mhurhangee/patent-ind-claim-en huggingface dataset:
Equipment comprising means for detecting the uniqueness of a person in a given volume in order to check that only one person at a time enters said volume by the optical recognition of the outline of the person, the equipment comprising: - an image viewing device , of the video camera type, comprising a lens, the optical axis (X-X) whereof is directed towards a viewed area ; - lighting means directed towards said viewed area in the form of LEDs having a wide range of at least 110° and positioned around the lens of the image viewing device ; - a protective glass inserted between, on the one side, said viewing device and said lighting means and, on the other side, said viewing area , said protective glass being remote from the lens of the image viewing device at a distance of at least 1 cm; characterised in that it comprises: - said volume in the form of an airlock formed by said protective glass and a wall , which wall has a plurality of reference points to which said optical axis (X-X) points; - a high-pass absorption filter placed on the trajectory of said optical axis (X-X); - a dichroic filter which is substantially perpendicular to the optical axis (X-X) of said viewing device and which is inserted between the image viewing device and said protective glass , said dichroic filter being intended to be capable of moving together with said viewing device relative to the protective glass , whereby the reflections of the infrared lighting generated by the LEDs on the protective glass are selectively and angularly filtered. - an image viewing device , of the video camera type, comprising a lens, the optical axis (X-X) whereof is directed towards a viewed area ; - lighting means directed towards said viewed area in the form of LEDs having a wide range of at least 110° and positioned around the lens of the image viewing device ; - a protective glass inserted between, on the one side, said viewing device and said lighting means and, on the other side, said viewing area , said protective glass being remote from the lens of the image viewing device at a distance of at least 1 cm; - said volume in the form of an airlock formed by said protective glass and a wall , which wall has a plurality of reference points to which said optical axis (X-X) points; - a high-pass absorption filter placed on the trajectory of said optical axis (X-X); - a dichroic filter which is substantially perpendicular to the optical axis (X-X) of said viewing device and which is inserted between the image viewing device and said protective glass , said dichroic filter being intended to be capable of moving together with said viewing device relative to the protective glass , whereby the reflections of the infrared lighting generated by the LEDs on the protective glass are selectively and angularly filtered.
A cooling appliance comprising; a body , a compartment inside the body in the form of a rectangle and delimited by a top panel , a first side panel , a second side panel and a bottom panel wherein the articles to be cooled are placed, a door having an opened position providing access inside the compartment and a closed position preventing access inside the compartment wherein the said panels are adjacent to the door in the closed position, a seat formed inside a top panel cover into which a first part of switch is placed and wherein the seat is in close vicinity of the door so as to vertically align and complete a circuit with a corresponding second part of switch in the closed position of the door wherein a threaded pin is horizontally inserted onto the top panel from where a part of the threaded pin protrudes towards the front, the top panel cover , to be placed onto the top panel , comprises a slot of cylindrical shape having a hollow center comprising at least a projection directed towards the central axis of the slot , configured to coincide with the threaded pin , which upon placement is at least partly filled by insertion of the threaded pin , fastening the top panel cover onto the top panel . a body , a compartment inside the body in the form of a rectangle and delimited by a top panel , a first side panel , a second side panel and a bottom panel wherein the articles to be cooled are placed, a door having an opened position providing access inside the compartment and a closed position preventing access inside the compartment wherein the said panels are adjacent to the door in the closed position, a seat formed inside a top panel cover into which a first part of switch is placed and wherein the seat is in close vicinity of the door so as to vertically align and complete a circuit with a corresponding second part of switch in the closed position of the door wherein a threaded pin is horizontally inserted onto the top panel from where a part of the threaded pin protrudes towards the front, the top panel cover , to be placed onto the top panel , comprises a slot of cylindrical shape having a hollow center comprising at least a projection directed towards the central axis of the slot , configured to coincide with the threaded pin , which upon placement is at least partly filled by insertion of the threaded pin , fastening the top panel cover onto the top panel .
A method for detecting a leak in a specimen contained in a test chamber, the method comprising the following steps: positioning the specimen in the test chamber, evacuating the test chamber, measuring the partial pressure of a gas within the test chamber as a measuring signal M during the evacuation of the test chamber, characterized in that the method further comprises the following steps: forming a difference D from the progression of the signal M(t) over time t and a fitting function F(t), representing the gas proportions in the measuring signal M, which results from diffusion and/or desorption from a wall of the test chamber or the specimen and includes the term t -n , where n is a positive rational number, and judging the presence of a leak in the specimen based on the differential signal D. positioning the specimen in the test chamber, evacuating the test chamber, measuring the partial pressure of a gas within the test chamber as a measuring signal M during the evacuation of the test chamber, characterized in that the method further comprises the following steps: forming a difference D from the progression of the signal M(t) over time t and a fitting function F(t), representing the gas proportions in the measuring signal M, which results from diffusion and/or desorption from a wall of the test chamber or the specimen and includes the term t -n , where n is a positive rational number, and judging the presence of a leak in the specimen based on the differential signal D. forming a difference D from the progression of the signal M(t) over time t and a fitting function F(t), representing the gas proportions in the measuring signal M, which results from diffusion and/or desorption from a wall of the test chamber or the specimen and includes the term t -n , where n is a positive rational number, and judging the presence of a leak in the specimen based on the differential signal D.
A back side illuminated avalanche photodiode , comprising: at least one PN junction on a front side of the avalanche photodiode, wherein the at least one PN junction includes a first region of a first dopant type and a second region of a second dopant type; at least one depletion structure located adjacent to the at least one PN junction , configured to form a depletion region and including at least one component (16a-16g) of the first dopant type buried within the second region ; and at least two electrodes to polarise the at least one PN junction ; wherein the second region comprises a depleted portion of the second region fully depleted by the at least one depletion structure within the depletion region extending between a first non-depleted portion of the second region on a front side of the avalanche photodiode shallower than the depleted portion of the second region and a second non-depleted portion of the second region on a back side of the avalanche photodiode shallower than the depleted portion of the second region . at least one PN junction on a front side of the avalanche photodiode, wherein the at least one PN junction includes a first region of a first dopant type and a second region of a second dopant type; at least one depletion structure located adjacent to the at least one PN junction , configured to form a depletion region and including at least one component (16a-16g) of the first dopant type buried within the second region ; and at least two electrodes to polarise the at least one PN junction ; wherein the second region comprises a depleted portion of the second region fully depleted by the at least one depletion structure within the depletion region extending between a first non-depleted portion of the second region on a front side of the avalanche photodiode shallower than the depleted portion of the second region and a second non-depleted portion of the second region on a back side of the avalanche photodiode shallower than the depleted portion of the second region .
A motion compensated transfer system for transferring persons and/or cargo from a vessel to an offshore object or vice versa, comprising a tower provided with an external lifting unit carrying a platform that together with the external lifting unit is adjustable in height along at least a part of said tower , the tower further being provided with a lift and/or staircase housed in a shaft extending in said tower , said lift and/or staircase being for enabling one or more persons and/or cargo to travel towards the height-adjustable platform and/or for enabling to bring one or more persons and/or cargo down from said height-adjustable platform , the motion compensated transfer system further comprising a motion compensated boom arranged to extend, during use of the system , from the tower in a substantially sideward direction to enable transferring persons and/or cargo along said motion compensated boom , said motion compensated boom being attached to a boom support unit , wherein said boom support unit is rotatably carried by the external lifting unit such as to be rotatable with respect to said external lifting unit about a central axis of the tower .
An optical structure comprising: a multilayer relief that has a first surface having an uneven shape; and a reflection layer that is formed on the first surface and reflects visible light, wherein: the multilayer relief includes a first resin layer that constitutes the first surface , and a second resin layer that is adjacent to a surface of the first resin layer facing away from the first surface ; characterized in that the first resin layer contains a non-radiation curable resin as a main component, the second resin layer contains a radiation curable resin as a main component, and the first resin layer has a thickness (T1) which is less than an unevenness difference (D1) of the uneven shape. a multilayer relief that has a first surface having an uneven shape; and a reflection layer that is formed on the first surface and reflects visible light, wherein: the multilayer relief includes a first resin layer that constitutes the first surface , and a second resin layer that is adjacent to a surface of the first resin layer facing away from the first surface ; characterized in that the first resin layer contains a non-radiation curable resin as a main component, the second resin layer contains a radiation curable resin as a main component, and the first resin layer has a thickness (T1) which is less than an unevenness difference (D1) of the uneven shape. the multilayer relief includes a first resin layer that constitutes the first surface , and a second resin layer that is adjacent to a surface of the first resin layer facing away from the first surface ; characterized in that the first resin layer contains a non-radiation curable resin as a main component, the second resin layer contains a radiation curable resin as a main component, and the first resin layer has a thickness (T1) which is less than an unevenness difference (D1) of the uneven shape.
A method of forming a graft for implantation into a subject comprising: (i) forming an electrospun scaffold comprising a substantially tubular matrix formed from nanofibers that comprise a blend of a biodegradable synthetic polymer and a biopolymer, wherein the tubular matrix comprises an external surface, an internal surface, and a lumen extending therethrough, wherein the nanofibers have a diameter of from 50 nm to 2000 nm, wherein the tubular matrix has a porosity of at least 50%, as determined by mercury porosimetry or apparent density; (ii) culturing a population of extracellular matrix-producing cells on the electrospun tubular scaffold to form a tissue-engineered tubular construct; (iii) decellularizing the tissue-engineered tubular construct to form a tissue-engineered scaffold; and (iv) culturing endothelial cells from the subject on the tissue-engineered scaffold to form a graft for implantation into the subject. (i) forming an electrospun scaffold comprising a substantially tubular matrix formed from nanofibers that comprise a blend of a biodegradable synthetic polymer and a biopolymer, wherein the tubular matrix comprises an external surface, an internal surface, and a lumen extending therethrough, wherein the nanofibers have a diameter of from 50 nm to 2000 nm, wherein the tubular matrix has a porosity of at least 50%, as determined by mercury porosimetry or apparent density; (ii) culturing a population of extracellular matrix-producing cells on the electrospun tubular scaffold to form a tissue-engineered tubular construct; (iii) decellularizing the tissue-engineered tubular construct to form a tissue-engineered scaffold; and (iv) culturing endothelial cells from the subject on the tissue-engineered scaffold to form a graft for implantation into the subject.
An implant assembly comprising: an abutment provided with a fastening depression that is formed in a center thereof and a top inclined surface that increases outward from a top end of the fastening depression , and configured to be fixed to an upper portion of a fixture that is fixed to an alveolar bone; and a crown link provided with a bottom inclined surface that comes into contact with the top inclined surface of the abutment on a bottom thereof, and also provided with a crown support portion that supports a crown in an upper portion thereof; wherein, when the crown link is placed on the abutment , the top inclined surface and the bottom inclined surface are coupled to each other, and also a through hole of the crown link and the fastening depression of the abutment are coaxially aligned with each other, characterized in that a link coupling portion formed at an entrance of the fastening depression comprises hexagonal portions provided with shapes of respective corners of a hexagon and arc portions formed to move outward between the hexagonal portions , and wherein a female screw portion configured for screw coupling with a fastening screw is formed on a lower portion of the fastening depression , and a plurality of driver grooves are formed in vertical directions through the female screw section . an abutment provided with a fastening depression that is formed in a center thereof and a top inclined surface that increases outward from a top end of the fastening depression , and configured to be fixed to an upper portion of a fixture that is fixed to an alveolar bone; and a crown link provided with a bottom inclined surface that comes into contact with the top inclined surface of the abutment on a bottom thereof, and also provided with a crown support portion that supports a crown in an upper portion thereof; wherein, when the crown link is placed on the abutment , the top inclined surface and the bottom inclined surface are coupled to each other, and also a through hole of the crown link and the fastening depression of the abutment are coaxially aligned with each other, characterized in that a link coupling portion formed at an entrance of the fastening depression comprises hexagonal portions provided with shapes of respective corners of a hexagon and arc portions formed to move outward between the hexagonal portions , and wherein a female screw portion configured for screw coupling with a fastening screw is formed on a lower portion of the fastening depression , and a plurality of driver grooves are formed in vertical directions through the female screw section .
A microelectromechanical systems, MEMS, device, comprising: at least one inner frame gyroscope configured to sense a first component of angular velocity associated with the MEMS device around a first axis; an outer frame gyroscope, comprising at least two proof masses, flexibly coupled to the at least one inner frame gyroscope and configured to sense a second component of angular velocity associated with the MEMS device around a second axis that is orthogonal to the first axis; at least two additional proof masses coupled to the at least one inner frame gyroscope, wherein the at least two additional proof masses are configured to sense a third component of angular velocity associated with the MEMS device around a third axis that is orthogonal to the first axis and the second axis; two outer frame lever arms associated with the outer frame gyroscope, coupled to the at least two proof masses of the outer frame gyroscope, and configured to force the outer frame gyroscope into anti-phase motion; and at least two drive shuttles flexibly coupled to the at least two proof masses of the outer frame gyroscope and to the at least one inner frame gyroscope, and configured to force the at least one inner frame gyroscope and the outer frame gyroscope into anti-phase motion. at least one inner frame gyroscope configured to sense a first component of angular velocity associated with the MEMS device around a first axis; an outer frame gyroscope, comprising at least two proof masses, flexibly coupled to the at least one inner frame gyroscope and configured to sense a second component of angular velocity associated with the MEMS device around a second axis that is orthogonal to the first axis; at least two additional proof masses coupled to the at least one inner frame gyroscope, wherein the at least two additional proof masses are configured to sense a third component of angular velocity associated with the MEMS device around a third axis that is orthogonal to the first axis and the second axis; two outer frame lever arms associated with the outer frame gyroscope, coupled to the at least two proof masses of the outer frame gyroscope, and configured to force the outer frame gyroscope into anti-phase motion; and at least two drive shuttles flexibly coupled to the at least two proof masses of the outer frame gyroscope and to the at least one inner frame gyroscope, and configured to force the at least one inner frame gyroscope and the outer frame gyroscope into anti-phase motion.
A polypeptide comprising two active domains wherein one domain is an anti-CD4 Adnectin protein, wherein the anti-CD4 Adnectin protein comprises an amino acid sequence at least 80%, 85%, 90%, 95%, 98%, 99% or 100% identical to the amino acid sequence of SEQ ID NOs: 95-114 and the other domain is a HIV fusion peptide inhibitor moiety wherein the HIV fusion peptide inhibitor comprises an amino acid sequence at least 80%, 85%, 90%, 95%, 98%, 99% or 100% identical to the amino acid sequence of SEQ ID NO: 372-392.
A processor comprising: a plurality of cores , wherein at least one core includes a cancellation monitor unit , the cancellation monitor unit comprising circuitry to: detect an execution of a floating point (FP) instruction by a floating point unit in the at least one core , wherein the execution of the FP instruction uses a set of FP inputs and generates an FP output; determine a maximum exponent value associated with the set of FP inputs to the FP instruction; subtract an exponent value of the FP output from the maximum exponent value to obtain an exponent difference; and in response to a determination that the exponent difference meets or exceeds a threshold level, increment a cancellation event count; store the cancellation event count in a hardware register included in the at least one core ; determine if the stored cancellation event count exceeds a threshold count level; and in response to a determination that the event count exceeds a threshold count level, raise an exception in the processor. detect an execution of a floating point (FP) instruction by a floating point unit in the at least one core , wherein the execution of the FP instruction uses a set of FP inputs and generates an FP output; determine a maximum exponent value associated with the set of FP inputs to the FP instruction; subtract an exponent value of the FP output from the maximum exponent value to obtain an exponent difference; and in response to a determination that the exponent difference meets or exceeds a threshold level, increment a cancellation event count; store the cancellation event count in a hardware register included in the at least one core ; determine if the stored cancellation event count exceeds a threshold count level; and in response to a determination that the event count exceeds a threshold count level, raise an exception in the processor.
Modular chair comprising - at least one support portion suitable to allow a user to sit on it and including a frame and a fabric , - said fabric defining a surface suitable to support said user and a perimetral area defined by the edges of said surface - said frame defining, in use, a closed profile and being suitable to support in tension said fabric along at least part of said perimetral area , and characterized in that - said frame comprises two parts in one-piece each or each part of a single piece defining loose points between the parts , separate and loosely connected to each other by means of two hinges arranged respectively at the ends of said parts in such a way as to define, like a book, a configuration of use in which said parts make said frame and a configuration of rest in which said parts are folded together, like a book, - said hinges defining two mutually aligned respective axes of rotation , and - said frame placing said fabric in tension only when said parts are opened passing from said configuration of rest to said configuration of use. - at least one support portion suitable to allow a user to sit on it and including a frame and a fabric , - said fabric defining a surface suitable to support said user and a perimetral area defined by the edges of said surface - said frame defining, in use, a closed profile and being suitable to support in tension said fabric along at least part of said perimetral area , - said frame comprises two parts in one-piece each or each part of a single piece defining loose points between the parts , separate and loosely connected to each other by means of two hinges arranged respectively at the ends of said parts in such a way as to define, like a book, a configuration of use in which said parts make said frame and a configuration of rest in which said parts are folded together, like a book, - said hinges defining two mutually aligned respective axes of rotation , and - said frame placing said fabric in tension only when said parts are opened passing from said configuration of rest to said configuration of use.
A magnetic core comprising: - Fe-based soft magnetic alloy particles; and - an oxide phase existing between the Fe-based soft magnetic alloy particles, wherein the Fe-based soft magnetic alloy particles comprise Fe-Al-Cr alloy particles and Fe-Si-Al alloy particles, and characterised in that the content of the Fe-Al-Cr alloy particles is 20% by weight or more based on the total weight of the Fe-Al-Cr alloy particles and the Fe-Si-Al alloy particles. - Fe-based soft magnetic alloy particles; and - an oxide phase existing between the Fe-based soft magnetic alloy particles, wherein the Fe-based soft magnetic alloy particles comprise Fe-Al-Cr alloy particles and Fe-Si-Al alloy particles, and