mhurhangee/patent-ind-claim-en huggingface dataset:
An Ethernet data transmission method, comprising: sending (S501), by a first device, a first bit stream to a second device, wherein the first bit stream is sent over N logical lanes of a physical layer of the first device; sending (S502), by the first device, a first trigger marker group to the second device, wherein the first trigger marker group is used to indicate that the sending of the first bit stream ends; and sending (S503), by the first device, a second bit stream to the second device in response to the sending of the first trigger marker group, wherein the second bit stream is sent over P logical lanes of the physical layer of the first device, and both N and P are positive integers and N and P are different, wherein the first trigger marker group comprises N trigger markers or P trigger markers; wherein when the first trigger marker group comprises N trigger markers, the sending, by the first device, a first trigger marker group to the second device comprises: sending, by the first device, an i th trigger marker in the N trigger markers over an i th logical lane in the N logical lanes, wherein i is a positive integer; and wherein when the first trigger marker group comprises P trigger markers, the sending, by the first device, a first trigger marker group to the second device comprises: sending, by the first device, an i th trigger marker in the P trigger markers over an i th logical lane in the P logical lanes, wherein i is a positive integer. sending (S501), by a first device, a first bit stream to a second device, wherein the first bit stream is sent over N logical lanes of a physical layer of the first device; sending (S502), by the first device, a first trigger marker group to the second device, wherein the first trigger marker group is used to indicate that the sending of the first bit stream ends; and sending (S503), by the first device, a second bit stream to the second device in response to the sending of the first trigger marker group, wherein the second bit stream is sent over P logical lanes of the physical layer of the first device, and both N and P are positive integers and N and P are different, wherein the first trigger marker group comprises N trigger markers or P trigger markers; wherein when the first trigger marker group comprises N trigger markers, the sending, by the first device, a first trigger marker group to the second device comprises: sending, by the first device, an i th trigger marker in the N trigger markers over an i th logical lane in the N logical lanes, wherein i is a positive integer; and wherein when the first trigger marker group comprises P trigger markers, the sending, by the first device, a first trigger marker group to the second device comprises: sending, by the first device, an i th trigger marker in the P trigger markers over an i th logical lane in the P logical lanes, wherein i is a positive integer.
A downhole production casing string for insertion in a borehole in a reservoir , the downhole production casing string having a first end nearest a top of the borehole and a second end furthest away from the top, the downhole production casing string extending along a longitudinal axis and comprising: - at least one opening which during production allows hydrocarbon-containing fluid from the reservoir into the downhole production casing string, - a plurality of casing parts having end sections and a base section between the end sections, the base section having an outer diameter (D o ), and - at least one annular barrier , wherein the annular barrier comprises a casing part , an expandable sleeve surrounding the casing part and having an inner sleeve face facing the casing part and an outer sleeve face facing the borehole, each end of the expandable sleeve being connected with the casing part in two connections , and an annular space between the inner sleeve face of the expandable sleeve and the casing part, characterised in that the downhole production casing string further comprises: - at least one annular projecting element having an outer face and at least one helical groove arranged in or on the outer face and having an overall outer diameter (D oo ) which is larger than the outer diameter of the connections in the area overlapping the sleeve, and wherein the annular projecting element is arranged on an outer casing face of the casing part adjacent or constituting the connection closest to the second end of the production casing string. - at least one opening which during production allows hydrocarbon-containing fluid from the reservoir into the downhole production casing string, - a plurality of casing parts having end sections and a base section between the end sections, the base section having an outer diameter (D o ), and - at least one annular barrier , - at least one annular projecting element having an outer face and at least one helical groove arranged in or on the outer face and having an overall outer diameter (D oo ) which is larger than the outer diameter of the connections in the area overlapping the sleeve, and wherein the annular projecting element is arranged on an outer casing face of the casing part adjacent or constituting the connection closest to the second end of the production casing string.
A sporting implement comprising a shaft having a first end (A) and a second end (B), the first end comprising a first 3D woven material , the second end comprising a second 3D woven material ; the first 3D woven material comprising a first layer and a second layer, the first layer and the second layer comprising a first plurality of tapes extending in the X direction and a second plurality of tapes extending in the Y direction and a third plurality of tapes extending in the Z direction interconnecting the first layer and the second layer; wherein the plurality of second tapes is greater than the plurality of first tapes in the first 3D woven material; and the second 3D woven material comprising a first layer and a second layer, the first layer and the second layer comprising a first plurality of tapes extending in the X direction and a second plurality of tapes extending in the Y direction and a third plurality of tapes extending in the Z direction interconnecting the first layer and the second layer; wherein the number of third tapes extending in the Z direction in the first 3D woven material is less than the number of third tapes extending in the Z direction in the second 3D woven material.
A heating assembly , comprising: a body defining a heating compartment adapted to receive a vapour generating substance ; at least two heaters between which the vapour generating substance is placeable within the heating compartment in use; a movement mechanism adapted in use to move at least one of the at least two heaters between a first and second position, the distance between the at least two heaters being less when the at least one heater is in the first position than when in the second position, wherein the distance between the at least two heaters when the at least one heater is in the first position being such that the separation of the at least two heaters applies pressure to the vapour generating substance when located in the heating compartment, the movement mechanism being further adapted in use to move the at least one heater to a third position, the distance between the at least two heaters being less when in the third position than when in the first position; and a switch operable by a user of the assembly, the switch being adapted in use to control the movement of the at least one heater by the movement mechanism. a body defining a heating compartment adapted to receive a vapour generating substance ; at least two heaters between which the vapour generating substance is placeable within the heating compartment in use; a movement mechanism adapted in use to move at least one of the at least two heaters between a first and second position, the distance between the at least two heaters being less when the at least one heater is in the first position than when in the second position, wherein the distance between the at least two heaters when the at least one heater is in the first position being such that the separation of the at least two heaters applies pressure to the vapour generating substance when located in the heating compartment, the movement mechanism being further adapted in use to move the at least one heater to a third position, the distance between the at least two heaters being less when in the third position than when in the first position; and a switch operable by a user of the assembly, the switch being adapted in use to control the movement of the at least one heater by the movement mechanism.
An extracellular drug conjugate (EDC) comprising a targeting moiety portion that binds CD20, a drug portion that binds to an extracellular portion of an Na,K-ATPase, and a linker portion that covalently joins the targeting moiety portion to the drug portion, wherein the targeting moiety portion comprises an antibody that binds CD20, and wherein the drug portion comprises a bufadienolide, a cardiac glycoside or an aglycone of a cardiac glycoside.
A co-crystal of compound (I) and a co-former molecule, or a solvate of the co-crystal, wherein the co-former molecule is phosphoric acid.
A sealing structure comprising: a housing to accommodate powder; a powder roller having a powder bearing surface to bear and convey the powder; an entrance seal (90; 190) disposed between the powder roller and the housing ; and a pair of left and right edge seals (80; 180), wherein the ends of the left and right edge seals (80; 180) are configured to overlap respectively in a circumferential direction with outer circumferential surfaces of both ends of the entrance seal (90; 190), the pair of left and right edge seals (80; 180) fixed to the housing at respective one sides thereof while contacting circumferential surfaces of both ends of the powder roller at other sides thereof, wherein at each of both ends of the entrance seal (90; 190), powder damming sections (92; 93; 94;95) extend in a rotation direction of the powder roller along the pair of left and right edge seals (80; 180), respectively, characterized in that each of the powder damming sections (93; 94; 95) comprises an inner edge (93b; 94b; 95b) and a leading edge (93d; 94d; 95d), wherein the inner edge (93b; 94b; 95b) is configured to extend linearly between a first inflection point (93a; 94a; 95ba) and a second inflection point (93c; 94c; 95c), wherein the inner edges of the respective powder damming sections (93; 94; 95) are each sandwiched between a corresponding one of the pair of left and right edge seals (80; 180) and the powder roller while substantially symmetrically inclining from the rotation direction of the powder roller . a housing to accommodate powder; a powder roller having a powder bearing surface to bear and convey the powder; an entrance seal (90; 190) disposed between the powder roller and the housing ; and a pair of left and right edge seals (80; 180), wherein the ends of the left and right edge seals (80; 180) are configured to overlap respectively in a circumferential direction with outer circumferential surfaces of both ends of the entrance seal (90; 190), the pair of left and right edge seals (80; 180) fixed to the housing at respective one sides thereof while contacting circumferential surfaces of both ends of the powder roller at other sides thereof, wherein at each of both ends of the entrance seal (90; 190), powder damming sections (92; 93; 94;95) extend in a rotation direction of the powder roller along the pair of left and right edge seals (80; 180), respectively, characterized in that each of the powder damming sections (93; 94; 95) comprises an inner edge (93b; 94b; 95b) and a leading edge (93d; 94d; 95d), wherein the inner edge (93b; 94b; 95b) is configured to extend linearly between a first inflection point (93a; 94a; 95ba) and a second inflection point (93c; 94c; 95c), wherein the inner edges of the respective powder damming sections (93; 94; 95) are each sandwiched between a corresponding one of the pair of left and right edge seals (80; 180) and the powder roller while substantially symmetrically inclining from the rotation direction of the powder roller .
A two component laminating adhesive comprising (i) a prepolymer that comprises - a lower molecular weight polyether polyol having a molecular weight between 2,500 g/mol to 3,250 g/mol and - a higher molecular weight polyether polyol having a molecular weight at least 1,000 g/mol higher than the molecular weight of the lower molecular weight polyol and (ii) a curative comprising an isocyanate reactive material, wherein the adhesive does not comprise solvent (i) a prepolymer that comprises - a lower molecular weight polyether polyol having a molecular weight between 2,500 g/mol to 3,250 g/mol and - a higher molecular weight polyether polyol having a molecular weight at least 1,000 g/mol higher than the molecular weight of the lower molecular weight polyol and - a lower molecular weight polyether polyol having a molecular weight between 2,500 g/mol to 3,250 g/mol and - a higher molecular weight polyether polyol having a molecular weight at least 1,000 g/mol higher than the molecular weight of the lower molecular weight polyol and (ii) a curative comprising an isocyanate reactive material, wherein the adhesive does not comprise solvent
A battery pack , which comprises: a battery cell assembly comprising a battery cell array composed of a plurality of cylindrical battery cells and a channel provided in the battery cell array , the channel being formed by N surrounding battery cells , wherein N > 2; and a heat dissipation assembly comprising a heat-absorbing member disposed in the channel , and wherein the heat-absorbing member comprises N side walls , wherein the N side walls respectively abut against the side walls of the N battery cells , the heat dissipation assembly comprises a heat-conducting member (72,) in contact with the heat-absorbing member to dissipate the heat absorbed by the heat-absorbing member , wherein the heat-conducting member is disposed along an axial direction of the battery cell , and the heat-conducting member is partially located inside the heat-absorbing member and partially located outside the heat-absorbing member and wherein the heat-conducting member comprises a cylinder provided with a receiving groove and a plurality of heat dissipation fins , wherein the receiving groove is provided along an axial direction of the cylinder , and one end of the heat dissipation fins are installed on the sidewall of the receiving groove , and the other end extends into the receiving groove , the heat-absorbing member is provided with a receiving cavity for accommodating the cylinder . a battery cell assembly comprising a battery cell array composed of a plurality of cylindrical battery cells and a channel provided in the battery cell array , the channel being formed by N surrounding battery cells , wherein N > 2; and a heat dissipation assembly comprising a heat-absorbing member disposed in the channel , and wherein the heat-absorbing member comprises N side walls , wherein the N side walls respectively abut against the side walls of the N battery cells , the heat dissipation assembly comprises a heat-conducting member (72,) in contact with the heat-absorbing member to dissipate the heat absorbed by the heat-absorbing member , wherein the heat-conducting member is disposed along an axial direction of the battery cell , and the heat-conducting member is partially located inside the heat-absorbing member and partially located outside the heat-absorbing member and wherein the heat-conducting member comprises a cylinder provided with a receiving groove and a plurality of heat dissipation fins , wherein the receiving groove is provided along an axial direction of the cylinder , and one end of the heat dissipation fins are installed on the sidewall of the receiving groove , and the other end extends into the receiving groove , the heat-absorbing member is provided with a receiving cavity for accommodating the cylinder .
A method of wrapping a load with packaging material using a wrapping apparatus of the type including a packaging material dispenser for dispensing packaging material to the load , the method comprising: generating relative rotation between the packaging material dispenser and the load about a center of rotation , the method being characterized by controlling the packaging material dispenser during the relative rotation to dispense at a first dispense rate at a first rotational position (R1) about the center of rotation , wherein the first dispense rate is determined using a curve fit between second (R2) and third (R3) rotational positions that are respectively before and after the first rotational position (R1) about the center of rotation and for which predicted demands are determined. generating relative rotation between the packaging material dispenser and the load about a center of rotation , the method being characterized by controlling the packaging material dispenser during the relative rotation to dispense at a first dispense rate at a first rotational position (R1) about the center of rotation , wherein the first dispense rate is determined using a curve fit between second (R2) and third (R3) rotational positions that are respectively before and after the first rotational position (R1) about the center of rotation and for which predicted demands are determined.
A passenger seat assembly , comprising: at least one stationary frame element ; a backrest pivotally attached to the at least one stationary frame element ; a seat pan frame movable relative to the at least one stationary frame element ; and an articulation mechanism coupling the pivoting backrest to the traveling seat pan frame , the mechanism comprising: a first link having a first end section attached to the pivoting backrest , and a second end section connected to the first end section , the second end section having multiple holes , and a second link having a first end section having multiple holes and a second end section pivotally attached to the seat pan frame , wherein anyone of the multiple holes of the first link can align with any one of the multiple holes of the second link to pivotally attach the second link to the first link , and wherein each particular one of the multiple holes of the first link or the second link corresponds to a particular predetermined ratio of backrest recline to seat pan frame travel. at least one stationary frame element ; a backrest pivotally attached to the at least one stationary frame element ; a seat pan frame movable relative to the at least one stationary frame element ; and an articulation mechanism coupling the pivoting backrest to the traveling seat pan frame , the mechanism comprising: a first link having a first end section attached to the pivoting backrest , and a second end section connected to the first end section , the second end section having multiple holes , and a second link having a first end section having multiple holes and a second end section pivotally attached to the seat pan frame , wherein anyone of the multiple holes of the first link can align with any one of the multiple holes of the second link to pivotally attach the second link to the first link , and wherein each particular one of the multiple holes of the first link or the second link corresponds to a particular predetermined ratio of backrest recline to seat pan frame travel. a first link having a first end section attached to the pivoting backrest , and a second end section connected to the first end section , the second end section having multiple holes , and a second link having a first end section having multiple holes and a second end section pivotally attached to the seat pan frame , wherein anyone of the multiple holes of the first link can align with any one of the multiple holes of the second link to pivotally attach the second link to the first link , and wherein each particular one of the multiple holes of the first link or the second link corresponds to a particular predetermined ratio of backrest recline to seat pan frame travel.
A hydraulic spool valve assembly, comprising: a housing defining a bore having a longitudinal axis (L); a hydraulic spool valve having a first end for connection to a drive arm , and an opposing second end disposed within the bore ; a sleeve disposed within the bore between the hydraulic spool valve and the housing ; and a temperature compensation device in operative connection with the sleeve and the housing , the temperature compensation device configured to expand in a first longitudinal direction in response to a temperature increase, to oppose movement of the sleeve in an opposing second longitudinal direction; characterised in that the temperature compensation device is a shape memory device or a bimetallic device . a housing defining a bore having a longitudinal axis (L); a hydraulic spool valve having a first end for connection to a drive arm , and an opposing second end disposed within the bore ; a sleeve disposed within the bore between the hydraulic spool valve and the housing ; and a temperature compensation device in operative connection with the sleeve and the housing , the temperature compensation device configured to expand in a first longitudinal direction in response to a temperature increase, to oppose movement of the sleeve in an opposing second longitudinal direction; characterised in that the temperature compensation device is a shape memory device or a bimetallic device .
A method of forming an optical device in a body , comprising:- performing a plurality of laser scans to form the optical device, each scan comprising relative movement of a laser beam and the body thereby to scan the laser beam along a respective path through the body to alter the refractive index of material of that path , wherein the paths are arranged such that one of the paths and at least one other of the paths abut or at least partially overlap one another to provide in combination a route for propagation of light through the optical device in operation that is larger in a direction substantially perpendicular to the route for propagation of light than any one of the paths individually, wherein the laser beam comprises a pulse train and the method further comprises triggering a modulator by a sample stage to modulate the pulse train to provide a change in at least one property of the pulse train based on position along the propagation direction thereby to provide a variation of refractive index with position along the propagation direction, and for at least one of the paths the modulation is such that the variation of refractive index with position along the propagation direction is offset by a required amount in comparison to the variation in refractive index with position along the propagation direction for at least one other of the paths . performing a plurality of laser scans to form the optical device, each scan comprising relative movement of a laser beam and the body thereby to scan the laser beam along a respective path through the body to alter the refractive index of material of that path , wherein the paths are arranged such that one of the paths and at least one other of the paths abut or at least partially overlap one another to provide in combination a route for propagation of light through the optical device in operation that is larger in a direction substantially perpendicular to the route for propagation of light than any one of the paths individually, wherein the laser beam comprises a pulse train and the method further comprises triggering a modulator by a sample stage to modulate the pulse train to provide a change in at least one property of the pulse train based on position along the propagation direction thereby to provide a variation of refractive index with position along the propagation direction, and for at least one of the paths the modulation is such that the variation of refractive index with position along the propagation direction is offset by a required amount in comparison to the variation in refractive index with position along the propagation direction for at least one other of the paths .