mhurhangee/ep-ind-claims huggingface dataset:
Injection module for a conveying unit of a fuel cell system for conveying and/or recirculating a gaseous medium, in particular hydrogen, wherein the injection module has a connecting opening and/or an inlet opening, by means of which the gaseous medium flows into the injection module, wherein the injection module has a small nozzle body with a first drive nozzle and a large nozzle body with a second drive nozzle, by means of which (12, 14) the gaseous medium flows out of the injection module, wherein the small nozzle body is arranged in the large nozzle body and/or in the injection module movably in the direction of a longitudinal axis, and wherein the small nozzle body and the large nozzle body each have a gas flow path (III, IV), wherein the gaseous medium can flow either only through the first gas flow path III or through the first gas flow path III and the second gas flow path IV simultaneously, wherein the second gas flow path IV can be opened or closed by means of a movement of the small nozzle body, characterized in that the small nozzle body is in contact with a stop washer and/or at least indirectly with the large nozzle body and thus forms an opening pressure surface, wherein the opening pressure surface and a closing pressure surface, in particular located on the outflow side of the small nozzle body, are of the same size, wherein the opening pressure surface can be loaded with an inflow-side back pressure.
A method comprising: configuring a first mobile device as a member of a mesh network, wherein after the configuring, the first mobile device is able to communicate with a second mobile device (1201, 1203) via the mesh network and over a peer-to-peer connection; transmitting, by the first mobile device and to the second mobile device (1201, 1203), over the mesh network and via the peer-to-peer connection, a valid authentication token that is configured for single sign-on, SSO, and that is configured to unlock a secure container of the second mobile device (1201, 1203) and enable the SSO for the secure container; receiving, by the first mobile device, over the mesh network and via the peer-to-peer connection, first data that is intended for an access gateway, wherein the access gateway is in communication with the first mobile device via a second network different from the mesh network; and transmitting, by the first mobile device and to the access gateway, over the second network and via a virtual private network connection between the first mobile device and the access gateway, the first data. configuring a first mobile device as a member of a mesh network, wherein after the configuring, the first mobile device is able to communicate with a second mobile device (1201, 1203) via the mesh network and over a peer-to-peer connection; transmitting, by the first mobile device and to the second mobile device (1201, 1203), over the mesh network and via the peer-to-peer connection, a valid authentication token that is configured for single sign-on, SSO, and that is configured to unlock a secure container of the second mobile device (1201, 1203) and enable the SSO for the secure container; receiving, by the first mobile device, over the mesh network and via the peer-to-peer connection, first data that is intended for an access gateway, wherein the access gateway is in communication with the first mobile device via a second network different from the mesh network; and transmitting, by the first mobile device and to the access gateway, over the second network and via a virtual private network connection between the first mobile device and the access gateway, the first data.
A method performed in a service function node at a source site for assisting a handover of a wireless device from the source site of a mobile communication network to a target site of the mobile communication network, the source site and the target site relate to installation sites associated with a source network node and a target network node, respectively, of the mobile communication network, the service function node implementing a service function which is applied for uplink and/or downlink packets in the mobile communication network, the method comprising the steps of: receiving, from a corresponding service function node at the target site, an indication of the handover of the wireless device; transmitting a reset signal to a user service node at the source site, the reset signal commanding the user service node to reset its transport layer session with the wireless device, wherein the user service node, is a node for providing a user service for the wireless device, that comprises a cache of a content delivery network; and transmitting connection information of the transport layer session at the service function node at the source site to the corresponding service function node at the target site. receiving, from a corresponding service function node at the target site, an indication of the handover of the wireless device; transmitting a reset signal to a user service node at the source site, the reset signal commanding the user service node to reset its transport layer session with the wireless device, wherein the user service node, is a node for providing a user service for the wireless device, that comprises a cache of a content delivery network; and transmitting connection information of the transport layer session at the service function node at the source site to the corresponding service function node at the target site.
A rotating feed distributor for a crusher comprising: a housing defining an internal working part zone; a rotatable chute to receive crushable material to be fed to a crusher, the chute defining at least part of an internal bore provided with an inlet and an outlet; a sheave provided externally at and rotatably coupled with the chute; a power means and drive transmission mounted within the working part zone, at least part of the drive transmission coupled to the sheave to provide rotation of the chute relative to the housing; characterised by that, a first seal ring is provided at a first region of the chute to provide at least partial closure of a first gap region between the first region of the chute and a first part of the housing that is internal facing relative to the working part zone and inhibit ingress of dust into the working part zone. a housing defining an internal working part zone; a rotatable chute to receive crushable material to be fed to a crusher, the chute defining at least part of an internal bore provided with an inlet and an outlet; a sheave provided externally at and rotatably coupled with the chute; a power means and drive transmission mounted within the working part zone, at least part of the drive transmission coupled to the sheave to provide rotation of the chute relative to the housing; characterised by that, a first seal ring is provided at a first region of the chute to provide at least partial closure of a first gap region between the first region of the chute and a first part of the housing that is internal facing relative to the working part zone and inhibit ingress of dust into the working part zone.
A dynamic analysis method of the running safety risk of a high-speed train running control system, characterized by and comprising the following steps: Step 1: constructing a system running state discriminating model based on a cusp manifold surface; Step 2: determining the system running state; Step 3: constructing a safety risk calculating model based on an elliptical umbilical manifold surface; Step 4: outputting changes in running safety indicators and running risk indicators. Step 1: constructing a system running state discriminating model based on a cusp manifold surface; Step 2: determining the system running state; Step 3: constructing a safety risk calculating model based on an elliptical umbilical manifold surface; Step 4: outputting changes in running safety indicators and running risk indicators.
A composition comprising an extract from at least the leaves of Clitoria ternatea in a solvent selected from the group consisting of C 19 -C 27 oils, water, methanol, ethanol, hexane, canola oil and cotton seed oil or a combination thereof, the extract comprising secondary plant compounds which have insecticidal activity and/or which repel the insect pest and/or deter the insect pest from laying eggs and/or influence the position of egg laying and/or deter the insect pest from feeding on a plant, wherein the composition comprises one or more emulsifiers and optionally comprises a carrier.
An aggregate comprising a) a branched homopolymer, wherein said homopolymer is modified with a hydrophobic surface group, and wherein said surface modified branched homopolymer comprises symmetrically branched polymers, asymmetrically branched polymers or a combination thereof, and b) a water insoluble or poorly water soluble pharmaceutically active agent, wherein the size of said aggregate is different from the size of aggregates formed of said surface modified branched homopolymer alone, wherein said branched homopolymer comprises a poly(2-substituted oxazoline); and wherein said hydrophobic surface group comprises a hydrocarbon. a) a branched homopolymer, wherein said homopolymer is modified with a hydrophobic surface group, and wherein said surface modified branched homopolymer comprises symmetrically branched polymers, asymmetrically branched polymers or a combination thereof, and b) a water insoluble or poorly water soluble pharmaceutically active agent,
A method of quantifying process fluctuations (P i) in an injection process of an injection moulding machine which has an injection device, in particular a screw, displaceable over a plurality of positions (x), characterised in that - at least one mathematical transformation (U k) which transforms an output function (f A) into an image function (f B) in dependence on at least one freely selectable transformation parameter (u j) is provided, wherein a process fluctuation (P i) is associated with the at least one transformation parameter (u j), - during at least a part of the injection process at least one value (p e, p s, p i, T i) characteristic of the injection process is measured for a plurality of positions (x) of the injection device and a measurement function (f M) is formed by association of the respective measurement values with the respective positions, - a reference function (f R) is provided which is of a predetermined value for each of the positions (x) of the injection device, at which the characteristic value (p e, p s, p i, T i) was measured, - the measurement function (f M) is used as an output function (f A) for the at least one provided mathematical transformation (u k), wherein the at least one freely selectable transformation parameter (u j) of said at least one mathematical transformation (u k) is so determined that the resulting image function (f B) coincides to the best possible degree with the reference function (f R) in relation to a predetermined error size and the process fluctuation (P i) associated with said transformation parameter (u j) is quantified in relation to the reference function (f R) using the at least one transformation parameter (u j). - at least one mathematical transformation (U k) which transforms an output function (f A) into an image function (f B) in dependence on at least one freely selectable transformation parameter (u j) is provided, wherein a process fluctuation (P i) is associated with the at least one transformation parameter (u j), - during at least a part of the injection process at least one value (p e, p s, p i, T i) characteristic of the injection process is measured for a plurality of positions (x) of the injection device and a measurement function (f M) is formed by association of the respective measurement values with the respective positions, - a reference function (f R) is provided which is of a predetermined value for each of the positions (x) of the injection device, at which the characteristic value (p e, p s, p i, T i) was measured, - the measurement function (f M) is used as an output function (f A) for the at least one provided mathematical transformation (u k), wherein the at least one freely selectable transformation parameter (u j) of said at least one mathematical transformation (u k) is so determined that the resulting image function (f B) coincides to the best possible degree with the reference function (f R) in relation to a predetermined error size and the process fluctuation (P i) associated with said transformation parameter (u j) is quantified in relation to the reference function (f R) using the at least one transformation parameter (u j).
Housing for an optoelectronic component, which includes - a carrier with a chip mounting surface, and - an optical element, the dividing plane between carrier and optical element being arranged in the plane of the chip mounting surface, characterized in that the optical element is mechanically connected to the carrier by way of a press fit, wherein, in the carrier and in the optical element, there is provided at least one recess into which there is inserted a pin which has a larger extent than the recess in the carrier and in the optical element, such that the pin is pressed into the recesses and is connected in mechanically stable fashion to the carrier and to the optical element. - a carrier with a chip mounting surface, and - an optical element, the dividing plane between carrier and optical element being arranged in the plane of the chip mounting surface, characterized in that the optical element is mechanically connected to the carrier by way of a press fit, wherein, in the carrier and in the optical element, there is provided at least one recess into which there is inserted a pin which has a larger extent than the recess in the carrier and in the optical element, such that the pin is pressed into the recesses and is connected in mechanically stable fashion to the carrier and to the optical element.
A key switch structure in which a membrane sheet having contact points (7e, 7f) facing each other is interposed between a base plate and a housing that allowably supports a key top to be pressed down and has fixing pins, and that closes a switch by contacting the contact points (7e, 7f) when the key top is pressed down, the key switch structure comprising: a plate, disposed on the membrane sheet, that includes a plurality of fitting holes that corresponds to the fixing pins, wherein the fixing pins are fixed at the fitting holes of the plate, and the membrane sheet comprises an upper sheet having no hole. a plate, disposed on the membrane sheet, that includes a plurality of fitting holes that corresponds to the fixing pins, wherein the fixing pins are fixed at the fitting holes of the plate, and the membrane sheet comprises an upper sheet having no hole.
An aqueous thermosetting cationic resin having a prolonged stability comprising a water soluble, inorganic complexing metal salt and a stabilizing amount of a low molecular weight, non-aldehyde, non-ionic, water soluble organic stabilizing compound, wherein: the aqueous thermosetting cationic resin is a polyamidoamine-epihalohydrin resin having a pH of less than 6.0 and a solids content between 10 and 40% by weight, the low molecular weight, non-aldehyde, non-ionic, water soluble organic stabilizing compound has a molecular weight below 1,000 and is present in a stabilizing amount of 0.1% to 25% by weight of the thermosetting cationic resin solids, and the low molecular weight, non-aldehyde, non-ionic, water soluble organic stabilizing compound is selected from the group consisting of: (a) a water soluble tertiary amine; (b) a water soluble amide; (c) a water soluble carbohydrate; (d) a water soluble polyol; and (e) mixtures thereof. the aqueous thermosetting cationic resin is a polyamidoamine-epihalohydrin resin having a pH of less than 6.0 and a solids content between 10 and 40% by weight, the low molecular weight, non-aldehyde, non-ionic, water soluble organic stabilizing compound has a molecular weight below 1,000 and is present in a stabilizing amount of 0.1% to 25% by weight of the thermosetting cationic resin solids, and the low molecular weight, non-aldehyde, non-ionic, water soluble organic stabilizing compound is selected from the group consisting of: (a) a water soluble tertiary amine; (b) a water soluble amide; (c) a water soluble carbohydrate; (d) a water soluble polyol; and (e) mixtures thereof.
A method of controlling a device having an actuation member comprising an electroactive material capable of deforming upon driving with a control signal, the method comprising the steps of: generating an actuation signal as a control signal for causing an actuation of the actuation member wherein the actuation has a maximum first actuation frequency; generating a vibration signal as a control signal for causing a vibration of the actuation member for reducing friction, wherein the vibration has a frequency greater than the first actuation frequency; and supplying the actuation signal to at least part of the electroactive material and supplying the vibration signal to at least part of the electroactive material. generating an actuation signal as a control signal for causing an actuation of the actuation member wherein the actuation has a maximum first actuation frequency; generating a vibration signal as a control signal for causing a vibration of the actuation member for reducing friction, wherein the vibration has a frequency greater than the first actuation frequency; and supplying the actuation signal to at least part of the electroactive material and supplying the vibration signal to at least part of the electroactive material.
A stacking-type header comprising: a first plate having a first through-hole; a second plate having a plurality of second through-holes; a third plate in which a flow path that communicates between the first through-hole and the second through-holes is formed, the third plate being disposed between the first plate and the second plate; a first pipe including a first end portion inserted into the first through-hole; a plurality of second pipes each including a second end portion inserted into a corresponding one of the second through-holes; and brazing portions (61a, 62a, 63a) provided between the first plate and the third plate, between the second plate and the third plate, between the first through-hole and the first pipe, and between the second through-holes and the second pipes, characterised in that the first pipe includes a first expanded portion in the first end portion, the first expanded portion having an outer peripheral surface pressed against an inner peripheral surface of the first through-hole, wherein each of the second pipes includes a second expanded portion in the second end portion, the second expanded portion having an outer peripheral surface pressed against an inner peripheral surface of a corresponding one of the second through-holes, wherein the first pipe includes a first large diameter portion in a section thereof that is not inserted into the first through-hole, the first large diameter portion having an outer diameter larger than an inner diameter of the first through-hole, a first plate having a first through-hole; a second plate having a plurality of second through-holes; a third plate in which a flow path that communicates between the first through-hole and the second through-holes is formed, the third plate being disposed between the first plate and the second plate; a first pipe including a first end portion inserted into the first through-hole; a plurality of second pipes each including a second end portion inserted into a corresponding one of the second through-holes; and brazing portions (61a, 62a, 63a) provided between the first plate and the third plate, between the second plate and the third plate, between the first through-hole and the first pipe, and between the second through-holes and the second pipes, characterised in that the first pipe includes a first expanded portion in the first end portion, the first expanded portion having an outer peripheral surface pressed against an inner peripheral surface of the first through-hole, wherein each of the second pipes includes a second expanded portion in the second end portion, the second expanded portion having an outer peripheral surface pressed against an inner peripheral surface of a corresponding one of the second through-holes, wherein the first pipe includes a first large diameter portion in a section thereof that is not inserted into the first through-hole, the first large diameter portion having an outer diameter larger than an inner diameter of the first through-hole,
An ink cartridge comprising: an ink storage container configured to store ink; a socket portion provided at one end of the ink storage container and configured to be fitted to and detached from a joint portion of a printing machine; an ink supply port provided in the socket portion; an inside plug configured to seal an ink passage to the ink supply port by using a biasing force coming from a direction of the ink storage container; and characterized by an inside plug lock portion configured to lock the inside plug at a position where the inside plug is pressed by an insertion shaft, and maintain a locked state of the inside plug independently of a retreating of the insertion shaft to a retreat position after a locking of the inside plug, the insertion shaft being capable of advancing and retreating between a pressing position and the retreat position, the pressing position being a position where the insertion shaft presses the inside plug against the biasing force and thereby unseals the ink passage when the socket portion and the joint portion are fitted to each other, the retreat position being a position where the insertion shaft retreats to outside of the ink supply port. an ink storage container configured to store ink; a socket portion provided at one end of the ink storage container and configured to be fitted to and detached from a joint portion of a printing machine; an ink supply port provided in the socket portion; an inside plug configured to seal an ink passage to the ink supply port by using a biasing force coming from a direction of the ink storage container; and characterized by an inside plug lock portion configured to lock the inside plug at a position where the inside plug is pressed by an insertion shaft, and maintain a locked state of the inside plug independently of a retreating of the insertion shaft to a retreat position after a locking of the inside plug, the insertion shaft being capable of advancing and retreating between a pressing position and the retreat position, the pressing position being a position where the insertion shaft presses the inside plug against the biasing force and thereby unseals the ink passage when the socket portion and the joint portion are fitted to each other, the retreat position being a position where the insertion shaft retreats to outside of the ink supply port.