mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a main body ; and a storage chamber provided inside the main body to accommodate a shelf unit , wherein the shelf unit includes: a pair of shelves arranged on the left and on the right inside the storage chamber , wherein each of the pair of shelves is moveable forward or backward in the storage chamber , and each of the pair of shelves comprises: a first shelf arranged in a front portion of the storage chamber ; and a second shelf arranged behind the first shelf , characterized in that the shelf unit further comprises a guide unit arranged to guide the first shelf of one of the pair of shelves to be moved to the left or to the right in front of the first shelf of the other one of the pair of shelves after the first one of the pair of shelves has been moved forward relative to the other one of the pair of shelves . a main body ; and a storage chamber provided inside the main body to accommodate a shelf unit , wherein the shelf unit includes: a pair of shelves arranged on the left and on the right inside the storage chamber , wherein each of the pair of shelves is moveable forward or backward in the storage chamber , and each of the pair of shelves comprises: a first shelf arranged in a front portion of the storage chamber ; and a second shelf arranged behind the first shelf , characterized in that the shelf unit further comprises a guide unit arranged to guide the first shelf of one of the pair of shelves to be moved to the left or to the right in front of the first shelf of the other one of the pair of shelves after the first one of the pair of shelves has been moved forward relative to the other one of the pair of shelves . a first shelf arranged in a front portion of the storage chamber ; and a second shelf arranged behind the first shelf , characterized in that the shelf unit further comprises a guide unit arranged to guide the first shelf of one of the pair of shelves to be moved to the left or to the right in front of the first shelf of the other one of the pair of shelves after the first one of the pair of shelves has been moved forward relative to the other one of the pair of shelves .
A surgical stapling instrument , comprising: a handle assembly including a stationary handle , an approximation mechanism , and a firing trigger ; a safety mechanism disposed in mechanical cooperation with the handle assembly and including a lever , the lever being movable between a first position where the firing trigger is prevented from being actuated, and a second position where the firing trigger is able to be actuated; an elongate body portion extending distally from the handle assembly ; and a head portion disposed adjacent a distal end of the elongate body portion and including a first jaw member and a second jaw member , the first jaw member being movable in relation to the second jaw member between spaced and approximated positions; wherein the approximation mechanism moves the first jaw member in relation to the second jaw member between the spaced position and the approximated position, wherein the safety mechanism includes a latch , the instrument being characterized in that the latch is disposed on the lever and the safety mechanism further comprises a latch retainer disposed on the stationary handle , wherein the latch and latch retainer are configured to releasably maintain the lever in the second position wherein the firing trigger is able to be actuated; in that the lever is biased towards its first position, and in that movement of the approximation mechanism to move the first jaw member from the approximated position towards the spaced position causes the latch retainer to release the latch to cause the lever to move from the second position to the first position. a handle assembly including a stationary handle , an approximation mechanism , and a firing trigger ; a safety mechanism disposed in mechanical cooperation with the handle assembly and including a lever , the lever being movable between a first position where the firing trigger is prevented from being actuated, and a second position where the firing trigger is able to be actuated; an elongate body portion extending distally from the handle assembly ; and a head portion disposed adjacent a distal end of the elongate body portion and including a first jaw member and a second jaw member , the first jaw member being movable in relation to the second jaw member between spaced and approximated positions; wherein the approximation mechanism moves the first jaw member in relation to the second jaw member between the spaced position and the approximated position, wherein the safety mechanism includes a latch , the instrument being characterized in that the latch is disposed on the lever and the safety mechanism further comprises a latch retainer disposed on the stationary handle , wherein the latch and latch retainer are configured to releasably maintain the lever in the second position wherein the firing trigger is able to be actuated; in that the lever is biased towards its first position, and in that movement of the approximation mechanism to move the first jaw member from the approximated position towards the spaced position causes the latch retainer to release the latch to cause the lever to move from the second position to the first position.
A method performed by a central unit, CU, of a gNodeB, gNB, including the CU and at least one distributed unit, DU, the method comprising: receiving , from a distributed unit, DU, of the gNB, an F1 establishment request message, the F1 establishment request message including an identity of the DU and serving cell information on the DU; storing data included in the F1 establishment request message; and transmitting , to the DU of the gNB, an F1 establishment response message as a response to the F1 establishment request message, the F1 establishment response message including information on at least one cell in the DU, the at least one cell in the DU being identified based on the serving cell information on the DU, wherein the serving cell information includes a global cell identity, a physical cell identity, a broadcast public land mobile network, PLMN, identity, cell frequency information and cell bandwidth information, and wherein the information on the at least one cell includes the global cell identity. receiving , from a distributed unit, DU, of the gNB, an F1 establishment request message, the F1 establishment request message including an identity of the DU and serving cell information on the DU; storing data included in the F1 establishment request message; and transmitting , to the DU of the gNB, an F1 establishment response message as a response to the F1 establishment request message, the F1 establishment response message including information on at least one cell in the DU, the at least one cell in the DU being identified based on the serving cell information on the DU, wherein the serving cell information includes a global cell identity, a physical cell identity, a broadcast public land mobile network, PLMN, identity, cell frequency information and cell bandwidth information, and wherein the information on the at least one cell includes the global cell identity.
A method for manufacturing a profile body which is provided with a profiling (P) by way of cold forming a workpiece which comprises a longitudinal axis (Z) and, in a machining region , an outer surface , into which the profiling (P) is to be incorporated, wherein the workpiece carries out a rotation movement (R1) about the longitudinal axis (Z) and is machined by a first tool in a multitude of successively executed reshaping engagements in which the first tool comes into contact with the machining region , wherein the first tool is held by a first tool holder (5; 5a1), and wherein the first tool holder (5; 5a1,...) - is mounted in an orbiting body to be rotatable about a rotation axis (W) of the first tool holder (5; 5a1,...) and is driven into a rotation movement (R5) about the rotation axis (W), wherein the term azimuthal which is used hereinafter is defined by the rotation axis (W); and - is driven into an orbiting movement (R8) by the orbiting body ; and wherein - the rotation movement (R1) of the workpiece is synchronised with the orbiting movement (R8) of the first tool holder (5; 5a1, ...); and - the rotation movement (R5) of the first tool holder (5; 5a1,...) is synchronised with the orbiting movement (R8) of the first tool holder (5; 5a1, ...); characterized in that the first tool is mounted, in particular freely rotatably mounted, in the first tool holder (5; 5a1, ...) to be rotatable about a first tool axis (Q) which is different from the rotation axis (W), in particular wherein the first tool axis (Q) is distanced to the rotation axis (W). - is mounted in an orbiting body to be rotatable about a rotation axis (W) of the first tool holder (5; 5a1,...) and is driven into a rotation movement (R5) about the rotation axis (W), wherein the term azimuthal which is used hereinafter is defined by the rotation axis (W); and - is driven into an orbiting movement (R8) by the orbiting body ; and - the rotation movement (R1) of the workpiece is synchronised with the orbiting movement (R8) of the first tool holder (5; 5a1, ...); and - the rotation movement (R5) of the first tool holder (5; 5a1,...) is synchronised with the orbiting movement (R8) of the first tool holder (5; 5a1, ...);
A stent graft for implantation in vessels of a patient, wherein the stent graft has the following: a hollow-cylindrical body made of a first prosthesis material , with a proximal end and a distal end, and with a longitudinal axis c and a circumference u , at least one pocket element , which is made of a second prosthesis material and which is mounted circumferentially on the outer and/or inner face of the body in order to form a circumferential closed pocket on a longitudinal portion of the body , and at least one stent element , which extends in a meandering formation around the body and is received inside the pocket element , wherein the at least one pocket element is shorter than the body and has a proximal end and a distal end and, positioned between these, a main portion , wherein the at least one pocket element for forming the closed pocket is circumferentially secured only via its respective distal and proximal end to the outside and/or inside of the body , and the main portion is not secured to the body , characterized in that 2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20, 25 or 30 pocket elements are provided, which are fixed at a distance from each other and separate from each other on the body . a hollow-cylindrical body made of a first prosthesis material , with a proximal end and a distal end, and with a longitudinal axis c and a circumference u , at least one pocket element , which is made of a second prosthesis material and which is mounted circumferentially on the outer and/or inner face of the body in order to form a circumferential closed pocket on a longitudinal portion of the body , and at least one stent element , which extends in a meandering formation around the body and is received inside the pocket element , wherein the at least one pocket element is shorter than the body and has a proximal end and a distal end and, positioned between these, a main portion , wherein the at least one pocket element for forming the closed pocket is circumferentially secured only via its respective distal and proximal end to the outside and/or inside of the body , and the main portion is not secured to the body , characterized in that 2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20, 25 or 30 pocket elements are provided, which are fixed at a distance from each other and separate from each other on the body .
A method of cladding a surface of an article , the method including the steps of: providing a supply of feedstock material , the feedstock material being a metal matrix composite with a composition including a matrix material and a reinforcing material dispersed within the matrix material; feeding the feedstock material towards a portion of the surface of the article via a dedicated feed source; heating the portion of the surface of the article via a dedicated heat source such that the fed feedstock material and the portion of the surface at least partially melt, whereby, upon removal of the heat, the molten feedstock and the surface portion form a bonded coating layer deposited by way of overlapping beads on the surface of the article, wherein each deposited bead is overlapped with the previously deposited bead to an extent within the range of 75% to 95% of the respective bead width; and controlling the feed and heat sources to cause the beads of the bonded coating layer to be deposited at a surface speed rate of at least 500mm/min; thereby to provide the bonded coating layer with a substantially even distribution of the reinforcing material throughout the matrix material, and simultaneously increasing the surface speed rate and the extent of bead overlap. providing a supply of feedstock material , the feedstock material being a metal matrix composite with a composition including a matrix material and a reinforcing material dispersed within the matrix material; feeding the feedstock material towards a portion of the surface of the article via a dedicated feed source; heating the portion of the surface of the article via a dedicated heat source such that the fed feedstock material and the portion of the surface at least partially melt, whereby, upon removal of the heat, the molten feedstock and the surface portion form a bonded coating layer deposited by way of overlapping beads on the surface of the article, wherein each deposited bead is overlapped with the previously deposited bead to an extent within the range of 75% to 95% of the respective bead width; and controlling the feed and heat sources to cause the beads of the bonded coating layer to be deposited at a surface speed rate of at least 500mm/min; thereby to provide the bonded coating layer with a substantially even distribution of the reinforcing material throughout the matrix material, and simultaneously increasing the surface speed rate and the extent of bead overlap.
Method for packaging groups of articles which are combined to form packaging units , comprising the following steps: 1.1) sheathing the respective packaging unit in its running direction (L) on a transporting path (T) with a film , with the simultaneous formation of a film cover and of folding flaps which in each case project beyond the packaging unit along transverse peripheries; 1.2) positioning the folding flaps against the packaging unit while running through a folding unit , and, subsequently and/or at the same time, fixing of the folding flaps in relation to one another, with the formation of a film wrapper which is closed on all sides; characterised in that 1.3) the vertically aligned folding flaps are positioned in relation to one another and, at the same time, are preliminarily fixed by the effect of heat, with the aid of a heat source which extends longitudinally and moves with the packaging unit during its movement in the running direction (L) of the transporting path (T), and subsequently the packaging unit as a whole is finally fixed by the effect of heat, wherein the folding flaps are at least partially laminated in the course of the preliminary fixing. 1.1) sheathing the respective packaging unit in its running direction (L) on a transporting path (T) with a film , with the simultaneous formation of a film cover and of folding flaps which in each case project beyond the packaging unit along transverse peripheries; 1.2) positioning the folding flaps against the packaging unit while running through a folding unit , and, subsequently and/or at the same time, fixing of the folding flaps in relation to one another, with the formation of a film wrapper which is closed on all sides; 1.3) the vertically aligned folding flaps are positioned in relation to one another and, at the same time, are preliminarily fixed by the effect of heat, with the aid of a heat source which extends longitudinally and moves with the packaging unit during its movement in the running direction (L) of the transporting path (T), and subsequently the packaging unit as a whole is finally fixed by the effect of heat, wherein the folding flaps are at least partially laminated in the course of the preliminary fixing.
A computer-implemented method of controlling which particular action provider out of a plurality of registered action providers performs a task, the method comprising: receiving a spoken utterance detected by a microphone of an electronic device ; performing speech recognition on the spoken utterance , the speech recognition recognizing a task in the spoken utterance ; responsive to recognizing the task and based on stored registrations for the registered action providers and stored task-to-provider association preferences, assigning the task to a particular action provider out of the registered action providers, wherein assigning the task comprises choosing the particular action provider to perform the task and sending instructions to perform the task to the particular action provider ; via a set of rules created by machine learning, determining that the particular action provider is a preferred action provider for the task; and changing the preferred action provider for the task to be the particular action provider . receiving a spoken utterance detected by a microphone of an electronic device ; performing speech recognition on the spoken utterance , the speech recognition recognizing a task in the spoken utterance ; responsive to recognizing the task and based on stored registrations for the registered action providers and stored task-to-provider association preferences, assigning the task to a particular action provider out of the registered action providers, wherein assigning the task comprises choosing the particular action provider to perform the task and sending instructions to perform the task to the particular action provider ; via a set of rules created by machine learning, determining that the particular action provider is a preferred action provider for the task; and changing the preferred action provider for the task to be the particular action provider .
A method of fabricating a three-dimensional object, the method comprising: (a) combining at least one of a meth(acrylate), a (meth)acrylamide, a (meth)acrylonitrile, a styrene, an acrylonitrile, a vinyl acetate, a vinylcarbazole, a vinylpyridine, a vinyl ether, a vinyl chloride monomers, a polyfunctional monomer, and a polyfunctional prepolymer with an organic photoredox catalyst and an initiator to provide a reaction mixture, wherein the organic photoredox catalyst is a phenothiazine derivative or a phenoxazine derivative and the initiator is ethyl 2-bromopropanoate or benzyl 2-bromopropanoate; (b) depositing the reaction mixture; (c) polymerizing the monomers by irradiating the reaction mixture with a light source, wherein polymerization in the reaction mixture is regulated by controlling the amount of time that the reaction mixture is exposed to light; and/or by controlling the intensity of light that reaches the reaction mixture; and (d) repeating steps (b) and (c) until the three-dimensional object is formed. (a) combining at least one of a meth(acrylate), a (meth)acrylamide, a (meth)acrylonitrile, a styrene, an acrylonitrile, a vinyl acetate, a vinylcarbazole, a vinylpyridine, a vinyl ether, a vinyl chloride monomers, a polyfunctional monomer, and a polyfunctional prepolymer with an organic photoredox catalyst and an initiator to provide a reaction mixture, wherein the organic photoredox catalyst is a phenothiazine derivative or a phenoxazine derivative and the initiator is ethyl 2-bromopropanoate or benzyl 2-bromopropanoate; (b) depositing the reaction mixture; (c) polymerizing the monomers by irradiating the reaction mixture with a light source, wherein polymerization in the reaction mixture is regulated by controlling the amount of time that the reaction mixture is exposed to light; and/or by controlling the intensity of light that reaches the reaction mixture; and (d) repeating steps (b) and (c) until the three-dimensional object is formed.
A quantum dot ligand of wherein two of X, Y and Z are G1 group and G2 group, respectively, and the remaining one is selected from the group consisting of G1 group, G2 group and hydrogen; wherein G1 is -CH 2 -L-(CH 2 ) 2 -R 1 ; R 1 is NH 2 ; and L is O, NH, S, or CH 2 ; and the G2 group, for each occurrence, is independently selected from a C 4-20 alkyl having a carbon chain with more than 4 carbon atoms. G1 is -CH 2 -L-(CH 2 ) 2 -R 1 ; R 1 is NH 2 ; and L is O, NH, S, or CH 2 ; and the G2 group, for each occurrence, is independently selected from a C 4-20 alkyl having a carbon chain with more than 4 carbon atoms.
A method of removing a fluid from a gas or oil well, a wellbore, or a pipeline, the method comprising: introducing a composition into a gas well, an oil well, a wellbore, or a pipeline in an amount effective for foaming a fluid within the well, the wellbore, or the pipeline, and injecting a gas into the well, the wellbore or the pipeline, the fluid comprising a hydrocarbon, water or a combination thereof, and the composition comprising an alcohol ether sulfonate having formula I: wherein: R 1 is alkyl; R 2 is alkylene; R 3 and R 4 are each independently ethylene or propylene; R 5 is hydroxyl and R 6 is -SO 3 M, or R 5 is -SO 3 M and R 6 is hydroxyl; M is independently an alkali metal, an alkaline earth metal, or hydronium; and a and b are each independently an integer from 0 to 30, and a+b equals 1 to 60, wherein the alcohol ether sulfonate is added to the fluid in a concentration of from 10 to 100,000 ppm based on volume of the fluid. introducing a composition into a gas well, an oil well, a wellbore, or a pipeline in an amount effective for foaming a fluid within the well, the wellbore, or the pipeline, and injecting a gas into the well, the wellbore or the pipeline, the fluid comprising a hydrocarbon, water or a combination thereof, and the composition comprising an alcohol ether sulfonate having formula I: wherein: R 1 is alkyl; R 2 is alkylene; R 3 and R 4 are each independently ethylene or propylene; R 5 is hydroxyl and R 6 is -SO 3 M, or R 5 is -SO 3 M and R 6 is hydroxyl; M is independently an alkali metal, an alkaline earth metal, or hydronium; and a and b are each independently an integer from 0 to 30, and a+b equals 1 to 60, wherein the alcohol ether sulfonate is added to the fluid in a concentration of from 10 to 100,000 ppm based on volume of the fluid. R 1 is alkyl; R 2 is alkylene; R 3 and R 4 are each independently ethylene or propylene; R 5 is hydroxyl and R 6 is -SO 3 M, or R 5 is -SO 3 M and R 6 is hydroxyl; M is independently an alkali metal, an alkaline earth metal, or hydronium; and a and b are each independently an integer from 0 to 30, and a+b equals 1 to 60, wherein the alcohol ether sulfonate is added to the fluid in a concentration of from 10 to 100,000 ppm based on volume of the fluid.