mhurhangee/ep-ind-claims huggingface dataset:
A folded optical system, comprising: a first prism; and a second prism; wherein each prism has a first surface S1, a second surface S2, and a third surface S3 on an optical axis of the folded optical system consecutively along an optical path from an object side to an image side and wherein the first surface S1 and the third surface S3 are freeform surfaces; wherein the first prism has refractive power and has only one reflecting surface that is the second surface (P1S2) of the first prism, for internally reflecting the light and is configured to receive light from an object field along a first axis and redirect the light from the first axis to the second axis, toward the second prism; wherein the second prism is configured to receive the light that enters the second prism along the second axis and has only one reflecting surface that is the second surface (P2S2) of the second prism for internally reflecting the light received along the second axis and has refractive power to refract the light to form an image of the object field at an image plane; wherein the second surfaces (P1S2, P2S2) of the first and second prisms, that affects the light passing through the first and second prisms is flat/plano; and wherein a freeform surface is defined as being a non rotationally symmetric surface. a first prism; and a second prism; wherein each prism has a first surface S1, a second surface S2, and a third surface S3 on an optical axis of the folded optical system consecutively along an optical path from an object side to an image side and wherein the first surface S1 and the third surface S3 are freeform surfaces; wherein the first prism has refractive power and has only one reflecting surface that is the second surface (P1S2) of the first prism, for internally reflecting the light and is configured to receive light from an object field along a first axis and redirect the light from the first axis to the second axis, toward the second prism; wherein the second prism is configured to receive the light that enters the second prism along the second axis and has only one reflecting surface that is the second surface (P2S2) of the second prism for internally reflecting the light received along the second axis and has refractive power to refract the light to form an image of the object field at an image plane; wherein the second surfaces (P1S2, P2S2) of the first and second prisms, that affects the light passing through the first and second prisms is flat/plano; and wherein a freeform surface is defined as being a non rotationally symmetric surface.
A feed inlet or hopper for a shredder apparatus, the hopper having an opening between opposed first and second walls (14, 15), wherein each of said first and second walls (14, 15) includes a plurality of spaced projections extending substantially into the opening; characterised in that each projection includes inclined upper and lower surfaces (21, 22) and wherein the inclined upper and lower projection surfaces (21, 22) combine to form a substantially continuous generally arcuate projection surface.
A 7-oligolactic acid conjugate of paclitaxel or a paclitaxel derivative wherein the oligo lactic acid comprises 2 to 24 lactic acid subunits and is attached through an ester linkage to the oxygen of the 7-hydroxyl of the paclitaxel or paclitaxel derivative with anti-cancer activity that retains the carbocyclic/oxetane skeleton of paclitaxel but contains at least one modified side chain other than the 7-hydroxyl.
A method of preparing a topcoat or clearcoat coating composition, comprising mixing an aqueous composition comprising inorganic particles with an organic solvent and a polymer or oligomer having functionality that adsorbs onto the inorganic particles to form a mixture; allowing the mixture to separate into an aqueous layer and an organic layer; and incorporating the organic layer into a coating composition.
A computerized method for detecting a core temperature of a person, the method comprising: receiving multiple temperature readings obtained by scanning a temperature sensor that is embedded in a mobile phone and is partially isolated from heat generated by the processor in the phone, across a skin area of a person, wherein the temperature readings are obtained without direct contact between the temperature sensor and the skin area and the skin area covers at least one blood vessel, to provide multiple temperature readings; the multiple temperature readings comprise a peak temperature reading; determining, by the processor, an estimate of the core temperature of the person in response to at least one temperature reading, wherein the determining includes ignoring the peak temperature reading and calculating a temperature value that is between 80 and 90 percentile of the other measured temperature readings, and adding a correction factor wherein the correction factor is determined from measuring the difference between real and measured temperatures made by a mobile phone that includes a temperature sensor and using that difference as the correction factor. receiving multiple temperature readings obtained by scanning a temperature sensor that is embedded in a mobile phone and is partially isolated from heat generated by the processor in the phone, across a skin area of a person, wherein the temperature readings are obtained without direct contact between the temperature sensor and the skin area and the skin area covers at least one blood vessel, to provide multiple temperature readings; the multiple temperature readings comprise a peak temperature reading; determining, by the processor, an estimate of the core temperature of the person in response to at least one temperature reading, wherein the determining includes ignoring the peak temperature reading and calculating a temperature value that is between 80 and 90 percentile of the other measured temperature readings, and adding a correction factor wherein the correction factor is determined from measuring the difference between real and measured temperatures made by a mobile phone that includes a temperature sensor and using that difference as the correction factor.
A battery pack, comprising: a cooling plate; a plurality of battery modules, the plurality of battery modules being mounted on a top surface of the cooling plate; and at least one bracket with a side region coupled to one lengthwise side of the cooling plate, wherein the cooling plate further includes a stopper on a bottom surface thereof at the one lengthwise side of the cooling plate, wherein the stopper is arranged to extend downwardly and outwardly relative to the bottom surface of the cooling plate such that a portion of the side region of the bracket is interposed between the stopper and the bottom surface of the cooling plate. a cooling plate; a plurality of battery modules, the plurality of battery modules being mounted on a top surface of the cooling plate; and at least one bracket with a side region coupled to one lengthwise side of the cooling plate,
A cross-linkable elastomeric thermoplastic polyurethane possessing an elastomeric property such that it exhibits at least 100% elongation without breaking when stretched at room temperature and will at least partially relax when released, that is urea free, isocyanurate free, oxazolinyl free, functional radically-polymerizable pendant group free and having terminal functional radically-polymerizable groups at both ends and having a molecular weight, expressed as number average Mn, of from 12000 to 500000, preferably from 20000 to 200000, obtainable by reacting a polyfunctional isocyanate, a polyfunctional polyol and a monol or monoamine comprising radically-polymerizable unsaturation(s), and a diol chain extender.
A composition for modifying a dry mortar formulation, the composition comprising as distinct particulate compounds a film-forming water-redispersible polymer powder and a (meth)acrylic acid polymer, wherein the (meth)acrylic acid copolymer comprises in polymerized form: a) one or more (meth)acrylic acid monomers selected from acrylic acid and methacrylic acid; b) one or more ethylenically unsaturated polyalkylene oxide monomers according to formula: R 1 -Y-(R 2 -O) x -R 3 wherein R 1 is vinyl, allyl, acryloyl, or methacryloyl; Y is O, S, PH or NH; R 2 is C 2 to C 4 alkylene that can be linear or branched, wherein each R 2 can be the same or different within one molecule of R 1 -Y-(R 2 -O) x -R 3; x is an integer from 100 to 300; and R 3 is H, an aliphatic, aromatic or aliphatic-aromatic hydrocarbon radical; and c) from 0 to 60% by weight, based on the total weight of monomers, of one or more ethylenically unsaturated comonomers different from monomers (a) and (b). a) one or more (meth)acrylic acid monomers selected from acrylic acid and methacrylic acid; b) one or more ethylenically unsaturated polyalkylene oxide monomers according to formula: R 1 -Y-(R 2 -O) x -R 3 wherein R 1 is vinyl, allyl, acryloyl, or methacryloyl; Y is O, S, PH or NH; R 2 is C 2 to C 4 alkylene that can be linear or branched, wherein each R 2 can be the same or different within one molecule of R 1 -Y-(R 2 -O) x -R 3; x is an integer from 100 to 300; and R 3 is H, an aliphatic, aromatic or aliphatic-aromatic hydrocarbon radical; and wherein R 1 is vinyl, allyl, acryloyl, or methacryloyl; Y is O, S, PH or NH; R 2 is C 2 to C 4 alkylene that can be linear or branched, wherein each R 2 can be the same or different within one molecule of R 1 -Y-(R 2 -O) x -R 3; x is an integer from 100 to 300; and R 3 is H, an aliphatic, aromatic or aliphatic-aromatic hydrocarbon radical; and c) from 0 to 60% by weight, based on the total weight of monomers, of one or more ethylenically unsaturated comonomers different from monomers (a) and (b).
A power conversion device, comprising: a transformer circuit formed of a center-tapped isolation transformer; a rectifying circuit formed of a first semiconductor switch element and a second semiconductor switch element, each connected to the transformer circuit; a smoothing circuit formed of a capacitor connected to the rectifying circuit; a positive terminal and a negative terminal connectable to a load; and a grounding surface to which the negative terminal of the load is connectable, wherein: a cathode terminal of the first switch element and a cathode terminal of the second switch element are each connected to a respective negative terminal of the isolation transformer; and a connection point of an anode terminal of the first switch element and an anode terminal of the second switch element, and a connection point of a negative terminal of the capacitor and the grounding surface, are the same. a transformer circuit formed of a center-tapped isolation transformer; a rectifying circuit formed of a first semiconductor switch element and a second semiconductor switch element, each connected to the transformer circuit; a smoothing circuit formed of a capacitor connected to the rectifying circuit; a positive terminal and a negative terminal connectable to a load; and a grounding surface to which the negative terminal of the load is connectable, wherein: a cathode terminal of the first switch element and a cathode terminal of the second switch element are each connected to a respective negative terminal of the isolation transformer; and a connection point of an anode terminal of the first switch element and an anode terminal of the second switch element, and a connection point of a negative terminal of the capacitor and the grounding surface, are the same. a cathode terminal of the first switch element and a cathode terminal of the second switch element are each connected to a respective negative terminal of the isolation transformer; and a connection point of an anode terminal of the first switch element and an anode terminal of the second switch element, and a connection point of a negative terminal of the capacitor and the grounding surface, are the same.
A medical device comprising a coating that promotes progenitor endothelial cells to adhere, grow and differentiate in vivo on the surface thereof when the device is implanted into a patient's organ or vessel, wherein the coating comprises: (a) at least one layer of a biocompatible matrix; (b) a therapeutically effective amount of at least one type of substance incorporated into the matrix and selected from the group consisting of antibodies, antibody fragments, combinations thereof and small molecules, wherein the at least one type of substance is directed against or interacts with a surface antigen on a progenitor endothelial cell and immobilizes the progenitor endothelial cell onto the surface of the medical device; and (c) at least one growth factor incorporated into the matrix.
A method of reprocessing alkanesulfonic acid employed in a chemical process as an agent, catalyst or solvent and comprising the steps of: (a) removing an alkanesulfonic acid-comprising stream from a reaction mixture generated in the chemical process, (b) sending the alkanesulfonic acid-comprising stream into a melt crystallization as the starting melt to form crystals of the alkanesulfonic acid, of hydrates of the alkanesulfonic acid or of a mixture of both suspended in mother liquor, (c) performing a solid-liquid separation to remove the crystals from the mother liquor, (d) optionally washing the crystals to remove mother liquor adhering to the crystals. (e) recycling the washed or unwashed crystals removed from the mother liquor into the chemical process. (a) removing an alkanesulfonic acid-comprising stream from a reaction mixture generated in the chemical process, (b) sending the alkanesulfonic acid-comprising stream into a melt crystallization as the starting melt to form crystals of the alkanesulfonic acid, of hydrates of the alkanesulfonic acid or of a mixture of both suspended in mother liquor, (c) performing a solid-liquid separation to remove the crystals from the mother liquor, (d) optionally washing the crystals to remove mother liquor adhering to the crystals. (e) recycling the washed or unwashed crystals removed from the mother liquor into the chemical process.
Method for process control in a physical process running in a prescribed process area, having the steps of: (a) discretizing of the physical process by means of particle-based domain decomposition of the process area into a plurality of partial volumes (V T), in which one particle respectively replaces a multiplicity of objects interacting within the respective partial volume and constitutes a first process parameter of the process; (b) calculating a second process parameter, dependent on the first process parameter, at least for inner particles (P i) of the process area by means of Local Maximum Entropy approximation, and calculating the second process parameter for outer particles of the process area by means of Moving Least Squares approximation on the basis of the second process parameter calculated for the inner particles (P i) of the process area; (c) calculating an interaction variable at least for the inner particles (P i) of the process area as a function of the second process parameter respectively calculated for the outer particles (P a) of the process area, by means of LME approximation, and calculating the interaction variables for the outer particles (P a) of the process area by means of MLS approximation on the basis of the interaction variables calculated for the inner particles (P i); (d) calculating at least one control variable for controlling the physical process in the process area as a function of the interaction variables calculated for the inner and outer particles (P i, P a); and (e) setting a target process parameter of the physical process by means of the calculated control variable. (a) discretizing of the physical process by means of particle-based domain decomposition of the process area into a plurality of partial volumes (V T), in which one particle respectively replaces a multiplicity of objects interacting within the respective partial volume and constitutes a first process parameter of the process; (b) calculating a second process parameter, dependent on the first process parameter, at least for inner particles (P i) of the process area by means of Local Maximum Entropy approximation, and calculating the second process parameter for outer particles of the process area by means of Moving Least Squares approximation on the basis of the second process parameter calculated for the inner particles (P i) of the process area; (c) calculating an interaction variable at least for the inner particles (P i) of the process area as a function of the second process parameter respectively calculated for the outer particles (P a) of the process area, by means of LME approximation, and calculating the interaction variables for the outer particles (P a) of the process area by means of MLS approximation on the basis of the interaction variables calculated for the inner particles (P i); (d) calculating at least one control variable for controlling the physical process in the process area as a function of the interaction variables calculated for the inner and outer particles (P i, P a); and (e) setting a target process parameter of the physical process by means of the calculated control variable.
A biaxial tensile testing machine performing a tensile test of a test piece by stretching the test piece in four directions along two axes perpendicular to each other, the biaxial tensile testing machine being characterized by comprising: first and second turntables (2, 3) which are disposed so as to be parallel to each other and relatively rotatable about a rotary axis along the planer direction thereof; first to fourth link mechanisms (5 to 8) which are provided at 90° intervals in the circumferential direction about the rotary axis so that one ends of respective members of a pair of members (5A to 8A and 5B to 8B) are rotatably connected to each other, and the other ends of respective members of the pair of members (5A to 8A and 5B to 8B) are attached across the first and second turntables (2, 3); and first to fourth test piece holding units (11 to 14) which are respectively attached to the first to fourth link mechanisms (5 to 8) and hold the test piece. first and second turntables (2, 3) which are disposed so as to be parallel to each other and relatively rotatable about a rotary axis along the planer direction thereof; first to fourth link mechanisms (5 to 8) which are provided at 90° intervals in the circumferential direction about the rotary axis so that one ends of respective members of a pair of members (5A to 8A and 5B to 8B) are rotatably connected to each other, and the other ends of respective members of the pair of members (5A to 8A and 5B to 8B) are attached across the first and second turntables (2, 3); and first to fourth test piece holding units (11 to 14) which are respectively attached to the first to fourth link mechanisms (5 to 8) and hold the test piece.
Composite profile for frames of wall elements, doors or windows, comprising at least two metal profiles (2, 16) arranged at a distance from one another and comprising connecting parts which are made of metal and connect the metal profiles, wherein the metal profiles (2, 16) each have opposite end walls and end wall portions directed toward one another, to which the connecting parts are attached, preferably welded, wherein the end wall portions lie on a plane which extends parallel to the corresponding end wall or forms an inclination angle (α) of between 10° and 60° with respect to the corresponding end wall, and wherein each connecting part has a lateral portion having end portions which are angled or are provided with a bend in cross section for defining a contact surface or linear contact zone with respect to the corresponding end wall portion, wherein, in the region of the end portions, the connecting part is attached to the adjacent end wall portions of the metal profiles (2, 16).
A charging port cover comprising a cover body (37, 39, 41) closing an open part formed between an opening-closing body and a vehicle body (1, 3) in a state where the opening-closing body is opened when a gun for charging is attached to a charging inlet (19, 21) and charging for a battery mounted on a vehicle is performed, the opening-closing body capable of opening and closing an opening portion which is provided in the vehicle body (1, 3) of the vehicle and which includes the charging inlet (19, 21), wherein characterized in that: the cover body (37, 39, 41) includes a cover-side engaging member and a cover-side engaged member which engage respectively with an engaged member and an engaging member configured to engage with the engaged member, when the open part is closed, the engaged member and the engaging member provided between the opening-closing body and the vehicle body (1, 3) and configured to engage and lock the closed opening-closing body with the vehicle body (1, 3), and the cover-side engaging member and the cover-side engaged member are integrated with each other by a joining member. the cover body (37, 39, 41) includes a cover-side engaging member and a cover-side engaged member which engage respectively with an engaged member and an engaging member configured to engage with the engaged member, when the open part is closed, the engaged member and the engaging member provided between the opening-closing body and the vehicle body (1, 3) and configured to engage and lock the closed opening-closing body with the vehicle body (1, 3), and the cover-side engaging member and the cover-side engaged member are integrated with each other by a joining member.
A retractable needle for a syringe comprising a barrel and a plunger comprising a portion capable of engaging the retractable needle for retraction of the retractable needle, said retractable needle comprising a cannula, a needle body having a plunger-engaging member, at least one aperture and an elongate portion which houses at least part of the cannula, the cannula comprising an end which is in fluid communication with the at least one aperture, wherein the at least one aperture is located between the plunger-engaging member and the elongate portion and characterized in that the cannula end does not extend into the plunger-engaging member and extends into a space defined by the at least one aperture.
An implantable device for vessel occlusion comprising: (a) a solid marker having a proximal end and a distal end; and (b) a resilient mesh body attached to the distal end of the marker, the resilient mesh body having a delivery shape and said implantable device being characterized in that the resilient mesh has a deployed shape having a height that is between 10% to 20% of its width in free air, capable of conforming to vessel walls; wherein the resilient mesh body is a dual layer of mesh comprising a single layer of mesh folded circumferentially to create a circumferential fold line around the circumference of the body, and wherein the ends of said dual layer of mesh intersect with the solid marker positioned at a core of said dual layer of mesh. (a) a solid marker having a proximal end and a distal end; and (b) a resilient mesh body attached to the distal end of the marker, the resilient mesh body having a delivery shape and said implantable device being characterized in that the resilient mesh has a deployed shape having a height that is between 10% to 20% of its width in free air, capable of conforming to vessel walls;