mhurhangee/ep-ind-claims huggingface dataset:
An impeller configured for use in a catheter pump, the impeller comprising: a hub having a distal portion, a proximal portion, and a diameter; and a blade having a fixed end at the hub and a free end, the blade having a height (h) defined by a maximum distance between the hub and the free end, wherein a value relating to a ratio (σ) of the blade height (h) to the hub diameter is in a range of about 0.7 to about 1.45, wherein the diameter of the hub is defined by an average of a first diameter near the distal portion of the hub and a second diameter near the proximal portion of the hub, and wherein the first diameter is less than the second diameter. a hub having a distal portion, a proximal portion, and a diameter; and a blade having a fixed end at the hub and a free end, the blade having a height (h) defined by a maximum distance between the hub and the free end, wherein a value relating to a ratio (σ) of the blade height (h) to the hub diameter is in a range of about 0.7 to about 1.45, wherein the diameter of the hub is defined by an average of a first diameter near the distal portion of the hub and a second diameter near the proximal portion of the hub, and wherein the first diameter is less than the second diameter.
A medical electrical lead (14, 16; 60) comprising: a flexible, elongated polymeric lead body defining at least one longitudinal lumen therethrough; a conducting wire extending through the at least one lumen; a connector coupled to the lead body for mechanically and electrically coupling the lead to an implantable pulse generator device; an electrode (40, 46, 48, 50; 74) disposed on an exterior portion of the lead body, wherein the electrode is electrically coupled to the conducting wire; and a porous coating disposed on the electrode, the porous coating comprising: a polymeric nanofiber mesh comprising polyetheretherketone; a first coating disposed on the fiber mesh, characterised in that the first coating comprises TiO 2 and polyacrylic acid; and in a second coating disposed on the first coating, comprising a fluoroalkylsilane. a flexible, elongated polymeric lead body defining at least one longitudinal lumen therethrough; a conducting wire extending through the at least one lumen; a connector coupled to the lead body for mechanically and electrically coupling the lead to an implantable pulse generator device; an electrode (40, 46, 48, 50; 74) disposed on an exterior portion of the lead body, wherein the electrode is electrically coupled to the conducting wire; and a porous coating disposed on the electrode, the porous coating comprising: a polymeric nanofiber mesh comprising polyetheretherketone; a first coating disposed on the fiber mesh, characterised in that the first coating comprises TiO 2 and polyacrylic acid; and in a second coating disposed on the first coating, comprising a fluoroalkylsilane. a polymeric nanofiber mesh comprising polyetheretherketone; a first coating disposed on the fiber mesh, characterised in that the first coating comprises TiO 2 and polyacrylic acid; and in a second coating disposed on the first coating, comprising a fluoroalkylsilane.
A bent heat exchanger, comprising: a first header and a second header, each of the first header and the second header comprising at least one bent segment and a straight segment adjoining the bent segment, the bent segment of the first header being corresponding to the bent segment of the second header; a plurality of flat tubes, two ends of the flat tube being connected to the first header and the second header respectively, the plurality of flat tubes being spaced apart from one another along axial directions of the first header and the second header; and fins, each disposed between adjacent flat tubes, extending in a corrugated shape along a length direction of the flat tube, and comprising flat-straight segments and arc segments, each arc segment being connected between adjacent flat-straight segments, characterized in that a thickness of the fin is denoted as FT, the first header and the second header have different outer diameters, in which a larger one of the outer diameters of the first header and the second header is denoted as OD, the first header and the second header have different wall thicknesses, in which a larger one of the wall thicknesses of the first header and the second header is denoted as T, a width of the flat tube is denoted as W, an arc radius of the fin is denoted as FR, and a height of the fin is denoted as FH, wherein each of FT, OD, T, W, FR and FH has a length unit of millimeter, and 0.01mm≤(100×FT×FR×T)/(FH×OD)≤9mm. a first header and a second header, each of the first header and the second header comprising at least one bent segment and a straight segment adjoining the bent segment, the bent segment of the first header being corresponding to the bent segment of the second header; a plurality of flat tubes, two ends of the flat tube being connected to the first header and the second header respectively, the plurality of flat tubes being spaced apart from one another along axial directions of the first header and the second header; and fins, each disposed between adjacent flat tubes, extending in a corrugated shape along a length direction of the flat tube, and comprising flat-straight segments and arc segments, each arc segment being connected between adjacent flat-straight segments, characterized in that a thickness of the fin is denoted as FT, the first header and the second header have different outer diameters, in which a larger one of the outer diameters of the first header and the second header is denoted as OD, the first header and the second header have different wall thicknesses, in which a larger one of the wall thicknesses of the first header and the second header is denoted as T, a width of the flat tube is denoted as W, an arc radius of the fin is denoted as FR, and a height of the fin is denoted as FH, wherein each of FT, OD, T, W, FR and FH has a length unit of millimeter, and 0.01mm≤(100×FT×FR×T)/(FH×OD)≤9mm.
A hot water system comprising: a heating device water circuit connected via an input and an output to a main water circuit; a first temperature sensor; a second temperature sensor; and an apparatus for controlling connection of the heating device water circuit to the main water circuit, the connection including a valve for controlling flow of water from the heating device water circuit output to the main water circuit, the apparatus comprising: a control system for controlling operation of the valve, wherein the control system has two sensor inputs for measurements of temperature from the first and second temperature sensors, wherein: the first temperature sensor is installed at a location upstream of the heating device water circuit output and in a flow path extending between this output and a heating devices for heating water, in the heating device water circuit; and the second temperature sensor is for measuring a forward temperature of the main water circuit and is installed on the main water circuit downstream of the heating device water circuit output, characterized in that the first temperature sensor is for measuring a return temperature. a heating device water circuit connected via an input and an output to a main water circuit; a first temperature sensor; a second temperature sensor; and an apparatus for controlling connection of the heating device water circuit to the main water circuit, the connection including a valve for controlling flow of water from the heating device water circuit output to the main water circuit, the apparatus comprising: a control system for controlling operation of the valve, wherein the control system has two sensor inputs for measurements of temperature from the first and second temperature sensors, wherein: the first temperature sensor is installed at a location upstream of the heating device water circuit output and in a flow path extending between this output and a heating devices for heating water, in the heating device water circuit; and the second temperature sensor is for measuring a forward temperature of the main water circuit and is installed on the main water circuit downstream of the heating device water circuit output, characterized in that a control system for controlling operation of the valve, wherein the control system has two sensor inputs for measurements of temperature from the first and second temperature sensors, the first temperature sensor is installed at a location upstream of the heating device water circuit output and in a flow path extending between this output and a heating devices for heating water, in the heating device water circuit; and the second temperature sensor is for measuring a forward temperature of the main water circuit and is installed on the main water circuit downstream of the heating device water circuit output, characterized in that
A scales unit for a coffee bean grinder comprising a load cell, wherein the load cell is in operative connection with a receiving device for a filter holder of a semi-automatic coffee machine, wherein it comprises a travel limiting means that interacts with the end of the load cell being subject to bending for protection against overload, characterized in that the end of the load cell being subject to bending is screwed to the receiving device by means of at least one screw, wherein the screw penetrates the load cell, and in that the travel limiting means is arranged on the screw head and interacts with a bottom section of the scales unit, wherein the screw shaft penetrates an opening in the bottom section.
A virtualized network function, VNF, failover method, comprising: receiving, by a management and orchestration, MANO, system, a fault message, wherein the fault message is used to indicate a first VNF that is faulty; determining, by the MANO system, a primary affinity group to which the first VNF belongs and a secondary affinity group of the primary affinity group, wherein VNFs in the secondary affinity group are in a one-to-one correspondence with VNFs in the primary affinity group, and the affinity group represents a set of VNFs on which an affinity policy is used; and instructing, by the MANO system, the VNFs in the secondary affinity group to continue to process services of the VNFs in the primary affinity group. receiving, by a management and orchestration, MANO, system, a fault message, wherein the fault message is used to indicate a first VNF that is faulty; determining, by the MANO system, a primary affinity group to which the first VNF belongs and a secondary affinity group of the primary affinity group, wherein VNFs in the secondary affinity group are in a one-to-one correspondence with VNFs in the primary affinity group, and the affinity group represents a set of VNFs on which an affinity policy is used; and instructing, by the MANO system, the VNFs in the secondary affinity group to continue to process services of the VNFs in the primary affinity group.
Household appliance, comprising: - a communications facility for wireless communication; - an output apparatus; - a facility for determining a distance with respect to a mobile device; and - a processing facility, characterised in that the processing facility is configured so as to wirelessly couple the mobile device to the household appliance, and that the processing facility is further configured so as to provide - an output that is transmitted from the mobile device to the household appliance, - a function which runs on the mobile device and • goes beyond controlling the household appliance, • in dependence upon the determined distance • on the output apparatus of the household appliance. - a communications facility for wireless communication; - an output apparatus; - a facility for determining a distance with respect to a mobile device; and - a processing facility, - an output that is transmitted from the mobile device to the household appliance, - a function which runs on the mobile device and • goes beyond controlling the household appliance, • in dependence upon the determined distance • on the output apparatus of the household appliance. • goes beyond controlling the household appliance, • in dependence upon the determined distance • on the output apparatus of the household appliance.
A continuous spraying trigger dispenser having no metallic components, the dispenser comprising: a pump body defining a fluid flow path passing completely through the pump body, the pump body having a closure cap, a dispensing nozzle, and a pump chamber accommodating a movable piston; a reservoir diaphragm attached to the pump body and positioned above the pump chamber, the reservoir diaphragm having an inlet to receive fluid from the pump chamber, an outlet connected to the dispensing nozzle, and a sidewall connected to at least one expandable, resilient panel that moves in response to fluid accumulation within the diaphragm and biasing force exerted on an outer surface of the panel; and a trigger pivotally connected to the pump body proximate to the pump chamber, the trigger having a driving member urging the piston to move within the pump chamber, thereby varying volume in a portion of the pump chamber connected to the fluid flow path so as to urge fluid along the fluid flow path; whereby fluid accumulating within the diaphragm is dispensable continuously according to at least one of the following: (i) for a period of time exceeding that required to actuate the trigger; and (ii) so that a maximum volume of fluid received within the portion of the pump chamber connected to the fluid flow path is less than a volume of the reservoir diaphragm when the panel is at least partially expanded, wherein the diaphragm comprises two shell members (610, 620) coupled together, with at least one shell member including said expandable resilient panel. a pump body defining a fluid flow path passing completely through the pump body, the pump body having a closure cap, a dispensing nozzle, and a pump chamber accommodating a movable piston; a reservoir diaphragm attached to the pump body and positioned above the pump chamber, the reservoir diaphragm having an inlet to receive fluid from the pump chamber, an outlet connected to the dispensing nozzle, and a sidewall connected to at least one expandable, resilient panel that moves in response to fluid accumulation within the diaphragm and biasing force exerted on an outer surface of the panel; and a trigger pivotally connected to the pump body proximate to the pump chamber, the trigger having a driving member urging the piston to move within the pump chamber, thereby varying volume in a portion of the pump chamber connected to the fluid flow path so as to urge fluid along the fluid flow path; whereby fluid accumulating within the diaphragm is dispensable continuously according to at least one of the following: (i) for a period of time exceeding that required to actuate the trigger; and (ii) so that a maximum volume of fluid received within the portion of the pump chamber connected to the fluid flow path is less than a volume of the reservoir diaphragm when the panel is at least partially expanded, wherein the diaphragm comprises two shell members (610, 620) coupled together, with at least one shell member including said expandable resilient panel.
A pre-mounted installation box for faucets, comprising: a) a box body, b) a circular fixture frame, which is installed around the box body and is connected with the box body via at least one linkage mechanism, c) wherein the linkage mechanism includes i. a first notch, which is located on an inner side of the fixture frame, and ii. a first rib, which is located on an outer side of the box body and has at least one socket, which first rib extends into the first notch, characterized by iii. a slot, extending from a hole on an end surface of the fixture frame the fixture frame to the first notch, and iv. a plug, which is plugged into the slot and reaches the socket thereby locking up the position of the fixture frame. a) a box body, b) a circular fixture frame, which is installed around the box body and is connected with the box body via at least one linkage mechanism, c) wherein the linkage mechanism includes i. a first notch, which is located on an inner side of the fixture frame, and ii. a first rib, which is located on an outer side of the box body and has at least one socket, which first rib extends into the first notch, characterized by iii. a slot, extending from a hole on an end surface of the fixture frame the fixture frame to the first notch, and iv. a plug, which is plugged into the slot and reaches the socket thereby locking up the position of the fixture frame. i. a first notch, which is located on an inner side of the fixture frame, and ii. a first rib, which is located on an outer side of the box body and has at least one socket, which first rib extends into the first notch, characterized by iii. a slot, extending from a hole on an end surface of the fixture frame the fixture frame to the first notch, and iv. a plug, which is plugged into the slot and reaches the socket thereby locking up the position of the fixture frame.
A three-dimensional stacked module comprising: a set of W dies in a stack, wherein W ≥ 2, each die in the stack comprising an electrical contact region over a substrate (28, 41), the electrical contact region comprising a plurality of pads; the stack of dies comprising a first die at one end of the stack and a second die at the other end of the stack, the substrate (28, 41) of the first die facing the plurality of pads of the second die; the plurality of pads on each die being aligned with those on the one or more other dies in the stack, the plurality of pads on each die including one single selected pad called landing pad; a set of W-1 electrical connectors extending from the surface of the first die including the contact region and into the stack of dies to electrically contact W-1 landing pads through vias, one further electrical connector electrically contacting the landing pad of the first die, to create a three-dimensional stacked multichip module having W die levels (68, 70, 74, 76, 78, 82, 84, 86), wherein each of said electrical connectors reaches and electrically connects to one single landing pad in the stack of dies, the one or more substrates and the one or more pads above the landing pad along each via being each provided with recessed regions (88, 90), and the vias being lined with a dielectric material filling in the recessed regions (88, 90). a set of W dies in a stack, wherein W ≥ 2, each die in the stack comprising an electrical contact region over a substrate (28, 41), the electrical contact region comprising a plurality of pads; the stack of dies comprising a first die at one end of the stack and a second die at the other end of the stack, the substrate (28, 41) of the first die facing the plurality of pads of the second die; the plurality of pads on each die being aligned with those on the one or more other dies in the stack, the plurality of pads on each die including one single selected pad called landing pad; a set of W-1 electrical connectors extending from the surface of the first die including the contact region and into the stack of dies to electrically contact W-1 landing pads through vias, one further electrical connector electrically contacting the landing pad of the first die, to create a three-dimensional stacked multichip module having W die levels (68, 70, 74, 76, 78, 82, 84, 86), wherein each of said electrical connectors reaches and electrically connects to one single landing pad in the stack of dies, the one or more substrates and the one or more pads above the landing pad along each via being each provided with recessed regions (88, 90), and the vias being lined with a dielectric material filling in the recessed regions (88, 90).
A method for obtaining, by a user equipment, UE, power headroom information in a communication system, the method comprising: acquiring information for a power headroom report, PHR, associated with multiple cells; acquiring information for a path loss reference based on a second cell configuration, wherein the information for the path loss reference indicates a cell to which the UE applies as the path loss reference for a second cell and a pathloss reference for a first cell of the multiple cells is the first cell; triggering the PHR in case that an uplink grant for a new transmission is received, a prohibitPHR-Timer expires and a path loss is changed more than a threshold for at least one activated cell which is used as the path loss reference; obtaining power headroom information for each activated cell configured with uplink, UL, in case that the PHR is triggered; and generating a medium access control, MAC, protocol data unit, PDU, including the power headroom information for each activated cell with configured UL and an indicator for each activated cell with configured UL, wherein the indicator indicates whether the power headroom information is based on a real physical uplink shared channel, PUSCH, transmission or a PUSCH reference format, wherein, in case that power headroom information is based on the PUSCH reference format, zero power back-off is considered and the power headroom is obtained based on a maximum power equal to the least one of a maximum allowed UE output power (P EMAX) and a nominal UE power (P powerclass). acquiring information for a power headroom report, PHR, associated with multiple cells; acquiring information for a path loss reference based on a second cell configuration, wherein the information for the path loss reference indicates a cell to which the UE applies as the path loss reference for a second cell and a pathloss reference for a first cell of the multiple cells is the first cell; triggering the PHR in case that an uplink grant for a new transmission is received, a prohibitPHR-Timer expires and a path loss is changed more than a threshold for at least one activated cell which is used as the path loss reference; obtaining power headroom information for each activated cell configured with uplink, UL, in case that the PHR is triggered; and generating a medium access control, MAC, protocol data unit, PDU, including the power headroom information for each activated cell with configured UL and an indicator for each activated cell with configured UL, wherein the indicator indicates whether the power headroom information is based on a real physical uplink shared channel, PUSCH, transmission or a PUSCH reference format, wherein, in case that power headroom information is based on the PUSCH reference format, zero power back-off is considered and the power headroom is obtained based on a maximum power equal to the least one of a maximum allowed UE output power (P EMAX) and a nominal UE power (P powerclass).