said slide opposite said hooking element wherein said support , comprises a vertical edge cooperating with said stops of the hooking element and a horizontal section opposite said vertical edge and cooperating with said stops of the base , wherein said stops of the hooking element consist of teeth inserted on the base and oblique sections positioned on said hooking element .
An instep enclosure arrangement for a cabin of a vehicle , comprising at least one instep portion , a retractable cover for enclosing access to the instep portion in a closed orientation, and a displaceable mechanical linkage assembly for operatively connecting the retractable cover with a door of the vehicle, whereby the retractable cover is configured to move from the closed orientation towards a retracted state in response to a movement of the door so as to permit access to the instep portion, wherein the displaceable mechanical linkage assembly is arranged to extend between the retractable cover and the door, the displaceable mechanical linkage assembly further comprising a movable door-cabin connecting part for connecting the door with the cabin, said movable door-cabin connecting part being arranged to effect movement of the retractable cover upon a rotational movement of the door, and wherein the moveable door-cabin connecting part is a door rotational locking device configured to stop the door at a number of positions.
An electrolysis system comprising an electrolysis cell and an adjacent electrolysis cell separated by a separating cell wall between each of the two adjacent electrolysis cells, a current measuring arrangement for measuring electric current flowing in an individual electrode, a plurality of interleaved electrodes , cathodes and anodes , arranged in the electrolysis cell and immersed in electrolyte, a busbar disposed on the separating cell wall between each of the two adjacent cells to conduct electric current to the electrodes via a contact point between the busbar and a hanger bar of the electrode, and the current sensing arrangement comprises a magnetic field sensing means for measuring the magnetic field induced by said current, characterized in that the magnetic field sensing means comprises an array of magnetic field sensors arranged around the contact point at the level of the contact point in a plane of the contact point, and that the arrangement comprises a frame unit of insulating, non-magnetic material to hold the magnetic field sensors in a predetermined position with respect to the contact point , the frame unit comprising notches , each of said notches being arranged to accommodate an end of an electrode hanger bar , the notches being for a number of hanger bars of cathodes and for a number of hanger bars of anodes .