mhurhangee/ep-ind-claims huggingface dataset:
Gripping assembly of a cap for a capping head for the application of caps on containers or bottles, comprising a tubular hollow body longitudinally extending along a vertical axis and internally defining a receiving and retaining seat for the cap, the receiving and retaining seat being delimited at its lower end by an inlet mouth for the introduction of the cap, inside the tubular hollow body there being housed an ejector member (16, 16') that is free to axially slide, the gripping assembly being characterised in that it comprises an upper end-stop wall made of magnetizable material, wherein the upper end-stop wall being orthogonal to axis of tubular hollow body and being provided in the tubular hollow body, wherein the upper end-stop wall is arranged above ejector member (16,16') and acts as an upper end stop for the sliding movement of the same ejector member (16,16'), and in that the ejector member (16, 16') carries at least one first magnetic element suitable to magnetically interact with the upper end-stop wall in order to determine a suspension condition of the ejector member (16, 16'), wherein the ejector member (16,16') carries at its upper side the first magnetic element, the magnetic interaction between the first magnetic element and the upper end-stop wall being such that the suspension condition is determined only when said ejector member (16, 16') is brought in close proximity of or in contact with the upper end-stop wall.
A method for wireless communications by a user equipment, UE, comprising: sending a random access preamble to a base station, BS, during a random access procedure; receiving a random access response from the BS including a backoff indicator; and determining whether to send a contention-free random access, CFRA, preamble to the BS during a backoff period based, at least in part, on a type of the random access procedure wherein determining whether to send the CFRA preamble to the BS during the backoff period based on the type of the random access procedure comprises: determining a signal quality of one or more reference signals from the BS if the random access procedure was initiated as a CFRA procedure, comparing the determined signal quality to a threshold and determining to wait for a next reference signal or expiry of the backoff period if the determined signal quality does not satisfy the threshold. sending a random access preamble to a base station, BS, during a random access procedure; receiving a random access response from the BS including a backoff indicator; and determining whether to send a contention-free random access, CFRA, preamble to the BS during a backoff period based, at least in part, on a type of the random access procedure wherein determining whether to send the CFRA preamble to the BS during the backoff period based on the type of the random access procedure comprises: determining a signal quality of one or more reference signals from the BS if the random access procedure was initiated as a CFRA procedure, comparing the determined signal quality to a threshold and determining to wait for a next reference signal or expiry of the backoff period if the determined signal quality does not satisfy the threshold.
A sterile peritoneal dialysis fluid, comprising: an acidic first liquid containing 60.0 to 94.0 g/L of icodextrin and 0 to 2.34 g/L of sodium chloride, and an alkaline second liquid containing an alkaline pH regulator, wherein the first liquid after sterilization has a pH of 4.7 to 5.5, the second liquid after sterilization has a pH of 6.5 to 7.5, and a mixture of the first liquid and the second liquid after sterilization has a pH of 6.0 to 7.5. an acidic first liquid containing 60.0 to 94.0 g/L of icodextrin and 0 to 2.34 g/L of sodium chloride, and an alkaline second liquid containing an alkaline pH regulator, wherein the first liquid after sterilization has a pH of 4.7 to 5.5, the second liquid after sterilization has a pH of 6.5 to 7.5, and a mixture of the first liquid and the second liquid after sterilization has a pH of 6.0 to 7.5.
Shears, comprising a first shear part and a second shear part, each of the first and second shear parts (3, 3') having a cutting blade (11, 11') and a shaft or lever arm (5, 5') which are arranged at opposite sides of a pivot, wherein the lever arms (5, 5') are assembled with handles (9, 9') made of plastics or rubber, the pivot rotatably connecting the first and second shear parts (3, 3') with each other, the shears further comprising a laminated or flat spring element acting upon the first and second shear parts (3, 3') to move the shears on to an open position, the laminated or flat spring element comprising a first portion fixedly arranged at or allocated to the first shear part and a flexibly arranged second portion (27") acting on the second shear part, wherein first supporting means are provided supporting the laminated or flat spring element in a first axial direction to prevent a movement of the laminated or flat spring element towards the pivot and wherein second supporting means are provided supporting the first portion of the laminated or flat spring element in radial and/or lateral directions to prevent twisting and/or bending and/or radial and/or lateral movement of the first portion, wherein the first supporting means comprise an end section of the shaft or lever arm of the first shear part and an end section of the laminated or flat spring element interacting in the direction of the longitudinal axis of the laminated or flat spring element, characterized in that, the first supporting means is arranged at a front end of associated lever arm as well as with the handle of the associated lever arm, with the handle having a groove provided at its inner surface.
A heart valve assembly (100, 100A), comprising: a frame that assumes a compressed configuration and an expanded configuration, the frame comprising an inflow section, an outflow section, and a connecting section that is located between the inflow section and the outflow section, the inflow section having a plurality of legs that extend radially outwardly in the expanded configuration; and a leaflet and skirt assembly (102, 102A) having a plurality of leaflets (106, 106A) coupled to the connecting section, a valve skirt (107, 107A) extending from the leaflets (106, 106A) towards the inflow section of the frame, and a cuff section (108, 108A), wherein the legs and the cuff section (108, 108A) define a cuff in the expanded configuration for engagement with a native annulus, characterized in that, the connecting section has a greater flexibility than the inflow section, and each leg has a part (173, 173A) which extends radially outwardly and perpendicularly to a plane of the inflow section, and then transitions to another part (174, 174A) which extends vertically and perpendicular to the part (173, 173A) such that the another part (174, 174A) is generally parallel to the plane of the inflow section. a frame that assumes a compressed configuration and an expanded configuration, the frame comprising an inflow section, an outflow section, and a connecting section that is located between the inflow section and the outflow section, the inflow section having a plurality of legs that extend radially outwardly in the expanded configuration; and a leaflet and skirt assembly (102, 102A) having a plurality of leaflets (106, 106A) coupled to the connecting section, a valve skirt (107, 107A) extending from the leaflets (106, 106A) towards the inflow section of the frame, and a cuff section (108, 108A), wherein the legs and the cuff section (108, 108A) define a cuff in the expanded configuration for engagement with a native annulus, characterized in that, the connecting section has a greater flexibility than the inflow section, and each leg has a part (173, 173A) which extends radially outwardly and perpendicularly to a plane of the inflow section, and then transitions to another part (174, 174A) which extends vertically and perpendicular to the part (173, 173A) such that the another part (174, 174A) is generally parallel to the plane of the inflow section.
Apparatus for compensating extraction of natural gas (g) from a natural gas field, for preventing subsidence of strata located above the natural gas field and/or earthquakes, comprising: - a measuring means for measuring a gas flow of discharged natural gas (g); and - one or more supply channels configured to supply compensation gas to the natural gas field; and - at least a first gas source, couplable to the one or more supply channels, which contains a non-inert gas, wherein the apparatus is configured for adding an inert gas as a separating layer between natural gas present in the gas field and the non-inert gas to prevent a chemical reaction between the non-inert gas and the natural gas, and wherein the apparatus further comprises a regulating means configured for setting the gas flow of the non-inert gas and the inert gas to be pumped into the gas field on the basis of the gas flow of discharged natural gas (g) determined by the measuring means. - a measuring means for measuring a gas flow of discharged natural gas (g); and - one or more supply channels configured to supply compensation gas to the natural gas field; and - at least a first gas source, couplable to the one or more supply channels, which contains a non-inert gas,
A method for washing a separator for processing molten urea, comprising a continuous recirculation of at least a portion of the molten urea taken from the bottom of said separator, wherein said portion of molten urea withdrawn is continuously flushed on the upper portion of the cylindrical side wall of the separator, said flow being distributed along the whole circumference of the internal cylindrical side wall of said separator.
A medical device, comprising: an elongate body having a proximal portion and a distal portion; a shaft at least partially disposed within the elongate body; an expandable element at the distal portion of the elongate body; and a fluid delivery conduit defining a deflectable segment movably coupled to the shaft, the deflectable segment being transitionable from a substantially linear configuration to a curvilinear configuration, the deflectable segment defining a proximal end and a distal end, the proximal end being slidably and rotatably coupled to the shaft and the distal end being immovably fixed to the shaft. an elongate body having a proximal portion and a distal portion; a shaft at least partially disposed within the elongate body; an expandable element at the distal portion of the elongate body; and a fluid delivery conduit defining a deflectable segment movably coupled to the shaft, the deflectable segment being transitionable from a substantially linear configuration to a curvilinear configuration, the deflectable segment defining a proximal end and a distal end, the proximal end being slidably and rotatably coupled to the shaft and the distal end being immovably fixed to the shaft.
An implant magazine for use with a driver, the implant magazine comprising: a plurality of implants; an implant carrier defining a plurality of apertures, each implant of the plurality of implants being disposed within an aperture of the plurality of apertures, wherein an implant is disengaged from the implant carrier upon application of a predetermined force applied to the implant; and a base defining a cavity in which the implant carrier and the plurality of implants are disposed, characterized in that each aperture in the implant carrier is defined by one or more deformable fins configured to contact the implant disposed within the aperture. a plurality of implants; an implant carrier defining a plurality of apertures, each implant of the plurality of implants being disposed within an aperture of the plurality of apertures, wherein an implant is disengaged from the implant carrier upon application of a predetermined force applied to the implant; and a base defining a cavity in which the implant carrier and the plurality of implants are disposed,
A method for idling a gas phase polymerization reactor, comprising: introducing a polymerization neutralizer to the reactor in an amount sufficient to stop polymerization therein; stopping recovery of a polymer product from the reactor; stopping introduction of a catalyst feed and a reactor feed to the reactor; adjusting a pressure within the reactor from an operating pressure to an idling pressure; adjusting a superficial velocity of a cycle fluid through the reactor from an operating superficial velocity to an idling superficial velocity, wherein the idling superficial velocity is less than the operating superficial velocity; and maintaining the reactor in an idled state for a period of time. introducing a polymerization neutralizer to the reactor in an amount sufficient to stop polymerization therein; stopping recovery of a polymer product from the reactor; stopping introduction of a catalyst feed and a reactor feed to the reactor; adjusting a pressure within the reactor from an operating pressure to an idling pressure; adjusting a superficial velocity of a cycle fluid through the reactor from an operating superficial velocity to an idling superficial velocity, wherein the idling superficial velocity is less than the operating superficial velocity; and maintaining the reactor in an idled state for a period of time.
Switching device comprising a moving contact and a fixed contact, wherein, in the switched-on state, a contact point of the moving contact makes contact with a contact point of the fixed contact, wherein - the contact point of the moving contact and the contact point of the fixed contact are surrounded by a housing, wherein the housing is composed of a ferromagnetic material, wherein - the housing has a first opening, wherein - a first electrical conductor passes through the first opening, wherein - the first electrical conductor is electrically connected to the fixed contact, wherein - the housing has a second opening, wherein - the second opening is arranged opposite the first opening, characterized in that - a second electrical conductor passes through the second opening, wherein - the second electrical conductor is electrically connected to the fixed contact, wherein - the second electrical conductor electrically connects the fixed contact to an arc quenching device, and wherein - the housing has an oblique section at the second opening, the said oblique section being arranged substantially at a right angle to the second electrical conductor. - the contact point of the moving contact and the contact point of the fixed contact are surrounded by a housing, wherein the housing is composed of a ferromagnetic material, wherein - the housing has a first opening, wherein - a first electrical conductor passes through the first opening, wherein - the first electrical conductor is electrically connected to the fixed contact, wherein - the housing has a second opening, wherein - the second opening is arranged opposite the first opening, - a second electrical conductor passes through the second opening, wherein - the second electrical conductor is electrically connected to the fixed contact, wherein - the second electrical conductor electrically connects the fixed contact to an arc quenching device, and wherein - the housing has an oblique section at the second opening, the said oblique section being arranged substantially at a right angle to the second electrical conductor.
A method performed by a User Equipment, UE, for construction of a downlink control information, DCI, format, the method comprising: receiving, from a base station, BS, first DCI including a first downlink assignment index, DAI, field for a first Hybrid Automatic Repeat reQuest-ACKnowledge, HARQ-ACK, codebook, second DCI including a second DAI field for a second HARQ-ACK codebook, and a radio resource control, RRC, message comprising information for configuring a HARQ-ACK codebook list including the first HARQ-ACK codebook corresponding to a first priority and the second HARQ-ACK codebook corresponding to a second priority which is different from the first priority; determining whether a size difference exists between the first DAI field and the second DAI field; and inserting at least one bit with a zero value into one of the first DAI field and the second DAI field when the size difference between the first DAI field of the first DCI and the second DAI field of the second DCI exists, wherein the first DCI and the second DCI have a same DCI format. receiving, from a base station, BS, first DCI including a first downlink assignment index, DAI, field for a first Hybrid Automatic Repeat reQuest-ACKnowledge, HARQ-ACK, codebook, second DCI including a second DAI field for a second HARQ-ACK codebook, and a radio resource control, RRC, message comprising information for configuring a HARQ-ACK codebook list including the first HARQ-ACK codebook corresponding to a first priority and the second HARQ-ACK codebook corresponding to a second priority which is different from the first priority; determining whether a size difference exists between the first DAI field and the second DAI field; and inserting at least one bit with a zero value into one of the first DAI field and the second DAI field when the size difference between the first DAI field of the first DCI and the second DAI field of the second DCI exists, wherein the first DCI and the second DCI have a same DCI format.
A multi-ion sensor adapted to measure a concentration ratio of sodium ions to potassium ions in a sample solution, comprising: a sodium ion electrode selectively reacting to the sodium ions; a potassium ion electrode selectively reacting to the potassium ions; and a common electrode whose potential is referred to when measuring the potential of the sodium ion electrode and the potential of the potassium ion electrode wherein the sodium ion electrode, potassium ion electrode and common electrode are provided on the same support body, the common electrode does not include internal solution, and the multi-ion sensor is configured so as to measure the concentration ratio of the sodium ions to the potassium ions based on the following Equation C Na / C K = 10 ^ A × C 0 Na / C 0 K based on a variable A that is obtained by the following Equation, A = E Na Q × α Na − E K Q × α K in Equation, C 0Na /C 0K represents the ratio of sodium ions and potassium ions contained in a calibration solution and in Equation, E Na represents a potential of the sodium ion electrode, E K represents a potential of the potassium ion electrode, Q represents a Nernst coefficient, α Na represents a sensitivity coefficient of the sodium ion electrode, and α K represents a sensitivity coefficient of the potassium ion electrode. a sodium ion electrode selectively reacting to the sodium ions; a potassium ion electrode selectively reacting to the potassium ions; and a common electrode whose potential is referred to when measuring the potential of the sodium ion electrode and the potential of the potassium ion electrode wherein
A method for processing blood, comprising: passing said blood through a blood filter device comprising: a housing comprising an outer wall, a first inlet, a first outlet and a second outlet; a membrane which is capable of separating plasma from said blood, wherein said membrane forms at least one inner chamber within said housing and said blood enters said at least one inner chamber of said blood filter device through said first inlet; a leukocyte, carbon dioxide, and oxygen depletion media disposed within said at least one inner chamber, said leukocyte, carbon dioxide, and oxygen depletion media is capable of depleting leukocytes, carbon dioxide and oxygen from said blood; and an outer chamber disposed between said outer wall and said membrane separating said plasma from said blood by permeating through said membrane, wherein said plasma enters said outer chamber and exits said housing via said first outlet; and depleting oxygen, carbon dioxide, leukocytes and plasma from said blood, whereby oxygen, carbon dioxide, leukocytes and plasma depleted blood exits said housing via said second outlet as packed red blood cells (pRBCs), wherein said membrane has a pore size from 0.2 to 2 microns in diameter. passing said blood through a blood filter device comprising: a housing comprising an outer wall, a first inlet, a first outlet and a second outlet; a membrane which is capable of separating plasma from said blood, wherein said membrane forms at least one inner chamber within said housing and said blood enters a housing comprising an outer wall, a first inlet, a first outlet and a second outlet; a membrane which is capable of separating plasma from said blood, wherein said membrane forms at least one inner chamber within said housing and said blood enters said at least one inner chamber of said blood filter device through said first inlet; a leukocyte, carbon dioxide, and oxygen depletion media disposed within said at least one inner chamber, said leukocyte, carbon dioxide, and oxygen depletion media is capable of depleting leukocytes, carbon dioxide and oxygen from said blood; and an outer chamber disposed between said outer wall and said membrane separating said plasma from said blood by permeating through said membrane, wherein said plasma enters said outer chamber and exits said housing via said first outlet; and depleting oxygen, carbon dioxide, leukocytes and plasma from said blood, whereby oxygen, carbon dioxide, leukocytes and plasma depleted blood exits said housing via said second outlet as packed red blood cells (pRBCs), wherein said membrane has a pore size from 0.2 to 2 microns in diameter.
A polyester resin represented by the following chemical structure of formula and having an acid value of 250 to 2,500 eq/10 6 g and a number-average molecular weight of 2,000 to 50,000: (X-O) r -W-(O-(CO-Z-CO-O-Y-O) p -X) q...... wherein W is a (q + r)-valent organic group; (CO-Z-CO-O-Y-O) is a skeleton of polyester resin prepared by polymerization using a polyvalent carboxylic acid ingredient Z and a polyhydric alcohol ingredient Y as polymerizing ingredients; X is a residue of polybasic acid having two or more carboxyl groups or is hydrogen (except the case wherein all of X in numbers of (q + r) are hydrogen); X, Y and Z each may be the same as or different from each other and, even in the same repetitive unit, X, Y and Z each may be the same as or different from each other; average value of p is 3 or more, average value of q is more than 0 and is 15 or less, average value of r is 0 or more and is less than 15, and (q + r) is 3 or more and 15 or less and wherein the acid value and the number-average molecular weight are determined in accordance with the description. (CO-Z-CO-O-Y-O) is a skeleton of polyester resin prepared by polymerization using a polyvalent carboxylic acid ingredient Z and a polyhydric alcohol ingredient Y as polymerizing ingredients; X is a residue of polybasic acid having two or more carboxyl groups or is hydrogen (except the case wherein all of X in numbers of (q + r) are hydrogen); X, Y and Z each may be the same as or different from each other and, even in the same repetitive unit, X, Y and Z each may be the same as or different from each other; average value of p is 3 or more, average value of q is more than 0 and is 15 or less, average value of r is 0 or more and is less than 15, and (q + r) is 3 or more and 15 or less and wherein the acid value and the number-average molecular weight are determined in accordance with the description.