mhurhangee/ep-ind-claims huggingface dataset:
Seat arrangement having a base frame, a seat member and a footrest, wherein the seat member has a seat frame which is retained on a sliding member so as to be able to be pivoted about a first articulation axis, wherein the sliding member is displaceably guided between a first and a second position in a guiding profile, and wherein the footrest is articulated to the seat frame by means of a rod mechanism and can be adjusted between a folded-in position and a folded-out position, characterised in that a drive for displacing the sliding member and for folding the footrest in and out is provided between the base frame and the rod mechanism of the footrest and there is provided a dual-arm lever arm having a first end, a second end and a central region, wherein the dual-arm lever arm is rotatably supported on the sliding member in the central region thereof and is connected with the first end thereof to the rod mechanism of the footrest and with the second end thereof to the seat frame in such a manner that a movement of the footrest between the folded-in and folded-out position brings about a pivot movement of the seat frame about the first articulation axis between a basic position and an inclined position.
A vehicle control system, comprising: a sprung mass behavior detecting means that detects change in sprung mass behavior of a vehicle; a power source that outputs a driving force based on a driving force control to suppress the change in the sprung mass behavior; a damping force variable shock absorber that outputs a damping force based on a damping force control to suppress the change in the sprung mass behavior; a stroke speed detecting means that detects a stroke speed of the damping force variable shock absorber; and a damping force control amount calculation means (35b1) that calculates a damping force control amount based on the damping force control within a range of a damping force variable region with a predetermined width prescribed to a saturation degree, in which the saturation degree of the damping force variable region of the damping force variable shock absorber is set lower when the stroke speed is equal to a predetermined value or less than when the stroke speed is greater than the predetermined value, wherein, at least when the stroke speed is equal to the predetermined value or less, the power source is configured to output the driving force based on the driving force control and the damping variable shock absorber is configured to output the damping force corresponding to the damping force control amount calculated by the damping force control amount calculation means (35b1) to thereby suppress the change in the sprung mass behavior. a sprung mass behavior detecting means that detects change in sprung mass behavior of a vehicle; a power source that outputs a driving force based on a driving force control to suppress the change in the sprung mass behavior; a damping force variable shock absorber that outputs a damping force based on a damping force control to suppress the change in the sprung mass behavior; a stroke speed detecting means that detects a stroke speed of the damping force variable shock absorber; and a damping force control amount calculation means (35b1) that calculates a damping force control amount based on the damping force control within a range of a damping force variable region with a predetermined width prescribed to a saturation degree, in which the saturation degree of the damping force variable region of the damping force variable shock absorber is set lower when the stroke speed is equal to a predetermined value or less than when the stroke speed is greater than the predetermined value, wherein, at least when the stroke speed is equal to the predetermined value or less, the power source is configured to output the driving force based on the driving force control and the damping variable shock absorber is configured to output the damping force corresponding to the damping force control amount calculated by the damping force control amount calculation means (35b1) to thereby suppress the change in the sprung mass behavior.
A method for providing identifying information on one or more storage containers (132, 134, 136) of a processing kit for a blood product during processing of a quantity of whole blood having donor identification data associated therewith, with a blood processing system having a user interface(140, 142), wherein the method comprises the steps of: prompting the user to load the one or more storage containers (132, 134, 136) of the processing kit onto the blood processing device; either retrieving or prompting the user to retrieve data associated with the processing kit; either retrieving or prompting the user to retrieve the donor identification data associated with the whole blood; associating the donor identification data with the one or more storage containers (132, 134, 136) of the processing kit, therewith generating storage container data; processing the whole blood into a blood product received in the one or more storage containers (132, 134, 136) of the processing kit; either retrieving or prompting the user to retrieve the storage container data and comparing it to the donor identification data for the whole blood to verify the storage container data; and after verification of the correct identification information of the storage container data, prompting the user to detach the one or more storage containers (132, 134, 136) of the processing kit, wherein the method is performed by using a programmable controller configured to automatically perform and/or prompt a user to perform the various steps of the method. prompting the user to load the one or more storage containers (132, 134, 136) of the processing kit onto the blood processing device; either retrieving or prompting the user to retrieve data associated with the processing kit; either retrieving or prompting the user to retrieve the donor identification data associated with the whole blood; associating the donor identification data with the one or more storage containers (132, 134, 136) of the processing kit, therewith generating storage container data; processing the whole blood into a blood product received in the one or more storage containers (132, 134, 136) of the processing kit; either retrieving or prompting the user to retrieve the storage container data and comparing it to the donor identification data for the whole blood to verify the storage container data; and after verification of the correct identification information of the storage container data, prompting the user to detach the one or more storage containers (132, 134, 136) of the processing kit,
A tilting vehicle including a frame freely tiltable transversely between at least two spaced wheels (14, 114), at least one variable damper (28, 30, 148) with adjustable damping force operatively connected between the frame and the two wheels (14, 114), at least one sensor to generate signals indicative of transverse tilting of the frame relative to a central vertical plane of the vehicle, and a controller in communication with the at least one variable damper (28, 30, 148) and the at least one sensor, wherein the controller is configured to vary transverse damping by the at least one variable damper (28, 30, 148) in accordance with the signals generated by the at least one sensor to passively provide transverse tilt stability to the frame through the force generated in the damper in the opposite direction of the damper movement, characterized by the at least one sensor is a side wind sensor for generating signals indicative of transverse tilting of the frame and the controller is connected to a brake system of the vehicle to vary brake pressure by opening a by-pass valve in the brake system or by increasing the brake pressure with an active pump and/or the controller is connected to a powertrain control system of the vehicle to vary power and torque output from the power train to the wheels of the vehicle.
A device comprising: a processor; and a computer-readable medium including modules, the modules when executed by the processor, configure the device to perform a boot process, the modules comprising: a cryptographic module configured to generate, using a fuse-derived secret value, a sealing seed for re-verifying a software component that has been previously verified by the device after a software update and signed by the device using an authentication code, wherein the cryptographic module is further configured to generate a sealing key for the software component based on the sealing seed and a software descriptor: a sealing module configured to: generate one or more encryption keys using the sealing key; and encrypt secrets of the software component using the one or more encryption keys; and a verification module configured to: retrieve the software descriptor associated with the software component; verify the software component using the software descriptor and the sealing seed; and based at least in part on verifying the software component, cause the device to continue performing the boot process. a processor; and a computer-readable medium including modules, the modules when executed by the processor, configure the device to perform a boot process, the modules comprising: a cryptographic module configured to generate, using a fuse-derived secret value, a sealing seed for re-verifying a software component that has been previously verified by the device after a software update and signed by the device using an authentication code, wherein the cryptographic module is further configured to generate a sealing key for the software component based on the sealing seed and a software descriptor: a sealing module configured to: generate one or more encryption keys using the sealing key; and encrypt secrets of the software component using the one or more encryption keys; and a verification module configured to: retrieve the software descriptor associated with the software component; verify the software component using the software descriptor and the sealing seed; and based at least in part on verifying the software component, cause the device to continue performing the boot process. a sealing module configured to: generate one or more encryption keys using the sealing key; and encrypt secrets of the software component using the one or more encryption keys; and generate one or more encryption keys using the sealing key; and encrypt secrets of the software component using the one or more encryption keys; and a verification module configured to: retrieve the software descriptor associated with the software component; verify the software component using the software descriptor and the sealing seed; and based at least in part on verifying the software component, cause the device to continue performing the boot process. retrieve the software descriptor associated with the software component; verify the software component using the software descriptor and the sealing seed; and based at least in part on verifying the software component, cause the device to continue performing the boot process.
A method for carrying out a catalytic ring-opening metathesis polymerization reaction, comprising contacting (a) at least one olefinic compound selected from an unsaturated diol having a carbon chain length of greater than C 4, with (b) at least one unfunctionalized or functionalized cyclic olefin, in the presence of (c) an alkylidene olefin metathesis catalyst, (d) under conditions effective to allow ring-opening metathesis polymerization of the cyclic olefin, whereby the cyclic olefin polymer formed thereby is terminated with the hydroxyl groups of the unsaturated diol, wherein the unsaturated diol has the structure of formula wherein, R is an -OH group; r is 1, 2, or 3; and p and q are independently from 4 to 16, wherein the alkylidene olefin metathesis catalyst has the structure of formula wherein: M is ruthenium or osmium; n is 0 or 1; m is 0, 1, or 2; L 1, L 2 and L 3 are neutral electron donor ligands; X 1 and X 2 are anionic ligands; and R 1 and R 2 are independently selected from hydrogen, hydrocarbyl, substituted hydrocarbyl, heteroatom-containing hydrocarbyl, substituted heteroatom-containing hydrocarbyl, and functional groups; wherein any two or more of X 1, X 2, L 1, L 2, L 3, R 1, and R 2 can be taken together to form a cyclic group, and further wherein any one or more of X 1, X 2, L 1, L 2, L 3, R 1, and R 2 can be attached to a support. (a) at least one olefinic compound selected from an unsaturated diol having a carbon chain length of greater than C 4, with (b) at least one unfunctionalized or functionalized cyclic olefin, in the presence of (c) an alkylidene olefin metathesis catalyst, (d) under conditions effective to allow ring-opening metathesis polymerization of the cyclic olefin, whereby the cyclic olefin polymer formed thereby is terminated with the hydroxyl groups of the unsaturated diol, R is an -OH group; r is 1, 2, or 3; and p and q are independently from 4 to 16, M is ruthenium or osmium; n is 0 or 1; m is 0, 1, or 2; L 1, L 2 and L 3 are neutral electron donor ligands; X 1 and X 2 are anionic ligands; and R 1 and R 2 are independently selected from hydrogen, hydrocarbyl, substituted hydrocarbyl, heteroatom-containing hydrocarbyl, substituted heteroatom-containing hydrocarbyl, and functional groups; wherein any two or more of X 1, X 2, L 1, L 2, L 3, R 1, and R 2 can be taken together to form a cyclic group, and further wherein any one or more of X 1, X 2, L 1, L 2, L 3, R 1, and R 2 can be attached to a support.
An adjustment device (1; 1'; 1") for a vehicle seat, comprising: - a base (10; 10'; 10"), - an adjusting part (11, 11', 11") shiftably mounted on the base (10; 10', 10"), - an actuating element (12; 12'; 12") mounted on the adjusting part (11; 11'; 11"), which can be actuated for shifting the adjusting part (11; 11'; 11") relative to the base (10; 10'; 10"), and - a spring (13; 13'; 13") which supports on the base (10; 10'; 10") and on the actuating element (12; 12'; 12"), characterized in that the spring (13; 13'; 13") pretensions the adjusting part (11; 11'; 11") into a position extended relative to the base (10; 10'; 10"). - a base (10; 10'; 10"), - an adjusting part (11, 11', 11") shiftably mounted on the base (10; 10', 10"), - an actuating element (12; 12'; 12") mounted on the adjusting part (11; 11'; 11"), which can be actuated for shifting the adjusting part (11; 11'; 11") relative to the base (10; 10'; 10"), and - a spring (13; 13'; 13") which supports on the base (10; 10'; 10") and on the actuating element (12; 12'; 12"),
An information processing system comprising: a handheld apparatus, sound source position setting means (31, S46) for setting a sound source localization position so that sounds are localized at a position in real space on the far side of the apparatus, as viewed from a user holding the handheld device, by determining a position where a sound source is localized in real space using a straight line extending from the user holding the handheld apparatus passing through the virtual object displayed on a display screen of a display section and the far side of the apparatus; sound control means (31, S47) for generating a stereoscopic sound signal for localizing the sound source at the set sound source localization position, and outputting the generated sound signal; and vibration control means (31, S44, S45) for generating a vibration signal for, in conjunction with the sound source localization position, vibrating a vibration section for imparting a vibration to a user, and outputting the generated vibration signal, wherein, the vibration control means generates the vibration signal such that a position to be perceived by the user as a vibration source is a position corresponding to the sound source localization position, and wherein in a direction in which the sound source is localized, the vibration control means sets a vibration source localization position indicating a position where a vibration source is localized, and the vibration control means sets the vibration source localization position substantially on the straight line extending from the user holding the handheld apparatus to the position where the sound source is localized, and generates the vibration signal such that the vibration source is localized at the set vibration source localization position.
A method for training an expert system, ES, for predicting hydrogen induced crack growth rate from a simulated observation database, SODB, having one or more crack growth rate, CGR, observations, the method being characterised by the following steps: applying one or more filters to the SODB to remove one or more CGR observations in which crack growth did not take place from the SODB; copying the one or more CGR observations in which crack growth took place to a new database; splitting the new database into crack growth rate characteristic, CGC, predictors CGC = [ g i, l i, m i, o i, h i] i =1.. M and corresponding targets CGC = [ τ i, CGR i] i =1.. M, wherein M is the number of CGR observations, wherein the predictors are based on vectors g, l, m, o, h, which represent respectively the crack geometry, in particular size, data, location data, steel mechanical properties, operating conditions, and hydrogen charging conditions, and wherein the targets are based on growth characteristics that include a time to initiation, τ, a crack growth rate, CGR, or a combination thereof; splitting the predictors into a training dataset and a validating dataset CGC = [ X tr] CGC ∪ [ X val] CGC, with [ X tr] CGC ∩ [ X val] CGC = ∅, and splitting the corresponding targets into a training dataset and a validating dataset CGC = ┌ Y tr ┐ CGC ∪┌ Y val ┐ CGC, with ┌ Y tr ┐ CGC ∩ ┌ Y val ┐ CGC = ∅. training the expert system, ES, via a supervised learning algorithm on the training datasets [ X tr] CGC and [ Y tr] CGC; and validating the expert system, ES, on the validating datasets [ X val] CGC and ┌ Y val ┐ CGC. applying one or more filters to the SODB to remove one or more CGR observations in which crack growth did not take place from the SODB; copying the one or more CGR observations in which crack growth took place to a new database; splitting the new database into crack growth rate characteristic, CGC, predictors CGC = [ g i, l i, m i, o i, h i] i =1.. M and corresponding targets CGC = [ τ i, CGR i] i =1.. M, wherein M is the number of CGR observations, wherein the predictors are based on vectors g, l, m, o, h, which represent respectively the crack geometry, in particular size, data, location data, steel mechanical properties, operating conditions, and hydrogen charging conditions, and wherein the targets are based on growth characteristics that include a time to initiation, τ, a crack growth rate, CGR, or a combination thereof; splitting the predictors into a training dataset and a validating dataset CGC = [ X tr] CGC ∪ [ X val] CGC, with [ X tr] CGC ∩ [ X val] CGC = ∅, and splitting the corresponding targets into a training dataset and a validating dataset CGC = ┌ Y tr ┐ CGC ∪┌ Y val ┐ CGC, with ┌ Y tr ┐ CGC ∩ ┌ Y val ┐ CGC = ∅. training the expert system, ES, via a supervised learning algorithm on the training datasets [ X tr] CGC and [ Y tr] CGC; and validating the expert system, ES, on the validating datasets [ X val] CGC and ┌ Y val ┐ CGC.
A roulette apparatus comprising at least one graphical roulette-display-system and a mechanical wheel having a plurality of pockets adapted to receive a ball, wherein the mechanical wheel and the at least one graphical roulette-display-system is controlled by an electronic-control-system and wherein the at least one graphical roulette-display-system displays a field of numbers and/or symbols and wherein the roulette apparatus is characterized by further comprising at least one wheel control unit adapted to influence the rotation and/or movement of the mechanical wheel according to the electronic-control-system in order to bring the wheel into a position based on an information received from the electronic-control-system and wherein the mechanical wheel is designed to change the number N of pockets of the plurality of pockets. wherein the mechanical wheel and the at least one graphical roulette-display-system is controlled by an electronic-control-system and wherein the at least one graphical roulette-display-system displays a field of numbers and/or symbols and wherein the roulette apparatus is characterized by further comprising at least one wheel control unit adapted to influence the rotation and/or movement of the mechanical wheel according to the electronic-control-system in order to bring the wheel into a position based on an information received from the electronic-control-system and wherein the mechanical wheel is designed to change the number N of pockets of the plurality of pockets.
Chimeric peptide comprising at least one first domain and at least one second domain linked by a covalent bond, the first domain comprising a trafficking sequence, and the second domain comprising a JNK inhibitor sequence for use in the treatment of a disease or disorder strongly related to JNK signaling in a subject by intravesical administration, wherein the disease or disorder strongly related to JNK signaling in a subject is cystitis, in particular interstitial cystitis, and wherein the chimeric peptide consists of the amino acid sequence of SEQ ID NO: 11.
An airbag device comprising: an airbag that is configured to be rolled from one end to the other end and be deployed upon receiving gas; and a cover (20, 22) disposed between an airbag that is configured to be rolled from one end to the other end and be deployed upon receiving gas and a body of a vehicle to which the airbag is attached, comprising: a protecting portion (202, 212, 222) that is formed along the airbag rolled from one end to the other end; and a plurality of attachment portions (201, 211, 221) that is formed so as to extend from the protecting portion (202, 212, 222) and be attached to the body of the vehicle, characterised in that a plurality of tabs attached to the body of the vehicle is formed on the other end of the airbag stored in the protecting portion (202, 212, 222), wherein the airbag is attached to the cover (20, 22) in a twisted manner based on positions of slits (202f, 212f, 222f) being formed in a twisted relation around the arrangement axis formed by a roll center of the airbag. an airbag that is configured to be rolled from one end to the other end and be deployed upon receiving gas; and a cover (20, 22) disposed between an airbag that is configured to be rolled from one end to the other end and be deployed upon receiving gas and a body of a vehicle to which the airbag is attached, comprising: a protecting portion (202, 212, 222) that is formed along the airbag rolled from one end to the other end; and a plurality of attachment portions (201, 211, 221) that is formed so as to extend from the protecting portion (202, 212, 222) and be attached to the body of the vehicle, characterised in that a plurality of tabs attached to the body of the vehicle is formed on the other end of the airbag stored in the protecting portion (202, 212, 222), wherein the airbag is attached to the cover (20, 22) in a twisted manner based on positions of slits (202f, 212f, 222f) being formed in a twisted relation around the arrangement axis formed by a roll center of the airbag. a protecting portion (202, 212, 222) that is formed along the airbag rolled from one end to the other end; and a plurality of attachment portions (201, 211, 221) that is formed so as to extend from the protecting portion (202, 212, 222) and be attached to the body of the vehicle, characterised in that a plurality of tabs attached to the body of the vehicle is formed on the other end of the airbag stored in the protecting portion (202, 212, 222), wherein the airbag is attached to the cover (20, 22) in a twisted manner based on positions of slits (202f, 212f, 222f) being formed in a twisted relation around the arrangement axis formed by a roll center of the airbag.