mhurhangee/patent-ind-claim-en huggingface dataset:
A method for acquiring MR signals of an object under examination in an MR system using a multi echo imaging sequence, the method comprising: - applying an RF excitation pulse to the object under examination in order to generate a transverse magnetization, - applying at least two RF refocusing pulses for refocusing the transverse magnetization in order to generate at least two MR spin echoes for the RF excitation pulse, - applying a first magnetic field gradient in a read out direction between the RF excitation pulse and the first of the at least two RF refocusing pulses, wherein the first magnetic field gradient is a bipolar gradient having only one negative gradient lobe and only one positive gradient lobe , - applying a second magnetic field gradient in the read out direction after each of the at least two RF refocusing pulses such that the zeroth and first gradient moment is substantially zero for the second magnetic field gradient, - acquiring the at least two MR spin echoes during the at least two second magnetic field gradients , wherein the first magnetic field gradient is designed such that a deviation from the condition of the following equation is minimized: ∫ t 0 t 1 G 2 t dt = 1 2 ∫ t 1 t 2 G 2 t dt = ⋯ = 1 2 ∫ n − 1 n G 2 t dt , with, t0 denoting the time of the excitation RF pulse , the other times t1 , t2 ... denoting the time points of applied refocusing RF pulses and G ( t ) the respectively applied gradients. - applying an RF excitation pulse to the object under examination in order to generate a transverse magnetization, - applying at least two RF refocusing pulses for refocusing the transverse magnetization in order to generate at least two MR spin echoes for the RF excitation pulse, - applying a first magnetic field gradient in a read out direction between the RF excitation pulse and the first of the at least two RF refocusing pulses, wherein the first magnetic field gradient is a bipolar gradient having only one negative gradient lobe and only one positive gradient lobe , - applying a second magnetic field gradient in the read out direction after each of the at least two RF refocusing pulses such that the zeroth and first gradient moment is substantially zero for the second magnetic field gradient, - acquiring the at least two MR spin echoes during the at least two second magnetic field gradients ,
A method of using a coil of conductive traces comprising: energizing the coil in accordance with each of the following steps: a) providing direct current to the coil to generate magnetic flux; b) providing alternating current to the coil to generate heat with the current cycling at a frequency sufficient to minimize average magnetic flux; and c) providing alternating current of decreasing amplitude to the coil to enable degaussing. a) providing direct current to the coil to generate magnetic flux; b) providing alternating current to the coil to generate heat with the current cycling at a frequency sufficient to minimize average magnetic flux; and c) providing alternating current of decreasing amplitude to the coil to enable degaussing.
A polylactide resin composition comprising: a polylactide resin; a first nucleating agent; and a second nucleating agent, wherein the first nucleating agent is uracil or orotic acid, and is contained in an amount of 0.5 to 5% by weight based on the total weight of the polylactide resin composition, and wherein the second nucleating agent is a compound containing a lactide oligomer structure, and is contained in an amount of 3 to 25% by weight based on the total weight of the polylactide resin composition. a polylactide resin; a first nucleating agent; and a second nucleating agent, wherein the first nucleating agent is uracil or orotic acid, and is contained in an amount of 0.5 to 5% by weight based on the total weight of the polylactide resin composition, and wherein the second nucleating agent is a compound containing a lactide oligomer structure, and is contained in an amount of 3 to 25% by weight based on the total weight of the polylactide resin composition.
A method of forming a communication link by a device-to-device, D2D, user equipment, UE, in a wireless communication system, the method comprising: measuring channel busy ratios, CBRs, for a plurality of beams configured for a D2D communication; selecting a communication device for a specific beam from among the plurality of beams based on load information obtained based on the CBRs; and performing the D2D communication with the communication device related to the specific beam, wherein transmission parameters for the D2D communication are determined based on the load information for the specific beam. measuring channel busy ratios, CBRs, for a plurality of beams configured for a D2D communication; selecting a communication device for a specific beam from among the plurality of beams based on load information obtained based on the CBRs; and performing the D2D communication with the communication device related to the specific beam, wherein transmission parameters for the D2D communication are determined based on the load information for the specific beam.
Packaging foil having a first aluminum foil, a second aluminum foil, and a bonding layer which connects the first aluminum foil to the second aluminum foil, characterized in that the first and the second aluminum foil each have a strength state, wherein the strength states are each selected independently of one another from a work-hardened and re-annealed and/or a soft-annealed state, wherein, by selection of the degree of hardness, achieved by re-annealing, of the first and of the second aluminum foil, a desired tensile force (F max ) of the packaging foil (according to standard DIN 50154:2019-09) is set to a value of at least 20 N in the longitudinal and transverse direction, a desired elongation at break (A 100 ) of the packaging foil (according to standard DIN 50154:2019-09) is set to a value of at least 3% in the longitudinal and transverse direction, and a desired bending stiffness (B F ) of the packaging foil (according to standard DIN 50154:2019-09) is set to a value below 70 mN in the longitudinal and transverse direction, wherein the tensile force and the bending stiffness of the packaging foil decrease with decreasing degree of hardness of each aluminum foil, and wherein the elongation at break increases with decreasing degree of hardness of each aluminum foil.
Electronic device encapsulation process, assisted by a laser, for obtaining a sealed electronic device, wherein said process comprises: providing a first substrate and a second substrate, the second substrate being transparent in the emission wavelength of the laser; depositing an intermediate bonding contour layer on one or both of the substrates; sintering the intermediate bonding layer; depositing electronic device component on one or both of the substrates; sintering the electric component; joining the first substrate and second substrate with the electronic device components in-between the substrates; using the laser to direct a laser beam onto the intermediate bonding contour layer with a predefined progressive scan pattern, such that the intermediate bonding contour layer is progressively melted and forms a seal, bonding the substrates together; wherein the predefined progressive scan pattern comprises, when the width of the contour of the intermediate bonding contour layer is larger than the spot size of the laser beam, each successive linear laser pass is transversally deviated from the previous and the following linear laser passes along said contour; wherein the linear laser pass is a rectilinear line or a curved line selected from the following: a circle line, oval line, zig-zag line, sine wave line, sinusoidal line, spiral line, or combinations thereof; wherein the width of the contour of the intermediate bonding contour layer is between 0.2 mm and 5 mm. providing a first substrate and a second substrate, the second substrate being transparent in the emission wavelength of the laser; depositing an intermediate bonding contour layer on one or both of the substrates; sintering the intermediate bonding layer; depositing electronic device component on one or both of the substrates; sintering the electric component; joining the first substrate and second substrate with the electronic device components in-between the substrates; using the laser to direct a laser beam onto the intermediate bonding contour layer with a predefined progressive scan pattern, such that the intermediate bonding contour layer is progressively melted and forms a seal, bonding the substrates together; wherein the predefined progressive scan pattern comprises, when the width of the contour of the intermediate bonding contour layer is larger than the spot size of the laser beam, each successive linear laser pass is transversally deviated from the previous and the following linear laser passes along said contour; wherein the linear laser pass is a rectilinear line or a curved line selected from the following: a circle line, oval line, zig-zag line, sine wave line, sinusoidal line, spiral line, or combinations thereof; wherein the width of the contour of the intermediate bonding contour layer is between 0.2 mm and 5 mm.
A system for closed transfer of fluids comprising: a syringe adapter having a proximal end , a distal end , and a wall defining an elongate opening between the proximal end and the distal end, the syringe adapter comprising a cannula and a translating housing having a first seal membrane , the translating housing movable within the elongate opening of the syringe adapter; a vial access device including a lock portion, the translating housing transitionable between an initial position in which the syringe adapter is not in fluid communication with the vial access device and an activated position in which the syringe adapter is in fluid communication with the vial access device via the cannula; and a locking member engaged with the syringe adapter, the locking member transitionable between an unlocked position where the lock portion of the vial access device is movable within the elongate opening of the syringe adapter and a locked position where the locking member is configured to engage the lock portion of the vial access device to lock the syringe adapter to the vial access device in the activated position, wherein the locking member comprises an annular spring body received by the elongate opening of the syringe adapter, wherein the syringe adapter defines a viewing window and with the translating housing in the initial position, a first indicator is displayed in the viewing window. a syringe adapter having a proximal end , a distal end , and a wall defining an elongate opening between the proximal end and the distal end, the syringe adapter comprising a cannula and a translating housing having a first seal membrane , the translating housing movable within the elongate opening of the syringe adapter; a vial access device including a lock portion, the translating housing transitionable between an initial position in which the syringe adapter is not in fluid communication with the vial access device and an activated position in which the syringe adapter is in fluid communication with the vial access device via the cannula; and a locking member engaged with the syringe adapter, the locking member transitionable between an unlocked position where the lock portion of the vial access device is movable within the elongate opening of the syringe adapter and a locked position where the locking member is configured to engage the lock portion of the vial access device to lock the syringe adapter to the vial access device in the activated position, wherein the locking member comprises an annular spring body received by the elongate opening of the syringe adapter, wherein the syringe adapter defines a viewing window and with the translating housing in the initial position, a first indicator is displayed in the viewing window.
A method comprising: receiving a login request to access a website from a terminal; in response to receiving the login request from the terminal, generating a first token; sending, to the terminal, information associated with the access request, wherein the information includes a redirect script, the redirect script configured to cause the terminal to execute the redirect script and to access an activation link to activate a client application; receiving a verification request from the terminal, wherein the verification request includes a version of the first token that was acquired by the terminal using the activation link; determining whether the version of the first token included in the verification request is valid relative to the generated first token; in response to determining that the version of the first token included in the verification request is valid, sending an indication that the first token is valid to the terminal; receiving an access request to access the website, the access request including a second token, wherein the second token comprises an encryption of the first token, the second token being generated by the terminal; in response to receiving the access request including the second token, determining whether the second token is valid based at least in part on a determination of whether the second token comprises the encryption of the first token; and determining that the terminal is a mobile terminal in the event that the second token is determined to be valid. receiving a login request to access a website from a terminal; in response to receiving the login request from the terminal, generating a first token; sending, to the terminal, information associated with the access request, wherein the information includes a redirect script, the redirect script configured to cause the terminal to execute the redirect script and to access an activation link to activate a client application; receiving a verification request from the terminal, wherein the verification request includes a version of the first token that was acquired by the terminal using the activation link; determining whether the version of the first token included in the verification request is valid relative to the generated first token; in response to determining that the version of the first token included in the verification request is valid, sending an indication that the first token is valid to the terminal; receiving an access request to access the website, the access request including a second token, wherein the second token comprises an encryption of the first token, the second token being generated by the terminal; in response to receiving the access request including the second token, determining whether the second token is valid based at least in part on a determination of whether the second token comprises the encryption of the first token; and determining that the terminal is a mobile terminal in the event that the second token is determined to be valid.
A smart plug adapter comprising: - a housing having enclosed therein a controller and electrical circuitry , - a male member extending from a surface of the housing and configured to receive electrical current when engaged with an external power socket , - a locking mechanism disposed at the surface of the housing and configured, when actuated, to lock the male member with the power socket , - a female member formed on the surface of the housing and configured to provide the electrical current to an electrical device when a device plug of the electrical device is engaged with the female member , wherein the electrical circuitry is configured to conduct the electrical current from the male member to the female member , characterized by - a mechanical vibrations actuator disposed at the female member and configured to emit mechanical vibrations outwardly from the housing , - at least one vibration sensor disposed at the female member and configured to determine mechanical vibrations, when present, from the device plug , wherein the vibration sensor is further configured to send to the controller a signal corresponding to a determination of mechanical vibrations, and wherein the controller is configured to send an actuating signal to the locking mechanism when the controller receives the signal from the vibration sensor corresponding to the determination of mechanical vibrations as present, and wherein the actuating signal actuates the locking mechanism . - a housing having enclosed therein a controller and electrical circuitry , - a male member extending from a surface of the housing and configured to receive electrical current when engaged with an external power socket , - a locking mechanism disposed at the surface of the housing and configured, when actuated, to lock the male member with the power socket , - a female member formed on the surface of the housing and configured to provide the electrical current to an electrical device when a device plug of the electrical device is engaged with the female member , wherein the electrical circuitry is configured to conduct the electrical current from the male member to the female member , characterized by - a mechanical vibrations actuator disposed at the female member and configured to emit mechanical vibrations outwardly from the housing , - at least one vibration sensor disposed at the female member and configured to determine mechanical vibrations, when present, from the device plug , wherein the vibration sensor is further configured to send to the controller a signal corresponding to a determination of mechanical vibrations, and
Goods wagon for transporting on rails at least one independent transport vehicle , in particular a lorry having a semitrailer or similar load transporter, the goods wagon comprising a bridge part as a drivable usable surface which extends between a front bogie and a rear bogie and is movably retained, such that, in this region, the at least one load transporter to be transferred from road traffic into rail traffic can be moved upwards and downwards, the bridge part being designed as a base frame provided with a central functional portion (F) and cooperating with a support structure , as a multi-part assembly, forming a movable usable surface , such that the at least one transport vehicle which can be positioned on the support structure can be adapted, by means of said structure which can be moved at least in regions into a lowered use position in the functional portion (F), to respective dimensions (HG, BG) of the usable transport space (T) that are defined for rail transport, and the support structure that can be lowered into and lifted out of the functional portion (F) of the base frame being movable in a continuous manner or in stages by means of an actuator and pivotable about a central vertical axis (C) at least in regions, the actuator which cooperates with the support structure being formed by at least one lift-pivot system which can be integrated into the multi-part assembly, and the lift-pivot system being supported in the region of the base frame , characterised in that the base frame , in the region of the functional portion (F), has a counter retaining strut which engages the support structure from below at least in regions, is arranged as a centre console , extends in the direction of the central longitudinal plane, is integrated into a supported profile of the support structure and is lifted and pivoted as a bracing structure together with the support structure by means of the lift-pivot system.
An air filter, comprising: a frame having a frame front with a front frame opening and a frame rear with a rear frame opening; a pleated filter media being retained within said frame , and a plurality of pleat valleys continuing substantially uninterrupted in a transverse direction (T) from a pleated filter media top to a pleated filter media bottom , the pleated filter media having a length in said transverse direction (T) defining a pleat width (W2); said frame having a length in said transverse direction (T) across said inner perimeter defining an inner-frame width (W1); wherein at least one of said frame front and said frame rear has at least one tensile support member and a plurality of angled support members ; said tensile support member extending substantially parallel to said transverse direction (T) across an air flow opening; said plurality of angled support members angled substantially equally relative to said tensile support member ; characterized in that said pleat width (W2) is greater than said inner-frame width (W1), such that said pleated filter media creates tension in the frame in said transverse direction (T), said at least one tensile support member being adapted to receive said tension which creates a friction fit between the pleated filter media contacting the frame that secures the pleated filter media in place relative to the frame . a frame having a frame front with a front frame opening and a frame rear with a rear frame opening; a pleated filter media being retained within said frame , and a plurality of pleat valleys continuing substantially uninterrupted in a transverse direction (T) from a pleated filter media top to a pleated filter media bottom , the pleated filter media having a length in said transverse direction (T) defining a pleat width (W2); said frame having a length in said transverse direction (T) across said inner perimeter defining an inner-frame width (W1); wherein at least one of said frame front and said frame rear has at least one tensile support member and a plurality of angled support members ; said tensile support member extending substantially parallel to said transverse direction (T) across an air flow opening; said plurality of angled support members angled substantially equally relative to said tensile support member ; characterized in that said pleat width (W2) is greater than said inner-frame width (W1), such that said pleated filter media creates tension in the frame in said transverse direction (T), said at least one tensile support member being adapted to receive said tension which creates a friction fit between the pleated filter media contacting the frame that secures the pleated filter media in place relative to the frame .