mhurhangee/ep-ind-claims huggingface dataset:
A sole structure for an article of footwear, comprising: a first material having a first hardness, wherein the first material forms at least a majority of a ground-facing surface of the sole structure; and a second material having a second hardness, wherein the second material extends from the first material and forms at least a first portion of an exterior surface of a sidewall of the sole structure, wherein the first portion of the exterior surface of the sidewall formed by the second material comprises a forefoot sidewall surface that includes at least a portion of a surface area of the exterior surface extending from: (i) a first forward toe location of the sole structure to (ii) a forefoot medial side location of the sole structure, wherein a transition region (124T, 130T) extends between the ground-facing surface of the sole structure and the sidewall of the sole structure, wherein the transition region is formed by the second material at least at the forefoot medial side location of the sole structure, wherein the transition region includes a medial transition region extending from the ground-facing surface to a forefoot medial sidewall, the medial transition region having a first curvature, the first curvature extending continuously in an anterior-to-posterior direction of the sole structure for a distance of at least 20 mm, wherein the first curvature is greater than a 5 mm radius, and wherein the second hardness is at least 15 Shore A hardness points higher than the first hardness. a first material having a first hardness, wherein the first material forms at least a majority of a ground-facing surface of the sole structure; and a second material having a second hardness, wherein the second material extends from the first material and forms at least a first portion of an exterior surface of a sidewall of the sole structure, wherein the first portion of the exterior surface of the sidewall formed by the second material comprises a forefoot sidewall surface that includes at least a portion of a surface area of the exterior surface extending from: (i) a first forward toe location of the sole structure to (ii) a forefoot medial side location of the sole structure, wherein a transition region (124T, 130T) extends between the ground-facing surface of the sole structure and the sidewall of the sole structure, wherein the transition region is formed by the second material at least at the forefoot medial side location of the sole structure, wherein the transition region includes a medial transition region extending from the ground-facing surface to a forefoot medial sidewall, the medial transition region having a first curvature, the first curvature extending continuously in an anterior-to-posterior direction of the sole structure for a distance of at least 20 mm, wherein the first curvature is greater than a 5 mm radius, and wherein the second hardness is at least 15 Shore A hardness points higher than the first hardness.
An apparatus for a reformer-less fuel cell, comprising: an electrolyte membrane configured to be assembled with a fuel manifold and an air manifold to form a reformer-less fuel cell, wherein the fuel manifold is configured to receive an oxidizable fuel from a fuel supply in at least one of a gaseous form, a liquid form, and a slurry form, wherein the air manifold is configured to receive air from an air supply, the air comprising at least oxygen, wherein the electrolyte membrane is configured to conduct oxygen in an ionic superoxide form when the reformer-less fuel cell is exposed to operating temperatures above the boiling point of water to electrochemically combine the oxygen with the oxidizable fuel to produce electricity, the electrolyte membrane comprising: a porous electrically non-conductive substrate; an anode catalyst layer deposited along a fuel manifold side of the porous substrate; a cathode catalyst layer deposited along an air manifold side of the porous substrate; and an ionic liquid filling the porous substrate between the anode and cathode catalyst layers to form the electrolyte membrane. an electrolyte membrane configured to be assembled with a fuel manifold and an air manifold to form a reformer-less fuel cell, wherein the fuel manifold is configured to receive an oxidizable fuel from a fuel supply in at least one of a gaseous form, a liquid form, and a slurry form, wherein the air manifold is configured to receive air from an air supply, the air comprising at least oxygen, wherein the electrolyte membrane is configured to conduct oxygen in an ionic superoxide form when the reformer-less fuel cell is exposed to operating temperatures above the boiling point of water to electrochemically combine the oxygen with the oxidizable fuel to produce electricity, the electrolyte membrane comprising: a porous electrically non-conductive substrate; an anode catalyst layer deposited along a fuel manifold side of the porous substrate; a cathode catalyst layer deposited along an air manifold side of the porous substrate; and an ionic liquid filling the porous substrate between the anode and cathode catalyst layers to form the electrolyte membrane. a porous electrically non-conductive substrate; an anode catalyst layer deposited along a fuel manifold side of the porous substrate; a cathode catalyst layer deposited along an air manifold side of the porous substrate; and an ionic liquid filling the porous substrate between the anode and cathode catalyst layers to form the electrolyte membrane.
A method of local checkpointing using a multi-level cell (200, 400) of a non-volatile random access memory, NVRAM, the method comprising: storing a first datum in a first bit or first plurality of bits of the multi-level cell; storing a second datum in a second bit or second plurality of bits of the multi-level cell, the second datum representing a checkpoint of the first datum; and copying the first datum from the first bit or first plurality of bits to the second bit or second plurality of bits of the multi-level cell to create the checkpoint, characterised in that: the copying the first datum from the first bit or first plurality of bits to the second bit or second plurality of bits comprises transitioning from a first range to a second range of the multi-level cell (575, 580), wherein the first range is represented by a first range of a resistance value of the multi-level cell and the second range is represented by a second range of the resistance value of the multi-level cell, wherein resistance range encodings are altered such that during a checkpoint operation, memory operations transition from a greater resistance range to a lesser resistance range to reduce the time and energy to create a checkpoint. storing a first datum in a first bit or first plurality of bits of the multi-level cell; storing a second datum in a second bit or second plurality of bits of the multi-level cell, the second datum representing a checkpoint of the first datum; and copying the first datum from the first bit or first plurality of bits to the second bit or second plurality of bits of the multi-level cell to create the checkpoint, characterised in that: the copying the first datum from the first bit or first plurality of bits to the second bit or second plurality of bits comprises transitioning from a first range to a second range of the multi-level cell (575, 580), wherein the first range is represented by a first range of a resistance value of the multi-level cell and the second range is represented by a second range of the resistance value of the multi-level cell, wherein resistance range encodings are altered such that during a checkpoint operation, memory operations transition from a greater resistance range to a lesser resistance range to reduce the time and energy to create a checkpoint. the copying the first datum from the first bit or first plurality of bits to the second bit or second plurality of bits comprises transitioning from a first range to a second range of the multi-level cell (575, 580), wherein the first range is represented by a first range of a resistance value of the multi-level cell and the second range is represented by a second range of the resistance value of the multi-level cell, wherein resistance range encodings are altered such that during a checkpoint operation, memory operations transition from a greater resistance range to a lesser resistance range to reduce the time and energy to create a checkpoint.
A laser-based measuring apparatus for measuring a position of a distant target, configured as a laser tracker for acquiring the position and/or the orientation of a measurement aid mobile in space, comprising • a base defining an upright axis, • a support which can be rotated relative to the base about the upright axis, • a telescope unit which can be rotated relative to the support about a tilt axis and has means for emitting a laser beam, • a first bearing apparatus having a shaft, the longitudinal axis of which extends coaxially with the tilt axis, for mounting the telescope unit on the support, and • a second bearing apparatus having a shaft, the longitudinal axis of which extends coaxially with the upright axis, for mounting the support on the base, characterized in that the first and/or second bearing apparatus (60, 70) is configured as a fixed/loose bearing apparatus, which comprises a fixed bearing (61, 71) and a loose bearing (62, 72), wherein the fixed bearing (61, 71) is configured to absorb axial forces which, in any orientation of the measuring apparatus, exceed the forces which occur owing to the intrinsic weight of the measuring apparatus, so that the measuring apparatus is configured for a set up at an inclination to the vertical and/or for an upside-down setup, in which the support hangs from the base. • a base defining an upright axis, • a support which can be rotated relative to the base about the upright axis, • a telescope unit which can be rotated relative to the support about a tilt axis and has means for emitting a laser beam, • a first bearing apparatus having a shaft, the longitudinal axis of which extends coaxially with the tilt axis, for mounting the telescope unit on the support, and • a second bearing apparatus having a shaft, the longitudinal axis of which extends coaxially with the upright axis, for mounting the support on the base,
Method for managing a remote communication service offered by an object (4, 5) of a local area network to at least one terminal (7a, 7b) of a communications network (1, 3), the terminal and the object being capable of communicating via a gateway of the local area network, said method being characterized in that it comprises the following steps executed by a service provision device providing the service (2, DMAS) for supplying the terminal with at least one service address (IP_X) for accessing the service of the object: - establishing a list of associations (AS_X) between at least one service address (IP_X) and at least one feature (STR, COD, BR, L/D) associated with the service; - obtaining (E6, E'6) at least one criterion (STR, COD, BR, L/D) linked to the terminal; - selecting at least one association (AS_X) in the list of associations according to said criterion linked to the terminal (STR, COD, BR, L/D); - sending to the terminal (E7, E'4) at least one address of the service (IP_X) associated with said at least one selected association (AS_X). - establishing a list of associations (AS_X) between at least one service address (IP_X) and at least one feature (STR, COD, BR, L/D) associated with the service; - obtaining (E6, E'6) at least one criterion (STR, COD, BR, L/D) linked to the terminal; - selecting at least one association (AS_X) in the list of associations according to said criterion linked to the terminal (STR, COD, BR, L/D); - sending to the terminal (E7, E'4) at least one address of the service (IP_X) associated with said at least one selected association (AS_X).
Electrical circuit having a circuit board, on which a number of electrical and/or electronic components is mounted, and having a bus bar (8, 10) having a supporting body and a first, second and third connection (12, 14, 16), the supporting body of which is spaced apart from the circuit board, and the connections (12, 14, 16) of which are electrically contacted both by the supporting body and also by the circuit board, wherein the supporting body has a first cross section between the first and the second connection (12, 14) and a second cross section between the second and the third connection (14, 16), wherein the first cross section is smaller than the second cross section, wherein the respective cross section is perpendicular to the shortest connection and/or perpendicular to the current flow direction between the respective connections (12, 14, 16), wherein the bus bar (8, 10) comprises a number of further connections, wherein the supporting body has a cross section between respectively adjacent connections, wherein each cross section is enlarged with increasing distance from the first connection, characterized in that the first cross section and the second cross section are each L-shaped.
A battery module comprising: a battery unit comprising a plurality of batteries; a pair of end plates (20, one of the end plates being installed at either end of the battery unit; and a fixing band (30, 40, 50, 60) that encircles the end plates and the battery unit, wherein the fixing band (30, 40, 50, 60) comprises a material that expands when heated and contracts when cooled, and characterized in that the material forming the fixing band (30, 40, 50, 60) is a composition containing iron (Fe) as a base, carbon in a percentage of 0.005 wt% or below, nitrogen in a percentage of 0.005 wt% or below, silicon (Si) in a percentage of 0.1 to 0.5 wt%, phosphorus in a percentage of 0.1 wt% or below, sulfur in a percentage of 0.02 wt% or below, manganese (Mn) in a percentage of 1.05 to 2.0 wt%, and aluminum (Al) in a percentage of 1.0 wt% or below, and wherein the fixing band (30, 40, 50, 60) satisfies the following condition: L M > L B wherein L B is the length of the fixing band (30, 40, 50, 60) at room temperature and L M is the total circumference of the assembly of the battery unit and the end plates at room temperature; and wherein the fixing band (30, 40, 50, 60) further satisfies the following condition: L B + L expansion > L M wherein L expansion is an expansion length of the fixing band (30, 40, 50, 60) in a heated state. a battery unit comprising a plurality of batteries; a pair of end plates (20, one of the end plates being installed at either end of the battery unit; and a fixing band (30, 40, 50, 60) that encircles the end plates and the battery unit, wherein the fixing band (30, 40, 50, 60) comprises a material that expands when heated and contracts when cooled, and characterized in that the material forming the fixing band (30, 40, 50, 60) is a composition containing iron (Fe) as a base, carbon in a percentage of 0.005 wt% or below, nitrogen in a percentage of 0.005 wt% or below, silicon (Si) in a percentage of 0.1 to 0.5 wt%, phosphorus in a percentage of 0.1 wt% or below, sulfur in a percentage of 0.02 wt% or below, manganese (Mn) in a percentage of 1.05 to 2.0 wt%, and aluminum (Al) in a percentage of 1.0 wt% or below, and wherein the fixing band (30, 40, 50, 60) satisfies the following condition: L M > L B wherein L B is the length of the fixing band (30, 40, 50, 60) at room temperature and L M is the total circumference of the assembly of the battery unit and the end plates at room temperature; and wherein the fixing band (30, 40, 50, 60) further satisfies the following condition: L B + L expansion > L M wherein L expansion is an expansion length of the fixing band (30, 40, 50, 60) in a heated state.
A process for producing a particulate support for an olefin polymerisation catalyst, wherein a solution of a magnesium compound is contacted with a solution of an element of Group 13 of the Periodic Table(IUPAC) to obtain a solid reaction product, characterised in that the solid reaction product is formed by (i) adding a solution of a magnesium compound of a formula: Mg(OR 1) 2-n (R 1) n X x, wherein each R 1 independently represents a C 1-20 hydrocarbyl group; X is a halogen; 0 ≤ n < 2 and may or may not be an integer; x < 2 and may or may not be an integer; the sum of (2-n), n and x is 2 to a solution of a compound of formula: Al(R 1) x X 3-x, wherein each R 1 independently represents an alkyl of up to 4 carbon atoms; X is chloride and 0 ≤ x < 3; and (ii) recovering the solidified reaction product from the reaction mixture by separating the solid product from the reaction mixture from the liquid reaction medium; and (iii) washing the product with a wash solution until the molar ratio of aluminium to magnesium has a value of at least 0.3. (i) adding a solution of a magnesium compound of a formula: Mg(OR 1) 2-n (R 1) n X x, wherein each R 1 independently represents a C 1-20 hydrocarbyl group; X is a halogen; 0 ≤ n < 2 and may or may not be an integer; x < 2 and may or may not be an integer; the sum of (2-n), n and x is 2 to a solution of a compound of formula: Al(R 1) x X 3-x, wherein each R 1 independently represents an alkyl of up to 4 carbon atoms; X is chloride and 0 ≤ x < 3; and (ii) recovering the solidified reaction product from the reaction mixture by separating the solid product from the reaction mixture from the liquid reaction medium; and (iii) washing the product with a wash solution until the molar ratio of aluminium to magnesium has a value of at least 0.3.
An RFID label with protection of the electronic RFID functionality, comprising: - an RFID transponder chip, - a support substrate on which the RFID transponder chip is arranged, - several structural elements which are arranged laterally offset from the RFID transponder chip in perpendicular projection in the form of a top view on the RFID label, wherein the structural elements are arranged at a distance from the RFID transponder chip and spaced apart from one another and act as spacers so that a force acting on the label under mechanical stress is not absorbed by the RFID transponder chip, but by the structural elements, characterized in that the structural elements are each designed as a varnish dot or cured glue dot which is printed or applied by means of a glue application process. - an RFID transponder chip, - a support substrate on which the RFID transponder chip is arranged, - several structural elements which are arranged laterally offset from the RFID transponder chip in perpendicular projection in the form of a top view on the RFID label, wherein the structural elements are arranged at a distance from the RFID transponder chip and spaced apart from one another and act as spacers so that a force acting on the label under mechanical stress is not absorbed by the RFID transponder chip, but by the structural elements, characterized in that the structural elements are each designed as a varnish dot or cured glue dot which is printed or applied by means of a glue application process.
A steel sheet which is useful in the manufacture of a container, the steel sheet comprising: a Ni plating layer; and a chromate film layer or a film layer including Zr, on the Ni plating layer, wherein the Ni plating layer includes one or more of a hydroxyl Ni and a Ni oxide, the adhesion amount of the Ni plating layer in terms of an amount of Ni is 0.3 g/m 2 or more, the concentration of oxygen atoms of the Ni plating layer due to the hydroxyl Ni and the Ni oxide is 1 to 10 atomic%, the adhesion amount of the chromate film layer in terms of an amount of Cr is 1 to 40 mg/m 2, and the adhesion amount of the film layer including Zr in terms of an amount of Zr is 1 to 40 mg/m 2. a Ni plating layer; and a chromate film layer or a film layer including Zr, on the Ni plating layer, wherein the Ni plating layer includes one or more of a hydroxyl Ni and a Ni oxide, the adhesion amount of the Ni plating layer in terms of an amount of Ni is 0.3 g/m 2 or more, the concentration of oxygen atoms of the Ni plating layer due to the hydroxyl Ni and the Ni oxide is 1 to 10 atomic%, the adhesion amount of the chromate film layer in terms of an amount of Cr is 1 to 40 mg/m 2, and the adhesion amount of the film layer including Zr in terms of an amount of Zr is 1 to 40 mg/m 2.
A nosepad for an eyeglasses nosepiece, comprising: - a pad which is at least partly transparent and which defines a supporting surface which can be rested directly on a wearer's nose; - a connecting portion fixed to the pad and having a through hole by which it is connectable to a mounting pin integral with the frame of the eyeglasses; - an insert which is at least partly embedded in the pad and which is visible from the outside through a transparent portion of the supporting surface of the pad; characterized in that at least the connecting portion of the nosepad is made of a material which is deformable partly plastically and partly elastically, wherein the insert comprises a plate having, on a side opposite the supporting surface of the pad, a pair of projections which are at least partly not coated with the deformable material, said pair of projections being at least partly not embedded in the pad, and being arranged on opposite sides of the connecting portion. - a pad which is at least partly transparent and which defines a supporting surface which can be rested directly on a wearer's nose; - a connecting portion fixed to the pad and having a through hole by which it is connectable to a mounting pin integral with the frame of the eyeglasses; - an insert which is at least partly embedded in the pad and which is visible from the outside through a transparent portion of the supporting surface of the pad; characterized in that at least the connecting portion of the nosepad is made of a material which is deformable partly plastically and partly elastically, wherein the insert comprises a plate having, on a side opposite the supporting surface of the pad, a pair of projections which are at least partly not coated with the deformable material, said pair of projections being at least partly not embedded in the pad, and being arranged on opposite sides of the connecting portion.
A compound represented by Chemical Formula 1 below: In Chemical Formula 1, L 1 and L 2 are bonded at positions 1 and 2 of naphthalene, or bonded at positions 2 and 1 of naphthalene, L 1 is phenylene, L 2 is a bond; a substituted or unsubstituted C 6-60 arylene; or a substituted or unsubstituted C 2-60 heteroarylene containing at least one of O, N, Si and S, Ar 1 and Ar 2 are each independently a substituted or unsubstituted C 6-60 aryl; or a substituted or unsubstituted C 2-60 heteroaryl containing at least one of O, N, Si and S, and Ar 3 is any one selected from the group consisting of: L 1 and L 2 are bonded at positions 1 and 2 of naphthalene, or bonded at positions 2 and 1 of naphthalene, L 1 is phenylene, L 2 is a bond; a substituted or unsubstituted C 6-60 arylene; or a substituted or unsubstituted C 2-60 heteroarylene containing at least one of O, N, Si and S, Ar 1 and Ar 2 are each independently a substituted or unsubstituted C 6-60 aryl; or a substituted or unsubstituted C 2-60 heteroaryl containing at least one of O, N, Si and S, and Ar 3 is any one selected from the group consisting of: