mhurhangee/ep-ind-claims huggingface dataset:
Process for plotting the shape of a contour (5, 6, 9, 10) of a previously machined ophthalmic lens, which comprises the operations consisting of: - illuminating an optical face (2, 3) of the lens by means of a flat light beam to form a linear light spot on this face (2, 3) such that the beam extends beyond said face (2, 3) and illuminates said contour (5, 6, 9, 10); - forming on optical reception means an image of said light spot; - rotating the lens about an axis; - scanning the contour (5, 6, 9, 10) using the light beam; - plotting concomitantly on the optical reception means the successive positions of at least one single point (S, T, V) of this image corresponding to the illuminated point (S', T', V') of said contour (5, 6, 9, 10); - deducing the shape of said contour (5, 6, 9, 10) therefrom. - illuminating an optical face (2, 3) of the lens by means of a flat light beam to form a linear light spot on this face (2, 3) such that the beam extends beyond said face (2, 3) and illuminates said contour (5, 6, 9, 10); - forming on optical reception means an image of said light spot; - rotating the lens about an axis; - scanning the contour (5, 6, 9, 10) using the light beam; - plotting concomitantly on the optical reception means the successive positions of at least one single point (S, T, V) of this image corresponding to the illuminated point (S', T', V') of said contour (5, 6, 9, 10); - deducing the shape of said contour (5, 6, 9, 10) therefrom.
A humidification chamber configured to hold a volume of liquid and comprising: at least one side wall; a top wall connected to the at least one side wall; a base surface connected to the at least one side wall; a cavity being at least partially defined by the at least one side wall and the top wall; an inlet port extending from the top wall and defining a passage into the cavity of the humidification chamber through the top wall; and an outlet port extending from the top wall and defining a passage out of the cavity of the humidification chamber through the top wall; characterized in that: said humidification chamber further comprises at least one protrusion in the top wall that is configured to mate with at least one corresponding recess of a sensor cartridge module of a heater base to guide insertion of the humidification chamber on the heater base. at least one side wall; a top wall connected to the at least one side wall; a base surface connected to the at least one side wall; a cavity being at least partially defined by the at least one side wall and the top wall; an inlet port extending from the top wall and defining a passage into the cavity of the humidification chamber through the top wall; and an outlet port extending from the top wall and defining a passage out of the cavity of the humidification chamber through the top wall; characterized in that: said humidification chamber further comprises at least one protrusion in the top wall that is configured to mate with at least one corresponding recess of a sensor cartridge module of a heater base to guide insertion of the humidification chamber on the heater base.
An opening limiter of the type which determines the maximum degree of opening of a window, door or similar and which comprises: - a sliding fixation device intended to be installed in the channel of the leaf of the window or door with the possibility of being displaced in said channel, - a device for fixation to the frame intended to be installed on the frame of the window or door in a fixed position, - a mounting plate connected to the device for fixation to the frame by means of a first joining means and to the sliding fixation device by means of a second joining means, - the sliding fixation device comprises a slider configured to be displaced along the channel of the leaf and which comprises a hole intended to receive the second joining element; - the second joining element is integrally joined to the mounting plate at one of its ends and at the other end, which is arranged in the hole of the slider, it comprises a perimeter groove; - the sliding fixation device comprises at least one locking lever or a locking plate which can move between an unlocking position in which it allows the free movement of the second joining element and a locking position in which it is in direct contact with the second joining element or with the tab of the slider, locking the position of the second joining element characterized in that - the sliding fixation device also comprises at least one tab arranged around the hole or partially in the interior of said hole, - the perimeter groove is intended to receive the tab of the slider in order to carry out the pre-mounting of the opening limiter. - a sliding fixation device intended to be installed in the channel of the leaf of the window or door with the possibility of being displaced in said channel, - a device for fixation to the frame intended to be installed on the frame of the window or door in a fixed position, - a mounting plate connected to the device for fixation to the frame by means of a first joining means and to the sliding fixation device by means of a second joining means, - the sliding fixation device comprises a slider configured to be displaced along the channel of the leaf and which comprises a hole intended to receive the second joining element; - the second joining element is integrally joined to the mounting plate at one of its ends and at the other end, which is arranged in the hole of the slider, it comprises a perimeter groove; - the sliding fixation device comprises at least one locking lever or a locking plate which can move between an unlocking position in which it allows the free movement of the second joining element and a locking position in which it is in direct contact with the second joining element or with the tab of the slider, locking the position of the second joining element - the sliding fixation device also comprises at least one tab arranged around the hole or partially in the interior of said hole, - the perimeter groove is intended to receive the tab of the slider in order to carry out the pre-mounting of the opening limiter.
A software-defined radio chip comprising: a digital front end arranged to convert digital intermediate frequency samples to digital baseband samples; and a digital back end arranged to process the digital baseband samples to provide a consumable content; the software-defined radio chip further comprising a reconfigurable hardware programmable logic circuit configured at least to function as the digital front end; characterised in that the reconfigurable hardware programmable logic circuit comprises a secure cryptographic device arranged to provide a root of trust having a particular key as part of a key ladder scheme. a digital front end arranged to convert digital intermediate frequency samples to digital baseband samples; and a digital back end arranged to process the digital baseband samples to provide a consumable content; the software-defined radio chip further comprising a reconfigurable hardware programmable logic circuit configured at least to function as the digital front end; characterised in that the reconfigurable hardware programmable logic circuit comprises a secure cryptographic device arranged to provide a root of trust having a particular key as part of a key ladder scheme.
A monomer composition comprising monofunctional cationically polymerizable monomer(s) and multifunctional cationically polymerizable monomer(s), the content of the monofunctional cationically polymerizable monomer(s) being 20 to 80 weight percent of the total weight of the monomer composition; wherein the monofunctional cationically polymerizable monomer(s) and multifunctional cationically polymerizable monomer(s) include vinyl ether compounds and further include an oxetane compound and/or an epoxy compound, wherein the vinyl ether compounds comprise: a hydroxy-free multifunctional vinyl ether compound in an amount of 5 to 80 weight percent of the total weight of the monomer composition; and a hydroxy-containing vinyl ether compound in an amount of 0.1 weight percent to less than 10 weight percent of the total weight of the monomer composition.
A method for digital signing of a document using a predetermined secret key (x), the method being characterised in that it comprises the implementation by a data-processing unit of equipment steps of: (a) determination of an initial internal state ( s 0) by application to a hash value of the document obtained by a given hashing function, of a first white box implementation ( WB 0) of: - generation of a main nonce ( k) from said hash value; then - a modular sum of the main nonce ( k) and of a predetermined constant; said first white box implementation ( WB 0) being stored on a data-storage unit of the equipment; (b) determination of a first internal state ( s 1) by application to the initial internal state ( s 0) of a first modular arithmetic operation, then of a modular product with an exponentiation of the predetermined constant; (c) determination of a second internal state ( s 2) by application to said hash value of a second white box implementation ( WB s 2) of: - generation of the main nonce ( k) from said hash value; and - a second modular operation function of the first internal state ( s 1), of the main nonce ( k) and of the secret key ( x); said second white box implementation ( WB s 2) being stored on the data-storage unit of the equipment; (d) generation of a digital signature of the document from the determined first internal state ( s 1) and of the second internal state ( s 2). (a) determination of an initial internal state ( s 0) by application to a hash value of the document obtained by a given hashing function, of a first white box implementation ( WB 0) of: - generation of a main nonce ( k) from said hash value; then - a modular sum of the main nonce ( k) and of a predetermined constant; said first white box implementation ( WB 0) being stored on a data-storage unit of the equipment; - generation of a main nonce ( k) from said hash value; then - a modular sum of the main nonce ( k) and of a predetermined constant; (b) determination of a first internal state ( s 1) by application to the initial internal state ( s 0) of a first modular arithmetic operation, then of a modular product with an exponentiation of the predetermined constant; (c) determination of a second internal state ( s 2) by application to said hash value of a second white box implementation ( WB s 2) of: - generation of the main nonce ( k) from said hash value; and - a second modular operation function of the first internal state ( s 1), of the main nonce ( k) and of the secret key ( x); said second white box implementation ( WB s 2) being stored on the data-storage unit of the equipment; - generation of the main nonce ( k) from said hash value; and - a second modular operation function of the first internal state ( s 1), of the main nonce ( k) and of the secret key ( x); (d) generation of a digital signature of the document from the determined first internal state ( s 1) and of the second internal state ( s 2).
A medical device, the medical device comprising an implantable inflatable cell, the inflatable cell when inflated comprising a bulb portion and a tail portion, wherein the ratio of the maximum diameter of the external surface of the bulb portion to the inner diameter of the tail portion is between 6:1 and 20:1; wherein the tail portion is an inverted tubular tail portion extending into the bulb portion, the tail portion terminating in an opening, wherein a valve is attached to the inner diameter of the tail portion, the valve configured to regulate the flow of fluid into and out of the inflatable cell, characterised in that: the bulb portion of the inflatable cell has an increase in wall thickness near the tail portion which is a circumferential increase in balloon thickness, so as to increase the resistance to reversal of the inversion of the tubular tail portion.
A biopsy apparatus comprising: an ultrasound probe configured to transmit an ultrasound signal to an object and to receive an echo signal reflected from the object, to thereby obtain an ultrasound image; a biopsy needle located at a side of the ultrasound probe, and including an electromagnetic sensor; a tracker configured to obtain position and movement direction information of the biopsy needle; and a controller configured to: receive, from the tracker, the position and movement direction information of the biopsy needle, characterized by the controller further configured to determine an operation mode based on the position and movement direction information, wherein the operation mode is selected from an image registration mode where image registration is performed between the ultrasound image and an image of another modality, and a biopsy mode where a biopsy is performed using the biopsy needle, wherein the controller is further configured to perform a correction on the image of another modality when the operation mode is determined as the biopsy mode, so that a movement of another modality is paused at a point in time immediately prior to a movement by the biopsy needle into the object. an ultrasound probe configured to transmit an ultrasound signal to an object and to receive an echo signal reflected from the object, to thereby obtain an ultrasound image; a biopsy needle located at a side of the ultrasound probe, and including an electromagnetic sensor; a tracker configured to obtain position and movement direction information of the biopsy needle; and a controller configured to: receive, from the tracker, the position and movement direction information of the biopsy needle, characterized by the controller further configured to determine an operation mode based on the position and movement direction information, wherein the operation mode is selected from an image registration mode where image registration is performed between the ultrasound image and an image of another modality, and a biopsy mode where a biopsy is performed using the biopsy needle, receive, from the tracker, the position and movement direction information of the biopsy needle, characterized by the controller further configured to determine an operation mode based on the position and movement direction information, wherein the operation mode is selected from an image registration mode where image registration is performed between the ultrasound image and an image of another modality, and a biopsy mode where a biopsy is performed using the biopsy needle, wherein the controller is further configured to perform a correction on the image of another modality when the operation mode is determined as the biopsy mode, so that a movement of another modality is paused at a point in time immediately prior to a movement by the biopsy needle into the object.
An arrangement (10, 38) for delivery of a substance to an animal, the arrangement comprising: a winged capsule including a capsule and wings, the capsule being adapted to deliver the substance to the animal, and the wings affixed to the capsule and operable to fold for insertion into the animal and to expand after insertion; characterised by a wing protector (20,40) including a slot (27,47) sized and shaped to receive at least a portion of each of the wings and removably attach the winged capsule to the wing protector. a winged capsule including a capsule and wings, the capsule being adapted to deliver the substance to the animal, and the wings affixed to the capsule and operable to fold for insertion into the animal and to expand after insertion; characterised by a wing protector (20,40) including a slot (27,47) sized and shaped to receive at least a portion of each of the wings and removably attach the winged capsule to the wing protector.
A method of determining a total amount of IL-17 (free IL-17 and LM modulator-bound IL-17) in a sample comprising an IL-17 and a large molecule modulator of IL-17, the method comprising: i. contacting the sample with a capture antibody to form a mixture comprising a first complex comprising the capture antibody and the IL-17 unbound to the LM modulator, and a second complex comprising the capture antibody and the IL-17 bound to the LM modulator; ii. contacting the mixture from step i) with a detection agent to thereby form a third complex comprising the capture antibody, the IL-17 unbound to the LM modulator and the detection agent, and a fourth complex comprising the capture antibody, the IL-17 bound to the LM modulator and the detection agent; and iii. determining the amount of total IL-17 by measuring the amount of the detection agent in the third and fourth complexes, wherein the capture antibody is anti-IL-17 antibody AF-317 and the detection agent is mAb4538 and the large molecule modulator is selected from the group consisting of secukinumab, mAb7024, and mAb732 and the capture antibody is capable of forming a complex comprising the capture antibody and the IL-17 bound to any of secukinumab, mAb7024, and mAb732. i. contacting the sample with a capture antibody to form a mixture comprising a first complex comprising the capture antibody and the IL-17 unbound to the LM modulator, and a second complex comprising the capture antibody and the IL-17 bound to the LM modulator; ii. contacting the mixture from step i) with a detection agent to thereby form a third complex comprising the capture antibody, the IL-17 unbound to the LM modulator and the detection agent, and a fourth complex comprising the capture antibody, the IL-17 bound to the LM modulator and the detection agent; and iii. determining the amount of total IL-17 by measuring the amount of the detection agent in the third and fourth complexes,
A cooling arrangement for a multiplicity of electric devices, the cooling arrangement including a two-phase loop thermosyphon comprising: a multiplicity of evaporators, each evaporator being in thermal contact with at least one of the electric devices; at least one condenser; a plurality of inlet channels and outlet channels; wherein each of the evaporators is in fluid communication with the condenser via an inlet channel connecting an outlet of the condenser with an inlet of the respective evaporator and is in fluid communication with the condenser via an outlet channel connecting an outlet of the respective evaporator with an inlet of the condenser; characterized in that at least one controllable valve (23, 25) is arranged in at least one of the inlet channels and outlet channels, wherein the controllable valve (23, 25) is adapted for adjusting a local fluid pressure loss in the respective channel (11, 13). a multiplicity of evaporators, each evaporator being in thermal contact with at least one of the electric devices; at least one condenser; a plurality of inlet channels and outlet channels; wherein each of the evaporators is in fluid communication with the condenser via an inlet channel connecting an outlet of the condenser with an inlet of the respective evaporator and is in fluid communication with the condenser via an outlet channel connecting an outlet of the respective evaporator with an inlet of the condenser; characterized in that at least one controllable valve (23, 25) is arranged in at least one of the inlet channels and outlet channels, wherein the controllable valve (23, 25) is adapted for adjusting a local fluid pressure loss in the respective channel (11, 13).
A data shuffling and encryption system comprising: a data storage to store a key; and a coding module executed by a processor to shuffle and encrypt an input data sequence (110, 201) based on the key, wherein the shuffling and encrypting includes determining an n-dimensional space (202, 301, 302) wherein n >0 based on the key; populating the n-dimensional space (202, 301, 302) with the input data sequence (110, 201); applying a quasi-random function to sample the n-dimensional space (202, 301, 302) to determine samples (209, 309), the samples (209, 309) being coordinates in the n-dimensional space (202, 301, 302); and using the samples (209, 309) as an index into the n-dimensional space (202, 301, 302) to determine an output data sequence (120, 210, 310) from the n-dimensional space (202, 301, 302). a data storage to store a key; and a coding module executed by a processor to shuffle and encrypt an input data sequence (110, 201) based on the key, wherein the shuffling and encrypting includes determining an n-dimensional space (202, 301, 302) wherein n >0 based on the key; populating the n-dimensional space (202, 301, 302) with the input data sequence (110, 201); applying a quasi-random function to sample the n-dimensional space (202, 301, 302) to determine samples (209, 309), the samples (209, 309) being coordinates in the n-dimensional space (202, 301, 302); and using the samples (209, 309) as an index into the n-dimensional space (202, 301, 302) to determine an output data sequence (120, 210, 310) from the n-dimensional space (202, 301, 302).
An automatic lock with a lock case and a locking plate to be arranged opposite to the lock case, with a catch pre-tensioned out of the lock case, with a latch movable out of the lock case and retractable by means of a drive device, with a locking counter-member opposite the catch in the mounted state and mounted movably in the locking plate, with an adjusting element for optionally blocking or releasing the movement of the locking counter-member and with a rigid closing edge of the locking plate engaging behind the latch, with sensing device for detecting the position of the lock case relative to the locking plate and with a trigger controllable by the sensing device for supporting the latch in its retracted position in the lock case, characterized in that in the locking plate a movable control element is arranged for actuating the sensing device, wherein in one position of the control element the sensing device can be controlled and in the other position of the control element the control of the sensing device ceases and that means for the control of the control element and of the adjusting element are coupled with one another.
A method of forming a glass article comprising supplying a glass ribbon (140; 230, 232; 300, 302; 400, 402) in a first direction, at least a portion of the glass ribbon (140; 230, 232; 300, 302; 400, 402) exhibiting a viscosity in a range from 10 6 Pa•s (10 7 poise) to 10 7 Pa•s (10 8 poise); and redirecting the glass ribbon (140; 230, 232; 300, 302; 400, 402) to a second direction different from the first direction without contacting the glass ribbon (140; 230, 232; 300, 302; 400, 402) with a solid material, wherein the glass ribbon (140; 230, 232; 300, 302; 400, 402) exhibits a thickness of 1 mm or less in the second direction. supplying a glass ribbon (140; 230, 232; 300, 302; 400, 402) in a first direction, at least a portion of the glass ribbon (140; 230, 232; 300, 302; 400, 402) exhibiting a viscosity in a range from 10 6 Pa•s (10 7 poise) to 10 7 Pa•s (10 8 poise); and redirecting the glass ribbon (140; 230, 232; 300, 302; 400, 402) to a second direction different from the first direction without contacting the glass ribbon (140; 230, 232; 300, 302; 400, 402) with a solid material, wherein the glass ribbon (140; 230, 232; 300, 302; 400, 402) exhibits a thickness of 1 mm or less in the second direction.