mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a rotation angle of a swinging head of a fan, the method comprising: driving, by a brushless motor in the fan, the swinging head to rotate, wherein an infrared photoelectric rotary encoder is sleeved on a rotation shaft of the swinging head and the infrared photoelectric rotary encoder comprises a code channel A and a code channel B; acquiring by a microcontroller, a pulse signal outputted by an encoder read head according to a change of a scale of the infrared photoelectric rotary encoder, wherein the encoder read head comprises a first port corresponding to the code channel A and a second port corresponding to the code channel B, determining a scale position where one pulse signal from the first port and one pulse signal from the second port are simultaneously received by the microcontroller as a central position of the code channel A and the code channel B, and calculating a number of pulse signals outputted by the first port from the central position to a maximum rotation angle position, wherein the maximum rotation angle position is a scale position where two or more pulse signals from the first port and two or more pulse signals from the second port are simultaneously received by the microcontroller; taking a product of the number of pulse signals outputted by the first port and a rotation angle of the swinging head corresponding to one pulse signal as a current rotation angle of the swinging head; and controlling the swinging head to rotate according to the current rotation angle of the swinging head and a preset target rotation angle by using the brushless motor. driving, by a brushless motor in the fan, the swinging head to rotate, wherein an infrared photoelectric rotary encoder is sleeved on a rotation shaft of the swinging head and the infrared photoelectric rotary encoder comprises a code channel A and a code channel B; acquiring by a microcontroller, a pulse signal outputted by an encoder read head according to a change of a scale of the infrared photoelectric rotary encoder, wherein the encoder read head comprises a first port corresponding to the code channel A and a second port corresponding to the code channel B, determining a scale position where one pulse signal from the first port and one pulse signal from the second port are simultaneously received by the microcontroller as a central position of the code channel A and the code channel B, and calculating a number of pulse signals outputted by the first port from the central position to a maximum rotation angle position, wherein the maximum rotation angle position is a scale position where two or more pulse signals from the first port and two or more pulse signals from the second port are simultaneously received by the microcontroller; taking a product of the number of pulse signals outputted by the first port and a rotation angle of the swinging head corresponding to one pulse signal as a current rotation angle of the swinging head; and controlling the swinging head to rotate according to the current rotation angle of the swinging head and a preset target rotation angle by using the brushless motor.
Portable power tool having a tool receptacle which has a polygonal inner receptacle and a polygonal outer receptacle, wherein the polygonal inner receptacle is configured to be connected to a first application tool which is lockable in the polygonal inner receptacle by way of a locking apparatus assigned to the tool receptacle, and the polygonal outer receptacle is configured to be connected to a second application tool which has an internal polygonal coupling that is pushable onto the polygonal outer receptacle, wherein the locking apparatus has an actuating element which, in order to unlock the first application tool, is rotatable from a predetermined locking position about a longitudinal axis of the tool receptacle into a predetermined unlocking position, characterized in that provision is made of a spring-loaded restoring device (325, 326, 328, 428; 1025; 1325) which is configured to urge the actuating element to rotate into the predetermined locking position.
An in vitro physiological system for measuring contractile force and electrical properties of a cardiac cell culture, the system comprising: a microelectrode array; a cell culture medium; characterised by one or more piezoelectric or piezoresistive cantilevers; and a plurality of cardiac myocytes patterned on the microelectrode array and the one or more cantilevers. a microelectrode array; a cell culture medium; characterised by one or more piezoelectric or piezoresistive cantilevers; and a plurality of cardiac myocytes patterned on the microelectrode array and the one or more cantilevers.
A vane assembly (110;110') providing a section of an annular duct of a gas turbine engine for directing a fluid flow therethrough, the assembly comprising inner and outer duct walls (116,114), a plurality of struts or strut fairings and aerodynamic vanes, characterised by further comprising aerodynamic deflectors each extending radially between the inner and outer duct walls (116,114), each of the struts or strut fairings having a circumferential width dimension greater than a circumferential width dimension of the respective vanes, leading edges of the deflectors positioned upstream of leading edges of the vanes and downstream of leading edge of the struts or strut fairings with respect to the fluid flow through the duct, a said deflector being positioned circumferentially between at least one said strut or strut fairing and an adjacent vane.
A sliding bearing for an internal combustion engine having a plastics polymer-based composite layer on a substrate, the composite layer comprising: a matrix of plastics polymer-based material having distributed throughout the matrix; 0.1 to 5 %vol carbon nanostructures; and incidental impurities; characterized in that, the carbon nanostructures are functionalised with an acid side chain, acyl side chain, amine/amide side chain, a fluorinated side chain or an oxidised side chain; and the matrix of plastics polymer material is a polyimide/amide resin. a matrix of plastics polymer-based material having distributed throughout the matrix; 0.1 to 5 %vol carbon nanostructures; and incidental impurities;
A method of preparing a physiologically active polypeptide conjugate, comprising: 1) selectively precipitating from a reaction mixture a physiologically active polypeptide unconjugated to a non-peptidyl polymer using an organic solvent, said reaction conjugating the non-peptidyl polymer to an amino acid residue of the physiologically active polypeptide; and 2) reacting the physiologically active polypeptide recovered from the precipitate with the non-peptidyl polymer under the conjugation reaction of step 1), wherein the non-peptidyl polymer is selected from the group consisting of polyethylene glycol, polypropylene glycol, an ethylene glycol-propylene glycol copolymer, polyoxyethylated polyol, polyvinyl alcohol, polyvinyl ethyl ether, and a combination thereof; wherein the non-peptidyl polymer has a molecular weight from 0.5 kDa to 20 kDa; wherein the physiologically active polypeptide is an exendin derivative, insulin, or a combination thereof, wherein the exendin derivative is selected from the group consisting of des-amino-histidyl -exendin-4, beta-hydroxy-imidazo-propionyl -exendin-4, imidazo-acetyl -exendin-4, and dimethyl-histidyl -exendin-4; and wherein the organic solvent is isopropanol, ethanol, 1-propanol, 1-butanol, acetone, acetonitrile, or a combination thereof. 1) selectively precipitating from a reaction mixture a physiologically active polypeptide unconjugated to a non-peptidyl polymer using an organic solvent, said reaction conjugating the non-peptidyl polymer to an amino acid residue of the physiologically active polypeptide; and 2) reacting the physiologically active polypeptide recovered from the precipitate with the non-peptidyl polymer under the conjugation reaction of step 1), wherein the non-peptidyl polymer is selected from the group consisting of polyethylene glycol, polypropylene glycol, an ethylene glycol-propylene glycol copolymer, polyoxyethylated polyol, polyvinyl alcohol, polyvinyl ethyl ether, and a combination thereof; wherein the non-peptidyl polymer has a molecular weight from 0.5 kDa to 20 kDa; wherein the physiologically active polypeptide is an exendin derivative, insulin, or a combination thereof, wherein the exendin derivative is selected from the group consisting of des-amino-histidyl -exendin-4, beta-hydroxy-imidazo-propionyl -exendin-4, imidazo-acetyl -exendin-4, and dimethyl-histidyl -exendin-4; and wherein the organic solvent is isopropanol, ethanol, 1-propanol, 1-butanol, acetone, acetonitrile, or a combination thereof.
A sampling device for surface sampling, the sampling device comprising: a sampling head configured to support and couple with a sampling medium configured for surface sampling; an actuator configured to releasably couple with the sampling head and impart powered movement of the sampling head, thereby moving the sampling medium when attached to the sampling head during sampling; and a sample container configured to contain the sampling medium while attached to the sampling head. a sampling head configured to support and couple with a sampling medium configured for surface sampling; an actuator configured to releasably couple with the sampling head and impart powered movement of the sampling head, thereby moving the sampling medium when attached to the sampling head during sampling; and a sample container configured to contain the sampling medium while attached to the sampling head.
DNA in which one of a nucleotide sequence encoding one coding derivative of the calmodulin-binding sequence (ckkap sequence) of calcium/calmodulin-dependent protein kinase kinase and a nucleotide sequence encoding a calcium-binding sequence (CaM sequence) of calmodulin is linked to a 5' end of a nucleotide sequence encoding a fluorescent protein, and the other nucleotide sequence is linked to a 3' end of the nucleotide sequence encoding the fluorescent protein.
Covering part (3; 30; 300) for opening and closing a casing for a current-distributor unit, in particular a door or a window for a current-distributor unit, having a wall which forms a cover wall and, on at least two sides of the cover wall, in each case one stiffening element (52, 53, 54, 55) for the cover wall, wherein each of the stiffening elements (52, 53, 54, 55) is shaped by multiple bending of planar parts (520, 530, 540, 550) of the wall on in each case one of the at least two sides of the cover wall, wherein in the case of each of the stiffening elements (52, 53, 54, 55) in each case one hollow section (152, 153, 154, 155) and one connection leg (252, 253, 254, 255) that adjoins the hollow section (152, 153, 154, 155) and runs parallel with the cover wall is formed by way of the bent planar parts (520, 530, 540, 550), wherein in each case the connection leg (252, 253, 254, 255) and the cover wall, while forming an overlap, are connected by way of a materially integral and/or force-fitting connection such that the hollow section (152, 153, 154, 155) is closed on the circumference, characterized in that in the case of each of the stiffening elements (52, 53, 54, 55) by way of the bent planar parts (520, 530, 540, 550), in addition to the hollow section (152, 153, 154, 155) and to the connection leg (252, 253, 254, 255), a fastening leg (352, 353, 354, 355) that adjoins the connection leg (252, 253, 254, 255) and runs obliquely to the cover wall at an angle (α) is formed, wherein the fastening legs (352, 353, 354, 355) of the at least two stiffening elements (52, 53, 54, 55) are interconnected by means of at least one transverse connection (6; 8; 9, 10).
Device for monitoring and influencing the sleep of a person, with at least one sensor for the detection of position signals indicating the position of the person and/or with a sensor for the detection of intracorporally-generated bioacoustic signals, with a belt system, which is configured in such a way as to arrange the sensor at or close to the person with a monitor unit which is configured in such a way as to assess or to process the detected signal, with at least one stimulus generator which can be activated by the monitor unit, by means of which, on recognition of a predeterminable position of the person and/or on recognition of a predeterminable sound pattern by the monitor unit, a stimulus can be induced for the person, characterised in that the stimulus generator comprises a drum which is electrically controllable by the monitor unit with an oscillating diaphragm and with a hammer allocated to the oscillating diaphragm, which is configured in such a way that sound waves in form of an audible sound are emitted onto the person.
A handrail assembly comprising a tubular member that forms a resting surface and is applied to a support means; said tubular member having dissipation means (3, 4) adapted to increase the surface for heat exchange between said tubular member and the surrounding air; said dissipation means comprising finned members (3, 4); said assembly being characterized in that said tubular member comprises one or more air intakes arranged on the lower part of said tubular member; said air intakes being configured so as to generate an air circulation within said tubular member.
A method for adjusting a transmission power of a terminal in a digital mobile radio relay system, comprising: receiving an idle frame transmitted by a repeater transceiver, wherein information of a transmission power of the repeater transceiver is carried in the idle frame; obtaining the transmission power of the repeater transceiver from the information carried in the idle frame; transmitting data in a preset transmission time slot, after entering a transmitting state; receiving a signal from the repeater transceiver in a reverse channel and calculating a strength value of the received signal; determining a transmission power of a next frame based on the transmission power of the repeater transceiver and the strength value of the received signal, in the case that data is to be continuously transmitted; and transmitting the next frame in a preset transmission time slot by using the determined transmission power of the next frame. receiving an idle frame transmitted by a repeater transceiver, wherein information of a transmission power of the repeater transceiver is carried in the idle frame; obtaining the transmission power of the repeater transceiver from the information carried in the idle frame; transmitting data in a preset transmission time slot, after entering a transmitting state; receiving a signal from the repeater transceiver in a reverse channel and calculating a strength value of the received signal; determining a transmission power of a next frame based on the transmission power of the repeater transceiver and the strength value of the received signal, in the case that data is to be continuously transmitted; and transmitting the next frame in a preset transmission time slot by using the determined transmission power of the next frame.
An apparatus, comprising: a baseband processor configured to: receive a first set of pilot symbols collectively mapped to a two-subcarrier by two-Orthogonal Frequency Division Multiplexing, OFDM, symbol contiguous set of time-frequency resources of a sub-band of a transmission time interval, TTI, wherein the sub-band of a TTI consists of twelve contiguous sub-carriers across a plurality of successive OFDM symbols, wherein at least the first OFDM symbol of first TTI includes control information; receive one or more additional two-subcarriers by two-OFDM symbols sets of pilot symbols in the sub-band of the TTI, wherein the one or more additional sets are received at corresponding one or more of scattered locations according to a pre-defined time-frequency pattern, wherein the pre-defined time-frequency pattern comprises set locations of two-subcarriers by two-OFDM symbols that are on non-adjacent subcarriers and non-adjacent OFDM symbols to other sets; receive data symbols in the sub-band of the transmission time interval; and process the first set and the one or more additional set of pilot symbols as part of data symbol reception. receive a first set of pilot symbols collectively mapped to a two-subcarrier by two-Orthogonal Frequency Division Multiplexing, OFDM, symbol contiguous set of time-frequency resources of a sub-band of a transmission time interval, TTI, wherein the sub-band of a TTI consists of twelve contiguous sub-carriers across a plurality of successive OFDM symbols, wherein at least the first OFDM symbol of first TTI includes control information; receive one or more additional two-subcarriers by two-OFDM symbols sets of pilot symbols in the sub-band of the TTI, wherein the one or more additional sets are received at corresponding one or more of scattered locations according to a pre-defined time-frequency pattern, wherein the pre-defined time-frequency pattern comprises set locations of two-subcarriers by two-OFDM symbols that are on non-adjacent subcarriers and non-adjacent OFDM symbols to other sets; receive data symbols in the sub-band of the transmission time interval; and process the first set and the one or more additional set of pilot symbols as part of data symbol reception.
A method for arranging a plurality of granular particles in each of a plurality of arrangement areas which are partitioned from one another in a predetermined pattern, the method comprising the steps of: carrying an air-permeable carrier web along a predetermined carrying path while holding a first surface of the carrier web on a carrying surface of a carrying drum; dispensing the granular particles onto a second surface, opposite to the first surface, of the carrier web being carried; drawing a first air from a plurality of suction holes formed in the carrying surface through the carrier web, thereby holding some of the plurality of granular particles on each suction area on the second surface of the carrier web corresponding to one of the suction holes; and giving at least a part of the first air a flow component flowing in a direction along the second surface of the carrier web by means of an airflow deflector curved in conformity to the carrying surface of the carrying drum, arranged close to and parallel to the carrying surface, and opposing the second surface of the carrier web, thereby moving some other ones of the plurality of granular particles on a non-suction area of the carrier web between one of the plurality of suction holes and another toward at least one of the suction areas, thus arranging the granular particles in each of the arrangement areas in the predetermined pattern on the carrier web. carrying an air-permeable carrier web along a predetermined carrying path while holding a first surface of the carrier web on a carrying surface of a carrying drum; dispensing the granular particles onto a second surface, opposite to the first surface, of the carrier web being carried; drawing a first air from a plurality of suction holes formed in the carrying surface through the carrier web, thereby holding some of the plurality of granular particles on each suction area on the second surface of the carrier web corresponding to one of the suction holes; and giving at least a part of the first air a flow component flowing in a direction along the second surface of the carrier web by means of an airflow deflector curved in conformity to the carrying surface of the carrying drum, arranged close to and parallel to the carrying surface, and opposing the second surface of the carrier web, thereby moving some other ones of the plurality of granular particles on a non-suction area of the carrier web between one of the plurality of suction holes and another toward at least one of the suction areas, thus arranging the granular particles in each of the arrangement areas in the predetermined pattern on the carrier web.
Diet having an average daily protein content of 6 to 12 %, based on total calories of the total daily food intake of a woman during pregnancy with a human subject, for use in reducing and/or preventing detrimental effects or symptoms associated with a Western-style diet in the human subject or for providing protection against the health challenge of a Western-style diet in the human subject, wherein the diet is administered to the pregnant woman, and wherein the detrimental effects or symptoms or the health challenge include at least one selected from the group consisting of visceral adiposity, increased total body weight, increased visceral adipose tissue weight, increased peri-ovarian adipose tissue weight.
A fastener (100, 400) for coupling two panel structures (200a, 200b, 202b, 500a, 500b), comprising: a base member (106, 406), having a proximal end portion and a distal end portion extending along a longitudinal axis; a first member (102, 402), provided on said base member (106, 406) towards said proximal end portion, said first member (102, 402) comprising a through bore having a first central axis that is parallel to said longitudinal axis; a second member (108, 408), provided on said base member (106, 406) towards said distal end portion and spaced apart from said first member (102, 402) so as to form a receiving portion (130, 430) configured to receive at least one panel structure (200a, 500a), comprising an aperture (114, 414) defining an internal surface and having a second central axis that is coaxially aligned with said first central axis, said internal surface comprising at least one stop member (122a, 122b, 422a, 422b) protruding radially inwardly from said internal surface, and a nut member (124, 424), coaxially aligned within and frangibly connected to said internal surface of said aperture (114, 414), comprising at least one block member (126a, 126b, 426a, 426b) protruding radially outward from an outer surface of said nut member (124, 424) and configured to stoppingly engage with said at least one stop member (122a, 122b, 422a, 422b), and wherein, during use, said nut member (124, 424) is configured to move from a first position, where said nut member (124, 424) is frangibly connected to said internal surface, to a second position, where said at least one block member (126a, 126b, 426a, 426b) is abuttingly engaged with said at last one stop member (122a, 122b, 422a, 422b) so as to allow axial movement of said nut member (124, 424) within said aperture (114, 414) of said second member (108, 408). a base member (106, 406), having a proximal end portion and a distal end portion extending along a longitudinal axis; a first member (102, 402), provided on said base member (106, 406) towards said proximal end portion, said first member (102, 402) comprising a through bore having a first central axis that is parallel to said longitudinal axis; a second member (108, 408), provided on said base member (106, 406) towards said distal end portion and spaced apart from said first member (102, 402) so as to form a receiving portion (130, 430) configured to receive at least one panel structure (200a, 500a), comprising an aperture (114, 414) defining an internal surface and having a second central axis that is coaxially aligned with said first central axis, said internal surface comprising at least one stop member (122a, 122b, 422a, 422b) protruding radially inwardly from said internal surface, and a nut member (124, 424), coaxially aligned within and frangibly connected to said internal surface of said aperture (114, 414), comprising at least one block member (126a, 126b, 426a, 426b) protruding radially outward from an outer surface of said nut member (124, 424) and configured to stoppingly engage with said at least one stop member (122a, 122b, 422a, 422b), and