mhurhangee/ep-ind-claims huggingface dataset:
A method for communicating cell congestion information to a mobile communication device, the method comprising the steps of: receiving a request for content from the mobile communication device; evaluating the requested content to determine whether the requested content is a high capacity data transfer that is subjected to bit rate throttling; comparing an identity of the mobile communication device with stored mobile communication device identities, wherein the stored mobile communication device identities are identities of mobile communication devices within congested cells; and notifying the mobile communication device of cell congestion if the mobile communication device identity matches one of the stored mobile communication device identity; wherein said notifying further comprising indicating that the high capacity data transfer within the congested cell is subjected to the bit rate throttling. receiving a request for content from the mobile communication device; evaluating the requested content to determine whether the requested content is a high capacity data transfer that is subjected to bit rate throttling; comparing an identity of the mobile communication device with stored mobile communication device identities, wherein the stored mobile communication device identities are identities of mobile communication devices within congested cells; and notifying the mobile communication device of cell congestion if the mobile communication device identity matches one of the stored mobile communication device identity; wherein said notifying further comprising indicating that the high capacity data transfer within the congested cell is subjected to the bit rate throttling.
A system for triggering an imaging process during a radiation treatment process, comprising: a processing unit that is configured to: obtain first information; and process the first information to determine if a first pre-defined criterion is satisfied (204, 404); wherein the processing unit is configured to generate a signal to cause an imaging process that includes a delivery of imaging energy to begin based at least in part on a result from the act of processing, wherein the first information is regarding a state of a device of the treatment process (202, 402); characterized in that: the first information comprises an amount of time that the device has been operated. obtain first information; and process the first information to determine if a first pre-defined criterion is satisfied (204, 404); wherein the processing unit is configured to generate a signal to cause an imaging process that includes a delivery of imaging energy to begin based at least in part on a result from the act of processing, wherein the first information is regarding a state of a device of the treatment process (202, 402); characterized in that: the first information comprises an amount of time that the device has been operated.
An electrochemical cell (400, 500, 600) comprising: a first flow structure (440, 540, 640), a second flow structure (450, 550, 650), and a membrane electrode assembly (430, 530, 630) disposed between the first and second flow structures; wherein the second flow structure (450, 550, 650) has a stiffness (k) greater than the first flow structure (440, 540, 640), wherein stiffness (k) is determined according to equation 1: k = AE L wherein A is the cross-sectional area, L is the elemental length, and E is the elastic modulus; characterized in that: the first flow structure (440, 540, 640) is constructed of a material having a lower elastic modulus than the second flow structure (450, 550, 650), and a length of the first flow structure is greater than a length of the second flow structure, wherein the length of the first flow structure and the length of the second flow structure is measured along a longitudinal axis running from the center of the first flow structure to the center of the second flow structure, and wherein the stiffness of the first flow structure and the second flow structure is measured in a direction parallel to the longitudinal axis running from the center of the first flow structure to the center of the second flow structure. a first flow structure (440, 540, 640), a second flow structure (450, 550, 650), and a membrane electrode assembly (430, 530, 630) disposed between the first and second flow structures; wherein the second flow structure (450, 550, 650) has a stiffness (k) greater than the first flow structure (440, 540, 640), wherein stiffness (k) is determined according to equation 1: k = AE L wherein A is the cross-sectional area, L is the elemental length, and E is the elastic modulus; characterized in that: the first flow structure (440, 540, 640) is constructed of a material having a lower elastic modulus than the second flow structure (450, 550, 650), and a length of the first flow structure is greater than a length of the second flow structure, wherein the length of the first flow structure and the length of the second flow structure is measured along a longitudinal axis running from the center of the first flow structure to the center of the second flow structure, and wherein the stiffness of the first flow structure and the second flow structure is measured in a direction parallel to the longitudinal axis running from the center of the first flow structure to the center of the second flow structure. the first flow structure (440, 540, 640) is constructed of a material having a lower elastic modulus than the second flow structure (450, 550, 650), and a length of the first flow structure is greater than a length of the second flow structure, wherein the length of the first flow structure and the length of the second flow structure is measured along a longitudinal axis running from the center of the first flow structure to the center of the second flow structure, and wherein the stiffness of the first flow structure and the second flow structure is measured in a direction parallel to the longitudinal axis running from the center of the first flow structure to the center of the second flow structure.
A method comprising: a node receiving an instruction to create a Segment Routing, SR, tunnel or a MPLS Traffic Engineering, TE, tunnel between the node and another node via a plurality of nodes (206, 208, 216, 218) in data communication between the node and the other node; the node creating, in response to receiving the instruction, a stack of segment identifiers (66, 70, 71), each of which corresponding to a respective one of the plurality of nodes (206, 208, 216, 218), said stack corresponding to the SR tunnel or the TE tunnel; the node mapping a Forwarding Adjacency, FA,-segment identifier, ID, to the stack of segment identifiers (66, 70, 71); the node advertising the FA-segment ID to other nodes in a network of nodes (204, 206, 208, 210, 212, 214, 216, 218, 222, 224, 226), for the other nodes in the network of nodes to use the advertised FA-segment ID to create Segment Paths and corresponding stacks of segment identifiers. a node receiving an instruction to create a Segment Routing, SR, tunnel or a MPLS Traffic Engineering, TE, tunnel between the node and another node via a plurality of nodes (206, 208, 216, 218) in data communication between the node and the other node; the node creating, in response to receiving the instruction, a stack of segment identifiers (66, 70, 71), each of which corresponding to a respective one of the plurality of nodes (206, 208, 216, 218), said stack corresponding to the SR tunnel or the TE tunnel; the node mapping a Forwarding Adjacency, FA,-segment identifier, ID, to the stack of segment identifiers (66, 70, 71); the node advertising the FA-segment ID to other nodes in a network of nodes (204, 206, 208, 210, 212, 214, 216, 218, 222, 224, 226), for the other nodes in the network of nodes to use the advertised FA-segment ID to create Segment Paths and corresponding stacks of segment identifiers.
A photovoltaic module, comprising: a front glass plate, a first back plate, an adhesive layer provided between the front glass plate and the first back plate, and a cell sheet provided in the adhesive layer, wherein at least a hollow layer is provided between the front glass plate and the adhesive layer; the photovoltaic module further comprises a support structure, wherein the front glass plate is supported on the support structure, such that the front glass plate is separated from the adhesive layer in a determined distance so as to form the hollow layer; the photovoltaic module further comprises a second back plate provided at a bottom side of the first back plate, characterized in that, the support structure is supported on the second back plate, and the support structure directly contacts with the second back plate, the second back plate is adhered to the first back plate by using an adhesive, and the support structure surrounds an outside of the first back plate, the adhesive, the cell sheet provided in the adhesive layer and the hollow layer; the second back plate is a thermal collecting plate. the photovoltaic module further comprises a support structure, wherein the front glass plate is supported on the support structure, such that the front glass plate is separated from the adhesive layer in a determined distance so as to form the hollow layer; the photovoltaic module further comprises a second back plate provided at a bottom side of the first back plate, characterized in that, the support structure is supported on the second back plate, and the support structure directly contacts with the second back plate, the second back plate is adhered to the first back plate by using an adhesive, and the support structure surrounds an outside of the first back plate, the adhesive, the cell sheet provided in the adhesive layer and the hollow layer; the second back plate is a thermal collecting plate.
A pharmaceutical composition for use in the prevention or treatment of age-related macular degeneration, the pharmaceutical composition comprising a 6-aminopyridin-3-ol derivative represented by Formula 1 below or a pharmaceutically acceptable salt thereof as an active ingredient: wherein R 1 is a hydrogen, a C1 to C4 alkyl, or a phenyl, R 2 is a hydrogen, a C1 to C16 alkyl, a C1 to C16 hydroxyalkyl, a C2 to C4 (5-hydroxy-trimethylpyridin-2-yl)alkoxy, a C3 to C7 cycloalkyl, benzyl, a phenyl, a C1 to C4 alkylphenyl, a nitrophenyl, a halophenyl, a benzo[d][1,3]-dioxol-5-yl, or a pyridine-2-yl; or R 1 and R 2 are linked to each other to form a 5-membered ring or a 6-membered ring, thereby forming a heterocyclic compound, and are any one selected from pyrrolidine-1-yl, 4-methylpiperazine-1-yl, 6-morpholinos, and 1H-pyrrol-1-yl, and R 3 to R 5 are identical or different, and are each a hydrogen or a C1 to C4 alkyl.
A method for visually displaying performance of an athlete tracking system that receives signals from a tracking tag located within a tracking area to determine locations of the tracking tag and an error condition due to one of a hardware error of the tracking system, a hardware error of the tracking tag, and a configuration error of the tracking system, the method comprising: displaying on a graphical representation of at least part of the tracking area (a) a sequence of non-error symbols corresponding to the determined locations of the tracking tag, and (b) an error symbol corresponding to a last-known location, of the determined locations, immediately prior to the error condition, the error symbol indicating the error condition.
A device for treating sleep apnea by powering an implant within a body of a subject from a location external to the subject, wherein the implant requires a threshold rate of power increase in order to operate in at least one mode to stimulate a hypoglossal nerve and thereby cause contraction of a genioglossal muscle, the device comprising: an antenna configured for location between a neck and a chin of the subject and to wirelessly transmit energy to the implant; a power storage unit; a power release unit; a power source (140, 1780); characterized in that the power storage unit is configured to store energy from the power source (140, 1780) to enable the implant unit to operate in the at least one mode; wherein the device further comprises at least one processor configured to control a mode of operation of the power release unit such that in a first mode of operation the power storage unit receives power from the power source (140, 1780), and in a second mode of operation, the power storage unit (140, 1780) releases power to the antenna to cause an oscillation in the primary antenna at a resonance frequency, wherein the power release unit is configured to release a pulse of energy from the power storage unit to the antenna after the power storage unit collects an amount of energy sufficient to enable the implant unit to stimulate the hypoglossal nerve to cause contraction of the genioglossal muscle, and wherein the threshold rate of power increase includes a current increase between 0,01 to 0,6 milliamps per microsecond. an antenna configured for location between a neck and a chin of the subject and to wirelessly transmit energy to the implant; a power storage unit; a power release unit; a power source (140, 1780); wherein the device further comprises at least one processor configured to control a mode of operation of the power release unit such that in a first mode of operation the power storage unit receives power from the power source (140, 1780), and in a second mode of operation, the power storage unit (140, 1780) releases power to the antenna to cause an oscillation in the primary antenna at a resonance frequency, wherein the power release unit is configured to release a pulse of energy from the power storage unit to the antenna after the power storage unit collects an amount of energy sufficient to enable the implant unit to stimulate the hypoglossal nerve to cause contraction of the genioglossal muscle, and wherein the threshold rate of power increase includes a current increase between 0,01 to 0,6 milliamps per microsecond.
Method for monitoring a winding temperature of a winding of an electric machine, wherein the electric machine is powered by a converter, wherein by means of an apparatus - a heating power applied to the winding is determined, - the heating power is evaluated using a thermal model, - a warning signal and/or a switch-off signal is generated when a critical winding temperature value is exceeded, characterised in that by means of the apparatus - a relative increase in a resistance of the winding, in particular of the copper winding or individual UVW motor strands, when the winding heats up, is determined from the heating power, in comparison with a standard reference value for 20°C winding temperature, in particular copper temperature, - the winding temperature is calculated from the relative increase in the resistance. wherein the electric machine is powered by a converter, wherein by means of an apparatus - a heating power applied to the winding is determined, - the heating power is evaluated using a thermal model, - a warning signal and/or a switch-off signal is generated when a critical winding temperature value is exceeded, - a heating power applied to the winding is determined, - the heating power is evaluated using a thermal model, - a warning signal and/or a switch-off signal is generated when a critical winding temperature value is exceeded, characterised in that by means of the apparatus - a relative increase in a resistance of the winding, in particular of the copper winding or individual UVW motor strands, when the winding heats up, is determined from the heating power, in comparison with a standard reference value for 20°C winding temperature, in particular copper temperature, - the winding temperature is calculated from the relative increase in the resistance. - a relative increase in a resistance of the winding, in particular of the copper winding or individual UVW motor strands, when the winding heats up, is determined from the heating power, in comparison with a standard reference value for 20°C winding temperature, in particular copper temperature, - the winding temperature is calculated from the relative increase in the resistance.
Catheter coupling having a main body, having a tube piece, and having two jaws (5, 6) which extend in a longitudinal direction of the tube piece and which, in a state of abutment with one another, form, together with the tube piece, a channel with a mouth opening for receiving an end portion of a catheter, - wherein the jaws (5, 6) are connected to one another at in each case one jaw end via an articulated jaw joint with an articulated joint axis transverse to the tube piece and have at the respective other jaw end a latch locking element and a mating latch locking element which interacts with the latter, wherein the two locking elements (10, 11) form a latch locking device, - wherein, in a latching position of the latch locking device (10, 11), the tube piece is deformed via at least one jaw deformation component (12, 13; 25) for the purpose of receiving the catheter end portion in a securing manner, characterized by at least one viewing window in a main body, via which viewing window it is possible to visually inspect a stop in the tube piece for the end portion of the catheter. - wherein the jaws (5, 6) are connected to one another at in each case one jaw end via an articulated jaw joint with an articulated joint axis transverse to the tube piece and have at the respective other jaw end a latch locking element and a mating latch locking element which interacts with the latter, wherein the two locking elements (10, 11) form a latch locking device, - wherein, in a latching position of the latch locking device (10, 11), the tube piece is deformed via at least one jaw deformation component (12, 13; 25) for the purpose of receiving the catheter end portion in a securing manner,
A computer-implemented method for determining a formation response from a detected electromagnetic signal resulting from a first electromagnetic signal imparted into a subsurface earth formation at a first location and from a second electromagnetic signal imparted into the formation at a second location, the first and second signals being imparted substantially contemporaneously, the method characterised by: (a) deconvolving the detected signal using the first electromagnetic signal; (b) estimating the formation response to the first electromagnetic signal using the deconvolved detected signal; (c) convolving the estimated formation response from (b) with the first electromagnetic signal; (d) subtracting a result of the convolution of the estimated formation response with the first electromagnetic signal from the detected signal, and (e) deconvolving the result of (d) with the second electromagnetic signal to produce an estimate of formation response to the second electromagnetic signal. (a) deconvolving the detected signal using the first electromagnetic signal; (b) estimating the formation response to the first electromagnetic signal using the deconvolved detected signal; (c) convolving the estimated formation response from (b) with the first electromagnetic signal; (d) subtracting a result of the convolution of the estimated formation response with the first electromagnetic signal from the detected signal, and (e) deconvolving the result of (d) with the second electromagnetic signal to produce an estimate of formation response to the second electromagnetic signal.
A chewing gum composition comprising at least one water soluble color compound and at least one water insoluble color compound; wherein the at least one water soluble color compound leaches out of the chewing gum after from about 5 minutes to about 20 minutes of chewing; wherein the at least one water soluble color compound is selected from the group consisting of FD&C Blue 1 dye, FD&C Blue 2 dye, liquid caramel (regular or low 4 MEI), FD&C Red 40, FD&C Red 3, FD&C Yellow 5, FD&C Yellow 6, FD&C Green 3, and combinations thereof; and wherein the at least one water insoluble color compound is selected from the group consisting of lake pigment, titanium dioxide, curcumin, iron oxides, FD&C Blue 1 lake, beta carotene, Beta Apo 8' Carotenal, and combinations thereof wherein the at least one water soluble color compound is selected from the group consisting of FD&C Blue 1 dye, FD&C Blue 2 dye, liquid caramel (regular or low 4 MEI), FD&C Red 40, FD&C Red 3, FD&C Yellow 5, FD&C Yellow 6, FD&C Green 3, and combinations thereof; and wherein the at least one water insoluble color compound is selected from the group consisting of lake pigment, titanium dioxide, curcumin, iron oxides, FD&C Blue 1 lake, beta carotene, Beta Apo 8' Carotenal, and combinations thereof
A charging connector comprising: an exterior case having two case split bodies (2A, 2B) assembled to each other with abutting surfaces of the two case split bodies being in contact with each other, the two case split bodies as assembled having a connector fitting portion projecting hole and an electric wire pullout hole; a connector body housed inside the exterior case and having a connector fitting portion exposed outside the exterior case through the connector fitting portion projecting hole; and a seal member formed of an integral body including a connector body seal portion arranged along a whole circumference of the connector fitting portion projecting hole and interposed between the exterior case and the connector body, and an electric wire seal portion arranged along a whole circumference of the electric wire pullout hole and interposed between the exterior case and an electric wire pulled out from the connector body and led outside the exterior case through the electric wire pullout hole, characterized in that said integral body further includes a case split surface seal portion arranged along whole circumferences of the abutting surfaces surrounding a portion of the connector body housed inside the exterior case and interposed between the abutting surfaces of the two case split bodies. an exterior case having two case split bodies (2A, 2B) assembled to each other with abutting surfaces of the two case split bodies being in contact with each other, the two case split bodies as assembled having a connector fitting portion projecting hole and an electric wire pullout hole; a connector body housed inside the exterior case and having a connector fitting portion exposed outside the exterior case through the connector fitting portion projecting hole; and a seal member formed of an integral body including a connector body seal portion arranged along a whole circumference of the connector fitting portion projecting hole and interposed between the exterior case and the connector body, and an electric wire seal portion arranged along a whole circumference of the electric wire pullout hole and interposed between the exterior case and an electric wire pulled out from the connector body and led outside the exterior case through the electric wire pullout hole, a connector body seal portion arranged along a whole circumference of the connector fitting portion projecting hole and interposed between the exterior case and the connector body, and an electric wire seal portion arranged along a whole circumference of the electric wire pullout hole and interposed between the exterior case and an electric wire pulled out from the connector body and led outside the exterior case through the electric wire pullout hole, a case split surface seal portion arranged along whole circumferences of the abutting surfaces surrounding a portion of the connector body housed inside the exterior case and interposed between the abutting surfaces of the two case split bodies.