mhurhangee/ep-ind-claims huggingface dataset:
A cooling device having at least one drawer having a front panel and pluralities of drawer walls, at least one shelf provided in the upper vicinity of said drawer, at least one cover which at least partially encircles the drawer walls in order to at least partially close the openings which remain between said shelf and said drawer walls, wherein for providing connection between said cover and the shelf: one (20, 40) of the shelf and the cover comprises at least one carrier tab, and the other one (20, 40) of the shelf and the cover comprises at least one opening wherein said carrier tab is at least partially placed, characterized in that the carrier tab and the opening are provided in the vicinity of a rear wall of the cover, wherein the carrier tab is provided on an extension part which extends from a frame of the shelf towards the side where the drawer is provided, wherein the opening is provided on the rear wall of the cover at a predetermined distance with respect to the edge of the rear wall facing the shelf, wherein at least one housing is provided in the vicinity of the carrier tab in a manner receiving a hanger part defined between the opening and the edge of the rear wall of the cover facing the shelf. at least one shelf provided in the upper vicinity of said drawer, at least one cover which at least partially encircles the drawer walls in order to at least partially close the openings which remain between said shelf and said drawer walls, wherein for providing connection between said cover and the shelf: one (20, 40) of the shelf and the cover comprises at least one carrier tab, and the other one (20, 40) of the shelf and the cover comprises at least one opening wherein said carrier tab is at least partially placed, characterized in that the carrier tab and the opening are provided in the vicinity of a rear wall of the cover, wherein the carrier tab is provided on an extension part which extends from a frame of the shelf towards the side where the drawer is provided, wherein the opening is provided on the rear wall of the cover at a predetermined distance with respect to the edge of the rear wall facing the shelf, wherein at least one housing is provided in the vicinity of the carrier tab in a manner receiving a hanger part defined between the opening and the edge of the rear wall of the cover facing the shelf.
An electrical filter connector, comprising: a dielectric housing having a mounting face, said mounting face having opposing upstanding walls and at least one row of terminal-receiving passages in the housing through the mounting face; at least one row of pockets in the housing in alignment with said passages, one side of each pocket communicating with its respective passage; a plurality of terminals; a plurality of chip components positioned within respective said pockets of the housing, said chip components having one side and an opposite side, with said one side of the chip components respectively engaged with the terminals; CHARACTERIZED BY a unitary spring member positioned over said pockets and extending between said opposing upstanding walls of the dielectric housing, said unitary spring member including a plate-like section at said mounting face of the dielectric housing, said unitary spring member having edge clips at opposing edges of the plate-like section and having at least one row of terminal-receiving apertures therethrough respectively in alignment with said passages in the housing, said edge clips engaging said opposing upstanding walls of the dielectric housing; where the plurality of terminals extends through said apertures of the spring member and into said passages of the housing; and a plurality of leaf springs of the spring member engaged with said opposite side of the chip components, said leaf springs respectively biasing said chip components between the respective leaf springs and their respective terminals. a dielectric housing having a mounting face, said mounting face having opposing upstanding walls and at least one row of terminal-receiving passages in the housing through the mounting face; at least one row of pockets in the housing in alignment with said passages, one side of each pocket communicating with its respective passage; a plurality of terminals; a plurality of chip components positioned within respective said pockets of the housing, said chip components having one side and an opposite side, with said one side of the chip components respectively engaged with the terminals; CHARACTERIZED BY a unitary spring member positioned over said pockets and extending between said opposing upstanding walls of the dielectric housing, said unitary spring member including a plate-like section at said mounting face of the dielectric housing, said unitary spring member having edge clips at opposing edges of the plate-like section and having at least one row of terminal-receiving apertures therethrough respectively in alignment with said passages in the housing, said edge clips engaging said opposing upstanding walls of the dielectric housing; where the plurality of terminals extends through said apertures of the spring member and into said passages of the housing; and a plurality of leaf springs of the spring member engaged with said opposite side of the chip components, said leaf springs respectively biasing said chip components between the respective leaf springs and their respective terminals.
A non-durable flexible container (1500, 1600) for a fluent product, the container comprising: a product volume for the fluent product and at least partially defined by one or more nonstructural panels (1580-1, 1612-1, 1612-2), each formed by one or more flexible materials; and a structural support frame comprising a structural support member including one or more structural support volumes (1544-1, 1546-1, 1546-2, 1548-1, 1614, 1616, 1618, 1620) associated with the nonstructural panel to generate and maintain tension in the nonstructural panel, wherein a structural support member refers to a rigid, physical structure, which includes one or more expanded structural support volumes, and which is configured to be used in a structural support fame, the nonstructural panel being thin to provide a tactile perception of one or more characteristics of a fluent product in the nonstructural panel when the nonstructural panel is touched, characterized in that at least one of the one or more structural support volumes is inflated to a gauge pressure in a range between 20,000 Pa and 69,000 Pa. a product volume for the fluent product and at least partially defined by one or more nonstructural panels (1580-1, 1612-1, 1612-2), each formed by one or more flexible materials; and a structural support frame comprising a structural support member including one or more structural support volumes (1544-1, 1546-1, 1546-2, 1548-1, 1614, 1616, 1618, 1620) associated with the nonstructural panel to generate and maintain tension in the nonstructural panel, wherein a structural support member refers to a rigid, physical structure, which includes one or more expanded structural support volumes, and which is configured to be used in a structural support fame, the nonstructural panel being thin to provide a tactile perception of one or more characteristics of a fluent product in the nonstructural panel when the nonstructural panel is touched, characterized in that at least one of the one or more structural support volumes is inflated to a gauge pressure in a range between 20,000 Pa and 69,000 Pa.
A refrigeration cycle apparatus, comprising: a refrigeration cycle (40, 310) configured to circulate refrigerant; a heat exchanger unit (1, 2, 400, 300) configured to accommodate at least a heat exchanger (7, 202, 5, 201) of the refrigeration cycle (40, 310); and a controller (30, 301, 401) configured to control the heat exchanger unit (1, 2, 400, 300), the heat exchanger unit (1, 2, 400, 300) comprising an air-blowing fan (7f, 5f, 435), and a refrigerant detection unit (98, 99, 440) configured to detect a concentration of leaked refrigerant and to output a detection signal to the controller (30, 301, 401), characterized in that the controller (30, 301, 401) is configured to operate the air-blowing fan (7f, 5f, 435) when detecting leakage of the refrigerant, and to stop the air-blowing fan (7f, 5f, 435) triggered by becoming negative from positive of a temporal change of the concentration of the leaked refrigerant. a refrigeration cycle (40, 310) configured to circulate refrigerant; a heat exchanger unit (1, 2, 400, 300) configured to accommodate at least a heat exchanger (7, 202, 5, 201) of the refrigeration cycle (40, 310); and a controller (30, 301, 401) configured to control the heat exchanger unit (1, 2, 400, 300), the heat exchanger unit (1, 2, 400, 300) comprising an air-blowing fan (7f, 5f, 435), and a refrigerant detection unit (98, 99, 440) configured to detect a concentration of leaked refrigerant and to output a detection signal to the controller (30, 301, 401), characterized in that an air-blowing fan (7f, 5f, 435), and a refrigerant detection unit (98, 99, 440) configured to detect a concentration of leaked refrigerant and to output a detection signal to the controller (30, 301, 401), characterized in that the controller (30, 301, 401) is configured to operate the air-blowing fan (7f, 5f, 435) when detecting leakage of the refrigerant, and to stop the air-blowing fan (7f, 5f, 435) triggered by becoming negative from positive of a temporal change of the concentration of the leaked refrigerant.
An imaging system comprising: a laser module for outputting a laser pulse; an optical delay module configured to split a laser pulse received from the laser module into a plurality of sub-pulses including a first sub-pulse and a second sub-pulse and to introduce a time delay between the first sub-pulse and the second sub-pulse, a spectral dispersion element configured to spatially disperse the light pulses into their spectral components; a telescope for delivering the sub-pulses from the optical delay module to a target volume, the telescope comprising an objective lens, and wherein the frequency components of the first sub-pulse and the second sub-pulse are geometrically dispersed everywhere but at the focus of the objective lens; and a photodetector configured to collect photons generated within the target volume in response to excitation of the target volume by the first and second sub-pulses. a laser module for outputting a laser pulse; an optical delay module configured to split a laser pulse received from the laser module into a plurality of sub-pulses including a first sub-pulse and a second sub-pulse and to introduce a time delay between the first sub-pulse and the second sub-pulse, a spectral dispersion element configured to spatially disperse the light pulses into their spectral components; a telescope for delivering the sub-pulses from the optical delay module to a target volume, the telescope comprising an objective lens, and wherein the frequency components of the first sub-pulse and the second sub-pulse are geometrically dispersed everywhere but at the focus of the objective lens; and a photodetector configured to collect photons generated within the target volume in response to excitation of the target volume by the first and second sub-pulses.
Coupling and/or damping element of a vehicle, in particular a rail vehicle, having at least two components (2, 3) which are movable relative to one another along at least one movement direction, and having a monitoring system with at least one transmitter and at least one sensor (5, 5') which are configured and arranged to detect the movement of the two components (2, 3) along the at least one movement direction, wherein the transmitter and the sensor (5, 5') are connected in a signal-transmitting manner, so that the sensor (5, 5') detects a signal generated by the transmitter and the at least one transmitter and the at least one sensor (5, 5') are positioned at a constant distance from one another and a signal transmission-modifying element is provided, which is movable with one of the components (2, 3) or as a function of the relative movement of the components (2, 3) in order to change the transmitted signal as a function of the position of the element or the transmitter and the sensor are formed by at least one coil which generates a signal in the form of an electromagnetic field, and a signal transmission-modifying element is provided, which is movable with one of the components (2, 3) or as a function of the relative movement of the components (2, 3) in order to change an inductance of the coil as a function of the position of the element by changing the electromagnetic field, characterized in that the two components (2, 3) are in telescopic engagement with one another in the movement direction and are secured against rotation relative to one another in the circumferential direction with respect to the movement direction by means of a rotation-prevention means, wherein the transmitter and the sensor (5, 5') are arranged in the rotation-prevention means. the transmitter and the sensor are formed by at least one coil which generates a signal in the form of an electromagnetic field, and a signal transmission-modifying element is provided, which is movable with one of the components (2, 3) or as a function of the relative movement of the components (2, 3) in order to change an inductance of the coil as a function of the position of the element by changing the electromagnetic field, characterized in that the two components (2, 3) are in telescopic engagement with one another in the movement direction and are secured against rotation relative to one another in the circumferential direction with respect to the movement direction by means of a rotation-prevention means, wherein the transmitter and the sensor (5, 5') are arranged in the rotation-prevention means.
A gel preparation which is thixotropic and in which an included protein is protected from a physical or chemical stress, is inhibited from aggregation, and is thereby let exist stably, wherein the gel preparation contains a protein, a diluent, one or more kinds of cyclic molecules, and one or more polyethylene glycols contained in the gel preparation in a concentration of 0.5 mg/mL to 200 mg/mL, the protein is contained in the gel preparation in a concentration of 2.5 mg/mL to 400 mg/mL, and a gel concentration represented by the following formula is 7 wt/vol% to 30 wt/vol%: [Mathematical formula 1] Gel concentration w t / v o l % = S o l i d s w e i g h t o f g e l g V o l u m e o f g e l m L × 100 Solids weight of gel (g): Weight of precipitate (solids) obtained by centrifugation of gel (g), wherein the cyclic molecule is cyclodextrin or a derivative thereof.
A sequence-based signal processing method, comprising: determining a sequence { x n} comprising N elements, wherein N is equal to 18, x n is an element in the sequence { x n}, the sequence { x n} satisfies a preset condition, the preset condition is as follows: x n = y ( n + M)mod N, a value of n ranges from 0 to N-1, M ∈ {0,1,2,..., N - 1}, and y n = A · b n · j n mod 2, wherein A is a non-zero complex number, the element b n = u · (1 - 2 · s n), u is a non-zero complex number, j = − 1, and a set of sequences { s n} consisting of the element s n comprises at least one sequence in a first sequence set; generating a first DFT-s-OFDM signal based on the sequence { x n}; and sending the first signal, characterized in that sequences in the first sequence set comprise: {1, 0, 1, 1, 0, 1, 1, 1, 0, 0, 0, 0, 0, 1, 1, 1, 0, 0}, {1, 1, 0, 0, 0, 1, 0, 0, 1, 0, 1, 1, 0, 0, 0, 1, 1, 1}, {1, 0, 1, 1, 0, 0, 1, 0, 1, 0, 1, 0, 0, 1, 0, 0, 0, 1}, {1, 1, 1, 1, 1, 1, 0, 0, 0, 0, 0, 0, 0, 1, 1, 0, 0, 0}. determining a sequence { x n} comprising N elements, wherein N is equal to 18, x n is an element in the sequence { x n}, the sequence { x n} satisfies a preset condition, the preset condition is as follows: x n = y ( n + M)mod N, a value of n ranges from 0 to N-1, M ∈ {0,1,2,..., N - 1}, and y n = A · b n · j n mod 2, wherein A is a non-zero complex number, the element b n = u · (1 - 2 · s n), u is a non-zero complex number, j = − 1, and a set of sequences { s n} consisting of the element s n comprises at least one sequence in a first sequence set; generating a first DFT-s-OFDM signal based on the sequence { x n}; and sending the first signal, characterized in that sequences in the first sequence set comprise: {1, 0, 1, 1, 0, 1, 1, 1, 0, 0, 0, 0, 0, 1, 1, 1, 0, 0}, {1, 1, 0, 0, 0, 1, 0, 0, 1, 0, 1, 1, 0, 0, 0, 1, 1, 1}, {1, 0, 1, 1, 0, 0, 1, 0, 1, 0, 1, 0, 0, 1, 0, 0, 0, 1}, {1, 1, 1, 1, 1, 1, 0, 0, 0, 0, 0, 0, 0, 1, 1, 0, 0, 0}. {1, 0, 1, 1, 0, 1, 1, 1, 0, 0, 0, 0, 0, 1, 1, 1, 0, 0}, {1, 1, 0, 0, 0, 1, 0, 0, 1, 0, 1, 1, 0, 0, 0, 1, 1, 1}, {1, 0, 1, 1, 0, 0, 1, 0, 1, 0, 1, 0, 0, 1, 0, 0, 0, 1}, {1, 1, 1, 1, 1, 1, 0, 0, 0, 0, 0, 0, 0, 1, 1, 0, 0, 0}.
Method for operating an internal combustion engine having an electronic control device which acquires information about the status of the internal combustion engine by means of sensors and performs open-loop and closed-loop control of the internal combustion engine, wherein a software which is stored in the control device calculates the maximum quantity of fuel from the information while maintaining the maximum permissible power in order to protect internal combustion engine components and in order to comply with regulations around exhaust gas emissions, as a result of which the maximum instantaneous power and the maximum instantaneous torque of the internal combustion engine are determined, wherein the output signal of the sensor is transmitted in encrypted form, or additionally the same output signals are transmitted in unencrypted form, to the control device, but the corresponding encrypted and unencrypted output signals are subsequently compared with one another, and when a difference which is greater than a predetermined limiting value occurs a fault entry is written into a corresponding memory and/or a reduction in power of the internal combustion engine is set and/or deactivation of the internal combustion engine is brought about.
A method for determining a location of a user equipment in a wireless system, the method comprising: buffering a plurality of in-phase and quadrature (I/Q) samples generated from signals provided by receive channels associated with two or more antennas; receiving reference signal parameters that describe an Othogonal Frequency-Division Multiplexing (OFDM) type reference signal within the signals; when the reference signal parameters have a signal-to-noise ratio, SNR, that exceeds an SNR threshold, indicating ranging signal detection is reliable and identifying the reference signal within the signals from each receive channel among the receive channels; wherein the step of identifying the reference signal includes peak detecting a matched filter output associated with each receive channel to identify a particular I/Q sample among the plurality of I/Q samples that is closest to a start time of the reference signal. using a baseband of the identified reference signal from each receive channel, to provide a sub-sample estimation of Direct Line of Site, DLOS, flight time to each of the two or more antennas, wherein the DLOS flight time is used to provide an unambiguous estimate of the Time Difference of Arrival, TDOA, between the two or more antennas; determining an unambiguous angle of arrival between a baseline of the two or more antennas and incident energy from the UE to the two or more antennas by determining a phase difference of arrival from the TDOA estimates; and utilizing the angle of arrival to calculate the location of the UE. buffering a plurality of in-phase and quadrature (I/Q) samples generated from signals provided by receive channels associated with two or more antennas; receiving reference signal parameters that describe an Othogonal Frequency-Division Multiplexing (OFDM) type reference signal within the signals; when the reference signal parameters have a signal-to-noise ratio, SNR, that exceeds an SNR threshold, indicating ranging signal detection is reliable and identifying the reference signal within the signals from each receive channel among the receive channels; wherein the step of identifying the reference signal includes peak detecting a matched filter output associated with each receive channel to identify a particular I/Q sample among the plurality of I/Q samples that is closest to a start time of the reference signal. using a baseband of the identified reference signal from each receive channel, to provide a sub-sample estimation of Direct Line of Site, DLOS, flight time to each of the two or more antennas, wherein the DLOS flight time is used to provide an unambiguous estimate of the Time Difference of Arrival, TDOA, between the two or more antennas; determining an unambiguous angle of arrival between a baseline of the two or more antennas and incident energy from the UE to the two or more antennas by determining a phase difference of arrival from the TDOA estimates; and utilizing the angle of arrival to calculate the location of the UE.
Catalytic reactor for chemical reactions, comprising an outlet collector for collecting and conveying of fluid from the chemical reactions to further processing, wherein said outlet collector comprises an aperture for receiving an inspection port for maintenance and cleaning of the outlet collector, said inspection port being mounted in said aperture, and wherein the outlet collector comprises compression ring surrounding the aperture, said compression ring is adapted to contact the inspection port when the inspection port is mounted in the outlet collector, the compression ring is constructed to provide a tight fit with the inspection port when the catalytic reactor is in operation and to provide a loose fit when the catalytic reactor is not in operation and wherein a gap between the compression ring and the inspection port is in the range of 0,5 - 5 mm, preferably in the range of 1 - 2,5 mm when the reactor is not in operation.
A method of anchoring a connector in a first object, wherein the first object is a lightweight building element having a first outer building layer (1.1) and an interlining layer (1.3), the first outer building layer (1.1) being thinner and more dense than the interlining layer (1.3), wherein the connector comprises thermoplastic material in a solid state, the method comprising the steps of: - Bringing a distally facing surface portion (3.4) of the connector into contact with an attachment location of the first outer building layer (1.1); - Simultaneously coupling a first pressing force and mechanical vibration energy into the connector until the first outer building layer (1.1) is pierced by the connector at the attachment location or in a vicinity thereof; - Applying a second pressing force to the connector and transferring energy to the connector, and thereby moving the connector into a distal direction relative to the first object until a flow portion (3.8) of the thermoplastic material has liquefied and flowed to interpenetrate structures of the interlining layer (1.3); - Stopping the energy transfer and allowing the flow portion (3.8) to re-solidify. - Bringing a distally facing surface portion (3.4) of the connector into contact with an attachment location of the first outer building layer (1.1); - Simultaneously coupling a first pressing force and mechanical vibration energy into the connector until the first outer building layer (1.1) is pierced by the connector at the attachment location or in a vicinity thereof; - Applying a second pressing force to the connector and transferring energy to the connector, and thereby moving the connector into a distal direction relative to the first object until a flow portion (3.8) of the thermoplastic material has liquefied and flowed to interpenetrate structures of the interlining layer (1.3); - Stopping the energy transfer and allowing the flow portion (3.8) to re-solidify.