mhurhangee/patent-ind-claim-en huggingface dataset:
A cache data control method, applied to a first edge cache node (102-1), wherein the method comprises: receiving a data obtaining request sent from a terminal device , wherein the data obtaining request comprises an identification of to-be-requested data; when the first edge cache node (102-1) does not comprise the to-be-requested data, obtaining the to-be-requested data from a target cache node that comprises the to-be-requested data; the method comprises further that the target cache node is determined in an edge cache node set corresponding to the first edge cache node (102-1) and a central cache node (103-1) corresponding to the first edge cache node (102-1); and wherein every two edge cache nodes in the edge cache node set can directly communicate with each other. receiving a data obtaining request sent from a terminal device , wherein the data obtaining request comprises an identification of to-be-requested data; when the first edge cache node (102-1) does not comprise the to-be-requested data, obtaining the to-be-requested data from a target cache node that comprises the to-be-requested data; the method comprises further that the target cache node is determined in an edge cache node set corresponding to the first edge cache node (102-1) and a central cache node (103-1) corresponding to the first edge cache node (102-1); and wherein every two edge cache nodes in the edge cache node set can directly communicate with each other.
Device for detecting mechanical loads and/or deformations in a cast component, comprising a cast component and a control device for outputting a signal, wherein the cast component comprises a cast base body and at least one sensor at least partly embedded into the cast base body for detecting mechanical loads and/or deformations of the cast component, wherein the control device is configured such that a signal is output when the at least one sensor detects a specific mechanical load and/or deformation of the cast component, wherein the at least one sensor is in the form of at least one short-circuit element or in the form of at least one optical conductor, wherein the short-circuit element comprises at least one electrically conductive component and at least one electrically insulating component, which electrically insulates the at least one electrically conductive component from the cast base body, wherein the at least one sensor is configured and arranged such that, from the specific mechanical load and/or deformation of the cast component, an electrical connection or a light conduction in the at least one sensor is interrupted or established, and wherein the interruption or establishment of the electrical connection or the light conduction results in the signal which indicates the registration of the specific mechanical load or deformation of the cast component by the sensor.
Stationary strength training equipment, comprising: a frame assembly ; a lockable bilateral user interface installed on the frame assembly ; a plurality of user selectable weights supported by the frame assembly ; a load detecting strain gauge , wherein the lockable bilateral user interface further includes a locking mechanism assembly and a central pivot assembly ; characterised in that a balancing structure is connected to the lockable bilateral user interface , the weights are connected to the balancing structure , the load detecting strain gauge is disposed on the user selectable weights and configured to detect a weight of the user selectable weights being lifted, a position sensor module is connected to the lockable bilateral user interface and configured to detect a balancing status and show a warning signal to a user via an informing device , the balancing structure is able to rotate about the central pivot assembly , and the locking mechanism assembly selectively blocks a rotation of the balancing structure . frame assembly ; a lockable bilateral user interface installed on the frame assembly ; a plurality of user selectable weights supported by the frame assembly ; a load detecting strain gauge ,
A user equipment, UE , comprising: a transceiver configured to simultaneously connect to a primary cell, PCell, serving a primary component carrier, PCC, a primary secondary cell, PSCell, serving a primary secondary component carrier, PSCC , and a plurality of secondary cells, SCells, each serving at least one secondary component carrier, SCC, wherein the PSCell is in a deactivated state and at least one Scell is in the deactivated state; and a processor communicatively coupled to the transceiver and configured to perform operations comprising: receiving a radio resource management, RRM, measurement configuration comprising a PCC measurement object, MO, configuration, a PSCC MO configuration, and an SCC MO configuration; determining a PCC MO carrier specific scaling factor, CSSF, a PSCC MO CSSF, and an SCC MO CSSF for each SCC (630-650), wherein the PSCC MO CSSF and the SCC MO CSSF results in a searcher being split evenly among the PSCC and each SCC (630-650) with an Scell in the deactivated state; and applying each respective CSSF to a measurement period corresponding to each of the PCC MO, the PSCC MO, and the SCC MO. a transceiver configured to simultaneously connect to a primary cell, PCell, serving a primary component carrier, PCC, a primary secondary cell, PSCell, serving a primary secondary component carrier, PSCC , and a plurality of secondary cells, SCells, each serving at least one secondary component carrier, SCC, wherein the PSCell is in a deactivated state and at least one Scell is in the deactivated state; and a processor communicatively coupled to the transceiver and configured to perform operations comprising: receiving a radio resource management, RRM, measurement configuration comprising a PCC measurement object, MO, configuration, a PSCC MO configuration, and an SCC MO configuration; determining a PCC MO carrier specific scaling factor, CSSF, a PSCC MO CSSF, and an SCC MO CSSF for each SCC (630-650), wherein the PSCC MO CSSF and the SCC MO CSSF results in a searcher being split evenly among the PSCC and each SCC (630-650) with an Scell in the deactivated state; and receiving a radio resource management, RRM, measurement configuration comprising a PCC measurement object, MO, configuration, a PSCC MO configuration, and an SCC MO configuration; determining a PCC MO carrier specific scaling factor, CSSF, a PSCC MO CSSF, and an SCC MO CSSF for each SCC (630-650), wherein the PSCC MO CSSF and the SCC MO CSSF results in a searcher being split evenly among the PSCC and each SCC (630-650) with an Scell in the deactivated state; and
A method of determining wear of a seal element , the method comprising: rotating a seal plate relative to the seal element , wherein the seal plate and the seal element form a rotational sealing interface , wherein the seal element includes an insert embedded in the seal element ; wearing a portion of the seal element with a sealing face of the seal plate ; contacting the insert with the sealing face of the seal plate ; wearing a portion of the insert to create a wear particle of the insert ; and characterised by sensing the presence of the wear particle in a lubrication oil with an oil monitoring system by scanning the lubrication oil with a sensor of the oil monitoring system . rotating a seal plate relative to the seal element , wherein the seal plate and the seal element form a rotational sealing interface , wherein the seal element includes an insert embedded in the seal element ; wearing a portion of the seal element with a sealing face of the seal plate ; contacting the insert with the sealing face of the seal plate ; wearing a portion of the insert to create a wear particle of the insert ; and characterised by sensing the presence of the wear particle in a lubrication oil with an oil monitoring system by scanning the lubrication oil with a sensor of the oil monitoring system .
An optical engine for use in a bench top flow cytometer comprising a flow cell , the optical engine comprising: a) a set of multiple lasers, each tuned to a wavelength suited for excitation of fluorescent molecules, wherein light from each of the lasers is focused horizontally along an x-axis to a same horizontal position and vertically along a y-axis to a different vertical position along a same excitation plane, wherein the same horizontal position along the excitation plane intersects a flow path through a flow cell of a flow cytometer; b) a set of optics comprising collection optics for collecting fluorescence emitted from the flow cell and filtration optics that filter the emitted fluorescence from the flow cell into different wavelength ranges, wherein the set of optics further separate the fluorescence of a same wavelength range into different locations in a focal plane of the collection optics according to the different lasers by which the fluorescent light is excited; and c) a detector that selectively detects light from the different locations thereby distinguishing between fluorescence emitted within the same wavelength range as excited by different lasers within the set of lasers and converts light to an electrical signal, wherein the detector is multi-pixel photon counter (MPPC) or silicon photomultiplier (SiPM), wherein the MPPC or SiPM is operated with a linear dynamic range above 3 decades, optionally above 4 decades under a single operational voltage. a) a set of multiple lasers, each tuned to a wavelength suited for excitation of fluorescent molecules, wherein light from each of the lasers is focused horizontally along an x-axis to a same horizontal position and vertically along a y-axis to a different vertical position along a same excitation plane, wherein the same horizontal position along the excitation plane intersects a flow path through a flow cell of a flow cytometer; b) a set of optics comprising collection optics for collecting fluorescence emitted from the flow cell and filtration optics that filter the emitted fluorescence from the flow cell into different wavelength ranges, wherein the set of optics further separate the fluorescence of a same wavelength range into different locations in a focal plane of the collection optics according to the different lasers by which the fluorescent light is excited; and c) a detector that selectively detects light from the different locations thereby distinguishing between fluorescence emitted within the same wavelength range as excited by different lasers within the set of lasers and converts light to an electrical signal, wherein the detector is multi-pixel photon counter (MPPC) or silicon photomultiplier (SiPM), wherein the MPPC or SiPM is operated with a linear dynamic range above 3 decades, optionally above 4 decades under a single operational voltage.
A mixture curable to provide an intumescent coating material, wherein the mixture comprises a silane-terminated polymer, a cross-linker for curing the silane-terminated polymer, an epoxy resin, a cross-linker for curing the epoxy resin, and an intumescent package, wherein the epoxy resin is different from the silane-terminated polymer.
A disposable absorbent hygiene product comprising a main part having an body facing surface intended to face the body of a user and a garment facing surface intended to face away from the body of a user, the main part comprising a liquid permeable topsheet at the body facing surface, a liquid impermeable backsheet at the garment facing surface , and an absorbent assembly arranged between said topsheet and said backsheet, said main part having a having a front end and a back end , and defining a longitudinal direction (L) from said front end towards said back end and defining a transversal direction (T) perpendicular to the longitudinal direction, wherein the absorbent assembly comprises a first absorbent core and a second absorbent core arranged in a stacked relationship, wherein said first absorbent core has a longitudinal length (L abs ) of from 500 to 1000 mm and a transversal width (W abs ) of from 200 to 450 mm and comprises cellulosic fibers optionally mixed with super absorbent particles, having a super absorbent particle concentration of from 0 to 30 wt%, and a cellulosic fiber basis weight of from 50 to 200 g/m 2 ; wherein said second absorbent core has a longitudinal length of from 20 to 80 % of the longitudinal length (L abs ) of said first core and comprises a mixture of cellulosic fibers and super absorbent particles, with a super absorbent particle concentration of from 20 to 70 wt%, and a cellulosic fiber basis weight of from 250 to 500 g/m 2 ; and wherein the longitudinal ends of the second core are located between the longitudinal ends of the first core.
A bispecific antibody for use in treating or preventing an acute thrombotic disorder in a patient, wherein said antibody comprises a. a first targeting domain that specifically binds to Thrombin Activatable Fibrinolysis Inhibitor (TAFI) and comprises complementary determining regions (CDRs) represented by the amino acid sequences SEQ ID NO:1 of CDR1H, SEQ ID NO:2 of CDR2H, SEQ ID NO:3 of CDR3H, SEQ ID NO:4 of CDR1L, SEQ ID NO:5 of CDR2L, and SEQ ID NO:6 of CDR3L, and b. a second targeting domain that specifically binds to Plasminogen Activator Inhibitor-1 (PAI-1) and comprises complementary determining regions (CDRs) represented by SEQ ID NO:7 of CDR1H, SEQ ID NO:8 of CDR2H, SEQ ID NO:9 of CDR3H, SEQ ID NO:10 of CDR1L, SEQ ID NO:11 of CDR2L and SEQ ID NO: 12 of CDR3L. a. a first targeting domain that specifically binds to Thrombin Activatable Fibrinolysis Inhibitor (TAFI) and comprises complementary determining regions (CDRs) represented by the amino acid sequences SEQ ID NO:1 of CDR1H, SEQ ID NO:2 of CDR2H, SEQ ID NO:3 of CDR3H, SEQ ID NO:4 of CDR1L, SEQ ID NO:5 of CDR2L, and SEQ ID NO:6 of CDR3L, and b. a second targeting domain that specifically binds to Plasminogen Activator Inhibitor-1 (PAI-1) and comprises complementary determining regions (CDRs) represented by SEQ ID NO:7 of CDR1H, SEQ ID NO:8 of CDR2H, SEQ ID NO:9 of CDR3H, SEQ ID NO:10 of CDR1L, SEQ ID NO:11 of CDR2L and SEQ ID NO: 12 of CDR3L.
A dispensing system comprising: a plurality of dispensers each configured to be located in a same washroom and dispense a respective consumable hygiene product, wherein each of the plurality of dispensers has an identifier; and a controller configured to be located in the washroom, remote to the plurality of dispensers and having a service mode and an operation mode different than the service mode, the controller configured to receive a request to enter into the service mode and to enter into the service mode in response to receiving the request, wherein the controller has a speaker , wherein, when in the service mode, the controller is configured cause an audible indication of a servicing need of at least one of the plurality of dispensers , and wherein the servicing need is one of the at least one of the plurality of dispensers having: low or no consumable hygiene product remaining, an electrical or mechanical malfunction, and a low battery condition, characterized in that : when in the service mode, the controller is configured to verbally speak both the servicing need of the at least one of the plurality of dispensers and its identifier. a plurality of dispensers each configured to be located in a same washroom and dispense a respective consumable hygiene product, wherein each of the plurality of dispensers has an identifier; and a controller configured to be located in the washroom, remote to the plurality of dispensers and having a service mode and an operation mode different than the service mode, the controller configured to receive a request to enter into the service mode and to enter into the service mode in response to receiving the request, wherein the controller has a speaker , wherein, when in the service mode, the controller is configured cause an audible indication of a servicing need of at least one of the plurality of dispensers , and wherein the servicing need is one of the at least one of the plurality of dispensers having: low or no consumable hygiene product remaining, an electrical or mechanical malfunction, and a low battery condition, low or no consumable hygiene product remaining, an electrical or mechanical malfunction, and a low battery condition,
A display device comprising: a front panel , which is translucent and at least part of which is an operation portion (OP); a display panel fixed to a back surface of the front panel ; a support member ) that supports the front panel in a support area (S) in which the display panel is not disposed; and an operation detection unit that is configured to detect that the operation portion (OP) has been operated; in the support area (S), an elastic member which is interposed between the front panel and the support member , characterised in that , a pressure resistive portion is provided in part of the elastic member , the pressure resistive portion exerting, when the operation portion (OP) is pressed backward, a greater compressive resistance force on the area of front panel corresponding to the operation portion (OP). a front panel , which is translucent and at least part of which is an operation portion (OP); a display panel fixed to a back surface of the front panel ; a support member ) that supports the front panel in a support area (S) in which the display panel is not disposed; and an operation detection unit that is configured to detect that the operation portion (OP) has been operated; in the support area (S), an elastic member which is interposed between the front panel and the support member ,
A Controller Area Network, CAN, communication method between a battery and a power management device using a CAN ID represented by 11 bits (ID 0 to ID 10), wherein generating the CAN ID includes: a first bit allocation process (S100) for allocating ID 8 to ID 10 bits of the CAN ID for use classification comprising a use classification bit area division step (S110) of dividing the ID 8 to ID 10 bits allocated for the use classification into two or more areas having a predetermined range; an application assignment step (S120) of assigning a use corresponding to each of two or more areas having a predetermined range divided in the use classification bit area division step (S110), wherein the used assigned in the application assignment step (S120) is assigned according to a transmission frequency, or according to an area where data is transmitted and received; a second bit allocation process (S200) for allocating ID 4 to ID 7 bits of the CAN ID for target classification comprising a target classification bit area division step (S210) for dividing ID 4 to ID 7 bits allocated for the target classification into two or more areas having a predetermined range; a target assignment step (S220) for assigning a data transmission target corresponding to each of two or more areas having a predetermined range divided in the target classification bit area division step (S210), wherein the target assigned in the target assignment step (S220) represents a target corresponding to information included in transmitted data; and a third bit allocation process (S300) for allocating (ID 0) to (ID 3) bits of the CAN ID for classifying the number of data. a first bit allocation process (S100) for allocating ID 8 to ID 10 bits of the CAN ID for use classification comprising a use classification bit area division step (S110) of dividing the ID 8 to ID 10 bits allocated for the use classification into two or more areas having a predetermined range; an application assignment step (S120) of assigning a use corresponding to each of two or more areas having a predetermined range divided in the use classification bit area division step (S110), wherein the used assigned in the application assignment step (S120) is assigned according to a transmission frequency, or according to an area where data is transmitted and received; a second bit allocation process (S200) for allocating ID 4 to ID 7 bits of the CAN ID for target classification comprising a target classification bit area division step (S210) for dividing ID 4 to ID 7 bits allocated for the target classification into two or more areas having a predetermined range; a target assignment step (S220) for assigning a data transmission target corresponding to each of two or more areas having a predetermined range divided in the target classification bit area division step (S210), wherein the target assigned in the target assignment step (S220) represents a target corresponding to information included in transmitted data; and a third bit allocation process (S300) for allocating (ID 0) to (ID 3) bits of the CAN ID for classifying the number of data.
A leak preventing appliance for preventing liquid from leaking out of a damaged tank , the leak preventing appliance comprising a vacuum pump and a suction head for being pressed against an outer wall of the tank under the effect of an underpressure generated by the vacuum pump , wherein the suction head comprises: - a first chamber with an opening intended for facing said tank wall when the suction head is pressed against it; and - at least one second chamber arranged around the first chamber and connected to a suction side of the vacuum pump , the second chamber having an opening intended for facing said tank wall so as to allow the suction head for being pressed against the tank wall and for being thereby attached to it when a reduced pressure is produced in the second chamber by the vacuum pump , characterized in that the first chamber is connectable to the suction side of the vacuum pump via a valve device , which is configured to keep the first chamber connected to the suction side of the vacuum pump when a reduced pressure produced in the second chamber by the vacuum pump is below a threshold value and to otherwise keep the first chamber disconnected from the suction side of the vacuum pump . - a first chamber with an opening intended for facing said tank wall when the suction head is pressed against it; and - at least one second chamber arranged around the first chamber and connected to a suction side of the vacuum pump , the second chamber having an opening intended for facing said tank wall so as to allow the suction head for being pressed against the tank wall and for being thereby attached to it when a reduced pressure is produced in the second chamber by the vacuum pump ,