mhurhangee/ep-ind-claims huggingface dataset:
A radio signal device adapted for transmitting a radio signal, the radio signal comprising a first signal component and a second signal component, wherein - the first signal component comprises a first overlay code of X 1 first overlay code symbols modulated on a first primary code, the first overlay code having a first overlay code duration of C 1 units of time, wherein each of the first overlay code symbols have a duration of S 1 units of time, and - the second signal component comprises a second overlay code of X 2 second overlay code symbols modulated on a second primary code, the second overlay code having a second overlay code duration of C 2 units of time, wherein each of the second overlay code symbols has a duration of S 2 units of time, wherein either the overlay code duration C 1 of the first signal component and the overlay code duration C 2 of the second signal component are chosen such that the start or the end of the first overlay code and the second overlay code have a reference code phase offset of D units of time every 2 N units of time, wherein 2 N is an integer and equivalent to the least common multiple of C 1 and C 2, or the overlay code duration C 1 of the first signal component and the overlay code symbol duration S 2 of the second signal component are chosen such that the start or the end of the first overlay code and the second overlay code symbol have a reference code phase offset of D units of time every 2N units of time, wherein 2 N is an integer and equivalent to the least common multiple of C 1 and S 2. - the first signal component comprises a first overlay code of X 1 first overlay code symbols modulated on a first primary code, the first overlay code having a first overlay code duration of C 1 units of time, wherein each of the first overlay code symbols have a duration of S 1 units of time, and - the second signal component comprises a second overlay code of X 2 second overlay code symbols modulated on a second primary code, the second overlay code having a second overlay code duration of C 2 units of time, wherein each of the second overlay code symbols has a duration of S 2 units of time, wherein either the overlay code duration C 1 of the first signal component and the overlay code duration C 2 of the second signal component are chosen such that the start or the end of the first overlay code and the second overlay code have a reference code phase offset of D units of time every 2 N units of time, wherein 2 N is an integer and equivalent to the least common multiple of C 1 and C 2, or the overlay code duration C 1 of the first signal component and the overlay code symbol duration S 2 of the second signal component are chosen such that the start or the end of the first overlay code and the second overlay code symbol have a reference code phase offset of D units of time every 2N units of time, wherein 2 N is an integer and equivalent to the least common multiple of C 1 and S 2.
A nucleic acid encoding a humanized antibody or antigen-binding fragment thereof, wherein the antibody binds human plasmalemma vesicle associated protein (hPLVAP) and comprises: a) at least one heavy chain amino acid sequence selected from the group consisting of SEQ ID NO:74, SEQ ID NO:76, SEQ ID NO:78, SEQ ID NO:80, SEQ ID NO:82, SEQ ID NO:84, and SEQ ID NO:86; and b) at least one kappa light chain amino acid sequence selected from the group consisting of SEQ ID NO:70, SEQ ID NO:72, SEQ ID NO:88, SEQ ID NO:90, and SEQ ID NO:92. a) at least one heavy chain amino acid sequence selected from the group consisting of SEQ ID NO:74, SEQ ID NO:76, SEQ ID NO:78, SEQ ID NO:80, SEQ ID NO:82, SEQ ID NO:84, and SEQ ID NO:86; and b) at least one kappa light chain amino acid sequence selected from the group consisting of SEQ ID NO:70, SEQ ID NO:72, SEQ ID NO:88, SEQ ID NO:90, and SEQ ID NO:92.
A method for preparing an organic film on the surface of a solid support by radical chemical grafting, including the steps consisting in: a) applying, onto said surface, by transfer or by spraying, a solution containing at least one cleavable aryl salt, an agent favouring electron transfer and a sacrificial electron donor, the application by transfer consisting in applying or depositing, on said surface, a layer of said solution not exceeding 5 mm thick, the application by spraying consisting in applying or depositing, on said surface, drops of said solution the volume of which is between 1 pl and 400 μl; b) subjecting said solution to a UV or visible irradiation, by means of which radical entities are formed from the cleavable aryl salt and an organic film is grafted. a) applying, onto said surface, by transfer or by spraying, a solution containing at least one cleavable aryl salt, an agent favouring electron transfer and a sacrificial electron donor, the application by transfer consisting in applying or depositing, on said surface, a layer of said solution not exceeding 5 mm thick, the application by spraying consisting in applying or depositing, on said surface, drops of said solution the volume of which is between 1 pl and 400 μl; b) subjecting said solution to a UV or visible irradiation, by means of which radical entities are formed from the cleavable aryl salt and an organic film is grafted.
A process for preparing an exosome composition comprising exosomes secreted by UCBMNCs, comprising the following steps: a) Providing isolated umbilical cord blood mononuclear cells (UCBMNCs), b) Conditioning the UCBMNCs of step a) by exposure to hypoxic conditions of 0.5% O 2, 5% CO 2, during 18h, in a culture medium depleted of foetal bovine serum (0% FBS), c) separating and isolating the exosomes secreted by the UCBMNCs of the previous step b), and d) suspending the isolated exosomes of step c) in a suitable carrier. a) Providing isolated umbilical cord blood mononuclear cells (UCBMNCs), b) Conditioning the UCBMNCs of step a) by exposure to hypoxic conditions of 0.5% O 2, 5% CO 2, during 18h, in a culture medium depleted of foetal bovine serum (0% FBS), c) separating and isolating the exosomes secreted by the UCBMNCs of the previous step b), and d) suspending the isolated exosomes of step c) in a suitable carrier.
A pharmaceutical composition for use in the curative or prophylactic treatment of Alzheimer's disease characterized in that it comprises: a) a pharmaceutical effective microdose of lithium salt, wherein said microdose is up to 0.28 mg of lithium salt; and b) a pharmaceutically acceptable carrier. a) a pharmaceutical effective microdose of lithium salt, wherein said microdose is up to 0.28 mg of lithium salt; and b) a pharmaceutically acceptable carrier.
A device for distributing tablet blanks onto the dies of a tablet press, wherein the device comprises a rotating disc on the circumference of which indentations are disposed, which receive the tablet blanks at least partially in a form-locking manner, and the device comprises an inlet area and an outlet area, wherein the tablet blanks are transferred to the disc in the inlet area and to the dies in the outlet area, characterized in that the device comprises an acceleration means in the inlet area, which accelerates the tablet blank in the direction of the indentation and presses it into the indentation, wherein a chute is provided in the inlet area which guides the tablet blanks in the direction of the disc, wherein the chute, at least in a partial portion thereof, comprises a slot through which the acceleration means engages in the chute and presses the tablet blanks in the direction of the disc with the indentation.
A protection system for a solenoid circuit having a plurality of solenoids (18a-18n) connected across a power source and a plurality of switches (22a-22n) for controllably connecting and disconnecting the solenoids to and from the power source, the protection system comprising; a master switch connected between the power source and the solenoids (18a-18n) for simultaneously connecting and disconnecting all of the solenoids with the power source; a voltage sensor for detecting a voltage at a location between the master switch and the plurality of solenoids (18a-18n) and producing a voltage-sensed signal in response thereto; a current sensor positioned between the power source and the solenoids for detecting a current flowing between the power source and any of the solenoids and for producing a current-sensed signal; a controller configured to detect an abnormality based on the voltage-sensed signal and to responsively disable the plurality of solenoids (18a-18n); the controller further configured to detect an abnormality based on the current-sensed signal and to responsively open the master switch, thereby disconnecting all of the solenoids from the power source.
Drive system, wherein the drive system has at least two inverters (3, 31, 32, 33) and at least two motors, wherein the motors each have a stator and a rotor, characterized in that the at least two motors each have at least a first winding system and a second winding system in the stator, wherein the respective first winding system is electrically conductively connected to a first inverter and the respective second winding system is electrically conductively connected to a second inverter, wherein the winding systems (21, 22, 23) of the individual motors are formed in such a way that a power distribution and/or torque distribution between the motors can be subjected to open-loop control and/or closed-loop control by the inverters (3, 31, 32, 33).
Method for tracking animals, in particular cattle, comprising the following steps: - continuous or intermittent digital image acquisition of a plurality of animals to obtain digital image data, - identifying individual animals using a comparison algorithm to compare the image data with previously obtained image data, - tracking the movement of the identified animals, preferably using a Kalman filter to obtain first movement data, - analysing the first movement data to create a movement profile of each animal, - tracking the movement of individual body parts of the animals using body features detected by one or the feature extraction algorithm and/or detecting and tracking the body position of the animals from the image data, to obtain second movement data, - analysing the second motion data in order to determine the sequence of movements and/or the activity of the animals in order to create a behavioural profile of each animal, characterised in that the comparison algorithm is designed to determine a similarity between an identification vector generated from the image data and a previously generated identification vector, wherein the comparison algorithm is designed in particular to determine the cosine similarity, wherein the previously generated identification vector is adapted to the identification vector generated from the image data by means of exponential smoothing or, if the similarity between the identification vector generated from the image data and the previously generated identification vector is too low, a new identification vector is stored. - continuous or intermittent digital image acquisition of a plurality of animals to obtain digital image data, - identifying individual animals using a comparison algorithm to compare the image data with previously obtained image data, - tracking the movement of the identified animals, preferably using a Kalman filter to obtain first movement data, - analysing the first movement data to create a movement profile of each animal, - tracking the movement of individual body parts of the animals using body features detected by one or the feature extraction algorithm and/or detecting and tracking the body position of the animals from the image data, to obtain second movement data, - analysing the second motion data in order to determine the sequence of movements and/or the activity of the animals in order to create a behavioural profile of each animal, characterised in that the comparison algorithm is designed to determine a similarity between an identification vector generated from the image data and a previously generated identification vector, wherein the comparison algorithm is designed in particular to determine the cosine similarity, wherein the previously generated identification vector is adapted to the identification vector generated from the image data by means of exponential smoothing or, if the similarity between the identification vector generated from the image data and the previously generated identification vector is too low, a new identification vector is stored.
A method of guiding an underwater snake robot, the snake robot comprising a flexible elongate structure capable of bending itself at two or more joints along its length in order to generate an undulating motion to thereby propel itself through water and the snake robot having a length that is at least ten times its maximum width, the method comprising: determining a desired path for the robot, the desired path extending between a current location of the robot and a destination point; during forward movement of the robot, when the robot diverges from the desired path, determining an extent of the divergence from the desired path; calculating a desired longitudinal orientation for the robot as a static or dynamic function of the extent of divergence from the desired path, the desired longitudinal orientation being non-parallel with the desired path when the robot is affected by drift forces such as ocean currents; and controlling the robot so that its longitudinal orientation is aligned with the desired longitudinal orientation, and the longitudinal orientation of the robot is non-parallel with the desired path; and repeating the calculating and controlling steps and/or using a feedback loop in order to provide constant reassessment of the divergence and re-calculation of the desired heading, such that the longitudinal orientation of the robot oscillates around a steady-state constant value that is non-parallel with the desired path. determining a desired path for the robot, the desired path extending between a current location of the robot and a destination point; during forward movement of the robot, when the robot diverges from the desired path, determining an extent of the divergence from the desired path; calculating a desired longitudinal orientation for the robot as a static or dynamic function of the extent of divergence from the desired path, the desired longitudinal orientation being non-parallel with the desired path when the robot is affected by drift forces such as ocean currents; and controlling the robot so that its longitudinal orientation is aligned with the desired longitudinal orientation, and the longitudinal orientation of the robot is non-parallel with the desired path; and repeating the calculating and controlling steps and/or using a feedback loop in order to provide constant reassessment of the divergence and re-calculation of the desired heading, such that the longitudinal orientation of the robot oscillates around a steady-state constant value that is non-parallel with the desired path.
A vehicle behavior control device applied to a vehicle having a steerable front road wheel, the vehicle behavior control device comprising: a steering speed acquiring part configured to acquire a steering speed of the vehicle; and characterized by a pitch angle increasing part configured to increase a pitch angle in such a direction that a front portion of the vehicle dips, when the steering speed becomes equal to or greater than a given threshold which is greater than zero. a steering speed acquiring part configured to acquire a steering speed of the vehicle; and characterized by a pitch angle increasing part configured to increase a pitch angle in such a direction that a front portion of the vehicle dips, when the steering speed becomes equal to or greater than a given threshold which is greater than zero.
A container for determining a parameter of a production fluid in a wellbore, comprising: a container cover and a container base; a port on the container; at least one fluid channel creating fluid communication between the port and a compartment in the container, the at least one fluid channel formed in the container cover; an isolated communication path coupled to the port, wherein the isolated communication path is blocked by a removable plug; a sensor at least partially enclosed by the container cover and the container base, wherein the sensor is isolated from external fluids; and a groove formed in the container cover or the container base to accommodate a sensing cable therethrough for connection to the sensor. a container cover and a container base; a port on the container; at least one fluid channel creating fluid communication between the port and a compartment in the container, the at least one fluid channel formed in the container cover; an isolated communication path coupled to the port, wherein the isolated communication path is blocked by a removable plug; a sensor at least partially enclosed by the container cover and the container base, wherein the sensor is isolated from external fluids; and a groove formed in the container cover or the container base to accommodate a sensing cable therethrough for connection to the sensor.
Medicament delivery device comprising: - a distal housing part; - a proximal housing part, said proximal housing part being arranged to accommodate a multi-compartment medicament container, wherein said housing parts are designed and arranged to be movable in relation to each other from a first position in which said housing parts are partially extended in relation to each other, to a second position in which said housing parts are partially retracted in relation to each other; - a drive mechanism arranged in said distal housing part comprising a plunger rod; and - an auto mixing mechanism comprising mechanical inter-locking members (20, 22; 26, 32) arranged on the housing parts and configured to hold said housing parts in the first position and to lock said housing parts in the second position; characterized in that said auto mixing mechanism comprises a mixing force member in the form of a spring operably arranged between said housing parts and being tensioned in the first position, such that manual activation of said auto mixing mechanism releases the mechanical inter-locking members whereby the force of said tensioned spring causes the two housing parts to move from the first position to the second position whereby said plunger rod acts on said multi-chamber medicament container to perform a mixing of a medicament contained in said multi-compartment medicament container. - a distal housing part; - a proximal housing part, said proximal housing part being arranged to accommodate a multi-compartment medicament container, wherein said housing parts are designed and arranged to be movable in relation to each other from a first position in which said housing parts are partially extended in relation to each other, to a second position in which said housing parts are partially retracted in relation to each other; - a drive mechanism arranged in said distal housing part comprising a plunger rod; and - an auto mixing mechanism comprising mechanical inter-locking members (20, 22; 26, 32) arranged on the housing parts and configured to hold said housing parts in the first position and to lock said housing parts in the second position; characterized in that said auto mixing mechanism comprises a mixing force member in the form of a spring operably arranged between said housing parts and being tensioned in the first position, such that manual activation of said auto mixing mechanism releases the mechanical inter-locking members whereby the force of said tensioned spring causes the two housing parts to move from the first position to the second position whereby said plunger rod acts on said multi-chamber medicament container to perform a mixing of a medicament contained in said multi-compartment medicament container.
A computer implemented method of determining a calculated position of a mobile processing device, comprising: receiving a request to determine a position of the mobile processing device, the request including observed beacons; selecting an automated location calculation method from a plurality of alternative available methods based on availability of at least venue fingerprint data comprising previously observed beacons, wherein a first method is selected (360B, C) if the venue fingerprint data includes previously observed venue and floor data for the observed beacons in the request and venue detection and floor detection is successful (346, 352), wherein a venue is determined based on a threshold of a sufficient number of detected and venue-identified beacons, and a second method is selected if insufficient data to determine a venue is available from the observed beacons or venue detection or floor detection is unsuccessful, wherein insufficient data is available if one of a minimum number of beacons is not present; calculating the calculated position of the mobile processing device using the method selected; and returning the calculated position of the mobile processing device in response to the request. receiving a request to determine a position of the mobile processing device, the request including observed beacons; selecting an automated location calculation method from a plurality of alternative available methods based on availability of at least venue fingerprint data comprising previously observed beacons, wherein a first method is selected (360B, C) if the venue fingerprint data includes previously observed venue and floor data for the observed beacons in the request and venue detection and floor detection is successful (346, 352), wherein a venue is determined based on a threshold of a sufficient number of detected and venue-identified beacons, and a second method is selected if insufficient data to determine a venue is available from the observed beacons or venue detection or floor detection is unsuccessful, wherein insufficient data is available if one of a minimum number of beacons is not present; calculating the calculated position of the mobile processing device using the method selected; and returning the calculated position of the mobile processing device in response to the request.
Facade system, comprising a substructure and at least two panels (2, 3), wherein the panels (2, 3) are arranged one above the other, wherein each of the two panels (2, 3) has an upper folded part and a lower folded part, and wherein the facade system comprises at least one holding element, wherein the holding element has an upwardly open receiving section and wherein the receiving section has a first flank facing the substructure and a second flank facing away from the substructure, wherein the flanks (8, 9) are substantially arranged in parallel to each other and wherein the distance between the flanks (8, 9) corresponds to at least twice the material thickness of one panel (2, 3), and wherein the upper folded part (4.2) of a first panel and the lower folded part (5.3) of a second panel are received by the receiving section, wherein the upper folded part (4.2) of the first panel rests against the second flank and wherein the lower folded part (5.3) of the second panel rests against the first flank, and wherein the first flank has a gradation, and this gradation creates a first contact surface and a second contact surface, and wherein the distance between the first contact surface and the second flank corresponds to at least twice the thickness of one panel (2, 3), and wherein the upper folded part (4.2) of the first panel is placed between the second flank and the second contact surface, and wherein the lower folded part (5.3) of the second panel is placed between the first contact surface and the upper folded part (4.2) of the first panel, characterized in that the distance between the second contact surface and the second flank corresponds to at least once and less than twice the material thickness of one panel (2, 3).