mhurhangee/patent-ind-claim-en huggingface dataset:
Method for suggesting at least one agent (A) in an industrial automation system (AS), wherein the industrial automation system (AS) has: • automation devices (DEV), which at least partially have a data source (SRC), • wherein the data sources (SRC) collect and/or process data (DATA) of the automation devices (DEV), • a data sink (SINK), in which data (DATA), in particular status data, of the data sources (SRC) is saved, wherein an agent suggestion component (ASUG) processes the data (DATA) of the data sink (SINK) into clusters (C) by means of cluster analysis (CA), wherein the agent suggestion component (ASUG) creates the clusters (C) while taking into consideration context data (CONTXT), wherein the context data contains the information regarding the context of the data from the data source which can be utilised for the evaluation, and wherein the agent suggestion component (ASUG) makes the created clusters (C) available at an interface (INT) such that a model (MOD) for the agent (A) can be created by means of an agent generation component (AGEN) on the basis of at least one selection (SEL) of the clusters (C), wherein subsequently the model (MOD) for the agent (A) is created by means of the agent generation component (AGEN) on the basis of at least the selection (SEL) of the clusters (C), and then the agent generation component (AGEN), after creating the agent (A), makes it available in the automation system as an executable binary file. • automation devices (DEV), which at least partially have a data source (SRC), • wherein the data sources (SRC) collect and/or process data (DATA) of the automation devices (DEV), • a data sink (SINK), in which data (DATA), in particular status data, of the data sources (SRC) is saved, wherein an agent suggestion component (ASUG) processes the data (DATA) of the data sink (SINK) into clusters (C) by means of cluster analysis (CA), wherein the agent suggestion component (ASUG) creates the clusters (C) while taking into consideration context data (CONTXT), wherein the context data contains the information regarding the context of the data from the data source which can be utilised for the evaluation, and wherein the agent suggestion component (ASUG) makes the created clusters (C) available at an interface (INT) such that a model (MOD) for the agent (A) can be created by means of an agent generation component (AGEN) on the basis of at least one selection (SEL) of the clusters (C), wherein subsequently the model (MOD) for the agent (A) is created by means of the agent generation component (AGEN) on the basis of at least the selection (SEL) of the clusters (C), and then the agent generation component (AGEN), after creating the agent (A), makes it available in the automation system as an executable binary file.
An infusion system operable to deliver a bolus of insulin to a patient to regulate the patient's blood glucose level in respect of a current meal event comprising: an infusion device ; a user interface to receive an input qualitative meal size; a data storage element to maintain historical meal data associated with historical meal events for the patient, the historical meal events being clustered into a plurality of different groups, each group of the plurality of different groups being associated with a respective qualitative meal size of a plurality of qualitative meal sizes and comprising a unique respective subset of the historical meal events assigned to the respective qualitative meal size; and a control system coupled to the infusion device , the user interface , and the data storage element and configured to: a) receive an input qualitative meal size via the user interface ; b) identify a patient-specific carbohydrate amount representative of a clustered subset of historical meal events corresponding to a group of the plurality of different groups that is associated with the input qualitative meal size; c) determine a bolus dosage of insulin for the input qualitative meal size based at least in part on the identified patient-specific carbohydrate amount; and d) operate the infusion device to deliver the bolus dosage of insulin to the patient. an infusion device ; a user interface to receive an input qualitative meal size; a data storage element to maintain historical meal data associated with historical meal events for the patient, the historical meal events being clustered into a plurality of different groups, each group of the plurality of different groups being associated with a respective qualitative meal size of a plurality of qualitative meal sizes and comprising a unique respective subset of the historical meal events assigned to the respective qualitative meal size; and a control system coupled to the infusion device , the user interface , and the data storage element and configured to: a) receive an input qualitative meal size via the user interface ; b) identify a patient-specific carbohydrate amount representative of a clustered subset of historical meal events corresponding to a group of the plurality of different groups that is associated with the input qualitative meal size; c) determine a bolus dosage of insulin for the input qualitative meal size based at least in part on the identified patient-specific carbohydrate amount; and d) operate the infusion device to deliver the bolus dosage of insulin to the patient. a) receive an input qualitative meal size via the user interface ; b) identify a patient-specific carbohydrate amount representative of a clustered subset of historical meal events corresponding to a group of the plurality of different groups that is associated with the input qualitative meal size; c) determine a bolus dosage of insulin for the input qualitative meal size based at least in part on the identified patient-specific carbohydrate amount; and d) operate the infusion device to deliver the bolus dosage of insulin to the patient.
A method for determining engine operation parameter values during and/or after a gear shift operation (A, B, C, D) prior to performing said gear shift operation, characterized by the steps of, prior to the gear shift operation: - determining (S1) initial conditions comprising torque demand and engine speed and certain other engine operation parameter values; - providing (S2) said initial conditions to an engine operation simulation model ; - providing (S3) a torque development course as well as an engine speed development course during the intended gear shift operation to said engine operation simulation model ; and - determining (S4) desired engine operation parameter values by means of said engine operation simulation model based upon the information thus provided to said engine operation simulation model. - determining (S1) initial conditions comprising torque demand and engine speed and certain other engine operation parameter values; - providing (S2) said initial conditions to an engine operation simulation model ; - providing (S3) a torque development course as well as an engine speed development course during the intended gear shift operation to said engine operation simulation model ; and - determining (S4) desired engine operation parameter values by means of said engine operation simulation model based upon the information thus provided to said engine operation simulation model.
An expandable medical access sheath for providing minimally invasive access to body lumens or cavities, comprising: a length of proximal sheath tubing , said proximal sheath tubing being non-expandable; a length of distal sheath tubing ; a transition zone between the distal sheath tubing and the proximal sheath tubing, wherein the transition zone tapers between the larger diameter proximal sheath tubing and the smaller diameter distal sheath tubing; and a dilator comprising a dilator shaft and a dilation balloon disposed within both the proximal sheath tubing and the distal sheath tubing, wherein radial expansion of the dilation balloon causes the distal sheath tubing to expand diametrically to substantially the same inner diameter as that of the proximal sheath tubing; characterised by said distal sheath tubing having a composite structure comprising a malleable coil reinforcement sandwiched between an outer polymer layer and an inner polymer layer of the distal sheath tubing, wherein the distal sheath tubing including the malleable coil reinforcement and the outer and inner polymer layers is folded in a plurality of longitudinal creases to a diameter smaller than that of the proximal sheath tubing, the malleable coil reinforcement maintaining the shape of the distal sheath tubing in its folded, smaller diameter configuration, wherein the strength of the outer and inner polymer layers of the distal sheath tubing is not enough to overcome the forces generated by the malleable coil reinforcement . a length of proximal sheath tubing , said proximal sheath tubing being non-expandable; a length of distal sheath tubing ; a transition zone between the distal sheath tubing and the proximal sheath tubing, wherein the transition zone tapers between the larger diameter proximal sheath tubing and the smaller diameter distal sheath tubing; and a dilator comprising a dilator shaft and a dilation balloon disposed within both the proximal sheath tubing and the distal sheath tubing, wherein radial expansion of the dilation balloon causes the distal sheath tubing to expand diametrically to substantially the same inner diameter as that of the proximal sheath tubing; characterised by said distal sheath tubing having a composite structure comprising a malleable coil reinforcement sandwiched between an outer polymer layer and an inner polymer layer of the distal sheath tubing, wherein the distal sheath tubing including the malleable coil reinforcement and the outer and inner polymer layers is folded in a plurality of longitudinal creases to a diameter smaller than that of the proximal sheath tubing, the malleable coil reinforcement maintaining the shape of the distal sheath tubing in its folded, smaller diameter configuration, wherein the strength of the outer and inner polymer layers of the distal sheath tubing is not enough to overcome the forces generated by the malleable coil reinforcement .
An interlayer film for a laminated glass, comprising a first layer that contains a polyvinyl acetal resin and a plasticizer, a second layer that contains a polyvinyl acetal resin and a plasticizer and is laminated on one face of the first layer, and a third layer that contains a polyvinyl acetal resin and a plasticizer and is laminated on the other face of the first layer, wherein the first layer has 55 parts by weight or more of the plasticizer for each 100 parts by weight of the polyvinyl acetal resin, wherein an amount of the plasticizer for each 100 parts by weight of the polyvinyl acetal resin in the first layer is larger than an amount of the plasticizer for each 100 parts by weight of the polyvinyl acetal resin in each of the second layer and the third layer, wherein the polyvinyl acetal resin in the first layer has a degree of acetylation of lower than 8 mol% and a degree of acetalization of 68 mol% or higher, wherein the plasticizers in the first layer, second layer and third layer each are a diester plasticizer represented by the following formula : wherein R1 and R2 each represent a C5 to C10 organic group, R3 represents an ethylene group, an isopropylene group, or an n-propylene group, and p represents an integer of 3 to 10, and wherein in the case of measuring viscoelasticity of a resin film formed from the first layer, the resin film, having a glass transition temperature of Tg(°C), has an elastic modulus of G'(Tg + 80) at (Tg + 80)°C and an elastic modulus of G'(Tg + 30) at (Tg + 30)°C, and provides a ratio (G'(Tg + 80)/G'(Tg + 30)) of 0.65 or higher, or wherein in the case of measuring viscoelasticity of a resin film formed with 100 parts by weight of the polyvinyl acetal resin contained in the first layer and 60 parts by weight of a plasticizer of triethylene glycol di-2-ethylhexanoate , the resin film, having a glass transition temperature of Tg(°C), has an elastic modulus of G'(Tg + 80) at (Tg + 80)°C and an elastic modulus of G'(Tg + 30) at (Tg + 30)°C, and provides a ratio (G'(Tg + 80)/G'(Tg + 30)) of 0.65 or higher, wherein the glass transition temperature and the elastic modulus are measured according to a method described in the description.
A method of wafering a material (101; 401) using controlled crack propagation, the method comprising: applying (210; 601) a first stress to the material (101; 401); applying (203; 603) a controlled ultrasound wave to the material (101; 401) causing a total stress applied at a crack tip (107; 407) in the material (101; 401) to exceed the critical stress point, when the first stress is below a critical stress point of the material (101; 401) and is insufficient to initiate cracking of the material (101; 401), or applying a controlled ultrasound wave to the material (101; 401) to maintain a total stress applied at a crack tip (107; 407) in the material (101; 401) slightly above the critical stress point when the first stress is above a critical stress point of the material (101; 401) and initiates cracking of the material (101; 401), and adjusting at least one parameter of the controlled ultrasound wave to maintain a substantially constant crack velocity, wherein the at least one parameter is selected from a group consisting of a frequency of the controlled ultrasound wave and an amplitude of the controlled ultrasound wave, wherein if the parameter is a frequency of the controlled ultrasound wave, the frequency is adjusted to provoke tensile stress at the crack tip to cause bonds in a crack plane to oscillate and stretch, and wherein if the parameter is an amplitude of the controlled ultrasound wave, the amplitude is adjusted to create a focalized stress center at the crack tip. applying (210; 601) a first stress to the material (101; 401); applying (203; 603) a controlled ultrasound wave to the material (101; 401) causing a total stress applied at a crack tip (107; 407) in the material (101; 401) to exceed the critical stress point, when the first stress is below a critical stress point of the material (101; 401) and is insufficient to initiate cracking of the material (101; 401), or applying a controlled ultrasound wave to the material (101; 401) to maintain a total stress applied at a crack tip (107; 407) in the material (101; 401) slightly above the critical stress point when the first stress is above a critical stress point of the material (101; 401) and initiates cracking of the material (101; 401), and adjusting at least one parameter of the controlled ultrasound wave to maintain a substantially constant crack velocity, wherein the at least one parameter is selected from a group consisting of a frequency of the controlled ultrasound wave and an amplitude of the controlled ultrasound wave, wherein if the parameter is a frequency of the controlled ultrasound wave, the frequency is adjusted to provoke tensile stress at the crack tip to cause bonds in a crack plane to oscillate and stretch, and wherein if the parameter is an amplitude of the controlled ultrasound wave, the amplitude is adjusted to create a focalized stress center at the crack tip.
A resin composition, comprising (A) a polycarbonate resin; (B) a branched polyorganosiloxane; (C) a borate-based inorganic compound; (D) a phosphorus-based flame retardant; and (E) talc. (A) a polycarbonate resin; (B) a branched polyorganosiloxane; (C) a borate-based inorganic compound; (D) a phosphorus-based flame retardant; and (E) talc.
A medical device for insertion into a body cavity comprising: • a core ; • an expandable balloon surrounding the core , the balloon having a wall made from an elastic permeable material,; and • a valve configured to allow introduction of one or more fluids between the wall of the balloon and the surface of the core; characterized in that the balloon having an empty configuration and an inflated configuration, the balloon wall being stretched in the empty configuration and applied to a surface of the core , and the balloon having a lumen in the inflated configuration. • a core ; • an expandable balloon surrounding the core , the balloon having a wall made from an elastic permeable material,; and • a valve configured to allow introduction of one or more fluids between the wall of the balloon and the surface of the core;
Combustion chamber of a gas turbine with an annular combustion plenum surrounding a rotor-axis , wherein a number of burners is arranged intentional at the upstream side of the combustion chamber and an expansion turbine with a turbine inlet can be arranged intentional at the downstream side of the combustion chamber , including an inner component , which is surrounding the rotor-axis at the radial inner side of the combustion plenum and which comprises an inner chamber wall adjacent to the combustion plenum and an inner end wall suitable to be arranged next to the turbine inlet extending in radial direction and an inner air guidance piece arranged at a distance from the inner chamber wall with an inner cooling channel in-between, wherein the distance of the inner air guidance piece to the inner end wall is at least 0.5-times and at most 2-times the lowest width of the inner cooling channel , wherein the inner chamber wall is connected to the inner end wall with an inner corner without any protrusion, wherein inner corner has a curved shape and is fluid tight, and wherein the thickness of the inner corner is at most 1.2 times the lowest thickness of the inner chamber wall in the area of the inner air guidance piece .
A method of fabricating an integrated circuit structure on a support structure, the method comprising; forming a plurality of linearly extending lines of at least one material; cutting said material lines at an angle relative a linearly extending direction to form respective angled end faces at each of the material lines, said respective angled end faces being spaced in the linearly extending direction; and forming a respective extension of each of said material lines at each respective angled end face; and wherein said respective extensions are grown via selective deposition of a pad material at said respective angled end faces. forming a plurality of linearly extending lines of at least one material; cutting said material lines at an angle relative a linearly extending direction to form respective angled end faces at each of the material lines, said respective angled end faces being spaced in the linearly extending direction; and forming a respective extension of each of said material lines at each respective angled end face; and wherein said respective extensions are grown via selective deposition of a pad material at said respective angled end faces.
A projectile launcher with a gas port , the projectile launcher comprising; a breech ; a pressurized gas source; the gas port is disposed in a wall of the breech and is configured to bleed gas that is used to fire a projectile loaded in the breech ; a bolt configured to advance the projectile to a firing position, wherein the gas port is disposed in the breech downstream of the bolt in the firing position; and ancillary equipment that is configured to be actuated by the pressurized gas that is bled through the gas port . a breech ; a pressurized gas source; the gas port is disposed in a wall of the breech and is configured to bleed gas that is used to fire a projectile loaded in the breech ; a bolt configured to advance the projectile to a firing position, wherein the gas port is disposed in the breech downstream of the bolt in the firing position; and ancillary equipment that is configured to be actuated by the pressurized gas that is bled through the gas port .
Apparatus, comprising: a substrate , comprising: a plurality of wider portions , configured to adhere to a body of a subject via respective pieces of adhesive material; and one or more flexible narrower portions , each of which: connects a respective pair of successive ones of the wider portions to one another, and is configured to flex in response to movement of any one of the pair; and multiple coils coupled to the wider portions, respectively. a substrate , comprising: a plurality of wider portions , configured to adhere to a body of a subject via respective pieces of adhesive material; and one or more flexible narrower portions , each of which: connects a respective pair of successive ones of the wider portions to one another, and is configured to flex in response to movement of any one of the pair; and a plurality of wider portions , configured to adhere to a body of a subject via respective pieces of adhesive material; and one or more flexible narrower portions , each of which: connects a respective pair of successive ones of the wider portions to one another, and is configured to flex in response to movement of connects a respective pair of successive ones of the wider portions to one another, and is configured to flex in response to movement of any one of the pair; and multiple coils coupled to the wider portions, respectively.
Heat-crosslinkable adhesive composition comprising: - a polymer (A) comprising at least one hydrolysable alkoxysilane group; - a silylated tackifying resin (B) chosen from a silylated copolymer resin (B') and a silylated copolymer resin (B"): - said resin (B') comprising: - a repeating unit (B' 1) derived from a silylated olefin monomer, in particular from a silylated (meth)acrylate monomer; and - one or more repeating units (B'2) derived from olefin or diolefin monomers included in a petroleum fraction obtained by cracking naphtha and chosen from a C5 fraction, a C9 fraction, dicyclopentadiene and mixtures thereof; and - said resin (B") being obtained by hydrogenation of the resin (B'); - a non-silylated tackifying resin (C) that is compatible with the polymer (A); and - a crosslinking catalyst (D). - a polymer (A) comprising at least one hydrolysable alkoxysilane group; - a silylated tackifying resin (B) chosen from a silylated copolymer resin (B') and a silylated copolymer resin (B"): - said resin (B') comprising: - a repeating unit (B' 1) derived from a silylated olefin monomer, in particular from a silylated (meth)acrylate monomer; and - one or more repeating units (B'2) derived from olefin or diolefin monomers included in a petroleum fraction obtained by cracking naphtha and chosen from a C5 fraction, a C9 fraction, dicyclopentadiene and mixtures thereof; and - said resin (B") being obtained by hydrogenation of the resin (B'); - said resin (B') comprising: - a repeating unit (B' 1) derived from a silylated olefin monomer, in particular from a silylated (meth)acrylate monomer; and - one or more repeating units (B'2) derived from olefin or diolefin monomers included in a petroleum fraction obtained by cracking naphtha and chosen from a C5 fraction, a C9 fraction, dicyclopentadiene and mixtures thereof; and - a repeating unit (B' 1) derived from a silylated olefin monomer, in particular from a silylated (meth)acrylate monomer; and - one or more repeating units (B'2) derived from olefin or diolefin monomers included in a petroleum fraction obtained by cracking naphtha and chosen from a C5 fraction, a C9 fraction, dicyclopentadiene and mixtures thereof; and - said resin (B") being obtained by hydrogenation of the resin (B'); - a non-silylated tackifying resin (C) that is compatible with the polymer (A); and - a crosslinking catalyst (D).