mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a body including a cavity having a bottom surface being a horizontal surface; an insulating layer over at least a portion of the horizontal surface; first and second electrodes (220, 222) formed over at least a portion of the insulating layer, the first and second electrodes (220,222) being electrically insulated from the body by the insulating layer; a heat radiation mounting part formed in a polyhedral shape over the insulating layer on the horizontal surface and protruding from the horizontal surface, the heat radiation mounting part comprising two or more surfaces that are inclined with respect to the horizontal surface; two or more light emitting diodes, wherein each of the two or more light emitting diodes is mounted in the cavity on a respective one of the two or more inclined surfaces, and wherein each of the two or more light emitting diodes is electrically connected to the first and second electrodes (220,222); and a reflective layer formed inside the cavity on at least some region of the insulating layer, wherein the heat radiation mounting part is thermally connected to each of the two or more light emitting diodes. a body including a cavity having a bottom surface being a horizontal surface; an insulating layer over at least a portion of the horizontal surface; first and second electrodes (220, 222) formed over at least a portion of the insulating layer, the first and second electrodes (220,222) being electrically insulated from the body by the insulating layer; a heat radiation mounting part formed in a polyhedral shape over the insulating layer on the horizontal surface and protruding from the horizontal surface, the heat radiation mounting part comprising two or more surfaces that are inclined with respect to the horizontal surface; two or more light emitting diodes, wherein each of the two or more light emitting diodes is mounted in the cavity on a respective one of the two or more inclined surfaces, and wherein each of the two or more light emitting diodes is electrically connected to the first and second electrodes (220,222); and a reflective layer formed inside the cavity on at least some region of the insulating layer, wherein the heat radiation mounting part is thermally connected to each of the two or more light emitting diodes.
A sonication device for sonicating a biological sample contained in a sample tube with an essentially round-shaped side wall, the sonication device comprising: - a sample tube holder pivotally suspended in a corresponding mount, allowing for a rotational movement of the sample tube holder in vertical direction about an x-axis being a rotational axis of a pivot, wherein the sample tube holder is configured, in the absence of a rotational movement, to hold the sample tube in a vertical orientation along a z-axis being essentially parallel to the direction of gravity and perpendicular to the x-axis, and wherein the sample tube holder comprises an opening towards at least one side; - a sonotrode comprising a sonicating area for applying ultrasound to the sample tube, the sonicating area comprising a concave surface and being mounted at essentially the same height as the pivot with the x-axis being essentially at the height of the vertical center of the sonicating area, wherein the sonotrode is mounted on a guiding rail for moving the sonotrode along a γ-axis perpendicular to the x-axis and to the z-axis towards or away from the sample tube holder, wherein the mount for the sample tube holder is fixed to one end of the guiding rail with the opening of the sample tube holder facing the sonicating area such that the sonicating area in a sonication position is in physical contact with a side wall of the sample tube in the sample tube holder; - an actuator for moving the sonotrode on the guiding rail along the γ-axis relative to the sample tube holder. - a sample tube holder pivotally suspended in a corresponding mount, allowing for a rotational movement of the sample tube holder in vertical direction about an x-axis being a rotational axis of a pivot, wherein the sample tube holder is configured, in the absence of a rotational movement, to hold the sample tube in a vertical orientation along a z-axis being essentially parallel to the direction of gravity and perpendicular to the x-axis, and wherein the sample tube holder comprises an opening towards at least one side; - a sonotrode comprising a sonicating area for applying ultrasound to the sample tube, the sonicating area comprising a concave surface and being mounted at essentially the same height as the pivot with the x-axis being essentially at the height of the vertical center of the sonicating area, wherein the sonotrode is mounted on a guiding rail for moving the sonotrode along a γ-axis perpendicular to the x-axis and to the z-axis towards or away from the sample tube holder, wherein the mount for the sample tube holder is fixed to one end of the guiding rail with the opening of the sample tube holder facing the sonicating area such that the sonicating area in a sonication position is in physical contact with a side wall of the sample tube in the sample tube holder; - an actuator for moving the sonotrode on the guiding rail along the γ-axis relative to the sample tube holder.
A butterfly needle with a protective device comprising: - A central body having one proximal end and one opposing distal end; - A couple of wings that protrude bilaterally from said central body; - A safety device consisting in a specially shaped spring having a bottom wall oriented perpendicular to the shank of a needle, and having two elastic arms extending therefrom in the distal direction which tend to converge toward each other, the bottom wall having a central hole for the shank of the needle which in turn has engaging means larger than said hole and engage said bottom wall under traction; - A needle having a shank provided with engaging means located in the proximity to the tip and which is supported by an hub at an opposing proximal end, said needle being slidingly received in said central body longitudinally; - said central body comprising an inner housing chamber located between said proximal end and said distal end and wherein said safety device is irreversibly slidingly housed between a resting position and an actuated position, characterized in that said butterfly needle further comprises guiding (5, 6) means for its grasping and holding wherein said guiding means comprise a fin raising from said proximal end of said central body and a couple of concavities obtained in said wings in correspondence with said fin and so shaped to receive the fingertips of two fingers. - A central body having one proximal end and one opposing distal end; - A couple of wings that protrude bilaterally from said central body; - A safety device consisting in a specially shaped spring having a bottom wall oriented perpendicular to the shank of a needle, and having two elastic arms extending therefrom in the distal direction which tend to converge toward each other, the bottom wall having a central hole for the shank of the needle which in turn has engaging means larger than said hole and engage said bottom wall under traction; - A needle having a shank provided with engaging means located in the proximity to the tip and which is supported by an hub at an opposing proximal end, said needle being slidingly received in said central body longitudinally; - said central body comprising an inner housing chamber located between said proximal end and said distal end and wherein said safety device is irreversibly slidingly housed between a resting position and an actuated position, characterized in that said butterfly needle further comprises guiding (5, 6) means for its grasping and holding wherein said guiding means comprise a fin raising from said proximal end of said central body and a couple of concavities obtained in said wings in correspondence with said fin and so shaped to receive the fingertips of two fingers.
Dynamic climbing rope (C1, C2) including: a. a core (A1, A2) comprising at least one set of different elastic monofilaments assembled, b. a sheath (G1, G2) surrounding the core (A1, A2), the sheath (G1, G2) comprising a set of sheath threads (G10, G11, G20, G21, G22, G23) braided around the core (A1, A2), characterized in that: c. the set of braided sheath threads (G10, G11, G20, G21, G22, G23) comprises at least one protective sheath (G11, G21, G22, G23) comprising: i. an elastic thread (G110, G210, G220, G230) formed by at least one elastic monofilament (G1102, G2302), ii. at least one protective thread (G111, G211, G221, G222, G231, G232) wrapping the elastic thread (G110, G210, G220, G230) by covering at least 20% of an external surface of the elastic thread (G110, G210, G220, G230), the protective thread (G111, G211, G221, G222, G231, G232)) having: 1. a length greater than the length of the elastic thread (G110, G210, G220, G230), 2. at least one resistance characteristic among: cutting, abrasion, heat, greater than the resistance of the elastic thread (G110, G210, G220, G230). a. a core (A1, A2) comprising at least one set of different elastic monofilaments assembled, b. a sheath (G1, G2) surrounding the core (A1, A2), the sheath (G1, G2) comprising a set of sheath threads (G10, G11, G20, G21, G22, G23) braided around the core (A1, A2), characterized in that: c. the set of braided sheath threads (G10, G11, G20, G21, G22, G23) comprises at least one protective sheath (G11, G21, G22, G23) comprising: i. an elastic thread (G110, G210, G220, G230) formed by at least one elastic monofilament (G1102, G2302), ii. at least one protective thread (G111, G211, G221, G222, G231, G232) wrapping the elastic thread (G110, G210, G220, G230) by covering at least 20% of an external surface of the elastic thread (G110, G210, G220, G230), the protective thread (G111, G211, G221, G222, G231, G232)) having: 1. a length greater than the length of the elastic thread (G110, G210, G220, G230), 2. at least one resistance characteristic among: cutting, abrasion, heat, greater than the resistance of the elastic thread (G110, G210, G220, G230). i. an elastic thread (G110, G210, G220, G230) formed by at least one elastic monofilament (G1102, G2302), ii. at least one protective thread (G111, G211, G221, G222, G231, G232) wrapping the elastic thread (G110, G210, G220, G230) by covering at least 20% of an external surface of the elastic thread (G110, G210, G220, G230), the protective thread (G111, G211, G221, G222, G231, G232)) having: 1. a length greater than the length of the elastic thread (G110, G210, G220, G230), 2. at least one resistance characteristic among: cutting, abrasion, heat, greater than the resistance of the elastic thread (G110, G210, G220, G230). 1. a length greater than the length of the elastic thread (G110, G210, G220, G230), 2. at least one resistance characteristic among: cutting, abrasion, heat, greater than the resistance of the elastic thread (G110, G210, G220, G230).
An authentication method for a satellite-based navigation system, SNS, comprising: - receiving, by a receiver-side device, at least one SNS message which may have been sent by at least one satellite of the SNS or may have been manipulated by an attacker; - computing, by the receiver-side device, a hash for each received SNS message; - receiving, by the receiver-side device, a validation filter distributed by an authentication server for authenticating a set of SNS messages, wherein the validation filter comprises a probabilistic data structure, PDS, and a stash list; - querying, by the receiver side-device, the validation filter using the hash computed for each received SNS message, comprising querying the PDS to verify if the respective hash could have been inserted into the PDS, and, in case querying the PDS indicates that a given hash could not have been inserted successfully into the PDS, querying, by the receiver side-device, the stash list to verify if the given hash could have been inserted into the stash list; - treating, by the receiver-side device, any received SNS message, whose hash cannot be verified as being used in building the validation filter, as not authenticable by the validation filter; and - treating, by the receiver-side device, any received SNS message, whose hash can be verified as being likely to have been used in building the validation filter, as authentic with a certain probability. - receiving, by a receiver-side device, at least one SNS message which may have been sent by at least one satellite of the SNS or may have been manipulated by an attacker; - computing, by the receiver-side device, a hash for each received SNS message; - receiving, by the receiver-side device, a validation filter distributed by an authentication server for authenticating a set of SNS messages, wherein the validation filter comprises a probabilistic data structure, PDS, and a stash list; - querying, by the receiver side-device, the validation filter using the hash computed for each received SNS message, comprising querying the PDS to verify if the respective hash could have been inserted into the PDS, and, in case querying the PDS indicates that a given hash could not have been inserted successfully into the PDS, querying, by the receiver side-device, the stash list to verify if the given hash could have been inserted into the stash list; - treating, by the receiver-side device, any received SNS message, whose hash cannot be verified as being used in building the validation filter, as not authenticable by the validation filter; and - treating, by the receiver-side device, any received SNS message, whose hash can be verified as being likely to have been used in building the validation filter, as authentic with a certain probability.
Power generation system comprising: - at least one renewable energy source, - a reversible fuel cell module exhibiting a electrolysis functioning mode where the fuel cell module is powered by the renewable energy source for generation of a combustible gas and a fuel cell functioning mode where the fuel cell module generates electricity from a combustible gas, - a high temperature heat storage coupled to said reversible fuel cell module for maintaining the reversible fuel cell module in a operation temperature range in the electrolysis functioning mode, the high temperature heat storage comprising a heat exchanger having salts as heat exchange medium that are in a molten state in the operation temperature range of the reversible fuel cell module - a combustible gas storage coupled to the reversible fuel cell module for storing the combustible gas generated by the reversible fuel cell module in the electrolysis functioning mode and for supplying the combustible gas to the reversible fuel cell module in the fuel cell function mode, wherein the reversible fuel cell module is encapsulated by the high temperature heat storage, and a first thermal isolation is built around the high temperature heat storage. - at least one renewable energy source, - a reversible fuel cell module exhibiting a electrolysis functioning mode where the fuel cell module is powered by the renewable energy source for generation of a combustible gas and a fuel cell functioning mode where the fuel cell module generates electricity from a combustible gas, - a high temperature heat storage coupled to said reversible fuel cell module for maintaining the reversible fuel cell module in a operation temperature range in the electrolysis functioning mode, the high temperature heat storage comprising a heat exchanger having salts as heat exchange medium that are in a molten state in the operation temperature range of the reversible fuel cell module - a combustible gas storage coupled to the reversible fuel cell module for storing the combustible gas generated by the reversible fuel cell module in the electrolysis functioning mode and for supplying the combustible gas to the reversible fuel cell module in the fuel cell function mode,
Process for the production of poly(meth)acrylimide materials, wherein a granulated copolymer of (meth)acrylic acid and (meth)acrylonitrile is prefoamed and imidated by thermal treatment in a single step to provide poly(meth)acrylimide particles, wherein the poly(meth)acrylimide particles are foam-molded to provide a poly(meth)acrylimide molded foam component, wherein the foam-molding comprises the steps: - Optionally coating the poly(meth)acrylimide particles with an adhesion promoter; - Filling the optionally coated poly(meth)acrylimide particles in a forming tool; - Heating the forming tool to a forming temperature of 200 °C to 240°C and pressurizing the forming tool to a forming pressure; - Maintaining the forming temperature for 40 min; - Cooling the forming tool to a cooling temperature to provide a molded foam component; - Deforming the molded foam component. - Optionally coating the poly(meth)acrylimide particles with an adhesion promoter; - Filling the optionally coated poly(meth)acrylimide particles in a forming tool; - Heating the forming tool to a forming temperature of 200 °C to 240°C and pressurizing the forming tool to a forming pressure; - Maintaining the forming temperature for 40 min; - Cooling the forming tool to a cooling temperature to provide a molded foam component; - Deforming the molded foam component.
A chloroprene-based block copolymer latex, comprising a chloroprene-based block copolymer, wherein: the chloroprene-based block copolymer contains 5 to 30% by mass of a polymer block and 70 to 95% by mass of a chloroprene-based polymer block; a monomer unit constituting the polymer block includes at least one of an aromatic vinyl monomer unit, a methyl methacrylate monomer unit, and an acrylonitrile monomer unit; a number average molecular weight of the polymer block is 10,000 or more, the number average molecular weight being a polystyrene-equivalent value measured by gel permeation chromatography in accordance with the description; the chloroprene-based polymer block includes a chloroprene monomer unit; and when the chloroprene-based block copolymer latex is molded by immersion molding to obtain a film and then the film is heat-treated at 130°C for 30 minutes, a tensile strength at break measured in accordance with JIS K6251 of the film is 17 MPa or more. the chloroprene-based block copolymer contains 5 to 30% by mass of a polymer block and 70 to 95% by mass of a chloroprene-based polymer block; a monomer unit constituting the polymer block includes at least one of an aromatic vinyl monomer unit, a methyl methacrylate monomer unit, and an acrylonitrile monomer unit; a number average molecular weight of the polymer block is 10,000 or more, the number average molecular weight being a polystyrene-equivalent value measured by gel permeation chromatography in accordance with the description; the chloroprene-based polymer block includes a chloroprene monomer unit; and when the chloroprene-based block copolymer latex is molded by immersion molding to obtain a film and then the film is heat-treated at 130°C for 30 minutes, a tensile strength at break measured in accordance with JIS K6251 of the film is 17 MPa or more.
A pierceable cap comprising: a shell; an access port in the shell adapted to allow passage of at least part of a transfer device through the access port; a frangible seal, characterized in that the frangible seal comprises at least two intersecting ribs (620, 621) and a collar, wherein the intersecting ribs (620, 621) each extend from the collar to a bottom surface of the frangible seal having an intersecting openable or tearable portion and comprise end wall (624, 625) and sidewall portions; and in that the end wall (624, 625) and sidewall portions extend simultaneously inward in a radial direction and downward in an axial direction, such that surfaces of the end wall (624, 625) and sidewall portions are not parallel to an inside surface of a sample vessel when such vessel has been disposed within the shell. a shell; an access port in the shell adapted to allow passage of at least part of a transfer device through the access port; a frangible seal, characterized in that the frangible seal comprises at least two intersecting ribs (620, 621) and a collar, wherein the intersecting ribs (620, 621) each extend from the collar to a bottom surface of the frangible seal having an intersecting openable or tearable portion and comprise end wall (624, 625) and sidewall portions; and in that the end wall (624, 625) and sidewall portions extend simultaneously inward in a radial direction and downward in an axial direction, such that surfaces of the end wall (624, 625) and sidewall portions are not parallel to an inside surface of a sample vessel when such vessel has been disposed within the shell.
A biosensor comprising a hematocrit electrode for measuring a hematocrit value, wherein an electrically conductive polymer is covalently immobilized on the surface of the hematocrit electrode, and further comprising a working electrode, a counter electrode, and a reference electrode.
An image processing system for digital pathology comprising a processor and a memory coupled to the processor, the memory storing a digital image of a biological tissue sample and storing computer-executable instructions that, when executed by the processor, cause the processor to perform operations for discerning a cell nucleus boundary in the digital image, said operations comprising: - identifying, by the processor, one or more initial edges in the digital image and using the pixels within the identified initial edges as initial voting pixels; - using, by the processor, a tensor voting field for performing tensor voting operations on pixels (322, 324, 328) in a neighborhood of each of the initial voting pixels; - accumulating, by the processor, a plurality of votes for each of the neighboring pixels (322, 324, 328) to determine a tensor value for said neighboring pixel (322, 324, 328), the amount of the vote indicating whether said neighboring pixel is likely to be an edge pixel of the same nucleus as the initial voting pixel, the tensor value being a sum of all votes cast by all initial voting pixels in whose neighborhood said neighboring pixel (322, 324) lies; and - decomposing, by the processor, each of the determined tensor values for determining eigenvalues and eigenvectors of the decomposed tensor value; - evaluating, by the processor, the determined eigenvalues and eigenvectors for identifying refined edge pixels, the refined edge pixels representing the cell nucleus boundary; and - generating, by the processor, a saliency edge strength image which selectively comprises the identified refined edge pixels representing the cell nucleus boundary. - identifying, by the processor, one or more initial edges in the digital image and using the pixels within the identified initial edges as initial voting pixels; - using, by the processor, a tensor voting field for performing tensor voting operations on pixels (322, 324, 328) in a neighborhood of each of the initial voting pixels; - accumulating, by the processor, a plurality of votes for each of the neighboring pixels (322, 324, 328) to determine a tensor value for said neighboring pixel (322, 324, 328), the amount of the vote indicating whether said neighboring pixel is likely to be an edge pixel of the same nucleus as the initial voting pixel, the tensor value being a sum of all votes cast by all initial voting pixels in whose neighborhood said neighboring pixel (322, 324) lies; and - decomposing, by the processor, each of the determined tensor values for determining eigenvalues and eigenvectors of the decomposed tensor value; - evaluating, by the processor, the determined eigenvalues and eigenvectors for identifying refined edge pixels, the refined edge pixels representing the cell nucleus boundary; and - generating, by the processor, a saliency edge strength image which selectively comprises the identified refined edge pixels representing the cell nucleus boundary.