mhurhangee/patent-ind-claim-en huggingface dataset:
A measuring device for registering a test signal from a circuit structure applied to a wafer , with at least one test probe and at least one test transformer , wherein the at least one test transformer is connected in an electrically conductive manner to the at least one test probe , wherein the test transformer is disposed on the test probe and forms an inseparable test unit , characterised in that the measuring device further provides a heat sink in the form of a balancing device , wherein the balancing device is connected mechanically in a rigid manner to a retaining element and comprises gold or brass, that the measuring device provides a connecting element , which is connected to the test transformer and to the balancing device , wherein the connecting element comprises gold or brass, that the test probe and the test transformer are jointly replaceable by withdrawing from the measuring device and that the test transformer is a thermal power sensor.
Pore-free polymer tube prepared by directional winding of at least one polymer filament, wherein the at least one polymer filament has a diameter of ≤ 50 μm and the directionally wound at least one polymer filament is melted pore-free at or maximal at 15°C above the melting temperature of the polymer filament.
A method for transmitting messages in a computer network, wherein the computer network comprises nodes that are connected to one another via communication lines , e.g. in that in each case two nodes are connected to one another, and wherein the nodes exchange messages with one another, and wherein data (D101, D102, D103) in the form of messages are communicated between the nodes, and wherein at least two first nodes (101, 102; 102, 103) transmit data (D101, D102; D102, D103) to a common second node (103; 104), wherein the computer network is embodied such that at least one first node (102; 103) is disposed in at least one communication path of a further first transmitting node (101; 102) or of the plurality of further first transmitting nodes to the common second node (103; 104), and wherein at least one first node (102; 103) -the so-called integration node (102; 103) - that is arranged closer to the common second node (103; 104) than at least one further first node (101; 102) integrates the data (D101; D102) from at least one of the messages of the at least one first node (101; 102) farther away from the common second node (103; 104) into a message generated by the integration node (102; 103), which message this integration node (102; 103) then sends to the common second node (103; 104), characterized in that for the purpose of this integration, the at least one integration node (102; 103), after the transmission of the integration node's own data (D102; D103) to be transmitted, continues with the transmission of the at least one message, a so-called integration message, transmitting these integration node's own data (D102; D103) in that it adds either the data to be integrated (D101; D102) of the at least one further node (101; 102) and/or filler data (S102) into this at least one message.
A method for preparing a SiC single crystal by the solution process of placing a seed crystal in contact with a Si-C solution in a crucible and letting a SiC single crystal grow from the seed crystal, the method comprising: a first growth step of conducting crystal growth using as the growth surface a or (000-1) plane of a SiC single crystal of which the seed crystal is composed, a step of cutting a (1-100) plane out of the SiC single crystal resulting from the first growth step, and a second growth step of conducting crystal growth using as the growth surface the (1-100) plane cut out of the SiC single crystal resulting from the first growth step. a first growth step of conducting crystal growth using as the growth surface a or (000-1) plane of a SiC single crystal of which the seed crystal is composed, a step of cutting a (1-100) plane out of the SiC single crystal resulting from the first growth step, and a second growth step of conducting crystal growth using as the growth surface the (1-100) plane cut out of the SiC single crystal resulting from the first growth step.
A sprinkler , comprising - a sprinkler housing, - a fluid channel which is provided in the sprinkler housing and has a fluid inlet and at least one fluid outlet , - a closure element which is movable from a blocking position into a release position, wherein the closure element closes the fluid channel in the blocking position and releases same in the release position, - a thermally activated triggering element retaining the closure element in the blocking position until thermally activated, and a sealing element which is interposed between the sprinkler housing and the closure element and is configured to close the fluid channel in a fluid-tight manner in the blocking position wherein the sealing element is radially and axially compressed in the blocking position in order to apply the sealing effect, wherein in the blocking position, the sealing element is pressed against a sealing surface which expands in a release direction (A), and the expanding sealing surface is formed on the sprinkler housing, characterized in that the closure element has circumferential groove in which the sealing element sits, the closure element has a radially extending sealing surface against which the sealing element is pressed in the blocking position, and the sealing element is configured to still be compressed further and be pressed more strongly in the direction of the expanding sealing surface at the sprinkler housing and of the radially extending sealing surface of the closure element when the pressure on the inlet side of the sprinkler rises from a value P 1 to value P 2 . - a sprinkler housing, - a fluid channel which is provided in the sprinkler housing and has a fluid inlet and at least one fluid outlet , - a closure element which is movable from a blocking position into a release position, wherein the closure element closes the fluid channel in the blocking position and releases same in the release position, - a thermally activated triggering element retaining the closure element in the blocking position until thermally activated, and a sealing element which is interposed between the sprinkler housing and the closure element and is configured to close the fluid channel in a fluid-tight manner in the blocking position wherein the sealing element is radially and axially compressed in the blocking position in order to apply the sealing effect, wherein in the blocking position, the sealing element is pressed against a sealing surface which expands in a release direction (A), and the expanding sealing surface is formed on the sprinkler housing, characterized in that the closure element has circumferential groove in which the sealing element sits, the closure element has a radially extending sealing surface against which the sealing element is pressed in the blocking position, and the sealing element is configured to still be compressed further and be pressed more strongly in the direction of the expanding sealing surface at the sprinkler housing and of the radially extending sealing surface of the closure element when the pressure on the inlet side of the sprinkler rises from a value P 1 to value P 2 .
A heat dissipation system, comprising: a supporting platform comprising a body portion , the body portion comprising an inlet , an outlet , a flow channel communicating the inlet with the outlet , and a mounting position for mounting a functional device , the inlet , the outlet and the flow channel together forming a medium circulation passage; and a heat exchange apparatus which communicates with the medium circulation passage and delivers a cooling medium into the medium circulation passage, the cooling medium flowing through the inlet and the flow channel and flowing out of the outlet to exchange heat with the functional device , characterized in that the body portion comprises a main beam and a reinforcement beam , the main beam and the reinforcement beam intersect and connect with each other; and at least part of the main beam and at least part of the reinforcement beam respectively comprise a hollow pipe which comprises the flow channel and communicate with each other, and the inlet and/or the outlet are provided on one of the main beam and the reinforcement beam which comprise the flow channel respectively. a supporting platform comprising a body portion , the body portion comprising an inlet , an outlet , a flow channel communicating the inlet with the outlet , and a mounting position for mounting a functional device , the inlet , the outlet and the flow channel together forming a medium circulation passage; and a heat exchange apparatus which communicates with the medium circulation passage and delivers a cooling medium into the medium circulation passage, the cooling medium flowing through the inlet and the flow channel and flowing out of the outlet to exchange heat with the functional device , characterized in that the body portion comprises a main beam and a reinforcement beam , the main beam and the reinforcement beam intersect and connect with each other; and at least part of the main beam and at least part of the reinforcement beam respectively comprise a hollow pipe which comprises the flow channel and communicate with each other, and the inlet and/or the outlet are provided on one of the main beam and the reinforcement beam which comprise the flow channel respectively. the body portion comprises a main beam and a reinforcement beam , the main beam and the reinforcement beam intersect and connect with each other; and at least part of the main beam and at least part of the reinforcement beam respectively comprise a hollow pipe which comprises the flow channel and communicate with each other, and the inlet and/or the outlet are provided on one of the main beam and the reinforcement beam which comprise the flow channel respectively.
A composition for wound healing, comprising: a substantially homogeneous mixture comprising an amount of mullite, wherein the amount of mullite is effective to promote blood clot formation, and an amount of aluminium sulphate, wherein the composition is in powder form. a substantially homogeneous mixture comprising an amount of mullite, wherein the amount of mullite is effective to promote blood clot formation, and an amount of aluminium sulphate, wherein the composition is in powder form.
A steering input system for a vehicle, the system comprising: - a steering input device configured to provide a steering action input for the vehicle, - an actuator assembly comprising a set of actuators, wherein a tilt actuator coupled to the steering input device is configured to provide a tilt motion for the steering input device about a generally horizontal rotation axis , wherein a first positioning actuator coupled to the steering input device via a first linkage arm is configured to provide a rotating motion for the steering input device about a first rotation axis , and a second positioning actuator coupled to the steering input device via a second linkage arm is configured to provide a rotating motion for the steering input device about a second rotation axis spatially separated from the first rotation axis, wherein the first positioning actuator and the second positioning actuator are configured to translate the steering input device from a drive position to a retracted position by a combined actuation action. - a steering input device configured to provide a steering action input for the vehicle, - an actuator assembly comprising a set of actuators, wherein a tilt actuator coupled to the steering input device is configured to provide a tilt motion for the steering input device about a generally horizontal rotation axis , wherein a first positioning actuator coupled to the steering input device via a first linkage arm is configured to provide a rotating motion for the steering input device about a first rotation axis , and a second positioning actuator coupled to the steering input device via a second linkage arm is configured to provide a rotating motion for the steering input device about a second rotation axis spatially separated from the first rotation axis, wherein the first positioning actuator and the second positioning actuator are configured to translate the steering input device from a drive position to a retracted position by a combined actuation action.
A power transmission belt comprising a body in a first elastomeric material, a plurality of cords embedded in the body of the belt, a back and a plurality of ribs or teeth , said back or said ribs or teeth are covered with a covering material selected from the group consisting of woven fabric, knitted fabric, characterized in that said covering material comprises elastolefin fibers.
A gas turbine engine , comprising: a case extending circumferentially around a central axis of the gas turbine engine ; a boss protruding from the case away from the central axis , the boss defining an internal passage ; a tubular member received within the internal passage of the boss and secured to the boss , characterised in that : the tubular member defines a conduit for feeding lubricant to a bearing via a tube ; and the gas turbine engine further comprises: an annular gap extending all around the tubular member and located between the tubular member and the boss ; and a fitting hydraulically connecting a fluid source (S) to the tubular member , the fitting having a portion received within the tubular member and encircled by both of the annular gap and the tubular member , the fitting sealingly engaged to the tubular member . a case extending circumferentially around a central axis of the gas turbine engine ; a boss protruding from the case away from the central axis , the boss defining an internal passage ; a tubular member received within the internal passage of the boss and secured to the boss , characterised in that : the tubular member defines a conduit for feeding lubricant to a bearing via a tube ; and the gas turbine engine further comprises: an annular gap extending all around the tubular member and located between the tubular member and the boss ; and a fitting hydraulically connecting a fluid source (S) to the tubular member , the fitting having a portion received within the tubular member and encircled by both of the annular gap and the tubular member , the fitting sealingly engaged to the tubular member . the tubular member defines a conduit for feeding lubricant to a bearing via a tube ; and the gas turbine engine further comprises: an annular gap extending all around the tubular member and located between the tubular member and the boss ; and a fitting hydraulically connecting a fluid source (S) to the tubular member , the fitting having a portion received within the tubular member and encircled by both of the annular gap and the tubular member , the fitting sealingly engaged to the tubular member . an annular gap extending all around the tubular member and located between the tubular member and the boss ; and a fitting hydraulically connecting a fluid source (S) to the tubular member , the fitting having a portion received within the tubular member and encircled by both of the annular gap and the tubular member , the fitting sealingly engaged to the tubular member .
A method of transmitting a paging message, which is transmitted to a user equipment, UE, 1 by a base station in a wireless communication system, the method being characterized by : selecting (S209) at least one transmission path from among a first transmission path for directly transmitting the paging message to the UE 1 based on data type information of a downlink data to be transmitted to the UE 1 and a second transmission path for transmitting the paging message to the UE 1 through a UE 2 that relays data transmission and reception between the UE 1 and the base station; and transmitting the paging message to the UE 1 via the selected transmission path, wherein the paging message transmitting step transmits the paging message in accordance with at least one paging message monitoring time selected from among paging message monitoring time of the UE 1 and paging message monitoring time of the UE 2, wherein the first transmission path corresponds to a transmission path on which the paging message is transmitted (S215) to the UE 1 by the base station via Uu interface, and wherein when the base station transmits the paging message to the UE 2 via the Uu interface, the second transmission path corresponds to a transmission path on which the paging message is transmitted (S211, S213) to the UE 1 by the UE 2 via PC5 interface. selecting (S209) at least one transmission path from among a first transmission path for directly transmitting the paging message to the UE 1 based on data type information of a downlink data to be transmitted to the UE 1 and a second transmission path for transmitting the paging message to the UE 1 through a UE 2 that relays data transmission and reception between the UE 1 and the base station; and transmitting the paging message to the UE 1 via the selected transmission path, wherein the paging message transmitting step transmits the paging message in accordance with at least one paging message monitoring time selected from among paging message monitoring time of the UE 1 and paging message monitoring time of the UE 2, wherein the first transmission path corresponds to a transmission path on which the paging message is transmitted (S215) to the UE 1 by the base station via Uu interface, and wherein when the base station transmits the paging message to the UE 2 via the Uu interface, the second transmission path corresponds to a transmission path on which the paging message is transmitted (S211, S213) to the UE 1 by the UE 2 via PC5 interface.
A water treatment filter backwash process control system, comprising: a control system that is configured to receive filter backwash turbidity data from a backwash control turbidity sensor ; and wherein the control system further being configured to receive filter media level data from a filter media level sensor ; the control system having a filter media level set point, wherein the filter media level set point corresponds to a desired filter media bed expansion; the control system having a filter backwash turbidity set point, wherein the control system is configured to control the filter backwash process while monitoring the filter backwash turbidity and the filter media level, by sending one or more variable output signals that are used to control a backwash inlet liquid flow in order to maintain the desired filter media bed expansion and by sending one or more discrete output signals that are used to stop the backwash inlet liquid flow when the filter backwash turbidity set point is reached. wherein the control system further being configured to receive filter media level data from a filter media level sensor ; the control system having a filter media level set point, wherein the filter media level set point corresponds to a desired filter media bed expansion; the control system having a filter backwash turbidity set point, wherein the control system is configured to control the filter backwash process while monitoring the filter backwash turbidity and the filter media level, by sending one or more variable output signals that are used to control a backwash inlet liquid flow in order to maintain the desired filter media bed expansion and by sending one or more discrete output signals that are used to stop the backwash inlet liquid flow when the filter backwash turbidity set point is reached.
Method when a user performs a work task, wherein the user wears and uses a wearable, actively controlled piece of force-assisting equipment used to assist the user in the performing of the said work task, which force-assisting equipment comprises a force-exerting means for assisting the user in applying a particular force and/or for performing movements of a particular type, and a sensor means for sensing a force applied by the user, wherein an assisting force exerted by said force-exerting means is feedback-controlled based on an instantaneous measurement value from the sensor means , characterised in that the method comprises the steps of a) determine a physical ergonomic model, which is specific to said work task and/or to said piece of force-assisting equipment , based upon physical characteristics of the work task and/or physical characteristics of the sensor means , which model further comprises a transform from an assisting force applied by said force-assisting equipment to a corresponding force imparted by the user's skeletal muscles; b) during the performance of said work task, measuring said measurement value using the sensor means for use in said feedback control; and c) using the measurement value and said physical ergonomic model to automatically calculate an actual ergonomic risk or load value for the performed work task using the said force-assisting equipment . a) determine a physical ergonomic model, which is specific to said work task and/or to said piece of force-assisting equipment , based upon physical characteristics of the work task and/or physical characteristics of the sensor means , which model further comprises a transform from an assisting force applied by said force-assisting equipment to a corresponding force imparted by the user's skeletal muscles; b) during the performance of said work task, measuring said measurement value using the sensor means for use in said feedback control; and c) using the measurement value and said physical ergonomic model to automatically calculate an actual ergonomic risk or load value for the performed work task using the said force-assisting equipment .
A method of making a waterproof floor slab element , the method comprising pouring fresh concrete mix into a mold , wherein the mold has a mold surface forming the shape of the top surface of the floor slab element , allowing the concrete mix to harden in the mold so as to form a floor slab element , removing the floor slab element from the mold , forming a surface structure on the top surface of the floor slab element which improves the adhesion of the waterproofing material, and forming a waterproofing layer on the top surface of the floor slab element , wherein said surface structure is formed by installing a porous mold fabric on the mold surface before pouring the concrete .
A method for ex vivo expansion of tumor-infiltrating lymphocytes for adoptive cell therapy (ACT) for cancer, comprising culturing the lymphocytes to produce expanded lymphocytes in a culture medium comprising a toll like receptor (TLR) agonist in an amount effective to improve the tumor-specificity of the expanded lymphocytes.