mhurhangee/ep-ind-claims huggingface dataset:
An active headrest apparatus for a vehicle seat, comprising: a back plate connected to a lower armature and comprising slot holes formed in right and left ends of the back plate disposed in a direction to both side frames; combination pins perforating the slot holes and combined to the side frames so that the combination pins are movable along the slot holes; a back plate spring having one end combined to the side frames and the other end combined to the back plate and providing an elastic restoring force to the back plate; sand an upper armature combined to the lower armature and having an upper end which perforates an upper frame, the back plate comprising a pressurizing portion being an intermediate portion to which a pressure is applied while the pressurizing portion contacts an upper body of a person who is seated in a car; and an armature combination portion extending from the pressurizing portion to both sides of the pressurizing portion and combined to the lower armature characterized in that the back plate further comprises right and left both-end side portions extending from the armature combination portion and bent in such a way that the side portions are maintained adjacent to and parallel to the side frames, wherein the slot holes are formed in the side portions, respectively, the slot holes having a backward end that is higher than a forward end thereof and having an inclination angle that is gradually increased from the forward end to the backward end. a back plate connected to a lower armature and comprising slot holes formed in right and left ends of the back plate disposed in a direction to both side frames; combination pins perforating the slot holes and combined to the side frames so that the combination pins are movable along the slot holes; a back plate spring having one end combined to the side frames and the other end combined to the back plate and providing an elastic restoring force to the back plate; sand an upper armature combined to the lower armature and having an upper end which perforates an upper frame, the back plate comprising a pressurizing portion being an intermediate portion to which a pressure is applied while the pressurizing portion contacts an upper body of a person who is seated in a car; and an armature combination portion extending from the pressurizing portion to both sides of the pressurizing portion and combined to the lower armature characterized in that the back plate further comprises right and left both-end side portions extending from the armature combination portion and bent in such a way that the side portions are maintained adjacent to and parallel to the side frames, wherein the slot holes are formed in the side portions, respectively, the slot holes having a backward end that is higher than a forward end thereof and having an inclination angle that is gradually increased from the forward end to the backward end.
A polymeric drug delivery composition for use in the treatment of a disease, comprising polyphosphazene based polymers and at least one therapeutic agent, wherein said therapeutic agent comprises a chemotherapeutic agent, wherein said chemotherapeutic agent comprises Paclitaxel, and wherein said Paclitaxel is provided at 1250-1875 mg/m 2. wherein said therapeutic agent comprises a chemotherapeutic agent, wherein said chemotherapeutic agent comprises Paclitaxel, and wherein said Paclitaxel is provided at 1250-1875 mg/m 2.
A method of estimating stress in an earth formation, comprising: dividing a domain including at least a portion of an earth formation into a first region and a second region; estimating a first vertical stress in the first region and representing the first vertical stress as at least one point load; estimating a second vertical stress in the second region by a point load based method using the first vertical stress; and estimating at least one horizontal stress based on the second vertical stress. dividing a domain including at least a portion of an earth formation into a first region and a second region; estimating a first vertical stress in the first region and representing the first vertical stress as at least one point load; estimating a second vertical stress in the second region by a point load based method using the first vertical stress; and estimating at least one horizontal stress based on the second vertical stress.
A method for transmitting system information, SI, in a 5G radio system, the method comprising: transmitting, by a base station, a minimum SI message, wherein the minimum SI message comprises information regarding transmission of at least one additional SI message; and transmitting, by the base station, the at least one additional SI message according to the information in the minimum SI message, wherein the minimum SI message comprises an indicator for indicating the transmission of the at least one additional SI message, and the indicator further indicates that the at least one additional SI message are periodically broadcasted, wherein the indicator is set in response to a request from a UE, wherein transmitting at least one additional SI message comprises transmitting, by the base station, each of the at least one additional SI message for its predetermined times according to the transmission period, TP, of the each additional SI message, and wherein the number of repetitions for each of the at least one additional SI message is determined based on one of, or combination of, the following: a coverage size of a cell; a received signal strength of the request from the UE; and an importance of the requested SI message. transmitting, by a base station, a minimum SI message, wherein the minimum SI message comprises information regarding transmission of at least one additional SI message; and transmitting, by the base station, the at least one additional SI message according to the information in the minimum SI message, wherein the minimum SI message comprises an indicator for indicating the transmission of the at least one additional SI message, and the indicator further indicates that the at least one additional SI message are periodically broadcasted, wherein the indicator is set in response to a request from a UE, wherein transmitting at least one additional SI message comprises transmitting, by the base station, each of the at least one additional SI message for its predetermined times according to the transmission period, TP, of the each additional SI message, and wherein the number of repetitions for each of the at least one additional SI message is determined based on one of, or combination of, the following: a coverage size of a cell; a received signal strength of the request from the UE; and an importance of the requested SI message. a coverage size of a cell; a received signal strength of the request from the UE; and an importance of the requested SI message.
A vacuum circuit breaker comprising a cradle, the cradle including a rail which forms a travel route; a main body being movably mounted to the cradle and configured to be in a test position or in an operation position; a wheel adapted to travel along the travel route and configured to move the main body to the test position or the operation position; an interlock plate fixedly provided in the main body so as to move together with the main body; and a ground interlock device configured to restrain the movement of the main body by restraining the movement of the interlock plate when grounded, characterized in that the rail includes: a side plate portion being extended along the travel route and arranged between the interlock plate and the ground interlock device; an opening portion in the side plate portion, the opening portion forming a passage between the interlock plate and the ground interlock device and allowing the ground interlock device to pass through the side plate portion; a lower rail portion being protruded toward the wheel at the lower part of the side plate portion and rotatably supporting the wheel; and an upper rail portion being formed to protrude in a parallel direction with the lower rail portion at an upper portion of the side plate portion and supporting the wheel at an upper portion of the wheel to restrain the up-and-down directional movement of the wheel when grounded, wherein the upper rail portion is extended along the travel route at a regular up-and-down direction interval with the lower rail portion, the opening portion is disposed between the lower rail portion and the upper rail portion, and the lower rail portion and the upper rail portion are provided to have the up-and-down direction interval corresponding to a diameter of the wheel. a side plate portion being extended along the travel route and arranged between the interlock plate and the ground interlock device; an opening portion in the side plate portion, the opening portion forming a passage between the interlock plate and the ground interlock device and allowing the ground interlock device to pass through the side plate portion; a lower rail portion being protruded toward the wheel at the lower part of the side plate portion and rotatably supporting the wheel; and an upper rail portion being formed to protrude in a parallel direction with the lower rail portion at an upper portion of the side plate portion and supporting the wheel at an upper portion of the wheel to restrain the up-and-down directional movement of the wheel when grounded,
A cooling system for cooling of a combustion engine, which system comprises a radiator for cooling of coolant which is circulated in the cooling system, a pilot line, a thermostat comprising a sensing element adapted to monitoring the temperature of the coolant in the pilot line, a valve adapted to directing the coolant from a line of the cooling system to the engine without cooling in the radiator at times when the sensing element detects that the coolant in the pilot line is at a lower temperature than a regulating temperature, and to directing the coolant from the cooling system's line to the radiator for cooling before it is led to the engine at times when the sensing element detects that the coolant in the pilot line is at a higher temperature than the regulating temperature, and a thermal device (13, 26, 31) in contact with the coolant in the pilot line at a location upstream of the sensing element, wherein the pilot line receives via an inlet a small portion of the coolant flow in an inlet line which leads the coolant to the combustion engine, said cooling system comprising a control unit adapted to estimating when it is appropriate to alter the coolant's operating temperature in the cooling system, characterised in that the control unit at such times, activates the thermal device (13, 26, 31) so that it warms or cools the coolant in the pilot line.
A lubrication system for a gas turbine assembly, the lubrication system comprising a pump adapted to pressurize oil distributed from the lubrication system, characterized in further comprising a first sump located within a housing and configured to collect oil moved into the first sump by way of gravitational force when the housing is arranged in a first orientation, a second sump located within the housing and configured to collect oil moved into the second sump by way of gravitational force when the housing is arranged in a second orientation, and a manifold fluidly coupled to the pump by a pump line, to the first sump by a first-sump line, and to the second sump by a second-sump line, the manifold including a lubrication system configuration plate (38a, 38b) configured to fluidly couple the pump line to one of the first-sump line and the second-sump line.
A method comprising: (i) melting glass-forming materials to produce a turbulent molten mass of foamed glass in a submerged combustion melter to produce a molten mass of glass having bubbles therein, (ii) routing a molten mass of glass having bubbles therein to an inlet transition region of a fining chamber, the fining chamber having a longitudinal axis and defined at least by a refractory floor and a sidewall structure, the inlet transition region having a width, depth, and length, the length measured along a line parallel to the longitudinal axis, the inlet transition region width increasing from an initial width to a final width, and the inlet transition region depth decreasing from an initial depth to a final depth, thus forming a partially refined molten glass; (iii) routing the partially refined molten glass over a raised curb in the fining chamber, preferably the raised curb being placed substantially perpendicular to the longitudinal axis, the raised curb having a curb width equal to the final width of the inlet transition region, a curb length less than the length of the inlet transition region, and a curb height forming a shallowest depth portion of the fining chamber and separating the fining chamber into the inlet transition region and a primary fining region, thus forming a second partially refined molten glass; and (iv) routing the second partially refined molten glass through the primary fining region, the primary fining region having a constant depth greater than the shallowest depth but less than the depth of the inlet transition region. (i) melting glass-forming materials to produce a turbulent molten mass of foamed glass in a submerged combustion melter to produce a molten mass of glass having bubbles therein, (ii) routing a molten mass of glass having bubbles therein to an inlet transition region of a fining chamber, the fining chamber having a longitudinal axis and defined at least by a refractory floor and a sidewall structure, the inlet transition region having a width, depth, and length, the length measured along a line parallel to the longitudinal axis, the inlet transition region width increasing from an initial width to a final width, and the inlet transition region depth decreasing from an initial depth to a final depth, thus forming a partially refined molten glass; (iii) routing the partially refined molten glass over a raised curb in the fining chamber, preferably the raised curb being placed substantially perpendicular to the longitudinal axis, the raised curb having a curb width equal to the final width of the inlet transition region, a curb length less than the length of the inlet transition region, and a curb height forming a shallowest depth portion of the fining chamber and separating the fining chamber into the inlet transition region and a primary fining region, thus forming a second partially refined molten glass; and (iv) routing the second partially refined molten glass through the primary fining region, the primary fining region having a constant depth greater than the shallowest depth but less than the depth of the inlet transition region.
A method for the production of a metal-organic framework compound, in which at least one metal salt comprising a metal cation selected from the group consisting of the transition metals and Al as well as combinations thereof is reacted with a linker compound, wherein the reaction is conducted at a pressure of less than 1.5 bar in aqueous solution, characterized in that the linker compound is an isophthalate or a derivate thereof, wherein the linker compound has a structure according to the general formula 2: wherein the groups R1 to R4 are independently from each other selected from hydrogen, hydroxyl, nitro, amino, methyl, ether and halide groups as well as combinations thereof.
A transmitter device (122-1, 122-2,..., 122-N, 222) for non-invasive energy consumption monitoring, comprising: a transformer configured to couple the transmitter device (122-1, 122-2,..., 122-N, 222) to a portion of a circuit conductor (112, 112-1, 112-2,..., 112-N) that is coupled to a single additional device (124-1, 124-2,..., 124-N); a detection module configured to detect a change in real power and reactive power in a power signal over the portion of the circuit conductor (112, 112-1, 112-2,..., 112-N), wherein the real power and reactive power in the power signal correspond to an amount of power consumed by the single additional device (124-1, 124-2,..., 124-N) when the single additional device (124-1, 124-2,..., 124-N) is turned on after reaching a steady state; and a transmission module configured to transmit a unique signal associated with the single additional device (124-1, 124-2,..., 124-N) over the circuit conductor (112, 112-1, 112-2,..., 112-N) if the change in the power signal meets or exceeds a particular threshold, wherein the-unique signal associated with the single additional device (124-1, 124-2,..., 124-N) includes a code indicating that the single additional device (124-1, 124-2,..., 124-N) has been turned on or off. a transformer configured to couple the transmitter device (122-1, 122-2,..., 122-N, 222) to a portion of a circuit conductor (112, 112-1, 112-2,..., 112-N) that is coupled to a single additional device (124-1, 124-2,..., 124-N); a detection module configured to detect a change in real power and reactive power in a power signal over the portion of the circuit conductor (112, 112-1, 112-2,..., 112-N), wherein the real power and reactive power in the power signal correspond to an amount of power consumed by the single additional device (124-1, 124-2,..., 124-N) when the single additional device (124-1, 124-2,..., 124-N) is turned on after reaching a steady state; and a transmission module configured to transmit a unique signal associated with the single additional device (124-1, 124-2,..., 124-N) over the circuit conductor (112, 112-1, 112-2,..., 112-N) if the change in the power signal meets or exceeds a particular threshold, wherein the-unique signal associated with the single additional device (124-1, 124-2,..., 124-N) includes a code indicating that the single additional device (124-1, 124-2,..., 124-N) has been turned on or off.
A binder composition for forming a self-supporting fibrous material that can be slit without substantial fraying, wherein the binder composition is an aqueous dispersion comprising: a. a polyhydroxyether -polyurethane copolymer, wherein the polyhydroxyether portion of the copolymer contains a Bisphenol-A, and the polyurethane portion of the copolymer is based on a polyisocyanate and a polyol selected from a group consisting of aliphatic and aromatic polyether polyols, and polyester polyols; b. a methoxyalkyl melamine cross-linker; and c. a blocked sulfonic acid catalyst. a. a polyhydroxyether -polyurethane copolymer, wherein the polyhydroxyether portion of the copolymer contains a Bisphenol-A, and the polyurethane portion of the copolymer is based on a polyisocyanate and a polyol selected from a group consisting of aliphatic and aromatic polyether polyols, and polyester polyols; b. a methoxyalkyl melamine cross-linker; and c. a blocked sulfonic acid catalyst.
A circular-saw control system comprising: a plurality of sensors, each sensor to measure a sawing force near an end of a saw arbor carrying a plurality of saw blades, the sensors to measure forces in at least two different directions; a workpiece drive system to hold a workpiece through the plurality of saw blades at a feed speed; and a motion control system to receive measurements of the forces from the plurality of sensors and adjust the feed speed. a plurality of sensors, each sensor to measure a sawing force near an end of a saw arbor carrying a plurality of saw blades, the sensors to measure forces in at least two different directions; a workpiece drive system to hold a workpiece through the plurality of saw blades at a feed speed; and a motion control system to receive measurements of the forces from the plurality of sensors and adjust the feed speed.
A method of collecting plasma, plasma rich platelets, monocytes and red blood cells from a composite blood product, said method comprising: centrifuging a separation bag containing a volume of composite blood product so as to cause sedimentation of plasma, platelets, mononuclear and red blood cells; squeezing the separation bag to transfer some of the plasma to a plasma transfer bag; squeezing the separation bag to transfer some of the platelets to a platelet transfer bag; reversing the squeezing of the separation bag to release pressure on the bag; returning some of the plasma from the plasma transfer bag to the separation bag; remixing some of the plasma with platelets in the separation bag; increasing the squeezing pressure on the separation bag while preventing components from leaving the separation bag to create an over-pressure; using the over-pressure to spurt some of the platelets and plasma toward the platelet transfer bag; squeezing the separation bag to transfer the remainder of the platelets and plasma to the platelet transfer bag to provide plasma rich platelets; squeezing the separation bag to transfer monocytes to a monocyte transfer bag; and transferring the red blood cell component to a red blood cell transfer bag. centrifuging a separation bag containing a volume of composite blood product so as to cause sedimentation of plasma, platelets, mononuclear and red blood cells; squeezing the separation bag to transfer some of the plasma to a plasma transfer bag; squeezing the separation bag to transfer some of the platelets to a platelet transfer bag; reversing the squeezing of the separation bag to release pressure on the bag; returning some of the plasma from the plasma transfer bag to the separation bag; remixing some of the plasma with platelets in the separation bag; increasing the squeezing pressure on the separation bag while preventing components from leaving the separation bag to create an over-pressure; using the over-pressure to spurt some of the platelets and plasma toward the platelet transfer bag; squeezing the separation bag to transfer the remainder of the platelets and plasma to the platelet transfer bag to provide plasma rich platelets; squeezing the separation bag to transfer monocytes to a monocyte transfer bag; and transferring the red blood cell component to a red blood cell transfer bag.
A method for performing a power control, the method performed by a user equipment, UE, and comprising: allocating, by the UE configured with dual connectivity, a power for an uplink transmission to a first cell group including a first cell; allocating a power for an uplink transmission to a second cell group including a second cell, wherein each cell group belongs to a respective eNodeB; and performing a power scaling for at least one of the allocated powers of the first cell group and the second cell group, wherein the power scaling is performed for at least one of a physical uplink control channel, PUCCH, and a physical uplink shared channel, PUSCH, including a hybrid automatic repeat request, HARQ, acknowledgement, ACK, negative-acknowledgement, NACK, signal or a scheduling request, SR, request. allocating, by the UE configured with dual connectivity, a power for an uplink transmission to a first cell group including a first cell; allocating a power for an uplink transmission to a second cell group including a second cell, wherein each cell group belongs to a respective eNodeB; and performing a power scaling for at least one of the allocated powers of the first cell group and the second cell group, wherein the power scaling is performed for at least one of a physical uplink control channel, PUCCH, and a physical uplink shared channel, PUSCH, including a hybrid automatic repeat request, HARQ, acknowledgement, ACK, negative-acknowledgement, NACK, signal or a scheduling request, SR, request.