mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a main body including a cool air storage compartment; at least one rotatable refrigerator door (11, 12) coupled to the main body; a home bar provided on the refrigerator door and including at least an opening adapted to access inside the storage compartment; a home bar door configured to open and close the opening; and a home bar heater located on at least one side of the home bar door and receiving power from a power supplier, characterized in that the home bar heater includes a positive temperature coefficient device connected between the home bar heater and the power supplier and configured to allow a variable amount of power to be supplied to the home bar heater according to a temperature around the home bar, wherein the home bar heater is adapted to emit a variable amount of heat according to the power supplied, and wherein the positive temperature coefficient device is adapted to provide that, when the home bar door is opened during the operation of the home bar heater, the amount of power supplied to the home bar heater is increased and the amount of heat emitted by the home bar heater is increased. a main body including a cool air storage compartment; at least one rotatable refrigerator door (11, 12) coupled to the main body; a home bar provided on the refrigerator door and including at least an opening adapted to access inside the storage compartment; a home bar door configured to open and close the opening; and a home bar heater located on at least one side of the home bar door and receiving power from a power supplier, characterized in that the home bar heater includes a positive temperature coefficient device connected between the home bar heater and the power supplier and configured to allow a variable amount of power to be supplied to the home bar heater according to a temperature around the home bar, wherein the home bar heater is adapted to emit a variable amount of heat according to the power supplied, and wherein the positive temperature coefficient device is adapted to provide that, when the home bar door is opened during the operation of the home bar heater, the amount of power supplied to the home bar heater is increased and the amount of heat emitted by the home bar heater is increased.
Textile article comprising a pattern consisting of a composition comprising graphene, characterized in that: a) said pattern defines a surface with empty portions on which said composition comprising graphene is not present, and full portions on which said composition comprising graphene is present, said pattern comprising lines that intersect in a plurality of points and form a network structure; b) said full portions of said pattern occupy from 10 to 70% of said surface defined by said pattern and said empty portions of said pattern occupy from 90 to 30% of said surface defined by said pattern; c) said graphene consists of graphene nanoplatelets, in which at least 90% has a lateral size (x, y) from 50 to 50000 nm and a thickness (z) of 0.34 to 50 nm, and wherein the C/O ratio is ≥ 100:1. a) said pattern defines a surface with empty portions on which said composition comprising graphene is not present, and full portions on which said composition comprising graphene is present, said pattern comprising lines that intersect in a plurality of points and form a network structure; b) said full portions of said pattern occupy from 10 to 70% of said surface defined by said pattern and said empty portions of said pattern occupy from 90 to 30% of said surface defined by said pattern; c) said graphene consists of graphene nanoplatelets, in which at least 90% has a lateral size (x, y) from 50 to 50000 nm and a thickness (z) of 0.34 to 50 nm, and wherein the C/O ratio is ≥ 100:1.
A floating body structure that is configured to support an object to be supported so that the object to be supported floats in the sea, comprising: a floating body section configured to be connected to a base end portion of the object to be supported so that a central axis of the object to be supported and a central axis of the floating body section are orthogonal to each other, wherein the floating body section has: an outer pipe made of steel; an inner pipe made of steel and provided inside the outer pipe; a first fluid solidified material filled in at least a portion of a gap between an outer wall surface of the inner pipe and an inner wall surface of the outer pipe; a second fluid solidified material filled in a hollow portion which is formed by an inner wall surface of the inner pipe; and a lid body which is made of steel and hermetically seals the floating body section, the first fluid solidified material and the second fluid solidified material are concrete or mortar, the inner pipe and the outer pipe are configured such that the base end portion of the object to be supported can penetrate toward the inside of the inner pipe from the outside in a radial direction of the inner pipe and the outer pipe, and the inner pipe and the second fluid solidified material are configured such that the base end portion is fixed to the floating body section by the second fluid solidified material filled in the hollow portion of the inner pipe at a position configured for the base end portion to penetrate. a floating body section configured to be connected to a base end portion of the object to be supported so that a central axis of the object to be supported and a central axis of the floating body section are orthogonal to each other, wherein the floating body section has: an outer pipe made of steel; an inner pipe made of steel and provided inside the outer pipe; a first fluid solidified material filled in at least a portion of a gap between an outer wall surface of the inner pipe and an inner wall surface of the outer pipe; a second fluid solidified material filled in a hollow portion which is formed by an inner wall surface of the inner pipe; and a lid body which is made of steel and hermetically seals the floating body section, the first fluid solidified material and the second fluid solidified material are concrete or mortar, the inner pipe and the outer pipe are configured such that the base end portion of the object to be supported can penetrate toward the inside of the inner pipe from the outside in a radial direction of the inner pipe and the outer pipe, and the inner pipe and the second fluid solidified material are configured such that the base end portion is fixed to the floating body section by the second fluid solidified material filled in the hollow portion of the inner pipe at a position configured for the base end portion to penetrate.
A multi-gear brightness adjustment circuit board, comprising a plurality of gear conductive contact pieces disposed sequentially along a circumferential direction of a top surface of a circuit board and with gradually increased gear, characterized in that the circuit board is also disposed with an automatic control gear AUTO conductive contact piece and a light spot dot-circle pattern composite conductive contact piece disposed along the circumferential direction of the circuit board in the circumferential direction.
Multilayer composite material comprising - a first structure-providing, self-supporting rigid external layer made of a fiber composite material, - a second structure-providing external layer, - a cracking-resistant intermediate layer made of a plastic selected from a group, comprising cracking-resistance-modified polyethylene, polyisobutylene, prestretched polypropylene, polyvinyl butyral, ethylene-vinyl acetate, polyacrylate, polymethylene acrylate, polyurethane, polyvinyl acetate and - at least one adhesion promoter layer (6, 7, 8), where the cracking-resistant intermediate layer and the adhesion promoter layer (6, 7, 8) have been embedded between the structure-providing external layers (2, 3) and form an adhesion bond with the structure-providing external layers (2, 3), and where the thickness of each of the structure-providing external layers (2, 3) is many times the thickness of the cracking-resistant intermediate layer or of the adhesion promoter layer (6, 7, 8), where there is, provided as cracking-resistant intermediate layer, a thin cracking-resistant film with a tensile strain at break of ≥ 300% and a thickness of about 50 μm to 1520 μm, particularly preferably from 50 μm to 300 μm. - a first structure-providing, self-supporting rigid external layer made of a fiber composite material, - a second structure-providing external layer, - a cracking-resistant intermediate layer made of a plastic selected from a group, comprising cracking-resistance-modified polyethylene, polyisobutylene, prestretched polypropylene, polyvinyl butyral, ethylene-vinyl acetate, polyacrylate, polymethylene acrylate, polyurethane, polyvinyl acetate and - at least one adhesion promoter layer (6, 7, 8),
A method of controlling idling of a reciprocating piston internal combustion engine having a poppet valve at the inlet of a cylinder, an inlet manifold, and a throttle valve at the inlet to said manifold, said engine further including an active tappet for said inlet valve whereby valve opening may be varied on demand, said method comprising: detecting that engine speed is falling, commanding said active tappet to increase the aspiration of air admitted at each actuation of the inlet valve, wherein said active tappet is commanded to change inlet valve opening duration, detecting that engine speed is rising, commanding said active tappet to reduce the aspiration of air admitted at each actuation of the inlet valve, wherein said active tappet is commanded to change inlet valve opening duration, and repeating said method continually whilst said engine is idling. detecting that engine speed is falling, commanding said active tappet to increase the aspiration of air admitted at each actuation of the inlet valve, wherein said active tappet is commanded to change inlet valve opening duration, detecting that engine speed is rising, commanding said active tappet to reduce the aspiration of air admitted at each actuation of the inlet valve, wherein said active tappet is commanded to change inlet valve opening duration, and repeating said method continually whilst said engine is idling.
A Conjugate having formula IV: L - (LU-D) p or a pharmaceutically acceptable salt or solvate thereof; wherein L is a Ligand Unit selected from the group consisting of an antibody and an antigen-binding fragment of an antibody, LU is a Linker Unit, p is 1 to 20; and D is selected from the group consisting of D1 to D6 having the structures: D1 D2 D3 D4 D5 D6 wherein (a) R 10 is H, and R 11 is OH, OR A, wherein R A is saturated C 1-4 alkyl; or (b) R 10 and R 11 form a nitrogen-carbon double bond between the nitrogen and carbon atoms to which they are bound; or (c) R 10 is H and R 11 is SO z M, wherein z is 2 or 3 and M is a monovalent pharmaceutically acceptable cation, or both M together are a divalent pharmaceutically acceptable cation; and the asterisk indicates the point of attachment to the Linker Unit, wherein LU is: wherein the asterisk indicates the point of attachment to D, the wavy line indicates the point of attachment to the Ligand Unit, Y is NH and E is glucuronic acid; and A' is a Stretcher Unit. or a pharmaceutically acceptable salt or solvate thereof; wherein L is a Ligand Unit selected from the group consisting of an antibody and an antigen-binding fragment of an antibody, LU is a Linker Unit, p is 1 to 20; and D is selected from the group consisting of D1 to D6 having the structures: D1 D2 D3 D4 D5 D6 (a) R 10 is H, and R 11 is OH, OR A, wherein R A is saturated C 1-4 alkyl; or (b) R 10 and R 11 form a nitrogen-carbon double bond between the nitrogen and carbon atoms to which they are bound; or (c) R 10 is H and R 11 is SO z M, wherein z is 2 or 3 and M is a monovalent pharmaceutically acceptable cation, or both M together are a divalent pharmaceutically acceptable cation; and
A method for converting an original ammonia plant to a converted ammonia plant comprising: installing a secondary ammonia synthesis loop for reacting a feed stream to form ammonia, wherein a portion of a purge gas taken from an ammonia recovery unit in a primary ammonia synthesis loop is supplied as feed to the secondary ammonia synthesis loop, wherein the secondary ammonia synthesis loop comprises a cold wall synthesis reactor in fluid communications with a chiller unit, wherein the cold wall synthesis reactor comprises an inner shell disposed within an outer shell and a reaction zone disposed within the inner shell, wherein a space is formed between the inner shell and the outer shell, wherein the reaction zone comprises one or more catalyst beds in indirect heat exchange with the space, and wherein the catalyst bed includes at least one catalyst; introducing the feed stream into the reaction zone through a first inlet; discharging an effluent from the reaction zone through a first outlet to the chiller unit, wherein the first inlet, the reaction zone, and the first outlet provide a first plenum through the outer shell; cooling the effluent in the chiller unit; introducing the cooled effluent from the chiller unit through a second inlet into the space formed between the inner shell and the outer shell of the cold wall reactor; discharging the cooled effluent from the space through a second outlet; and feeding at least a portion of the cooled effluent from the cold wall reactor to a second ammonia recovery unit. installing a secondary ammonia synthesis loop for reacting a feed stream to form ammonia, wherein a portion of a purge gas taken from an ammonia recovery unit in a primary ammonia synthesis loop is supplied as feed to the secondary ammonia synthesis loop, wherein the secondary ammonia synthesis loop comprises a cold wall synthesis reactor in fluid communications with a chiller unit, wherein the cold wall synthesis reactor comprises an inner shell disposed within an outer shell and a reaction zone disposed within the inner shell, wherein a space is formed between the inner shell and the outer shell, wherein the reaction zone comprises one or more catalyst beds in indirect heat exchange with the space, and wherein the catalyst bed includes at least one catalyst; introducing the feed stream into the reaction zone through a first inlet; discharging an effluent from the reaction zone through a first outlet to the chiller unit, wherein the first inlet, the reaction zone, and the first outlet provide a first plenum through the outer shell; cooling the effluent in the chiller unit; introducing the cooled effluent from the chiller unit through a second inlet into the space formed between the inner shell and the outer shell of the cold wall reactor; discharging the cooled effluent from the space through a second outlet; and feeding at least a portion of the cooled effluent from the cold wall reactor to a second ammonia recovery unit.
A method of making a wind turbine component, the method comprising: supporting a layup of fibrous reinforcing material in a mould; providing a supply of resin; providing a supply of hardener comprising at least a first hardener and a second hardener, the second hardener being faster than the first hardener; mixing resin with the first and/or second hardener to create a resin mixture; supplying the resin mixture to the layup during an infusion process; monitoring one or more process parameters of the infusion process; and controlling the speed of the hardener by varying the relative proportions of the first and second hardeners (20a, 20b) in the resin mixture during the course of the infusion process in dependence upon the one or more process parameters. supporting a layup of fibrous reinforcing material in a mould; providing a supply of resin; providing a supply of hardener comprising at least a first hardener and a second hardener, the second hardener being faster than the first hardener; mixing resin with the first and/or second hardener to create a resin mixture; supplying the resin mixture to the layup during an infusion process; monitoring one or more process parameters of the infusion process; and controlling the speed of the hardener by varying the relative proportions of the first and second hardeners (20a, 20b) in the resin mixture during the course of the infusion process in dependence upon the one or more process parameters.
Reinforcement element for motor vehicle body means the reinforcement element comprising means of protection (30, 31, 40, 41, 42) against the rear impact of the vehicle, characterized as it includes at least two tubes (20, 22) to be positioned globally in the direction of the vehicle length and to be attached to the body, and a rigid surface of contact (30, 31, 70) comprising impactors (30, 31), the rigid surface of contact (30, 31, 70) being arranged opposite the two tubes (20, 22) to allow the vehicle to move in the event of a rear impact, the reinforcement element comprising in addition to the means of energy absorption (40, 41, 42) protruding to the rigid surface of contact (30, 31, 70) and to position to the rear of the vehicle, so that impactors (30, 31) can only be used for such activation if the means of energy absorption (40, 41, 42) were requested and overcome by such a shock from the rear.
A pharmaceutical composition comprising 3.5 g to 4 g of eicosapentaenoic acid or pharmaceutically acceptable ester, conjugate or salt thereof for use in treating a cardiovascular-related disease in a subject on concomitant statin therapy, having type II diabetes mellitus, having a fasting triglyceride level of 150 mg/dl to 499 mg/dl and a baseline HbA 1c level of at least 6.8%, wherein the pharmaceutical composition is for administration to the subject daily for a period of time effective to lower a high-sensitivity CRP (hs-CRP) level in the subject.
A culture snow making device, comprising a body (101; 201) including: - a pressurised water supply duct, - a pressurised air supply duct, - at least one element (130; 230) for spaying water or a mixture of air and water, - at least one control valve (140; 240) adjusting the supply of pressurised water and/or pressurised air to said spray element (130; 230), and - piloting means (150; 250) intended to pilot said control valve (140; 240), which piloting means (150; 250) comprise a camshaft (151; 251; 351; 451) driven into rotation about its longitudinal axis (R1; R2; R3; R4) by an actuator (153; 253), said control valve (140; 240) cooperating with a cam (160; 260, 270, 280; 360, 370; 460, 470, 480) carried by said camshaft (151; 251; 351; 451), which control valve (140; 240) comprises a fixed body (141; 241), generally tubular in shape, delimiting an inner housing (142; 242) in which is accommodated a mobile body (142; 243), translationally mobile along a translation axis (D1, D2) extending perpendicular with respect to said longitudinal axis (R1, R2, R3, R4) of said camshaft (151; 251; 351; 451), characterized in that said control valve (140; 240) is placed on said pressurised water supply duct and on said pressurised air supply duct, and includes, over a part on its perimeter, at least one water chamber (144; 244) intended to be supplied with pressurised water via said pressurised water supply duct, and, at least one air chamber (145; 245) intended to be supplied with pressurised air via said pressurised air supply duct. - a pressurised water supply duct, - a pressurised air supply duct, - at least one element (130; 230) for spaying water or a mixture of air and water, - at least one control valve (140; 240) adjusting the supply of pressurised water and/or pressurised air to said spray element (130; 230), and - piloting means (150; 250) intended to pilot said control valve (140; 240), which piloting means (150; 250) comprise a camshaft (151; 251; 351; 451) driven into rotation about its longitudinal axis (R1; R2; R3; R4) by an actuator (153; 253),
A battery pack comprising: a first battery cell comprising a first electrode tab; a second battery cell comprising a second electrode tab; a lead member electrically connected to the first electrode tab and the second electrode tab; a protective circuit module for controlling charge and discharge of the first battery cell and the second battery cell; wherein the first electrode tab and the second electrode tab are coupled together at a first coupling region, and the lead member is coupled to the first electrode tab at a second coupling region, the second coupling region being different to the first coupling region and the lead member is for electrically connecting the first battery cell and the second battery cell to the protective circuit module, the second battery cell is stacked on the first battery cell, and the first electrode tab and the second electrode tab project in a first direction; the first electrode tab has a connection portion that extends in the first direction, wherein a region of the connection portion overlaps with the lead member to form the second coupling region; and the second electrode tab has a first portion extending towards the first electrode tab, a second portion that overlaps with a region of the connection portion of the first electrode tab to form the first coupling region, and a third portion arranged between the first portion of the second electrode tab and the second battery cell, wherein the third portion extends in the first direction. a first battery cell comprising a first electrode tab; a second battery cell comprising a second electrode tab; a lead member electrically connected to the first electrode tab and the second electrode tab; a protective circuit module for controlling charge and discharge of the first battery cell and the second battery cell; wherein the first electrode tab and the second electrode tab are coupled together at a first coupling region, and the lead member is coupled to the first electrode tab at a second coupling region, the second coupling region being different to the first coupling region and the lead member is for electrically connecting the first battery cell and the second battery cell to the protective circuit module, the second battery cell is stacked on the first battery cell, and the first electrode tab and the second electrode tab project in a first direction; the first electrode tab has a connection portion that extends in the first direction, wherein a region of the connection portion overlaps with the lead member to form the second coupling region; and the second electrode tab has a first portion extending towards the first electrode tab, a second portion that overlaps with a region of the connection portion of the first electrode tab to form the first coupling region, and a third portion arranged between the first portion of the second electrode tab and the second battery cell, wherein the third portion extends in the first direction.
A method of culturing organized skeletal muscle tissue from precursor muscle cells, comprising: cyclically stretching and relaxing said precursor muscle cells which have been seeded on a support in vitro for a time sufficient to produce said organized skeletal muscle tissue, reseeding said organized skeletal muscle tissue by contacting additional precursor muscle cells to said organized skeletal muscle tissue on said support, wherein said reseeding is carried out under static conditions, and then repeating said step of cyclically stretching and relaxing said muscle cells on said support in vitro for time sufficient to enhance the density of said organized skeletal muscle tissue on said support. cyclically stretching and relaxing said precursor muscle cells which have been seeded on a support in vitro for a time sufficient to produce said organized skeletal muscle tissue, reseeding said organized skeletal muscle tissue by contacting additional precursor muscle cells to said organized skeletal muscle tissue on said support, wherein said reseeding is carried out under static conditions, and then repeating said step of cyclically stretching and relaxing said muscle cells on said support in vitro for time sufficient to enhance the density of said organized skeletal muscle tissue on said support.