mhurhangee/ep-ind-claims huggingface dataset:
A method of forming an aspheric mirror, comprising: manufacturing a mirror segment having a substantially spherical surface contour; attaching a plurality of actuator assemblies at a plurality of contact points located along an outer edge of the mirror segment, and characterized in that the actuator assemblies include a first pair of actuators (304a, 304b) for controlling a radial force and a tangential moment on the mirror segment at the contact points, and a second pair of actuators (312a, 312b) for controlling an axial force and a radial moment on the mirror segment at the contact points; and activating the actuator assemblies to apply a plurality of loads along the outer edge of the mirror segment such that the mirror segment is deformed to a substantially aspheric surface contour; wherein the actuator assemblies are coupled to each contact point via a cross-shaped coupling device having left and right horizontal arms (308a, 308b) and lower and upper vertical arms (308c, 308d) that intersect at an intersection; the first pair of actuators (304a, 304b) being coupled to the intersection and to the lower vertical arm; the second pair of actuators (312a, 312b) being coupled to the left and right horizontal arms (308a, 308b); and the mirror segment being coupled to a face at the end of the upper vertical arm. manufacturing a mirror segment having a substantially spherical surface contour; attaching a plurality of actuator assemblies at a plurality of contact points located along an outer edge of the mirror segment, and characterized in that the actuator assemblies include a first pair of actuators (304a, 304b) for controlling a radial force and a tangential moment on the mirror segment at the contact points, and a second pair of actuators (312a, 312b) for controlling an axial force and a radial moment on the mirror segment at the contact points; and activating the actuator assemblies to apply a plurality of loads along the outer edge of the mirror segment such that the mirror segment is deformed to a substantially aspheric surface contour; wherein the actuator assemblies are coupled to each contact point via a cross-shaped coupling device having left and right horizontal arms (308a, 308b) and lower and upper vertical arms (308c, 308d) that intersect at an intersection; the first pair of actuators (304a, 304b) being coupled to the intersection and to the lower vertical arm; the second pair of actuators (312a, 312b) being coupled to the left and right horizontal arms (308a, 308b); and the mirror segment being coupled to a face at the end of the upper vertical arm.
A water-soluble fluorescent particle, comprising: a fluorescent polymer comprising a fluorophore and_a hydrophobic segment attached to said fluorophore; and an amphiphilic molecule comprising hydrophilic segments and hydrophobic segments, said hydrophilic segments of said amphiphilic molecule being entangled with one another, said hydrophobic segment of said fluorescent polymer and said amphiphilic molecule being entangled with one another, wherein the entangled hydrophilic segments form a shell encapsulating said fluorophore and at least some of said hydrophilic segments are exposed to render said particle soluble in water to form an aqueous solution; and wherein the particles are prepared by removing the non-aqueous solvent from a mixture comprising said non-aqueous solvent, water, said fluorescent polymer dissolved in said non-aqueous solvent, and said amphiphilic molecule. a fluorescent polymer comprising a fluorophore and_a hydrophobic segment attached to said fluorophore; and an amphiphilic molecule comprising hydrophilic segments and hydrophobic segments, said hydrophilic segments of said amphiphilic molecule being entangled with one another, said hydrophobic segment of said fluorescent polymer and said amphiphilic molecule being entangled with one another, wherein the entangled hydrophilic segments form a shell encapsulating said fluorophore and at least some of said hydrophilic segments are exposed to render said particle soluble in water to form an aqueous solution; and wherein the particles are prepared by removing the non-aqueous solvent from a mixture comprising said non-aqueous solvent, water, said fluorescent polymer dissolved in said non-aqueous solvent, and said amphiphilic molecule. wherein the entangled hydrophilic segments form a shell encapsulating said fluorophore and at least some of said hydrophilic segments are exposed to render said particle soluble in water to form an aqueous solution; and wherein the particles are prepared by removing the non-aqueous solvent from a mixture comprising said non-aqueous solvent, water, said fluorescent polymer dissolved in said non-aqueous solvent, and said amphiphilic molecule.
A veterinary composition for use in fishes comprising an aqueous extract of seaweed with a percentage of fucoidans of 5% and an extract of Andrographis sp plant with a percentage of total andrographolide of 10%, wherein: Said aqueous extract of seaweed is selected from an aqueous extract of selected brown algae Fucus vesiculosus, Fucus evanescens, Fucus distichus, Fucus serratus, Pelvetia wrightii, Ascophyllum nodosum, Himanthalia Lorea, Bifurcaria bifurcata, Sargassum stenophyllum, Hizikia fusiforme, Durvillaea antarctica, Lessonia nigrescens, Lessonia trabeculata, Lessonia vadosa, Macrocystis pyrifera, Undaria pinnatifida, Padina pavonia, Laminaria angustata, Laminaria japonica, Ecklonia kurome, Adenocytis utricularis, Dictyota menstrualis, Spatoglossum schroederi and Chordaria flagelliformis; and the algae extract and extract of Andrographis sp. ratio is of 90:10.
A sensing device, comprising: a conductive outer sensing member having a sensing surface and an opposite surface; a plurality of conductive reference members (322, 324) in spaced relation to the opposite surface of the conductive outer sensing member, and forming capacitances with the conductive outer sensing member; and a capacitance sensing device coupled to the plurality of conductive reference members (322, 324) and to ground, characterized in that: the capacitance sensing device is configured to: determine a change in capacitance resulting from proximity of a source of electric potential when the conductive outer sensing member is at a floating potential; determine a change in capacitance resulting from the source of electric potential touching and causing deflection of the conductive outer sensing member when the conductive outer sensing member is coupled to a reference voltage; and the conductive outer sensing member is part of an electronic device housing and forms an outer contact surface over the plurality of conductive reference members. a conductive outer sensing member having a sensing surface and an opposite surface; a plurality of conductive reference members (322, 324) in spaced relation to the opposite surface of the conductive outer sensing member, and forming capacitances with the conductive outer sensing member; and a capacitance sensing device coupled to the plurality of conductive reference members (322, 324) and to ground, characterized in that: the capacitance sensing device is configured to: determine a change in capacitance resulting from proximity of a source of electric potential when the conductive outer sensing member is at a floating potential; determine a change in capacitance resulting from the source of electric potential touching and causing deflection of the conductive outer sensing member when the conductive outer sensing member is coupled to a reference voltage; and the conductive outer sensing member is part of an electronic device housing and forms an outer contact surface over the plurality of conductive reference members. the capacitance sensing device is configured to: determine a change in capacitance resulting from proximity of a source of electric potential when the conductive outer sensing member is at a floating potential; determine a change in capacitance resulting from the source of electric potential touching and causing deflection of the conductive outer sensing member when the conductive outer sensing member is coupled to a reference voltage; and determine a change in capacitance resulting from proximity of a source of electric potential when the conductive outer sensing member is at a floating potential; determine a change in capacitance resulting from the source of electric potential touching and causing deflection of the conductive outer sensing member when the conductive outer sensing member is coupled to a reference voltage; and the conductive outer sensing member is part of an electronic device housing and forms an outer contact surface over the plurality of conductive reference members.
Propylene copolymer having (a) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of more than 2.5 to 12.0 g/10min, (b) a comonomer content in the range of more than 7.5 to 12.0 wt.-%, and (c) a xylene cold soluble content determined according ISO 16152 (25 °C) in the range of 20.0 to 45.0 wt.-%, wherein further the comonomer content of xylene cold soluble fraction of the propylene copolymer is in the range of 16.0 to 28.0 wt.-%. (a) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of more than 2.5 to 12.0 g/10min, (b) a comonomer content in the range of more than 7.5 to 12.0 wt.-%, and (c) a xylene cold soluble content determined according ISO 16152 (25 °C) in the range of 20.0 to 45.0 wt.-%,
A mutant lysenin monomer comprising a variant having at least 70% identity to the amino acid sequence shown in SEQ ID NO: 2, wherein the variant is capable of forming a pore comprising nine monomers, and wherein the variant comprises a modification at position T106 which increases the positive charge at that position.
A quenched steel member, wherein a hard nitride layer is formed on the surface of a steel material and, as a layer over the layer, an inorganic compound layer containing at least one metal oxide selected from the group consisting of Ti, Zr, Hf, V, Nb, Ta, Cr, W, Mo and Al within the range of 1 to 2000 mg/m 2 in total in terms of such metals.
A method for operating a transmitting node (10, 100) for a wireless communication network, the transmitting node (10, 100) being adapted for transmitting data utilizing error detection coding, wherein the error detection coding has a coding length in bits, wherein the method comprises adapting the coding length based on a retransmission status of the data, characterized in that adapting the coding length comprises reducing the coding length for retransmission of the data.
A computing and electronic platform for driving urban equipment of various categories, characterized in that it comprises an information base in which are recorded: • category-based digital representations of each of the categories, with said category-based digital representation consisting of ∘ a plurality of attributes specific to the category considered ∘ functional scripts controlling processing operations applied periodically • for each of the items of equipment (1 to 6), a digital object whose structure is determined by the digital representation associated with the category, and whose attribute values are determined as a function of the physical state of the associated item of equipment (1 to 6) • a dialogue and interfacing layer common to said digital representations, and ensuring the exchanges of digital information between the items of equipment (1 to 6) of each of the categories and the associated digital object, • communication drivers which can be downloaded by each of the items of equipment (1 to 6), ensuring the conversion of physical data into digital data so that they comply with the structure of data specific to the platform, and intended for refreshing the attribute values of the digital objects associated with said items of equipment (1 to 6). • category-based digital representations of each of the categories, with said category-based digital representation consisting of ∘ a plurality of attributes specific to the category considered ∘ functional scripts controlling processing operations applied periodically ∘ a plurality of attributes specific to the category considered ∘ functional scripts controlling processing operations applied periodically • for each of the items of equipment (1 to 6), a digital object whose structure is determined by the digital representation associated with the category, and whose attribute values are determined as a function of the physical state of the associated item of equipment (1 to 6) • a dialogue and interfacing layer common to said digital representations, and ensuring the exchanges of digital information between the items of equipment (1 to 6) of each of the categories and the associated digital object, • communication drivers which can be downloaded by each of the items of equipment (1 to 6), ensuring the conversion of physical data into digital data so that they comply with the structure of data specific to the platform, and intended for refreshing the attribute values of the digital objects associated with said items of equipment (1 to 6).
A belt for drive systems, consisting at least of an elastic and flame-retardant belt body of a polymeric material and at least one flame-retardant additive, comprising a cover layer in the form of a belt back, a substructure with a force transmission zone and a tension member embedded in the belt body, wherein the complete belt body is provided with a coating that is composed of one or more layers, characterized in that the coating consists of a PU varnish, which highly resistant to mechanical stresses.
An electronic device, comprising: a light source for emitting light; and a display panel configured to output an image, wherein the display panel includes: a pixel layer including a plurality of pixels configured to display the image, a driving circuit layer configured to drive at least one of the plurality of pixels, and a light shielding layer disposed adjacent to the driving circuit layer and configured to block the driving circuit layer from the light, wherein the light shielding layer is grounded to a ground part formed inside the electronic device; wherein the electronic device comprises a pressure sensor; characterized in that the pressure sensor includes a cushion layer disposed adjacent the light shielding layer and an electrode layer disposed facing the light shielding layer with the cushion layer disposed therebetween, and wherein the pressure sensor is configured to sense a variation in capacitance between the light shielding layer and the electrode layer. a light source for emitting light; and a display panel configured to output an image, wherein the display panel includes: a pixel layer including a plurality of pixels configured to display the image, a driving circuit layer configured to drive at least one of the plurality of pixels, and a light shielding layer disposed adjacent to the driving circuit layer and configured to block the driving circuit layer from the light, a pixel layer including a plurality of pixels configured to display the image, a driving circuit layer configured to drive at least one of the plurality of pixels, and a light shielding layer disposed adjacent to the driving circuit layer and configured to block the driving circuit layer from the light, wherein the light shielding layer is grounded to a ground part formed inside the electronic device; wherein the electronic device comprises a pressure sensor;
Detection system with simultaneous multiple transmissions including an antenna composed of transmission sub-arrays (42, A 1,... A Q) illuminating one and the same zone of the space and at least one reception sub-array (A R), each sub-array having a given position in said array, each transmission sub-array transmitting a signal having a specific characteristic, the set of characteristics specific to each sub-array forming the simultaneous multiple transmission code, the detection of targets being performed by the transmission of a series of bursts of multiple transmissions, said series including at least two different transmission codes, echoes being present in the main lobe (44, 46) and in the sidelobes (45, 47) of the ambiguity function, characterized in that said system: - transmits different codes from among at least two bursts, said transmission preserving the main lobe of the ambiguity function but orienting said sidelobes of said ambiguity function in different directions from burst to burst; - detects the signals originating from each direction; - carries out the aggregation of the different signals detected in each direction for said at least two bursts, said aggregation reducing the level of the echoes present in said sidelobes (45, 47) of the ambiguity function. - transmits different codes from among at least two bursts, said transmission preserving the main lobe of the ambiguity function but orienting said sidelobes of said ambiguity function in different directions from burst to burst; - detects the signals originating from each direction; - carries out the aggregation of the different signals detected in each direction for said at least two bursts, said aggregation reducing the level of the echoes present in said sidelobes (45, 47) of the ambiguity function.
A method for producing a biocidal polyguanidine that comprises condensation polymerization of hexamethylenediamine with guanidine salt, characterized in that it additionally uses hydrazine hydrate during the condensation polymerization process, at the following ratio of components, mass %: hexamethylenediamine 20-55 guanidine salt 25-65 hydrazine hydrate the rest.
A body side member for an ostomy appliance, comprising: a first film layer having a first proximal surface and a first distal surface; a second film layer having a second proximal surface and a second distal surface, a second adhesive provided on the second proximal surface around the through-going stoma opening of the body side member; and a trumpet-shaped member having a first end portion attached to the first distal surface of the first film layer and a second end portion attached to the second proximal surface of the second film layer, the trumpet-shaped member defining the through-going stoma opening between the first film layer and the second film layer; characterised in that a first adhesive is provided on the first proximal surface around a through-going stoma opening of the body side member; and the trumpet-shaped member is configured to be convertible between a first position of the body side member in which a user has finger access to the first distal surface of the first film layer, and a second position of the body side member in which the user does not have finger access to the first distal surface of the first film layer. a first film layer having a first proximal surface and a first distal surface; a second film layer having a second proximal surface and a second distal surface, a second adhesive provided on the second proximal surface around the through-going stoma opening of the body side member; and a trumpet-shaped member having a first end portion attached to the first distal surface of the first film layer and a second end portion attached to the second proximal surface of the second film layer, the trumpet-shaped member defining the through-going stoma opening between the first film layer and the second film layer; characterised in that a first adhesive is provided on the first proximal surface around a through-going stoma opening of the body side member; and the trumpet-shaped member is configured to be convertible between a first position of the body side member in which a user has finger access to the first distal surface of the first film layer, and a second position of the body side member in which the user does not have finger access to the first distal surface of the first film layer.
Diode comprising a light-sensitive germanium region, which is located on a waveguide made of silicon or silicon germanium and which has lateral dimensions in a direction transverse to a direction of light propagation in the waveguide that are identical or at most 20 nm per side shorter in comparison with the waveguide, wherein - in the germanium region, the diode contains a lateral arrangement of an n-doped, an intrinsic and a p-doped germanium region, - the p-doped and the n-doped germanium regions each have doping elements extending from a surface of the germanium region to an upper edge of the waveguide and which optionally can be contacted by p- and n-doped waveguide regions (2a, 2b) of the waveguide located thereunder, and p- and n-doping fronts, separated by the intrinsic region, run parallel opposite each other, - homogenously doped extensions (6a, 6b), which are made of silicon or silicon germanium of the same conductive type, extending vertically to at least a level at the same height as the vertically highest point of the germanium region so that the germanium region is covered laterally with silicon or silicon germanium, laterally adjoin for contacting the germanium region either only the p- and n-doped regions (5a, 5b) in the germanium region, or the p- and n-doped germanium regions (5a, 5b), and additionally, if present, the p- and n-doped waveguide regions (2a, 2b) of the waveguide located thereunder. - in the germanium region, the diode contains a lateral arrangement of an n-doped, an intrinsic and a p-doped germanium region, - the p-doped and the n-doped germanium regions each have doping elements extending from a surface of the germanium region to an upper edge of the waveguide and which optionally can be contacted by p- and n-doped waveguide regions (2a, 2b) of the waveguide located thereunder, and p- and n-doping fronts, separated by the intrinsic region, run parallel opposite each other, - homogenously doped extensions (6a, 6b), which are made of silicon or silicon germanium of the same conductive type, extending vertically to at least a level at the same height as the vertically highest point of the germanium region so that the germanium region is covered laterally with silicon or silicon germanium, laterally adjoin for contacting the germanium region either only the p- and n-doped regions (5a, 5b) in the germanium region, or the p- and n-doped germanium regions (5a, 5b), and additionally, if present, the p- and n-doped waveguide regions (2a, 2b) of the waveguide located thereunder.
A method for the production of gas comprising nitric oxide, wherein a gas blend comprising ammonia and oxygen is converted in presence of a catalyst, wherein said catalyst comprises the composition A ((n+1)-x) B x C (n(1-y)) D ny O (3n+1)+d, having a Ruddleson-Popper phase structure type, wherein: A is a lanthanide selected from La, Gd, Nd, Sm or yttrium, B is Ca, Sr or Ba, C is Fe and D is Cr, Mn, Ni, Ce, Ti, Co or Mg, wherein A, B, C and D are selected independent of each other; n is 1 to 5; x is 0≤x≤1; y is 0≤y≤1; and d is -1≤d≤1. A is a lanthanide selected from La, Gd, Nd, Sm or yttrium, B is Ca, Sr or Ba, C is Fe and D is Cr, Mn, Ni, Ce, Ti, Co or Mg, wherein A, B, C and D are selected independent of each other; n is 1 to 5; x is 0≤x≤1; y is 0≤y≤1; and d is -1≤d≤1.