mhurhangee/patent-ind-claim-en huggingface dataset:
Subtalar Implant for arthroereisis of the talocalcaneal joint, the implant being intended to be inserted into the talocalcaneal joint via its lateral orifice and having an oblong shape that extends longitudinally along an axis of insertion (X) of the implant, the implant being one-piece and comprising: - a head with the shape of a cone of revolution centred on the axis of insertion; - an anchoring thread ; characterised in that it comprises a rod having the shape of a cylinder of revolution centred on the axis of insertion, the rod having, on its surface, the anchoring thread and being intended to be inserted up to the axis of rotation of the talocalcaneal joint, the head flaring out from the rod and being located upstream of the head along the axis of insertion of the implant, the head having, on its radially outer surface, means for retaining the implant in rotation about the axis of insertion, the means for retaining in rotation being intended to exert retention against a colonising tissue, and in that the means for retaining in rotation comprise: - depressions with respect to the shape of a cone of revolution of the head ; - at least one recess located inside the depressions , the recess(es) communicating with each other inside the head in order to create at least one annular cavity intended to be colonised by colonising tissue, and in that , in a transverse cross-section perpendicular to the axis of insertion: - the head is inscribed inside a polygon (P), the sides of which extend at the depressions ; - the annular cavity or cavities have a polygonal shape suitable for allowing the inscription of a fibrous integration polygon inside the head. - a head with the shape of a cone of revolution centred on the axis of insertion; - an anchoring thread ; - depressions with respect to the shape of a cone of revolution of the head ; - at least one recess located inside the depressions , the recess(es) communicating with each other inside the head in order to create at least one annular cavity intended to be colonised by colonising tissue, - the head is inscribed inside a polygon (P), the sides of which extend at the depressions ; - the annular cavity or cavities have a polygonal shape suitable for allowing the inscription of a fibrous integration polygon inside the head.
A wearable steam cleaning accessory for use with a steam generator and wearable on a user's hand comprising: a flexible body comprising a base and at least one peripheral wall upstanding from the base ; at least one steam conduit connectable to the steam generator and arranged to be in fluid communication therewith, wherein the steam conduit comprises at least one steam outlet for ejecting steam and the at least one steam outlet is mounted on an underside of the base which is configured to be adjacent to a surface to be cleaned; a flexible pocket mounted on the flexible body and arranged to receive a user's hand; and wherein the at least one peripheral wall comprises at least one deflection element outwardly projecting from the peripheral wall . a flexible body comprising a base and at least one peripheral wall upstanding from the base ; at least one steam conduit connectable to the steam generator and arranged to be in fluid communication therewith, wherein the steam conduit comprises at least one steam outlet for ejecting steam and the at least one steam outlet is mounted on an underside of the base which is configured to be adjacent to a surface to be cleaned; a flexible pocket mounted on the flexible body and arranged to receive a user's hand; and wherein the at least one peripheral wall comprises at least one deflection element outwardly projecting from the peripheral wall .
A probiotic composition comprising a combination of the following strains: - Lactobacillus plantarum PBS067, - Lactobacillus rhamnosus LRH020, and - Lactobacillus reuteri PBS072. - Lactobacillus plantarum PBS067, - Lactobacillus rhamnosus LRH020, and - Lactobacillus reuteri PBS072.
A method of suppressing an engine overspeed condition of an engine having at least one combustion chamber defined by a cylinder, a piston operable to reciprocate within the cylinder, and at least one intake valve and at least one exhaust valve associated with the cylinder, the engine having an engine cycle comprising an intake stroke, a compression stroke, an expansion stroke, and an exhaust stroke, wherein the intake valve is open during the intake stroke and closed during the compression stroke, the method comprising: determining whether the engine is operating in an engine overspeed condition; operating an engine overspeed suppression mechanism when the engine is operating in the engine overspeed condition, wherein operating the engine overspeed suppression mechanism comprises: causing the exhaust valve to be closed during a first stage of the compression stroke, and thereafter causing the exhaust valve to open during a second stage of the compression stroke. determining whether the engine is operating in an engine overspeed condition; operating an engine overspeed suppression mechanism when the engine is operating in the engine overspeed condition, wherein operating the engine overspeed suppression mechanism comprises: causing the exhaust valve to be closed during a first stage of the compression stroke, and thereafter causing the exhaust valve to open during a second stage of the compression stroke.
A method in an electronic device, the method comprising: detecting a gesture for setting an inactive area in an active area of a display; identifying a size and a location of the inactive area to set; and designating a part of the active area as the inactive area based on the identified size and location of the inactive area, setting a part of the inactive area as an active area for displaying a control menu associated with an application executed in the active area; and in response to an input on the control menu, executing a command in the application. detecting a gesture for setting an inactive area in an active area of a display; identifying a size and a location of the inactive area to set; and designating a part of the active area as the inactive area based on the identified size and location of the inactive area, setting a part of the inactive area as an active area for displaying a control menu associated with an application executed in the active area; and in response to an input on the control menu, executing a command in the application.
An ADAM8 ectodomain-binding antibody or the antigen-binding fragment thereof for use in the treatment of breast cancer or breast cancer associated metastasis characterized in that the antibody or the antigen-binding fragment thereof binds to SEQ ID No 9 and that the antibody or the antigen-binding fragment thereof inhibits the activity of the metalloproteinase domain and disintegrin domain of ADAM8.
Method for controlling the drive of at least one drive axle (AA1) on the trailer of a traction vehicle-trailer combination, comprising the following method steps: a) determining a setpoint drive power level (P_AT1) for the drive axle (AA1) of the trailer - in accordance with a distribution of contact forces (F_A1, F_A2, F_A3, F_ZA1, F_ZA2) at the trailer and at the traction vehicle , and - in accordance with a traction drive power level (P_ZT) for the traction vehicle , and b) making available drive control signals (S_P_AT, S_AM, S_V) for actuating an electric drive of the drive axle (AA1) of the trailer , wherein the drive control signals (S_P_AT, S_AM, S_V) are derived from the determined setpoint drive power level (P_AT1). a) determining a setpoint drive power level (P_AT1) for the drive axle (AA1) of the trailer - in accordance with a distribution of contact forces (F_A1, F_A2, F_A3, F_ZA1, F_ZA2) at the trailer and at the traction vehicle , and - in accordance with a traction drive power level (P_ZT) for the traction vehicle , and - in accordance with a distribution of contact forces (F_A1, F_A2, F_A3, F_ZA1, F_ZA2) at the trailer and at the traction vehicle , and - in accordance with a traction drive power level (P_ZT) for the traction vehicle , and b) making available drive control signals (S_P_AT, S_AM, S_V) for actuating an electric drive of the drive axle (AA1) of the trailer , wherein the drive control signals (S_P_AT, S_AM, S_V) are derived from the determined setpoint drive power level (P_AT1).
An x-ray source comprising: a metallic housing comprising a tubular insulating structure disposed therein; a folded high-voltage multiplier comprising a flexible printed circuit board disposed within the tubular insulating structure ; a filament transformer coupled to the high-voltage multiplier, wherein the filament transformer comprises an outer coil disposed over an outer surface of the tubular insulating structure, and an inner coil disposed about an inner surface of the tubular insulating structure; an x-ray tube for producing the x-rays coupled to the filament transformer; and a control circuit electrically coupled to the high-voltage multiplier and the filament transformer to independently control high voltage and beam current of the x-ray tube. a metallic housing comprising a tubular insulating structure disposed therein; a folded high-voltage multiplier comprising a flexible printed circuit board disposed within the tubular insulating structure ; a filament transformer coupled to the high-voltage multiplier, wherein the filament transformer comprises an outer coil disposed over an outer surface of the tubular insulating structure, and an inner coil disposed about an inner surface of the tubular insulating structure; an x-ray tube for producing the x-rays coupled to the filament transformer; and a control circuit electrically coupled to the high-voltage multiplier and the filament transformer to independently control high voltage and beam current of the x-ray tube.
A polyamide fiber which has a single fiber fineness of less than 5 dtex, and has a stress per unit fineness of 0.7 cN/dtex or more in 3% elongation in a tensile test of the fiber, wherein a stress F1 in 3% elongation in a tensile test of the fiber before 100°C boiling water treatment for 30 minutes and a stress F2 in 3% elongation in a tensile test of the fiber after the treatment satisfy the following formula : F 2 / F 1 > 0.7 wherein the tensile test is carried out under a constant speed tensile condition indicated in JIS L1013 Chemical Fiber Filament Test Method, 2010, as described herein.
Empty mesoporous silica particles having a diameter between 0.1 and 1000 μm, for use in prevention and/or postponement of degeneration of neurodegenerative diseases (NDDs) in a mammal, wherein co-transplantation of stem cells is disclaimed, and the empty particles have no surface bound molecules or agents, and wherein the neurodegenerative diseases is selected from the group consisting of Alzheimer's disease (AD), Parkinson's disease (PD), amyotrophic lateral sclerosis (ALS), Huntington's disease (HD), dementia with Lewy bodies (DLB), progressive supranuclear palsy (PSP), multiple system atrophy (MSA), corticobasal degeneration (CBD), frontotemporal dementia (FTD), spinocerebellar ataxia (SCA) disorders and spinal muscular atrophy.
A method for determining the diameter of a focused laser beam in a laser eye surgery system, comprising the steps of: scanning by a scanning mirror the focused laser beam over a first line at a first position on a target: sensing by a sensor laser light reflected by the first line as the focused laser beam crosses onto the first line; providing a first sensed light signal based on the sensed reflected laser light; calculating a first diameter of the focused laser beam at the first position based on the sensed light signal and a scanning velocity of the focused laser beam at the first position; and scanning by the scanning mirror the focused laser beam over a second line at a second position on the target; sensing by the sensor laser light reflected by the second line as the focused laser beam crosses onto the second line; providing a second sensed light signal based on the sensed reflected laser light; calculating a second diameter of the focused laser beam at the second position based on the second sensed light signal and a scanning velocity of the focused laser beam at the second position; displaying a beam quality indicator based on the first diameter and the second diameter. scanning by a scanning mirror the focused laser beam over a first line at a first position on a target: sensing by a sensor laser light reflected by the first line as the focused laser beam crosses onto the first line; providing a first sensed light signal based on the sensed reflected laser light; calculating a first diameter of the focused laser beam at the first position based on the sensed light signal and a scanning velocity of the focused laser beam at the first position; and scanning by the scanning mirror the focused laser beam over a second line at a second position on the target; sensing by the sensor laser light reflected by the second line as the focused laser beam crosses onto the second line; providing a second sensed light signal based on the sensed reflected laser light; calculating a second diameter of the focused laser beam at the second position based on the second sensed light signal and a scanning velocity of the focused laser beam at the second position; displaying a beam quality indicator based on the first diameter and the second diameter.
Method for the dynamic and partial reconfiguration of an electronic component (BE), which is designed as a programmable integrated circuit, wherein the electronic component (BR), in addition to a static region, has at least two dynamically reconfigurable regions (SE1, SE2), which are reprogrammed during runtime of the electronic component (BE) by reloading a functional unit, which is stored in a storage unit (ME) in the form of a corresponding associated configuration file (vBF1, vBF2, vBF3) for the at least two dynamically reconfigurable regions (SE1, SE2), wherein the following steps are carried out: - generating a respective cryptographic key (K1, K2, 101) associated with the at least two dynamically reconfigurable regions (SE1, SE2); - encrypting the respective configuration file (vBF1, vBF2, vBF3) that can be reloaded in the at least two dynamically reconfigurable regions (SE1, SE2) of the electronic component (BE) with the respective cryptographic key (K1, K2) associated with the at least two dynamically reconfigurable regions (SE1, SE2) and storing the encrypted configuration file (vBF1, vBF2, vBF3) in the storage unit (ME, 102); - transferring the respective encrypted configuration file (vBF1, vBF2, vBF3) from the storage unit (ME) into the electronic component (BE, 103); - checking whether the respective encrypted configuration file (vBF1, vBF2, vBF3) can be decrypted using the respective cryptographic key (K1, K2) of the at least two dynamically reconfigurable regions (SE1, SE2); - and, in the event of successful decryption of the respective configuration file (vBF1, vBF2, vBF3), reprogramming the respective one of the at least two dynamically reconfigurable regions (SE1, SE2) by means of the respective decrypted configuration file (vBF1, vBF2, vBF3, 105). - generating a respective cryptographic key (K1, K2, 101) associated with the at least two dynamically reconfigurable regions (SE1, SE2); - encrypting the respective configuration file (vBF1, vBF2, vBF3) that can be reloaded in the at least two dynamically reconfigurable regions (SE1, SE2) of the electronic component (BE) with the respective cryptographic key (K1, K2) associated with the at least two dynamically reconfigurable regions (SE1, SE2) and storing the encrypted configuration file (vBF1, vBF2, vBF3) in the storage unit (ME, 102); - transferring the respective encrypted configuration file (vBF1, vBF2, vBF3) from the storage unit (ME) into the electronic component (BE, 103); - checking whether the respective encrypted configuration file (vBF1, vBF2, vBF3) can be decrypted using the respective cryptographic key (K1, K2) of the at least two dynamically reconfigurable regions (SE1, SE2); - and, in the event of successful decryption of the respective configuration file (vBF1, vBF2, vBF3), reprogramming the respective one of the at least two dynamically reconfigurable regions (SE1, SE2) by means of the respective decrypted configuration file (vBF1, vBF2, vBF3, 105).
Security label or adhesive tape with proof of tampering, comprising a flexible carrier substrate based on a flexible plastic film, characterized in that layers are applied in the following sequence to a surface of the carrier su bstrate: a) an embossed lacquer layer , b) a semi-transparent metal layer or a layer with a high refractive index , c) a partial release lacquer layer in the form of letters, characters, symbols, lines, guilloches, numbers or lettering, d) one or more lacquer layer(s) with optical properties, e) a self-adhesive coating , wherein, in the areas not coated with the release lacquer layer , the adhesion of all layers to one another and the adhesion of the self-adhesive coating to the article to be protected is greater than the adhesion of the lacquer layer to the self-adhesive coating or the adhesion of all layers to one another is greater than the adhesion of the self-adhesive coating to the article to be protected, and wherein, in the areas coated with the release lacquer layer , the adhesion of all layers to one another and the adhesion of the self-adhesive coating to the article to be protected is greater than the adhesion of the metal layer or layer with a high refractive index to the release lacquer layer or the adhesion of the release lacquer layer to the lacquer layer . a) an embossed lacquer layer , b) a semi-transparent metal layer or a layer with a high refractive index , c) a partial release lacquer layer in the form of letters, characters, symbols, lines, guilloches, numbers or lettering, d) one or more lacquer layer(s) with optical properties, e) a self-adhesive coating ,
A method for operating a second user entity which uses a second access technology with at least one second carrier frequency to access a second access node in a second cell of the second cellular network, comprising: - receiving information from the second access node by which the second user entity is informed that the second access node or the second user entity is operating in the second cell within a bandwidth of a first carrier frequency used to access a first cellular network with a first access technology, characterised by : - adapting the operation of the second user entity taking into account the received information, wherein adapting the operation of the second user entity comprises at least one of: - applying a compensation to received signals taking into account errors when the second user entity uses a signal related to the first access technology within a bandwidth of the second access technology, - adapting measurement procedures based on operation of the second access technology within the bandwidth of the first carrier frequency. - receiving information from the second access node by which the second user entity is informed that the second access node or the second user entity is operating in the second cell within a bandwidth of a first carrier frequency used to access a first cellular network with a first access technology, characterised by : - adapting the operation of the second user entity taking into account the received information, wherein adapting the operation of the second user entity comprises at least one of: - applying a compensation to received signals taking into account errors when the second user entity uses a signal related to the first access technology within a bandwidth of the second access technology, - adapting measurement procedures based on operation of the second access technology within the bandwidth of the first carrier frequency. - adapting the operation of the second user entity taking into account the received information, wherein adapting the operation of the second user entity comprises at least one of: - applying a compensation to received signals taking into account errors when the second user entity uses a signal related to the first access technology within a bandwidth of the second access technology, - adapting measurement procedures based on operation of the second access technology within the bandwidth of the first carrier frequency. - applying a compensation to received signals taking into account errors when the second user entity uses a signal related to the first access technology within a bandwidth of the second access technology, - adapting measurement procedures based on operation of the second access technology within the bandwidth of the first carrier frequency.
A nucleic acid analysis device comprising: a dispensing unit attached to a dispensing tip and movable in three axis directions orthogonal to each other; a reaction vessel gripping mechanism that grips the reaction vessel and is movable in three axis directions orthogonal to each other; wherein the nucleic acid analysis device further comprises: a temperature adjusting mechanism that is capable of rotational or linear motion and has a vessel-accommodating hole for accommodating a reaction vessel , and is capable of adjusting the temperature for the vessel-accommodating hole; a detector that detects fluorescence from the reaction vessel accommodated in the temperature adjusting mechanism; a gate provided at a portion where the vessel is loaded into the vessel-accommodating hole; wherein the reaction vessel gripping mechanism loads the reaction vessel into the vessel-accommodating hole and the gate is configured to be open during loading, characterized by a reaction vessel transport mechanism that reciprocally moves across the accessible region by the dispensing unit and the accessible region by the reaction vessel gripping mechanism on the device plane with the reaction vessel installed in the reaction vessel transport mechanism, wherein the dispensing unit and the reaction vessel gripping mechanism have different accessible regions on a plane of the device. a dispensing unit attached to a dispensing tip and movable in three axis directions orthogonal to each other; a reaction vessel gripping mechanism that grips the reaction vessel and is movable in three axis directions orthogonal to each other; wherein the nucleic acid analysis device further comprises: a temperature adjusting mechanism that is capable of rotational or linear motion and has a vessel-accommodating hole for accommodating a reaction vessel , and is capable of adjusting the temperature for the vessel-accommodating hole; a detector that detects fluorescence from the reaction vessel accommodated in the temperature adjusting mechanism; a gate provided at a portion where the vessel is loaded into the vessel-accommodating hole; a temperature adjusting mechanism that is capable of rotational or linear motion and has a vessel-accommodating hole for accommodating a reaction vessel , and is capable of adjusting the temperature for the vessel-accommodating hole; a detector that detects fluorescence from the reaction vessel accommodated in the temperature adjusting mechanism; a gate provided at a portion where the vessel is loaded into the vessel-accommodating hole; wherein the reaction vessel gripping mechanism loads the reaction vessel into the vessel-accommodating hole and the gate is configured to be open during loading, characterized by a reaction vessel transport mechanism that reciprocally moves across the accessible region by the dispensing unit and the accessible region by the reaction vessel gripping mechanism on the device plane with the reaction vessel installed in the reaction vessel transport mechanism, wherein the dispensing unit and the reaction vessel gripping mechanism have different accessible regions on a plane of the device.