mhurhangee/ep-ind-claims huggingface dataset:
A method of treating water comprising: passing a first water stream through a depleting compartment of an electrodeionization device produce a second water stream from the depleting compartment having an LSI of less than 0; passing the second water stream through a cathode compartment of the electrodeionization device to produce a third water stream, the third water stream being less corrosive than the first water stream and having an LSI of less than 0; and wherein the corrosivity of the second water stream is reduced by passing the water through the cathode compartment, wherein the third water stream is made less corrosive by reducing the concentration of oxidative species in the water stream; after exiting the cathode compartment the third water stream is directed to a point of use or a recirculation loop in communication with a storage tank; passing water first through a concentrating compartment and then through an anode compartment of the electrodeionization device. passing a first water stream through a depleting compartment of an electrodeionization device produce a second water stream from the depleting compartment having an LSI of less than 0; passing the second water stream through a cathode compartment of the electrodeionization device to produce a third water stream, the third water stream being less corrosive than the first water stream and having an LSI of less than 0; and wherein the corrosivity of the second water stream is reduced by passing the water through the cathode compartment, after exiting the cathode compartment the third water stream is directed to a point of use or a recirculation loop in communication with a storage tank; passing water first through a concentrating compartment and then through an anode compartment of the electrodeionization device.
A scroll compressor comprising an oil separation chamber formed by providing a discharge cover on a rear surface of a fixed-scroll member provided with a discharge port, characterized in that: an oil separation mechanism is provided within the oil separation chamber, the oil separation mechanism includes a cylindrical partition member that partitions an interior of the oil separation chamber into an inner-peripheral-side gas discharge chamber and an outer-peripheral-side oil storage chamber, and a separator plate that closes an upper surface of the partition member, and the partition member is disposed eccentrically to a side where a discharge reed valve is fixedly disposed on the discharge port. an oil separation mechanism is provided within the oil separation chamber, the oil separation mechanism includes a cylindrical partition member that partitions an interior of the oil separation chamber into an inner-peripheral-side gas discharge chamber and an outer-peripheral-side oil storage chamber, and a separator plate that closes an upper surface of the partition member, and the partition member is disposed eccentrically to a side where a discharge reed valve is fixedly disposed on the discharge port.
A sample cell (60, 140) for use in sidestream respiratory gas monitoring, comprising: a sample cell body; an interconnection element associated with the sample cell body and configured to cooperate with a corresponding receptacle of a sidestream gas measurement assembly that is configured to at least partially receive the sample cell, wherein the interconnection element is adapted to maintain the sample cell body in an engaged relation with the sidestream gas measurement assembly; a sample chamber defined in the sample cell body for receiving a respiratory sample from a patient; and a first window defined in the first wall of the sample cell body and forming at least a portion of a boundary of the sample chamber, wherein the first window facilitates analysis of an amount of a gas or vaporized material disposed in the sample chamber responsive to the sample cell and the sidestream gas measurement assembly being placed in an assembled relationship; characterized in that the interconnection element is a latching arm extending from the sample cell body, wherein insertion of sample cell into the receptacle deflects the latching arm from its original position, wherein the latching arm includes a protrusion that engages an opening defined in receptacle, thereby securing the sample cell (60, 140) in the receptacle; wherein, to remove the sample cell (60, 140) from receptacle, the latching arm is configured to be depressed and to pivot to release the protrusion from the opening so that the sample cell (60, 140) can be removed from the receptacle. a sample cell body; an interconnection element associated with the sample cell body and configured to cooperate with a corresponding receptacle of a sidestream gas measurement assembly that is configured to at least partially receive the sample cell, wherein the interconnection element is adapted to maintain the sample cell body in an engaged relation with the sidestream gas measurement assembly; a sample chamber defined in the sample cell body for receiving a respiratory sample from a patient; and a first window defined in the first wall of the sample cell body and forming at least a portion of a boundary of the sample chamber, wherein the first window facilitates analysis of an amount of a gas or vaporized material disposed in the sample chamber responsive to the sample cell and the sidestream gas measurement assembly being placed in an assembled relationship; characterized in that the interconnection element is a latching arm extending from the sample cell body, wherein insertion of sample cell into the receptacle deflects the latching arm from its original position, wherein the latching arm includes a protrusion that engages an opening defined in receptacle, thereby securing the sample cell (60, 140) in the receptacle; wherein, to remove the sample cell (60, 140) from receptacle, the latching arm is configured to be depressed and to pivot to release the protrusion from the opening so that the sample cell (60, 140) can be removed from the receptacle.
A magnetic memory element that has a spin valve structure including a free layer, a non-magnetic layer, and a pinned layer, the non-magnetic layer being interposed between the pinned layer and the free layer, wherein write pulses to control a combination of a magnetization of the free layer and a magnetization of the pinned layer are applied between the free layer and the pinned layer of the spin valve structure, and thus information according to the write pulses is recorded, characterised in that the free layer has a three-layer structure in which a first magnetic layer, an intermediate layer, and a second magnetic layer are stacked starting from a side of the non-magnetic layer, the first magnetic layer is made of a ferromagnetic material, the intermediate layer is made of a non-magnetic material, the second magnetic layer includes an N-type ferrimagnetic material that has a magnetic compensation point (T comp) within a temperature range where a memory storage operation of the magnetic memory element can be available, and magnetization directions of the first magnetic layer and the second magnetic layer are parallel to each other at a temperature lower than the magnetic compensation point (T comp).
A method for handling an uplink grant received on a physical downlink control channel, in the following also referred to as PDCCH, in a user equipment, in the following also referred to as UE, of a wireless communication system, comprising: setting a Temporary Cell Radio Network Temporary Identifier, in the following also referred to as Temporary C-RNTI, of the UE to a value assigned in a Random Access Response message; monitoring a Contention Resolution message; receiving an uplink grant on PDCCH addressed to the Temporary C-RNTI; and characterized by not using the uplink grant to transmit data when the uplink grant corresponds to a Hybrid Automatic Repeat Request, in the following also referred to as HARQ, Process different from an HARQ Process used for transmission of a Medium Access Control, in the following also referred to as MAC, Protocol Data Unit, in the following also referred to as PDU, in a Message 3 buffer. setting a Temporary Cell Radio Network Temporary Identifier, in the following also referred to as Temporary C-RNTI, of the UE to a value assigned in a Random Access Response message; monitoring a Contention Resolution message; receiving an uplink grant on PDCCH addressed to the Temporary C-RNTI; and characterized by not using the uplink grant to transmit data when the uplink grant corresponds to a Hybrid Automatic Repeat Request, in the following also referred to as HARQ, Process different from an HARQ Process used for transmission of a Medium Access Control, in the following also referred to as MAC, Protocol Data Unit, in the following also referred to as PDU, in a Message 3 buffer.
A method for testing a first traffic flow monitoring system, wherein said first traffic flow monitoring system is configured to determine a state of a traffic flow by comprehensively perceiving and analyzing obstacle data, the method comprising: obtaining, by a test device, real obstacle data corresponding to a traffic participant collected in a real traffic scene; generating, by said test device, simulated obstacle data according to the real obstacle data, wherein the simulated obstacle data is used to simulate an obstacle in the real traffic scene and a movement state of the obstacle; and sending (S303, S504), by said test device, the simulated obstacle data to said first traffic flow monitoring system to trigger said first traffic flow monitoring system to perform a perception analysis on the simulated obstacle data to test the first traffic flow monitoring system. obtaining, by a test device, real obstacle data corresponding to a traffic participant collected in a real traffic scene; generating, by said test device, simulated obstacle data according to the real obstacle data, wherein the simulated obstacle data is used to simulate an obstacle in the real traffic scene and a movement state of the obstacle; and sending (S303, S504), by said test device, the simulated obstacle data to said first traffic flow monitoring system to trigger said first traffic flow monitoring system to perform a perception analysis on the simulated obstacle data to test the first traffic flow monitoring system.
An endoprosthesis delivery system comprising: an expandable endoprosthesis including a side branch portal; a first primary sleeve releasably constraining a proximal portion of the expandable endoprosthesis to a collapsed configuration; a second primary sleeve in parallel with the first primary sleeve, the second primary sleeve releasably constraining a distal portion of the expandable endoprosthesis to the collapsed configuration; and a secondary sleeve within the first primary sleeve, wherein upon release of the first primary sleeve, the secondary sleeve releasably constrains the proximal portion of the expandable endoprosthesis to a partially expanded configuration allowing access to the side branch portal via the partially expanded proximal portion of the expandable endoprosthesis. an expandable endoprosthesis including a side branch portal; a first primary sleeve releasably constraining a proximal portion of the expandable endoprosthesis to a collapsed configuration; a second primary sleeve in parallel with the first primary sleeve, the second primary sleeve releasably constraining a distal portion of the expandable endoprosthesis to the collapsed configuration; and a secondary sleeve within the first primary sleeve, wherein upon release of the first primary sleeve, the secondary sleeve releasably constrains the proximal portion of the expandable endoprosthesis to a partially expanded configuration allowing access to the side branch portal via the partially expanded proximal portion of the expandable endoprosthesis.
Vacuum gripper device, comprising - a suction body which, when used as intended, is subjected to use-related wear, at least in portions, - a wear detection device for detecting a wear state of the suction body, comprising: ○ a wear portion, which itself wears in the course of the use-related wear of the suction body, characterized in that the wear detection device further comprises: ○ a fluid channel, which interacts with the wear portion such that, owing to wear of the wear portion, a flow cross-section of the fluid channel is changed, and/or a fluid flow through the fluid channel is released first, ○ a sensor device, in particular comprising a pressure sensor and/or a flow sensor, for detecting a pressure in the fluid channel and/or a fluid flow through the fluid channel. - a suction body which, when used as intended, is subjected to use-related wear, at least in portions, - a wear detection device for detecting a wear state of the suction body, comprising: ○ a wear portion, which itself wears in the course of the use-related wear of the suction body, characterized in that the wear detection device further comprises: ○ a fluid channel, which interacts with the wear portion such that, owing to wear of the wear portion, a flow cross-section of the fluid channel is changed, and/or a fluid flow through the fluid channel is released first, ○ a sensor device, in particular comprising a pressure sensor and/or a flow sensor, for detecting a pressure in the fluid channel and/or a fluid flow through the fluid channel. ○ a wear portion, which itself wears in the course of the use-related wear of the suction body, characterized in that the wear detection device further comprises: ○ a fluid channel, which interacts with the wear portion such that, owing to wear of the wear portion, a flow cross-section of the fluid channel is changed, and/or a fluid flow through the fluid channel is released first, ○ a sensor device, in particular comprising a pressure sensor and/or a flow sensor, for detecting a pressure in the fluid channel and/or a fluid flow through the fluid channel. ○ a fluid channel, which interacts with the wear portion such that, owing to wear of the wear portion, a flow cross-section of the fluid channel is changed, and/or a fluid flow through the fluid channel is released first, ○ a sensor device, in particular comprising a pressure sensor and/or a flow sensor, for detecting a pressure in the fluid channel and/or a fluid flow through the fluid channel.
A method for indirect interaction with a user interface presented on a display, comprising: receiving input data indicative of a contact being applied in a predefined manner relative to a contact sensory surface of an indirect interaction device such as a mouse, a keyboard or a touchpad; dividing the contact sensory surface into at least two portions, where interactions with the contact that initiate in a first portion of the contact sensory surface are configured to initialize a launch of one or more objects, and interactions with the contact that initiate in a second portion of the contact sensory surface are configured to be utilized to navigate a pointer within the user interface; launching one or more objects in the user interface in response to input data being indicative of the contact being applied to the first portion of the contact sensory surface, wherein launching one or more objects comprises at least one of opening a menu and opening an on-screen keyboard on the user interface; characterized in that the method further comprises: mapping the first portion of the contact sensory surface to the launched object and mapping the second portion of the contact sensory surface to the user interface including the launched object, wherein at least some of the second portion is mapped to the launched object that the first portion is mapped to. receiving input data indicative of a contact being applied in a predefined manner relative to a contact sensory surface of an indirect interaction device such as a mouse, a keyboard or a touchpad; dividing the contact sensory surface into at least two portions, where interactions with the contact that initiate in a first portion of the contact sensory surface are configured to initialize a launch of one or more objects, and interactions with the contact that initiate in a second portion of the contact sensory surface are configured to be utilized to navigate a pointer within the user interface; launching one or more objects in the user interface in response to input data being indicative of the contact being applied to the first portion of the contact sensory surface, wherein launching one or more objects comprises at least one of opening a menu and opening an on-screen keyboard on the user interface; characterized in that the method further comprises: mapping the first portion of the contact sensory surface to the launched object and mapping the second portion of the contact sensory surface to the user interface including the launched object, wherein at least some of the second portion is mapped to the launched object that the first portion is mapped to. mapping the first portion of the contact sensory surface to the launched object and mapping the second portion of the contact sensory surface to the user interface including the launched object, wherein at least some of the second portion is mapped to the launched object that the first portion is mapped to.
Method for detecting irregularities of a brake assembly of a vehicle, having a brake control device and wheel brakes (7a....f), having respective wear sensors (8a...f), having the following method steps: S1 determine wear values (x i, y i, z i) of the wheel brakes (7a...f) through the respective wear sensors (8a...f) and store the wear values (x i, y i, z i); S2 examine the stored wear values (x i, y i, z i); S3 compare results of the examination of the stored wear values (x i, y i, z i) with predefinable normal values and / or limits; and S4 detect irregularities on the basis of the comparison, check the irregularities and output corresponding information, characterised in that time information (t i) is added to the determined wear values (x i, y i, z i) prior to storage. S1 determine wear values (x i, y i, z i) of the wheel brakes (7a...f) through the respective wear sensors (8a...f) and store the wear values (x i, y i, z i); S2 examine the stored wear values (x i, y i, z i); S3 compare results of the examination of the stored wear values (x i, y i, z i) with predefinable normal values and / or limits; and S4 detect irregularities on the basis of the comparison, check the irregularities and output corresponding information,
A system for locking a foldable wing tip on a wing end of an aircraft, the system comprising: - at least one engagement means, - at least one locking device comprising a support, a latch element rotatably held in the support and a lock element movably held on the support, - a latch drive means coupled with the latch element of the at least one locking device for selectively rotating the latch element at least to an open position, a closed position and a test position, - a lock drive means coupled with the lock element of the at least one locking device for selectively varying a distance of the lock element to the latch element between a neutral position and a locking position, wherein the support comprises a receiving space extending into an insertion opening designed for receiving the engagement means, wherein the rotatable latch element comprises a circumferential surface section that selectively covers the insertion opening in an open position and uncovers the insertion opening in a closed position of the latch element, wherein the rotatable latch element comprises at least one locking recess arranged on a circumferential path of motion for engaging with the lock element in the closed position of the latch element and the locking position of the lock element, characterized in that the rotatable latch element further comprises at least one protrusion (62, 66, 68, 70) on the circumferential path of motion, which acts as a stop for the lock element, and in that the system further comprises a signaling means indicating a correct function when the lock element rests on the at least one protrusion (62, 66, 68, 70). - at least one engagement means, - at least one locking device comprising a support, a latch element rotatably held in the support and a lock element movably held on the support, - a latch drive means coupled with the latch element of the at least one locking device for selectively rotating the latch element at least to an open position, a closed position and a test position, - a lock drive means coupled with the lock element of the at least one locking device for selectively varying a distance of the lock element to the latch element between a neutral position and a locking position,
A medical system, comprising: a manual patient ventilation unit defining an airflow path, the unit arranged so that when the unit is applied to a patient, the airflow path is in fluid communication with the patient's airway, the patient ventilation unit comprising a ventilation bag (102, 712) configured to enable manual ventilation of the patient by a rescuer; at least one sensor (106, 204, 718, 722) in the airflow path positioned to sense the presence of ventilation airflow and determine gas flow rate and/or gas pressure in the airflow path; a processor arranged to receive data generated by the at least one sensor and determine one or more ventilation quality parameters based on the received data, a feedback unit (112, 116) comprising a graphical display configured to provide feedback to a rescuer, the feedback comprising a visual indicator provided on the graphical display that indicates a quality of ventilations provided to the patient based on the determined one or more ventilation quality parameters, characterized in that the one or more ventilation quality parameters determined based on the received data comprise ventilation tidal volume for ventilations administered to the patient, and the visual indicator provided on the graphical display shows a graphical representation of the tidal volume and indicates whether the administered ventilation tidal volume is within a target ventilation tidal volume range according to a treatment protocol by means of color coding. a manual patient ventilation unit defining an airflow path, the unit arranged so that when the unit is applied to a patient, the airflow path is in fluid communication with the patient's airway, the patient ventilation unit comprising a ventilation bag (102, 712) configured to enable manual ventilation of the patient by a rescuer; at least one sensor (106, 204, 718, 722) in the airflow path positioned to sense the presence of ventilation airflow and determine gas flow rate and/or gas pressure in the airflow path; a processor arranged to receive data generated by the at least one sensor and determine one or more ventilation quality parameters based on the received data, a feedback unit (112, 116) comprising a graphical display configured to provide feedback to a rescuer, the feedback comprising a visual indicator provided on the graphical display that indicates a quality of ventilations provided to the patient based on the determined one or more ventilation quality parameters, characterized in that the one or more ventilation quality parameters determined based on the received data comprise ventilation tidal volume for ventilations administered to the patient, and the visual indicator provided on the graphical display shows a graphical representation of the tidal volume and indicates whether the administered ventilation tidal volume is within a target ventilation tidal volume range according to a treatment protocol by means of color coding.
A structural component (5, 11) configured to be used in the core of a nuclear fission reactor, comprising at least a part of a metallic alloy, wherein the metallic alloy is a multi-principal-element alloy, which consists of at least four principal elements and of possible residual elements, characterized in that the concentration of each of the principal elements in the metallic alloy is at most 50 molar-% and at least 10 molar-%, and that the metallic alloy consists of one of Zr 2 TiNbV, ZrTiNbVMo, ZrCrNbMo, MoNbTiZr and NbTaVZr.