mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating a composite cryptographic signature, the method comprising: receiving a message and a first part of a first party signature, the first part of the first party signature derived from the message and a first share of a first private key; generating a first party signature from the first part of the first party signature and a second share of the first private key; generating a second party signature from the message and a second private key; combining the first party signature and the second party signature to generate a composite cryptographic signature. receiving a message and a first part of a first party signature, the first part of the first party signature derived from the message and a first share of a first private key; generating a first party signature from the first part of the first party signature and a second share of the first private key; generating a second party signature from the message and a second private key; combining the first party signature and the second party signature to generate a composite cryptographic signature.
A method for using a velocity model in an inertial navigation system, the method comprising the steps of: establishing a first velocity model for a first device ; establishing a second velocity model for a second device , the first and second velocity models being independent velocity models; establishing a spatial relationship between the first device and the second device by connecting the first device and the second device , when connected the first device is at a first position and the second device is at a second position , the first and second positions being substantially the same position; determining a single position estimate of the first device and the second device based on a first position estimate from the first velocity model when the first device is in the first position and a second position estimate from the second velocity model when the second device is in the second position; and adjusting, by the first device or by a remote device, at least a portion of the first velocity model to provide an adjusted first velocity model, wherein adjusting includes replacing the first position estimate in the first velocity model with the determined single position estimate . establishing a first velocity model for a first device ; establishing a second velocity model for a second device , the first and second velocity models being independent velocity models; establishing a spatial relationship between the first device and the second device by connecting the first device and the second device , when connected the first device is at a first position and the second device is at a second position , the first and second positions being substantially the same position; determining a single position estimate of the first device and the second device based on a first position estimate from the first velocity model when the first device is in the first position and a second position estimate from the second velocity model when the second device is in the second position; and adjusting, by the first device or by a remote device, at least a portion of the first velocity model to provide an adjusted first velocity model, wherein adjusting includes replacing the first position estimate in the first velocity model with the determined single position estimate .
An embolic protection system for isolating the cerebral vasculature, the system comprising: a first protection device having a proximal portion configured to remain outside the body and a distal portion , the distal portion comprising: a proximal sheath ; a proximal self-expanding filter assembly radially within the proximal sheath ; a distal sheath ; and a distal self-expanding filter assembly radially within the distal sheath ; a second protection device having a proximal portion configured to remain outside the body and a distal portion , the distal portion comprising: an outer sheath ; an inner member radially within the outer sheath , wherein the inner member comprises a wire ; and a third filter assembly radially within the outer sheath and coupled to the wire , wherein the wire is woven into the third self-expanding filter assembly adjacent a distal end of the third filter assembly . a first protection device having a proximal portion configured to remain outside the body and a distal portion , the distal portion comprising: a proximal sheath ; a proximal self-expanding filter assembly radially within the proximal sheath ; a distal sheath ; and a distal self-expanding filter assembly radially within the distal sheath ; a proximal sheath ; a proximal self-expanding filter assembly radially within the proximal sheath ; a distal sheath ; and a distal self-expanding filter assembly radially within the distal sheath ; a second protection device having a proximal portion configured to remain outside the body and a distal portion , the distal portion comprising: an outer sheath ; an inner member radially within the outer sheath , wherein the inner member comprises a wire ; and a third filter assembly radially within the outer sheath and coupled to the wire , wherein the wire is woven into the third self-expanding filter assembly adjacent a distal end of the third filter assembly . an outer sheath ; an inner member radially within the outer sheath , wherein the inner member comprises a wire ; and a third filter assembly radially within the outer sheath and coupled to the wire , wherein the wire is woven into the third self-expanding filter assembly adjacent a distal end of the third filter assembly .
A guide column for a column guide frame , a transfer tool or a follow-on composite tool, with a cylindrical ball cage that is mounted so as to be axially displaceable along the jacket of the guide column , wherein the guide column has a cage holder that is secured in position to the lower free end of the guide column so as to be height-adjustable in the axial direction (A), and the cage holder has a stop for the ball cage for securing the ball cage slipping out or falling from the guide column , and wherein the cage holder forms a connecting section that is provided with a thread with which the cage holder is screwed in on a mating thread , the cage holder being rotatably mounted on the guide column for the purpose of height adjustment.
In vitro method for predicting a treatment response to a V 1B receptor antagonist in a patient with depressive symptoms and/or anxiety disorder, wherein the copeptin concentration in a blood sample of said patient is determined, and wherein an elevated copeptin concentration compared to copeptin concentrations in healthy individuals is indicative for a patient responding to a treatment with a V 1B receptor antagonist.
A screw compressor comprising: a rotor casing ; a pair of screw rotors disposed in the rotor casing and engaging with each other; and a movable portion disposed so as to be movable in a rotor shaft direction of the pair of screw rotors , characterized in that the movable portion includes liquefied liquid supply ports configured to supply a liquefied liquid of a compressed gas toward tooth groove spaces (St) formed by the pair of screw rotors , the screw compressor further comprising: a position sensor configured to detect a position of the movable portion in the rotor shaft direction; a flow-rate adjusting valve configured to adjust an amount of the liquefied liquid to be supplied; and a controller configured to control an opening degree of the flow-rate adjusting valve based on a detection value of the position sensor . a rotor casing ; a pair of screw rotors disposed in the rotor casing and engaging with each other; and a movable portion disposed so as to be movable in a rotor shaft direction of the pair of screw rotors , characterized in that the movable portion includes liquefied liquid supply ports configured to supply a liquefied liquid of a compressed gas toward tooth groove spaces (St) formed by the pair of screw rotors , the screw compressor further comprising: a position sensor configured to detect a position of the movable portion in the rotor shaft direction; a flow-rate adjusting valve configured to adjust an amount of the liquefied liquid to be supplied; and a controller configured to control an opening degree of the flow-rate adjusting valve based on a detection value of the position sensor . a position sensor configured to detect a position of the movable portion in the rotor shaft direction; a flow-rate adjusting valve configured to adjust an amount of the liquefied liquid to be supplied; and a controller configured to control an opening degree of the flow-rate adjusting valve based on a detection value of the position sensor .
A method of detecting at least a partial blockage in a porous member separating an inner chamber of a device , in which at least one gas sensor responsive to target gas is positioned, and an ambient environment, comprising: emitting one or more pressure waves within the inner chamber by displacing a volume of the inner chamber , wherein the volume of the inner chamber is displaced by displacement of a moveable element in fluid connection with the inner chamber , wherein the movable element is moved to create a predetermined volume displacement of the inner chamber to emit the one or more pressure waves, measuring a response via a pressure sensor responsive to the one or more pressure waves positioned within the inner chamber , and determining if at least a partial blockage is present in the porous member based upon the response of the pressure sensor . emitting one or more pressure waves within the inner chamber by displacing a volume of the inner chamber , wherein the volume of the inner chamber is displaced by displacement of a moveable element in fluid connection with the inner chamber , wherein the movable element is moved to create a predetermined volume displacement of the inner chamber to emit the one or more pressure waves, measuring a response via a pressure sensor responsive to the one or more pressure waves positioned within the inner chamber , and determining if at least a partial blockage is present in the porous member based upon the response of the pressure sensor .
A process comprising bringing a compound of general formula (I) into the gaseous or aerosol state and depositing the compound of general formula (I) from the gaseous or aerosol state onto a solid substrate, wherein R 1 , R 2 , R 3 , R 4 , and R 5 are independent of each other hydrogen, an alkyl group, an alkenyl group, an aryl group or a silyl group, p is 1 or 2, M is Ni or Co, X is a σ-donating ligand which coordinates M, m is 1 or 2 and n is 0 to 3. and depositing the compound of general formula (I) from the gaseous or aerosol state onto a solid substrate, wherein R 1 , R 2 , R 3 , R 4 , and R 5 are independent of each other hydrogen, an alkyl group, an alkenyl group, an aryl group or a silyl group, p is 1 or 2, M is Ni or Co, X is a σ-donating ligand which coordinates M, m is 1 or 2 and n is 0 to 3.
A photocurable resin composition, comprising: an allyl polymer (A) produced by polymerizing an allyl compound represented by the following formula : wherein n is an integer of 2 to 4 and Z is an n-valent alicyclic hydrocarbon group that may have an alkyl group; and a silane coupling agent (B). an allyl polymer (A) produced by polymerizing an allyl compound represented by the following formula : wherein n is an integer of 2 to 4 and Z is an n-valent alicyclic hydrocarbon group that may have an alkyl group; and a silane coupling agent (B).
An apparatus for performing automated valet parking, the apparatus comprising: a processor; a non-transitory memory storing a program to be executed in the processor, the program comprising instructions that when executed cause the processor to determine a first target position and a first guide route using a map currently stored and detect an obstacle on the basis of sensor data, wherein an infrastructure updates the map on the basis of the detected obstacle to generate an updated map, and a transceiver configured to transmit the first target position and the first guide route to a first vehicle under control of the processor, wherein the apparatus is configured to perform automated valet parking characterized in that the instructions cause the processor to calculate a confidence value of the obstacle and update the map by reflecting or not reflecting the obstacle on the map depending on the confidence value, the instructions cause the processor to classify the obstacle as a permanent obstacle or a temporary obstacle and calculate the confidence value of the obstacle by varying a weight according to the classification of the obstacle, and the instructions cause the processor to calculate the confidence value on the basis of at least one of the number of times that the obstacle is detected, a degree of change in position at which the obstacle is detected, and a detection time at which the obstacle is detected. a processor; a non-transitory memory storing a program to be executed in the processor, the program comprising instructions that when executed cause the processor to determine a first target position and a first guide route using a map currently stored and detect an obstacle on the basis of sensor data, wherein an infrastructure updates the map on the basis of the detected obstacle to generate an updated map, and a transceiver configured to transmit the first target position and the first guide route to a first vehicle under control of the processor, wherein the apparatus is configured to perform automated valet parking characterized in that the instructions cause the processor to calculate a confidence value of the obstacle and update the map by reflecting or not reflecting the obstacle on the map depending on the confidence value, the instructions cause the processor to classify the obstacle as a permanent obstacle or a temporary obstacle and calculate the confidence value of the obstacle by varying a weight according to the classification of the obstacle, and the instructions cause the processor to calculate the confidence value on the basis of at least one of the number of times that the obstacle is detected, a degree of change in position at which the obstacle is detected, and a detection time at which the obstacle is detected.
A mechanical connecting component for connecting a first element to a second element by exerting a clamping force (F), comprising a first clamping region and a second clamping region , which is arranged at a distance from the first clamping region , wherein an expansion region is arranged between the first clamping region and the second clamping region , - wherein the connecting component can be moved from an unclamped position to a clamped position by exerting the clamping force (F), the length of the expansion region increasing when the clamping force (F) is exerted, - wherein an elongated recess extends in the interior of the connecting component at least in the expansion region , - wherein a pressure pin is arranged at least partially inside the recess , the pressure pin comprising a head section , and the pressure pin being connected to the connecting component at one end and not being connected to the connecting component at its other end, and - wherein a pressure indicator is arranged in the region of the head section , the head section being arranged in such a way as to exert pressure on the pressure indicator in the unclamped position of the connecting component and to exert no pressure or a pressure which is reduced in comparison with the unclamped position on the pressure indicator in the clamped position of the connecting component, characterised in that the pressure indicator comprises or is made of a piezochromic material. - wherein the connecting component can be moved from an unclamped position to a clamped position by exerting the clamping force (F), the length of the expansion region increasing when the clamping force (F) is exerted, - wherein an elongated recess extends in the interior of the connecting component at least in the expansion region , - wherein a pressure pin is arranged at least partially inside the recess , the pressure pin comprising a head section , and the pressure pin being connected to the connecting component at one end and not being connected to the connecting component at its other end, and - wherein a pressure indicator is arranged in the region of the head section , the head section being arranged in such a way as to exert pressure on the pressure indicator in the unclamped position of the connecting component and to exert no pressure or a pressure which is reduced in comparison with the unclamped position on the pressure indicator in the clamped position of the connecting component,
An air conditioner indoor unit , comprising: a surface frame having an air inlet , a first air outlet formed in a front lower part of the surface frame , and at least one second air outlet formed on at least one of a left side and a right side of the surface frame , wherein the first air outlet extends forward through a front part of the surface frame and the first air outlet extends downward through a bottom part of the surface frame ; a breezeless member disposed on a front side of the surface frame and movable between a first position and a second position, the breezeless member comprising a first panel ; and a heat exchanger and a fan , disposed in the surface frame , wherein: the first panel is configured to open the first air outlet when the breezeless member is at the first position, and the first panel is configured to close the first air outlet when the breezeless member is at the second position; wherein the surface frame has a second panel provided on an upper end of the surface frame , the second panel being located on the front side of the surface frame , an accommodating cavity is defined between the second panel and the surface frame , and when the breezeless member is at the second position, at least a part of the first panel is located in the accommodating cavity ; wherein the first panel comprises a non-air output portion and an air output portion that are connected to each other up and down, the air output portion has an air dispersing structure, and the non-air output portion is located above the air output portion ; and when the breezeless member is at the second position, the air output portion is opposite to the first air outlet , and the non-air output portion is located in the accommodating cavity . wherein the surface frame has a second panel provided on an upper end of the surface frame , the second panel being located on the front side of the surface frame , an accommodating cavity is defined between the second panel and the surface frame , and when the breezeless member is at the second position, at least a part of the first panel is located in the accommodating cavity ; wherein the first panel comprises a non-air output portion and an air output portion that are connected to each other up and down, the air output portion has an air dispersing structure, and the non-air output portion is located above the air output portion ; and when the breezeless member is at the second position, the air output portion is opposite to the first air outlet , and the non-air output portion is located in the accommodating cavity .
System for transmitting data via a transmission path between a tachograph and a data processing installation , wherein the system comprises at least one tachograph , arranged in a vehicle , and a data processing installation and the system comprises at least one communication controller , associated with the tachograph, for transmitting data via a transmission path between the tachograph arranged in the vehicle and the data processing installation arranged outside the vehicle, wherein the transmission path comprises at least one subsection , situated between the communication controller and the data processing installation, for a wireless transmission and a communication controller comprises a GSM module and a WLAN module , wherein the communication controller is in the form of a standalone device arrangeable in the vehicle and comprises a control unit , a connecting interface to the tachograph and a power supply interface and has a memory and is configured to receive data from the tachograph and to buffer-store said data in the memory, and to receive authentication data of an authentication apparatus associated with the data processing installation from a server of the data processing installation and to forward said authentication data to the tachograph , wherein the data processing installation is arranged outside the vehicle, and wherein the data processing installation has at least the server , a client and a communication interface for wireless data transmission with the communication controller , wherein the communication controller makes a connection between the tachograph and the data processing installation by means of the GSM module or the WLAN module and wherein the system is configured to perform a method according to Claim 6.
Method for producing at least one microelectronic component on a substrate which includes, exposed on a first face of the substrate , at least one active region and at least one electrically insulating region adjacent to the active region , the method comprising forming a transistor gate on the active region , forming spacers each configured to cover a surface of a different sidewall of the gate , and forming source and drain regions by doping portions of the active region adjacent to the gate, the method successively comprising: - forming a first layer , made of a spacer material, above the active region and above the electrically insulating region ; - carrying out ion implantation configured to produce the doping of the portions of the active region adjacent to the gate through the first layer , the first layer forming a protective coating protecting the electrically insulating region throughout the implantation and until completion thereof; - removing a modified portion of the first layer overhanging the active region and the electrically insulating region , said modified portion originating from the ion implantation, said removal being configured to at least partially preserve the first layer at the sidewalls of the gate . - forming a first layer , made of a spacer material, above the active region and above the electrically insulating region ; - carrying out ion implantation configured to produce the doping of the portions of the active region adjacent to the gate through the first layer , the first layer forming a protective coating protecting the electrically insulating region throughout the implantation and until completion thereof; - removing a modified portion of the first layer overhanging the active region and the electrically insulating region , said modified portion originating from the ion implantation, said removal being configured to at least partially preserve the first layer at the sidewalls of the gate .