mhurhangee/ep-ind-claims huggingface dataset:
A magnetic connector module, comprising: a board having a concave section formed at a first side and a planar second side opposite the first side, the concave section having a base surface having formed thereon a plurality of first electrodes (121, 122, 123, 124); a plurality of second electrodes (131, 132, 133, 134) formed at the second side of the board on a rear surface facing away from the base surface; a plurality of holes formed through the concave section and having conductors formed therethrough to electrically connect the first electrodes and the second electrodes; a magnet disposed in the concave section; and a coating layer interposed between the magnet and the first electrodes to provide electrical insulation between the magnet and the first electrodes. a board having a concave section formed at a first side and a planar second side opposite the first side, the concave section having a base surface having formed thereon a plurality of first electrodes (121, 122, 123, 124); a plurality of second electrodes (131, 132, 133, 134) formed at the second side of the board on a rear surface facing away from the base surface; a plurality of holes formed through the concave section and having conductors formed therethrough to electrically connect the first electrodes and the second electrodes; a magnet disposed in the concave section; and a coating layer interposed between the magnet and the first electrodes to provide electrical insulation between the magnet and the first electrodes.
A transmission for a vehicle comprising: - an engine drive shaft configured to be driven by an engine; - a planetary gear unit configured to be driven by power from the engine and to provide power to drive a transmission output shaft; - a hydrostatic drive unit configured to be driven by power from the engine and to drive a primary hydrostatic drive shaft; - an engine clutch configured to be driven by the engine to drive an input sun gear of the planetary gear unit while engaged; and characterized in that the transmission further comprises: - a secondary hydrostatic drive shaft configured to be driven by the primary hydrostatic drive shaft and to drive a ring gear of the planetary gear unit; and - a hydrostatic output clutch configured to be driven by the secondary hydrostatic drive shaft and to provide power to drive an output sun gear of the planetary gear unit while engaged. - an engine drive shaft configured to be driven by an engine; - a planetary gear unit configured to be driven by power from the engine and to provide power to drive a transmission output shaft; - a hydrostatic drive unit configured to be driven by power from the engine and to drive a primary hydrostatic drive shaft; - an engine clutch configured to be driven by the engine to drive an input sun gear of the planetary gear unit while engaged; and characterized in that the transmission further comprises: - a secondary hydrostatic drive shaft configured to be driven by the primary hydrostatic drive shaft and to drive a ring gear of the planetary gear unit; and - a hydrostatic output clutch configured to be driven by the secondary hydrostatic drive shaft and to provide power to drive an output sun gear of the planetary gear unit while engaged.
A liquid pesticide composition, which comprises: a) 5 to 60 % by weight, based on the total weight of the composition, of a pesticide compound of the formula A wherein R 11 and R 12 are each independently hydrogen, halogen, CN, C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 1 -C 4 haloalkyl or C 1 -C 4 haloalkoxy and R 13 is C 1 -C 4 alkoxy, C 1 -C 4 haloalkyl or C 1 -C 4 haloalkoxy, or an agriculturally acceptable salt thereof; b) a solvent selected from water and polyhydric C 2 -C 4 alcohols and mixtures therof, the insecticide compound of the formula A being soluble in the solvent in an amount of not more than 2 g/l at 25°C/1013 mbar; c) one or more surfactants; wherein the compound A is present in the form of particles which are dispersed in the mixture of solvent and surfactant and which have a volume median diameter, as determined by dynamic light scattering, in the range from 50 to 800 nm. a) 5 to 60 % by weight, based on the total weight of the composition, of a pesticide compound of the formula A wherein R 11 and R 12 are each independently hydrogen, halogen, CN, C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 1 -C 4 haloalkyl or C 1 -C 4 haloalkoxy and R 13 is C 1 -C 4 alkoxy, C 1 -C 4 haloalkyl or C 1 -C 4 haloalkoxy, or an agriculturally acceptable salt thereof; b) a solvent selected from water and polyhydric C 2 -C 4 alcohols and mixtures therof, the insecticide compound of the formula A being soluble in the solvent in an amount of not more than 2 g/l at 25°C/1013 mbar; c) one or more surfactants;
Method for operating an electrical domestic appliance, wherein the domestic appliance has an electrical or electronic control system, by means of which a programmable operating cycle can be run, and wherein the domestic appliance has a plurality of buttons or trigger means (1, 3, 4, 5), wherein the method comprises the following steps: a) programming an operating cycle with a defined cycle duration and possibly defined operating parameters; b) switching the domestic appliance into a stand-by mode, in which the domestic appliance can only be started and operated according to the programmed data subject to a deactivation of the programmed operating cycle and a switch-off of the domestic appliance that is possible at any time; c) starting the operating cycle according to the programmed data by actuating a trigger means, characterized in that, to perform the deactivation, a specific button sequence has to be actuated within a specific time. a) programming an operating cycle with a defined cycle duration and possibly defined operating parameters; b) switching the domestic appliance into a stand-by mode, in which the domestic appliance can only be started and operated according to the programmed data subject to a deactivation of the programmed operating cycle and a switch-off of the domestic appliance that is possible at any time; c) starting the operating cycle according to the programmed data by actuating a trigger means, characterized in that, to perform the deactivation, a specific button sequence has to be actuated within a specific time.
A method of operation in a wireless communication device configured for operation in a wireless communication network, the method comprising: receiving (block 402) a resource identifier from a network node (10, 28) in the wireless communication network; using (block 406) the resource identifier to identify a corresponding frequency resource within an allocated bandwidth of the wireless communication device, if the resource identifier was received in a device-specific message; translating the resource identifier and using (block 408) the translated resource identifier to identify the corresponding frequency resource within the allocated bandwidth of the wireless communication device, if the resource identifier was received in a downlink control message transmitted by a base station in the wireless communication network on radio resources within a common search space used for sending downlink control messages to multiple wireless communication devices, wherein translating the resource identifier comprises using mapping information that relates a first frequency resource referencing scheme to a second frequency resource referencing scheme; and transmitting or receiving (block 410) on the corresponding frequency resource. receiving (block 402) a resource identifier from a network node (10, 28) in the wireless communication network; using (block 406) the resource identifier to identify a corresponding frequency resource within an allocated bandwidth of the wireless communication device, if the resource identifier was received in a device-specific message; translating the resource identifier and using (block 408) the translated resource identifier to identify the corresponding frequency resource within the allocated bandwidth of the wireless communication device, if the resource identifier was received in a downlink control message transmitted by a base station in the wireless communication network on radio resources within a common search space used for sending downlink control messages to multiple wireless communication devices, wherein translating the resource identifier comprises using mapping information that relates a first frequency resource referencing scheme to a second frequency resource referencing scheme; and transmitting or receiving (block 410) on the corresponding frequency resource.
An equalization filter structure for filtering an audio signal (S 1) within an audio system, the equalization filter structure comprising a first and a second shelving filter having a fixed first phase response and a fixed second phase response; wherein the first and the second shelving filters are coupled in series and each shelving filter comprises: at least one fourth order low-pass filter having a cut-off frequency (f C1; f C2), a Q factor (Q 1; Q 2) and a first broadband gain (G LP1; GLP2); at least one fourth order high-pass filter having the same cut-off frequency (f C1; f C2) and the same Q factor (Q 1; Q 2) as the low-pass filter and further having a second broadband gain (G HP1; G HP2), the cut-off frequency (f C1, f C2) and the Q factor (Q 1, Q 2) determining the transfer characteristic of the respective shelving filter and thus determining its fixed phase response; the fourth order low-pass filter and the fourth order high-pass filter are connected in parallel, such that both filters (LP4, HP4) receive the same input signal and the corresponding filtered signals are summed to form a respective shelving filter output signal; and wherein each fourth order low-pass filter and high-pass filter is composed of a cascade of two second order low-pass or high-pass filters, respectively, each second order filter having the same cut-off frequency and Q factor to obtain a phase response which remains constant even when adjusting the magnitude response of the equalization filter structure by adjusting the first and the second broadband gain; and wherein the first broadband gain (G LP1; GLP2) is a reciprocal value of the second broadband gain (G HP1; G HP2). at least one fourth order low-pass filter having a cut-off frequency (f C1; f C2), a Q factor (Q 1; Q 2) and a first broadband gain (G LP1; GLP2); at least one fourth order high-pass filter having the same cut-off frequency (f C1; f C2) and the same Q factor (Q 1; Q 2) as the low-pass filter and further having a second broadband gain (G HP1; G HP2), the cut-off frequency (f C1, f C2) and the Q factor (Q 1, Q 2) determining the transfer characteristic of the respective shelving filter and thus determining its fixed phase response; the fourth order low-pass filter and the fourth order high-pass filter are connected in parallel, such that both filters (LP4, HP4) receive the same input signal and the corresponding filtered signals are summed to form a respective shelving filter output signal; and wherein each fourth order low-pass filter and high-pass filter is composed of a cascade of two second order low-pass or high-pass filters, respectively, each second order filter having the same cut-off frequency and Q factor to obtain a phase response which remains constant even when adjusting the magnitude response of the equalization filter structure by adjusting the first and the second broadband gain; and wherein the first broadband gain (G LP1; GLP2) is a reciprocal value of the second broadband gain (G HP1; G HP2).
Method for manufacturing a filter end disk, in particular for a fluid filter of a motor vehicle, wherein a first plastic mold material and a second plastic mold material are injected successively according to a monosandwich method or co-injection method into a mold in such a way that the second plastic mold material is substantially enclosed by the first plastic mold material.
A digital communication system, comprising: a transmitter configured to transmit signals via a communication channel; wherein the transmitter, comprises: a coder configured to receive user bits and output encoded bits at an expanded output encoded bit rate; a mapper configured to map encoded bits to symbols in a modulated symbol constellation; and a modulator configured to generate a modulated signal for transmission via the communication channel using symbols generated by the mapper. wherein the transmitter is characterized in that the symbol constellation is an unequally spaced symbol constellation obtained by optimizing locations and labeling of constellation points to maximize parallel decode capacity at a given signal-to-noise ratio so that the symbol constellation provides a given capacity at a reduced signal-to-noise ratio compared to a signal constellation that maximizes the minimum distance, d min, between the constellation points of the symbol constellation. a transmitter configured to transmit signals via a communication channel; wherein the transmitter, comprises: a coder configured to receive user bits and output encoded bits at an expanded output encoded bit rate; a mapper configured to map encoded bits to symbols in a modulated symbol constellation; and a modulator configured to generate a modulated signal for transmission via the communication channel using symbols generated by the mapper. a coder configured to receive user bits and output encoded bits at an expanded output encoded bit rate; a mapper configured to map encoded bits to symbols in a modulated symbol constellation; and a modulator configured to generate a modulated signal for transmission via the communication channel using symbols generated by the mapper. wherein the transmitter is characterized in that the symbol constellation is an unequally spaced symbol constellation obtained by optimizing locations and labeling of constellation points to maximize parallel decode capacity at a given signal-to-noise ratio so that the symbol constellation provides a given capacity at a reduced signal-to-noise ratio compared to a signal constellation that maximizes the minimum distance, d min, between the constellation points of the symbol constellation.
A process for the synthesis of Sofosbuvir of formula comprising the selective mono-deacetylation reaction of a compound of formula to obtain a compound of formula
Thin-film encapsulation for an optoelectronic component with a layer sequence comprising the following layers: - a first ALD layer deposited by atomic layer deposition, the first ALD layer consisting of titanium oxide, and - a second ALD layer deposited by atomic layer deposition, the second ALD layer consisting of lanthanum oxide, wherein - the layer sequence comprises a plurality of first ALD-layers and plurality of second ALD-layers, the first ALD-layers and the second ALD-layers are in direct contact with each other and repeated periodically, and - an outside surface of the thin-film encapsulation is formed by the ALD-layer consisting of titanium oxide. - a first ALD layer deposited by atomic layer deposition, the first ALD layer consisting of titanium oxide, and - a second ALD layer deposited by atomic layer deposition, the second ALD layer consisting of lanthanum oxide, wherein - the layer sequence comprises a plurality of first ALD-layers and plurality of second ALD-layers, the first ALD-layers and the second ALD-layers are in direct contact with each other and repeated periodically, and - an outside surface of the thin-film encapsulation is formed by the ALD-layer consisting of titanium oxide.
A suspended fitting especially for unit furniture or shelf frameworks formed by a mutually demountable way set suspended rail mounted to the wall and an assembly unit mounted to the furniture component of the furniture unit where the assembly unit contains a base body formed by a thin-walled recess modified for fixation of rectifying components and equipped with structural elements for setting and fixation to a furniture component wherein the rectifying components of the assembly unit are formed by a mutually demountable way connected plate nut and a multi-part cam rectifying element set in a through recess of the central part of the base body where the cam rectifying element consists of a flat positioning cam firmly connected with a hollow set crew in whose inner cavity is placed a fixation set screw, whereas the suspended rail is formed from strip steel shaped into two parallel vertical arms, an outer arm an inner arm, equipped with couples of outer assembly openings and inner assembly openings where the outer arm is straight and the inner arm is on its end bent in outward direction whereby forms a horizontal guiding groove in the shape of a one side fork for support of the cam rectifying element of the assembly unit on the support surface of the outer arm, and the circular through recess is equipped with an output neck and the plate nut is formed by a flat circular disc in whose central part is formed a connecting opening whose diameter size corresponds with the diameter of the output neck of the base body and which is equipped not only with an inner thread but also there are on its perimeter formed two opposed in direction toward the perimeter of the disc situated rounded recesses.
A method of imaging a structure marked with a fluorescent dye in a sample, comprising - repeatedly scanning the sample in a scanning range with a light intensity distribution localised around a focal point of a focused fluorescence excitation light beam of fluorescence excitation light, wherein the light intensity distribution further comprises a focused fluorescence inhibiting light beam of fluorescence inhibiting light whose wave fronts are modulated such that a fluorescence inhibiting light intensity distribution comprises a minimum at the focal point of the fluorescence excitation light beam; - detecting fluorescence light emitted out of the scanning range; and - allocating the detected fluorescence light to the actual location of the focal point in the sample; characterised in - that scanning conditions which, besides a scanning speed at which the focal point is shifted with regard to the sample and light intensities of the light intensity distribution, include properties and a concentration of the fluorescent dye in the scanning range are coordinated in such a way that the fluorescence light is emitted out of the scanning range as temporarily separated and individually detectable photons; and - that an image of the structure is composed of locations which have been allocated to the detected photons during several repetitions of scanning the scanning range. - repeatedly scanning the sample in a scanning range with a light intensity distribution localised around a focal point of a focused fluorescence excitation light beam of fluorescence excitation light, wherein the light intensity distribution further comprises a focused fluorescence inhibiting light beam of fluorescence inhibiting light whose wave fronts are modulated such that a fluorescence inhibiting light intensity distribution comprises a minimum at the focal point of the fluorescence excitation light beam; - detecting fluorescence light emitted out of the scanning range; and - allocating the detected fluorescence light to the actual location of the focal point in the sample; - that scanning conditions which, besides a scanning speed at which the focal point is shifted with regard to the sample and light intensities of the light intensity distribution, include properties and a concentration of the fluorescent dye in the scanning range are coordinated in such a way that the fluorescence light is emitted out of the scanning range as temporarily separated and individually detectable photons; and - that an image of the structure is composed of locations which have been allocated to the detected photons during several repetitions of scanning the scanning range.
A method for wireless communication, comprising: transmitting an indication of a user equipment, UE, capability, wherein the UE capability includes at least an uplink, UL, carrier aggregation, CA, capability of a UE; receiving a CA configuration and an auxiliary UL configuration, the CA configuration comprising one or more carriers (305-a) configured for UL data transmissions and the auxiliary UL configuration comprising one or more carriers (305-b, 305-c) configured for UL reference signal transmissions, wherein the CA configuration is based on the UE capability and the auxiliary UL configuration is based on the CA configuration and the UE capability; transmitting a sounding reference signal, SRS, using the one or more carriers (305-b, 305-c) of the auxiliary UL configuration; identifying one or more switching symbols based at least in part on the transmitted SRS or a location of the SRS, or both; rate matching or puncturing an UL data transmission based at least in part on the one or more switching symbols; and initiating the UL data transmission during a symbol period after the one or more switching symbols. transmitting an indication of a user equipment, UE, capability, wherein the UE capability includes at least an uplink, UL, carrier aggregation, CA, capability of a UE; receiving a CA configuration and an auxiliary UL configuration, the CA configuration comprising one or more carriers (305-a) configured for UL data transmissions and the auxiliary UL configuration comprising one or more carriers (305-b, 305-c) configured for UL reference signal transmissions, wherein the CA configuration is based on the UE capability and the auxiliary UL configuration is based on the CA configuration and the UE capability; transmitting a sounding reference signal, SRS, using the one or more carriers (305-b, 305-c) of the auxiliary UL configuration; identifying one or more switching symbols based at least in part on the transmitted SRS or a location of the SRS, or both; rate matching or puncturing an UL data transmission based at least in part on the one or more switching symbols; and initiating the UL data transmission during a symbol period after the one or more switching symbols.
A process for manufacturing coated fiber cement products, wherein said fiber cement product is a fiber cement slate, wherein said process comprises the steps of: (i) providing a cured fiber cement product having at least one surface; (ii) applying a conventional, non-radiation curable primer composition comprising at least a binder and a pigment, to the at least one surface of the cured fiber cement product, wherein said conventional, non-radiation curable primer composition is a water-based acrylic primer composition; (iii) applying at least one layer of a radiation curable composition as a wet coating in a range from 10 to 200 g/m2 to the at least one surface, which radiation curable composition comprises at least one pigment; and (iv) curing the layer of radiation curable composition by radiation. (i) providing a cured fiber cement product having at least one surface; (ii) applying a conventional, non-radiation curable primer composition comprising at least a binder and a pigment, to the at least one surface of the cured fiber cement product, wherein said conventional, non-radiation curable primer composition is a water-based acrylic primer composition; (iii) applying at least one layer of a radiation curable composition as a wet coating in a range from 10 to 200 g/m2 to the at least one surface, which radiation curable composition comprises at least one pigment; and (iv) curing the layer of radiation curable composition by radiation.