mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for enabling service-oriented communication of a service-oriented device with a plurality of signal-based devices (301, 401, 403, 405, 407), said apparatus comprising: - a plurality of service-oriented communication interfaces (101, 103) for communicative linking to a plurality of external service-oriented communication partners, - a plurality of signal-based communication interfaces (105, 107) for communication with a plurality of external signal-based devices (301, 401, 403, 405, 407), - an embedded system, said embedded system being configured to communicatively link respective signal-based communication interfaces (105, 107) to respective service-oriented communication interfaces (101, 103) according to a predetermined routing logic and to transform signal-based communication signals provided via the respective signal-based communication interfaces (105, 107) into service-oriented communication signals according to a service-oriented communication protocol and to transform service-oriented communication signals provided via the respective service-oriented communication interfaces (101, 103) into signal-based communication signals according to a signal-based communication protocol, characterized in that the embedded system is configured to transmit a switching signal to a respective external signal-based device (301, 401, 403, 405, 407) in order to activate or deactivate the respective external signal-based device (301, 401, 403, 405, 407) depending on a service-oriented communication signal requested by an external service-oriented communication partner. - a plurality of service-oriented communication interfaces (101, 103) for communicative linking to a plurality of external service-oriented communication partners, - a plurality of signal-based communication interfaces (105, 107) for communication with a plurality of external signal-based devices (301, 401, 403, 405, 407), - an embedded system, said embedded system being configured to communicatively link respective signal-based communication interfaces (105, 107) to respective service-oriented communication interfaces (101, 103) according to a predetermined routing logic and to transform signal-based communication signals provided via the respective signal-based communication interfaces (105, 107) into service-oriented communication signals according to a service-oriented communication protocol and to transform service-oriented communication signals provided via the respective service-oriented communication interfaces (101, 103) into signal-based communication signals according to a signal-based communication protocol, characterized in that the embedded system is configured to transmit a switching signal to a respective external signal-based device (301, 401, 403, 405, 407) in order to activate or deactivate the respective external signal-based device (301, 401, 403, 405, 407) depending on a service-oriented communication signal requested by an external service-oriented communication partner.
Apparatus (2; 102; 202; 302) for detecting a cold movement of a rail vehicle with an indicator device (110; 210; 310), with an actuation device (130; 230; 330) for activating the indicator device and with a device (140; 240; 340) for the active mechanical connection of the indicator device (110; 210; 310) to a vehicle part which can be moved as a function of the cold movement of the rail vehicle, by means of which the activated indicator device (140; 240; 340) on the one hand is kept in an active status while the vehicle part is at a standstill and on the other hand is subjected to a status change from the active status into a passive status with a predetermined change in position of the vehicle part, characterised in that the indicator device (110; 210; 310) is a locking device (110; 210; 310) or a latching device.
A pre-distortion method of correction of radio transmitter nonlinearity, comprising: characterizing the transmitter nonlinearity as a distortion function D(v), where v is an amplitude of a signal to be transmitted, and where distortion components to be corrected are determined by an order of nonlinearity N to be corrected; receiving the signal to be transmitted Tx(f) having an ideal transmitted signal bandwidth f TX, i.e. f TX is the upper frequency limit of the signal Tx(f); using a digital pre-distorter having a transfer function D PRE that models a distortion characteristic to produce a pre-distorted signal Tx PRE (f) = D PRE (Tx(f)); filtering the pre-distorted signal Tx PRE (f) with a digital Effective Bandwidth Enhancement Equalizer (EBEE) filter to produce a filtered pre-distorted signal Tx E (f); passing the filtered pre-distorted signal Tx E (f) through a digital to analog converter and an analog baseband filter having filter characteristics BB(f) to produce a corrected signal for transmission Tx C (f) = Tx E (f) * BB(f), where the EBEE filter has a filter characteristic of H E (f), where H E (f) * BB(f) approximately equals 1 over the range of frequencies from a first corner frequency f C of BB(f) to frequency N*f TX, wherein N is set to either 3, 5, or 7. up-converting the signal Tx C (f) to radio frequency for transmission; and transmitting the up-converted signal Tx C (f) at radio frequencies. characterizing the transmitter nonlinearity as a distortion function D(v), where v is an amplitude of a signal to be transmitted, and where distortion components to be corrected are determined by an order of nonlinearity N to be corrected; receiving the signal to be transmitted Tx(f) having an ideal transmitted signal bandwidth f TX, i.e. f TX is the upper frequency limit of the signal Tx(f); using a digital pre-distorter having a transfer function D PRE that models a distortion characteristic to produce a pre-distorted signal Tx PRE (f) = D PRE (Tx(f)); filtering the pre-distorted signal Tx PRE (f) with a digital Effective Bandwidth Enhancement Equalizer (EBEE) filter to produce a filtered pre-distorted signal Tx E (f); passing the filtered pre-distorted signal Tx E (f) through a digital to analog converter and an analog baseband filter having filter characteristics BB(f) to produce a corrected signal for transmission Tx C (f) = Tx E (f) * BB(f), where the EBEE filter has a filter characteristic of H E (f), where H E (f) * BB(f) approximately equals 1 over the range of frequencies from a first corner frequency f C of BB(f) to frequency N*f TX, wherein N is set to either 3, 5, or 7. up-converting the signal Tx C (f) to radio frequency for transmission; and transmitting the up-converted signal Tx C (f) at radio frequencies.
A computer-implemented medical data processing method for determining a coverage of a target anatomical structure by an electric stimulation field, the method comprising executing, on at least one processor of at least one computer, steps of: a) acquiring, at the at least one processor, patient image data describing a medical image of the anatomical body part of a patient, wherein the anatomical body part includes the target anatomical structure; b) acquiring, at the at least one processor, atlas data describing a model of the anatomical body part and information about the position of a model target structure in the model of the anatomical body part, the model target structure corresponding to the target anatomical structure; c) determining, by the at least one processor and based on the patient image data and the atlas data, target structure position data describing a position of the target anatomical structure in the medical image of the anatomical body part of the patient; d) acquiring, at the at least one processor, electrode position data describing a relative position between a position of an electrode and a position of the anatomical body part of the patient as it is described by the patient image data; e) acquiring, at the at least one processor, stimulation field data describing a simulated electric stimulation field around the position of the electrode; f) determining, by the at least one processor and based on the patient image data and the atlas data and the electrode position data and the stimulation field data, target coverage data describing a coverage of the target anatomical structure by the electric stimulation field. a) acquiring, at the at least one processor, patient image data describing a medical image of the anatomical body part of a patient, wherein the anatomical body part includes the target anatomical structure; b) acquiring, at the at least one processor, atlas data describing a model of the anatomical body part and information about the position of a model target structure in the model of the anatomical body part, the model target structure corresponding to the target anatomical structure; c) determining, by the at least one processor and based on the patient image data and the atlas data, target structure position data describing a position of the target anatomical structure in the medical image of the anatomical body part of the patient; d) acquiring, at the at least one processor, electrode position data describing a relative position between a position of an electrode and a position of the anatomical body part of the patient as it is described by the patient image data; e) acquiring, at the at least one processor, stimulation field data describing a simulated electric stimulation field around the position of the electrode; f) determining, by the at least one processor and based on the patient image data and the atlas data and the electrode position data and the stimulation field data, target coverage data describing a coverage of the target anatomical structure by the electric stimulation field.
A method characterized by comprising: modifying an encrypted short identity of TETRA, obtained as an output from an algorithm TA61 or an algorithm TA6x using a short subscriber identity or a short group identity and a common ciphering key or a shared ciphering key as inputs, by an algorithm using the encrypted identity and one or more parameter values as inputs of the algorithm, the algorithm outputting a modified encrypted identity; and using (512, 517, 807, 912, 1005) the modified encrypted identity as identity information in information transmitted over an air interface. modifying an encrypted short identity of TETRA, obtained as an output from an algorithm TA61 or an algorithm TA6x using a short subscriber identity or a short group identity and a common ciphering key or a shared ciphering key as inputs, by an algorithm using the encrypted identity and one or more parameter values as inputs of the algorithm, the algorithm outputting a modified encrypted identity; and using (512, 517, 807, 912, 1005) the modified encrypted identity as identity information in information transmitted over an air interface.
Method for calibrating a gas sensor (3 i), the gas sensor belonging to a network of sensors (3 1... 3 l) distributed between various positions in a geographical region, the gas sensor being intended to measure a concentration of an analyte in the air at various measurement times, the geographical region comprising at least one reference station (5 k), which is remote from the gas sensor, the reference station being intended to measure, at various reference times, a concentration of analyte in the air, the method comprising the following steps: a) associating at least one reference station with the gas sensor; b) during a calibration time slot ( T c), measuring an analyte concentration ( c i ( T c)) with the gas sensor and taking into account an analyte concentration ( c ref ( T c)) measured by each reference station associated with the gas sensor; c) from the measurement of the analyte concentration measured by each reference station in the calibration time slot, estimating an analyte concentration in the position of the gas sensor; d) comparing the analyte concentration ( ĉ i ( T c)) estimated in step c) and the analyte concentration ( c i ( T c)) measured by the gas sensor in step b); e) depending on the comparison made in step d), calibrating the gas sensor; • the analyte being emitted, in the geographical region, at a concentration that varies over the course of a day, the emitted analyte concentration varying between a minimum and a maximum over the course of each day; the method being characterized in that: • the calibration time slot ( T c) is determined so as to correspond to a minimum emission of the analyte in the geographical region in question, during each day. a) associating at least one reference station with the gas sensor; b) during a calibration time slot ( T c), measuring an analyte concentration ( c i ( T c)) with the gas sensor and taking into account an analyte concentration ( c ref ( T c)) measured by each reference station associated with the gas sensor; c) from the measurement of the analyte concentration measured by each reference station in the calibration time slot, estimating an analyte concentration in the position of the gas sensor; d) comparing the analyte concentration ( ĉ i ( T c)) estimated in step c) and the analyte concentration ( c i ( T c)) measured by the gas sensor in step b); e) depending on the comparison made in step d), calibrating the gas sensor; • the analyte being emitted, in the geographical region, at a concentration that varies over the course of a day, the emitted analyte concentration varying between a minimum and a maximum over the course of each day; • the analyte being emitted, in the geographical region, at a concentration that varies over the course of a day, the emitted analyte concentration varying between a minimum and a maximum over the course of each day; • the calibration time slot ( T c) is determined so as to correspond to a minimum emission of the analyte in the geographical region in question, during each day.
A method for heating or cooling a carbon containing reducing gas having a carbon monoxide content of at least 0.5 vol %, wherein the gas is heated to a temperature of at least 400 °C or wherein the gas is cooled from a temperature exceeding 400 °C, wherein the gas is passed along a surface of a heating or cooling unit, which heating or cooling unit comprises a heat conductive metal or metal alloy body provided with a protective layer, which protective layer provides said surface, and which protective layer is made from a coating composition comprising - colloidal amorphous silicate; - crystalline oxide particles; - optionally an emissivity agent; and - optionally a stabiliser/binding agent. - colloidal amorphous silicate; - crystalline oxide particles; - optionally an emissivity agent; and - optionally a stabiliser/binding agent.
Anchoring arrangement for anchoring a floatable wind power unit in water, wherein the anchoring arrangement comprises: - the floatable wind power unit having a first part and a second part between which support elements (3a, 3b) adapted to support at least two wind turbines (2a, 2b) are arranged, and - an anchoring element comprising an elongated fundament configured to be firmly attached in a bottom sediment so that a longitudinal axis of the fundament is oriented from the bottom sediment towards the surface of the water, wherein the anchoring element further comprises a displacement member rotary arranged on the fundament and a connection member adapted to form a connection between the displacement member and the first part of the floatable wind power unit, wherein the displacement member is arranged displaceable along said longitudinal axis between a first position and a second position, which first position is located further away from the bottom sediment than the second position, wherein the connection member is adapted to form a rigid connection between the displacement member and the first part of the floatable wind power unit when the displacement member is in the first position, and the displacement member is adapted, while being connected to the first part of the floatable wind power unit, to be brought from the first position to the second position, characterized in that the displacement member is adapted to be displaced from the first position, configured to be located at or in vicinity of the surface of the water, to the second position, configured to be located at or in vicinity of the bottom sediment, by means of reducing the buoyancy of the first part of the floatable wind power unit while the second part of the floatable wind power unit is maintained floating. - the floatable wind power unit having a first part and a second part between which support elements (3a, 3b) adapted to support at least two wind turbines (2a, 2b) are arranged, and - an anchoring element comprising an elongated fundament configured to be firmly attached in a bottom sediment so that a longitudinal axis of the fundament is oriented from the bottom sediment towards the surface of the water,
A method for determining the presence of a mutant polynucleotide in a sample solution, said mutant polynucleotide differing from a target polynucleotide comprising a target sequence in one or more nucleotides of said target sequence, said method comprising: (i) contacting said sample solution with a first plurality of probes, and obtaining first hybridization intensities for each of said first plurality of probes; (ii) contacting a reference solution comprising said target polynucleotide and essentially free of said mutant polynucleotide, with a second plurality of probes, and obtaining second hybridization intensities for each of said second plurality of probes; and (iii) analyzing the logarithm of said first hybridization intensities as a function of the logarithm of said second hybridization intensities for corresponding probes and determining the presence of said mutant polynucleotide based thereon; wherein said first plurality of probes is identical to said second plurality of probes, and wherein the different probes of said plurality of probes are characterized by a varying complementarity to said target sequence. (i) contacting said sample solution with a first plurality of probes, and obtaining first hybridization intensities for each of said first plurality of probes; (ii) contacting a reference solution comprising said target polynucleotide and essentially free of said mutant polynucleotide, with a second plurality of probes, and obtaining second hybridization intensities for each of said second plurality of probes; (iii) analyzing the logarithm of said first hybridization intensities as a function of the logarithm of said second hybridization intensities for corresponding probes and determining the presence of said mutant polynucleotide based thereon;
An RF module comprising: a housing having walls defining connector cavities, the walls comprising a rear wall having a plurality of openings therethrough, the connector cavities being open opposite the rear wall to receive electrical connectors; and RF connectors received in the connector cavities, the RF connectors being terminated to corresponding cables, each RF connector extending through the corresponding opening and being spring loaded in the connector cavity to allow the RF connector to float in the connector cavity; characterized by a strain relief feature extending from the housing rearward of the rear wall, the strain relief feature having a plurality of pockets configured to receive corresponding cables extending from the RF connectors, wherein the strain relief feature includes arms extending rearward from the rear wall, the strain relief feature including a base at distal ends of the arms, the pockets being formed in the base.
An apparatus for wearing by a user, comprising: a plurality of output zones (112, 114, 116, 118) arranged on the apparatus, each of the output zones (112, 114, 116, 118) arranged to provide an output signal which can be sensed by skin of the user; and a controller configured to actuate the plurality of output zones (112, 114, 116, 118) at a predetermined speed reflecting actual passage of time in a manner so as to give the user a continuous perception of passing time over a time period; characterized in that the controller is configured to modulate said predetermined speed of an actuation sequence of the plurality of output zones (112, 114, 116, 118) in a gradual manner so as to alter a subjective sense of passage of time of the user in a gradual manner. a plurality of output zones (112, 114, 116, 118) arranged on the apparatus, each of the output zones (112, 114, 116, 118) arranged to provide an output signal which can be sensed by skin of the user; and a controller configured to actuate the plurality of output zones (112, 114, 116, 118) at a predetermined speed reflecting actual passage of time in a manner so as to give the user a continuous perception of passing time over a time period; characterized in that the controller is configured to modulate said predetermined speed of an actuation sequence of the plurality of output zones (112, 114, 116, 118) in a gradual manner so as to alter a subjective sense of passage of time of the user in a gradual manner.
A method for controlling a robot (1a, 1b) in a storage and order-picking system, the robot comprising a gripping unit movable in relation to a robot base, in which the articles (23a..23n) are gripped from or out of a first article carrier (9a, 9c, 9e, 10a, 16, 21) and placed in or on a second article carrier (9b, 9d, 10b, 17a, 17b, 22) by the gripping unit, wherein - at least one of the article carriers is configured as a loading aid (9a..9e) suitable for transporting the articles (23a..23n), - a loading space (27a..27d) is defined in the region of the at least one loading aid (9a..9e), the loading space is intended for accommodating the articles (23a..23n), - the loading space (27a..27d) and the articles (23a..23n) located in the area of the loading space (27a..27d) are detected by a sensor system (8a..8e), - after an article (23a..23n) has been picked up by the gripping unit from or out of the first article carrier (9a, 9c, 9e, 10a, 16, 21), a check is carried out to determine whether an article (23a..23n) protrudes beyond said loading space (27a..27d), and - the article (23a..23n) protruding beyond the loading space (27a..27d) is picked up by the gripping unit and placed in another position if the outcome of said check is positive. - at least one of the article carriers is configured as a loading aid (9a..9e) suitable for transporting the articles (23a..23n), - a loading space (27a..27d) is defined in the region of the at least one loading aid (9a..9e), the loading space is intended for accommodating the articles (23a..23n), - the loading space (27a..27d) and the articles (23a..23n) located in the area of the loading space (27a..27d) are detected by a sensor system (8a..8e), - after an article (23a..23n) has been picked up by the gripping unit from or out of the first article carrier (9a, 9c, 9e, 10a, 16, 21), a check is carried out to determine whether an article (23a..23n) protrudes beyond said loading space (27a..27d), and - the article (23a..23n) protruding beyond the loading space (27a..27d) is picked up by the gripping unit and placed in another position if the outcome of said check is positive.