mhurhangee/ep-ind-claims huggingface dataset:
A chair comprising: a base; a seat plate supported above said base; a seat pan slidably mounted to said seat plate so as to be slidable in the longitudinal direction; longitudinally operating means for sliding said seat pan in the longitudinal direction with respect to said seat plate, said seat pan comprising first receiving means for receiving said longitudinally operating means; and locking means for locking said seat pan in a fixed longitudinal position relative to said seat plate,; said locking means comprising transversely movable engaging means for engaging said seat plate, said transversely movable engaging means being movable by said longitudinally operating means,, wherein said seat plate comprises a plurality of notches, said first receiving means of said seat pan comprising at least one aperture, said transversely movable engaging means being movable between an extended position extending through said at least one aperture to engage at least one of said plurality of notches, and a retracted position being retracted from said at least one aperture so as not to engage said at least one of said plurality of notches. a base; a seat plate supported above said base; a seat pan slidably mounted to said seat plate so as to be slidable in the longitudinal direction; longitudinally operating means for sliding said seat pan in the longitudinal direction with respect to said seat plate, said seat pan comprising first receiving means for receiving said longitudinally operating means; and locking means for locking said seat pan in a fixed longitudinal position relative to said seat plate,; said locking means comprising transversely movable engaging means for engaging said seat plate, said transversely movable engaging means being movable by said longitudinally operating means,, wherein said seat plate comprises a plurality of notches, said first receiving means of said seat pan comprising at least one aperture, said transversely movable engaging means being movable between an extended position extending through said at least one aperture to engage at least one of said plurality of notches, and a retracted position being retracted from said at least one aperture so as not to engage said at least one of said plurality of notches.
Adsorption cell suitable for a thermal wave operated adsorption compressor comprising: - an elongated solid adsorption material, arranged in an inner wall; - an elongated heat transfer fluid channel coaxially arranged around said adsorption material between said inner wall and an outer wall, which HTF channel is in direct heat transferring contact with the outside surface of the solid adsorption material, wherein the characteristic dimension r ( e.g. the radius) and the length L of said adsorption material are chosen such that L / r > 10, more preferably larger than 15, most preferably larger than 20; wherein the characteristic dimension r is smaller than 1 cm; and wherein said HTF channel has a characteristic dimension d HTF of less than 1 mm. - an elongated solid adsorption material, arranged in an inner wall; - an elongated heat transfer fluid channel coaxially arranged around said adsorption material between said inner wall and an outer wall, which HTF channel is in direct heat transferring contact with the outside surface of the solid adsorption material,
A method for monitoring the reaction time of a safety function provided by a safety system, wherein the safety system comprises at least a first and a second subsystem module (110, 210), comprising the steps of: - generating functionally safe data in the first subsystem module, wherein the first subsystem module is designed as an input module of an automation system to which a sensor is connected, and wherein generating the functionally safe data in the first subsystem module comprises acquiring a sensor signal by means of the sensor and processing the acquired sensor signal to form the functionally safe data, - generating a time stamp in the first subsystem module associated with the functionally safe data, the time stamp indicating the time at which the sensor signal was acquired, - transmitting the time stamp along with the generated functionally safe data from the first subsystem module to the second subsystem module, - determining, by the second subsystem module, a reaction time of the safety function depending on the received time stamp, - comparing, in the second subsystem module, the determined reaction time with a comparison value, and - further processing the functionally safe data to execute the safety function whose reaction time is monitored, and/or triggering a predetermined safety reaction depending on the comparison result, characterized in that the second subsystem module is designed as an output module of an automation system to which an actuator is connected, and wherein an actuator parameter is stored in the second subsystem module which specifies a reaction time of the at least one actuator connected to the second subsystem module, and wherein the second subsystem module determines the reaction time of the safety function depending on the actuator parameter. - generating functionally safe data in the first subsystem module, wherein the first subsystem module is designed as an input module of an automation system to which a sensor is connected, and wherein generating the functionally safe data in the first subsystem module comprises acquiring a sensor signal by means of the sensor and processing the acquired sensor signal to form the functionally safe data, - generating a time stamp in the first subsystem module associated with the functionally safe data, the time stamp indicating the time at which the sensor signal was acquired, - transmitting the time stamp along with the generated functionally safe data from the first subsystem module to the second subsystem module, - determining, by the second subsystem module, a reaction time of the safety function depending on the received time stamp, - comparing, in the second subsystem module, the determined reaction time with a comparison value, and - further processing the functionally safe data to execute the safety function whose reaction time is monitored, and/or triggering a predetermined safety reaction depending on the comparison result, characterized in that
Composition comprising non-replicating probiotic micro-organisms for use in the prevention or treatment of gastrointestinal infections in children, characterized in that the non-replicating probiotic microorganisms have been rendered non-replicating by a heat treatment at about 120 to 140°C for about 1-120 seconds.
Method for preventing incorrect regulation of a heat generator by determining a circulating volume flow delivered by a heating circulation pump in a heating system having at least one heat generator, comprising at least the following steps: a) simultaneously recording several times a calculated value of the circulating volume flow determined on the basis of operating parameters of the heating circulation pump and a reference value of the circulating volume flow determined on the basis of the chemical output of the at least one heat generator during operation of the heating system; b) creating a set of points Pn(Xn;Yn), where Xn is a parameter characterising the operating state of the heating circulation pump and Yn corresponds to the difference between the calculated value and the reference value of the circulating volume flow; c) Performing a regression analysis of the set of points Pn and determining a correction function fk; d) Correct the calculated value of the circulating volume flow using the correction function fk. a) simultaneously recording several times a calculated value of the circulating volume flow determined on the basis of operating parameters of the heating circulation pump and a reference value of the circulating volume flow determined on the basis of the chemical output of the at least one heat generator during operation of the heating system; b) creating a set of points Pn(Xn;Yn), where Xn is a parameter characterising the operating state of the heating circulation pump and Yn corresponds to the difference between the calculated value and the reference value of the circulating volume flow; c) Performing a regression analysis of the set of points Pn and determining a correction function fk; d) Correct the calculated value of the circulating volume flow using the correction function fk.
A method for controlling the status of at least one device, the method comprising the steps of: (a) starting a timer; (b) resetting the timer upon detecting the presence of a user; (c) changing the status of at least one device if no motion of the user is detected before the timer reaches a predetermined value; (d) increasing the predetermined value if motion of the user is detected within a predetermined time interval of the change of the status of the at least one device in step (c), said detection in step (d) indicating a false-negative, further comprising the step of (e) automatically decreasing the predetermined value after a predetermined time, characterized in that the predetermined time is counted from the moment of the latest detection of a false negative. (a) starting a timer; (b) resetting the timer upon detecting the presence of a user; (c) changing the status of at least one device if no motion of the user is detected before the timer reaches a predetermined value; (d) increasing the predetermined value if motion of the user is detected within a predetermined time interval of the change of the status of the at least one device in step (c), said detection in step (d) indicating a false-negative, further comprising the step of (e) automatically decreasing the predetermined value after a predetermined time, characterized in that the predetermined time is counted from the moment of the latest detection of a false negative.
A method for processing multi-channel audio signals in a teleconference, the method comprising: separating a plurality of microphones (111-116; 211-226) into groups of microphones, each group of microphones used for one of a plurality of audio channels; receiving microphone signals from the plurality of microphones (111-116; 211-226), each microphone signal assigned to one of the plurality of audio channels; arbitrating the microphone signals from different microphones for each audio channel to develop one or more selected microphone signals; forming an audio signal for each audio channel from the one or more selected microphone signals; and sending the audio signal for each audio channel to a far end teleconference unit. separating a plurality of microphones (111-116; 211-226) into groups of microphones, each group of microphones used for one of a plurality of audio channels; receiving microphone signals from the plurality of microphones (111-116; 211-226), each microphone signal assigned to one of the plurality of audio channels; arbitrating the microphone signals from different microphones for each audio channel to develop one or more selected microphone signals; forming an audio signal for each audio channel from the one or more selected microphone signals; and sending the audio signal for each audio channel to a far end teleconference unit.
A method for measuring displacement of a structure, comprising: providing a first capacitance; providing a second capacitance, wherein the first and second capacitances share a common terminal; and determining a difference of the inverses of the value of the first and second capacitances when the structure is displaced; wherein the first capacitance varies in inverse relation to the displacement of the structure and the second capacitance does not vary in relation to the displacement of the structure. providing a first capacitance; providing a second capacitance, wherein the first and second capacitances share a common terminal; and determining a difference of the inverses of the value of the first and second capacitances when the structure is displaced; wherein the first capacitance varies in inverse relation to the displacement of the structure and the second capacitance does not vary in relation to the displacement of the structure.
Modular device for structural diagnostics of various materials and structures, using thermographic techniques based on multiple excitations including: - a group of thermal excitation (2, 3, 4), operated by a driver board, analogue or digital, - a radiometric thermal camera, with recording capacity of sequences in time, - a capture card, connected with said driver board via software, for acquisition of the downstream signals produced by the group of thermal excitation (2, 3, 4) and checking of the emission levels of the produced waves, - at least one computer and related software for the management and control of the apparatus and for the acquisition of the signal and analysis of data, feedback sensors to allow the control of the emission levels of the waves produced by the thermal group of excitation, - two or more laser pointers, characterized in that said group of thermal excitation (2, 3, 4) is operated through ON / OFF commands and/or square and sine waves and is composed of an ultrasound generator, a microwave generator and an optical generator, adapted to work simultaneously and at least one laser pointer is associated to the microwave generator and the optical generator and at least one is associated to the thermal camera for the identification of the measurement area. - a group of thermal excitation (2, 3, 4), operated by a driver board, analogue or digital, - a radiometric thermal camera, with recording capacity of sequences in time, - a capture card, connected with said driver board via software, for acquisition of the downstream signals produced by the group of thermal excitation (2, 3, 4) and checking of the emission levels of the produced waves, - at least one computer and related software for the management and control of the apparatus and for the acquisition of the signal and analysis of data, feedback sensors to allow the control of the emission levels of the waves produced by the thermal group of excitation, - two or more laser pointers, characterized in that said group of thermal excitation (2, 3, 4) is operated through ON / OFF commands and/or square and sine waves and is composed of an ultrasound generator, a microwave generator and an optical generator, adapted to work simultaneously and at least one laser pointer is associated to the microwave generator and the optical generator and at least one is associated to the thermal camera for the identification of the measurement area.
A system of a pickup unit of a stringed electrical musical instrument, said pickup unit comprising at least one pole piece, and a pickup unit cavity for the pickup unit, the pickup unit cavity comprising: a cavity with an opening, bottom, and at least one side; and at least one aperture in the cavity bottom, characterized in that a depth of the at least one aperture allows for adjustment of the at least one of said at least one pole piece of said pickup unit, wherein said at least one pole piece is an adjustable pole piece. a cavity with an opening, bottom, and at least one side; and at least one aperture in the cavity bottom,
A multiblade blower (1, 101, 201), comprising: a casing having an air inlet; a first impeller arranged in the casing so as to be rotatable; and a second impeller arranged in an internal space of the first impeller so as to be rotatable, the first impeller comprising a centrifugal fan comprising a plurality of first-impeller blades (11, 311) positioned so as to form a cylindrical shape, the second impeller comprising an axial-flow fan comprising a plurality of second-impeller blades (14, 114, 214a, 214b) extending radially from a rotation axis, characterised in that: a stagger angle in a region of each of the second-impeller blades on the outer peripheral side is set to be larger than a stagger angle in a region of each of the second-impeller blades on the inner peripheral side such that a swirling-direction component of a wake in a region on an outer peripheral side in the internal space of the first impeller is smaller than a swirling-direction component of a wake in a region on an inner peripheral side in the internal space. a casing having an air inlet; a first impeller arranged in the casing so as to be rotatable; and a second impeller arranged in an internal space of the first impeller so as to be rotatable, the first impeller comprising a centrifugal fan comprising a plurality of first-impeller blades (11, 311) positioned so as to form a cylindrical shape, the second impeller comprising an axial-flow fan comprising a plurality of second-impeller blades (14, 114, 214a, 214b) extending radially from a rotation axis, characterised in that: a stagger angle in a region of each of the second-impeller blades on the outer peripheral side is set to be larger than a stagger angle in a region of each of the second-impeller blades on the inner peripheral side such that a swirling-direction component of a wake in a region on an outer peripheral side in the internal space of the first impeller is smaller than a swirling-direction component of a wake in a region on an inner peripheral side in the internal space.
A method of wireless communication at a station (105-c), comprising: communicating with a neighboring AP (105-d, 105-e) to negotiate a first set of EDCA parameters, identifying the first set of enhanced distributed channel access, EDCA, parameters for a first access category (315-e, 315-f, 315-g, 315-h, 315-i) based at least in part on a first traffic type and a determination that a multiple user, MU, frame is to be transmitted; and contending to gain access for a transmission opportunity over a shared radio frequency spectrum band to communicate with a plurality of stations (105-c) in a MU mode, wherein the contending is based at least in part on the first set of EDCA parameters. communicating with a neighboring AP (105-d, 105-e) to negotiate a first set of EDCA parameters, identifying the first set of enhanced distributed channel access, EDCA, parameters for a first access category (315-e, 315-f, 315-g, 315-h, 315-i) based at least in part on a first traffic type and a determination that a multiple user, MU, frame is to be transmitted; and contending to gain access for a transmission opportunity over a shared radio frequency spectrum band to communicate with a plurality of stations (105-c) in a MU mode, wherein the contending is based at least in part on the first set of EDCA parameters.
A tray assembly comprising: a tray and a lid, said tray comprising a main plane and being adapted for carrying at least one integrated circuit card, said tray assembly further comprising a locking mechanism adapted for retaining said lid in said retracted position, and an electro-mechanical actuator configured to control said locking mechanism, characterized in that said lid is slidably connected to said tray to allow said lid to move relative to said tray in a direction along an axis of said main plane between a retracted position and an extended position relative to said tray, and said lid is resiliently biased towards said extended position. a tray and a lid, said tray comprising a main plane and being adapted for carrying at least one integrated circuit card, said tray assembly further comprising a locking mechanism adapted for retaining said lid in said retracted position, and an electro-mechanical actuator configured to control said locking mechanism, characterized in that said lid is slidably connected to said tray to allow said lid to move relative to said tray in a direction along an axis of said main plane between a retracted position and an extended position relative to said tray, and said lid is resiliently biased towards said extended position.
A polymer interlayer produced by the process, comprising the steps: forming a first polymer melt, a second polymer melt, and a third polymer melt; and, coextruding said first polymer melt, said second polymer melt, and said third polymer melt to form said interlayer; wherein said second polymer layer is disposed between said first polymer layer and said third polymer layer; wherein said first polymer layer has a tensile break stress that is at least 15 kilograms per square centimeter greater than the tensile break stress of said second polymer layer; wherein said third polymer layer has a tensile break stress that is at least 15 kilograms per square centimeter greater than the tensile break stress of said second polymer layer; wherein the surfaces of said first and third polymer layers opposite said second polymer layer each have an Rz of 20-60 that is imparted by melt fracture during said coextruding and an R SM of less than 800 that is imparted by melt fracture during said coextruding; and wherein R Z and R SM are determined as specified in the description and tensile break stress is determined according to the procedure described in JIS K6771. forming a first polymer melt, a second polymer melt, and a third polymer melt; and, coextruding said first polymer melt, said second polymer melt, and said third polymer melt to form said interlayer; wherein said second polymer layer is disposed between said first polymer layer and said third polymer layer; wherein said first polymer layer has a tensile break stress that is at least 15 kilograms per square centimeter greater than the tensile break stress of said second polymer layer; wherein said third polymer layer has a tensile break stress that is at least 15 kilograms per square centimeter greater than the tensile break stress of said second polymer layer; wherein the surfaces of said first and third polymer layers opposite said second polymer layer each have an Rz of 20-60 that is imparted by melt fracture during said coextruding and an R SM of less than 800 that is imparted by melt fracture during said coextruding; and wherein R Z and R SM are determined as specified in the description and tensile break stress is determined according to the procedure described in JIS K6771.
A metal-organic hybrid structure formed by the coordinate bonding of a compound represented by the following Chemical Formula 1 or a salt thereof with metal ions: in the Chemical Formula 1, R's are each independently -R 1, -NH-CO-R 2, or -NH-R 2, R 1 's are each independently -OH, a C 6-60 aryl, a C 1-10 alkyl, or an amino acid residue, and R 2 's are a C 1-10 alkyl, a C 6-60 aryl, or a C 4-60 heteroaryl containing one of N, O, and S. R's are each independently -R 1, -NH-CO-R 2, or -NH-R 2, R 1 's are each independently -OH, a C 6-60 aryl, a C 1-10 alkyl, or an amino acid residue, and R 2 's are a C 1-10 alkyl, a C 6-60 aryl, or a C 4-60 heteroaryl containing one of N, O, and S.