mhurhangee/ep-ind-claims huggingface dataset:
Process for producing dosage forms comprising a solid dispersion of a microcrystalline active ingredient, in which a) a thermoplastic polymer having a glass transition temperature Tg of at least 40°C is melted and an active ingredient is dissolved homogeneously in the melt, which active ingredient dissolves to an extent of less than 5 g in 100 ml of water at 22°C, the thermoplastic polymer being selected from polyvinylpyrrolidone, copolymers of N-vinylpyrrolidone and vinyl acetate and/or vinyl propionate, copolymers of vinyl acetate and crotonic acid, partially hydrolysed polyvinyl acetate, polyvinyl alcohol, polyhydroxyalkyl acrylates, polyhydroxyalkyl methacrylates, polyacrylates and polymethacrylates, copolymers of methyl methacrylate and acrylic acid, polyethylene glycols, alkylcelluloses, hydroxyalkylcelluloses, hydroxyalkylalkylcelluoses and cellulose esters; b) crystallization of the active ingredient is initiated in the composition obtained by addition of a non-solvent, the non-solvent being a compound in which less than 1 g of active ingredient is soluble in 100 ml of non-solvent at the temperature of addition, or by addition of a derivatization reagent, the derivatization reagent being selected from an acid or a base and capable of converting the active ingredient to a base or acid addition salt which is more sparingly soluble in the composition than the free active ingredient; c) the composition is then cooled and solidified. a) a thermoplastic polymer having a glass transition temperature Tg of at least 40°C is melted and an active ingredient is dissolved homogeneously in the melt, which active ingredient dissolves to an extent of less than 5 g in 100 ml of water at 22°C, the thermoplastic polymer being selected from polyvinylpyrrolidone, copolymers of N-vinylpyrrolidone and vinyl acetate and/or vinyl propionate, copolymers of vinyl acetate and crotonic acid, partially hydrolysed polyvinyl acetate, polyvinyl alcohol, polyhydroxyalkyl acrylates, polyhydroxyalkyl methacrylates, polyacrylates and polymethacrylates, copolymers of methyl methacrylate and acrylic acid, polyethylene glycols, alkylcelluloses, hydroxyalkylcelluloses, hydroxyalkylalkylcelluoses and cellulose esters; b) crystallization of the active ingredient is initiated in the composition obtained by addition of a non-solvent, the non-solvent being a compound in which less than 1 g of active ingredient is soluble in 100 ml of non-solvent at the temperature of addition, or by addition of a derivatization reagent, the derivatization reagent being selected from an acid or a base and capable of converting the active ingredient to a base or acid addition salt which is more sparingly soluble in the composition than the free active ingredient; c) the composition is then cooled and solidified.
Headlamp for vehicles with a first light module containing at least one LED light source and a first optical unit and with a second light module containing at least one LED light source and a second optical unit, where the first light module is designed in such a way that a low-beam distribution can be generated as a basic light distribution and that the second light module is designed in such a way that an additional light distribution (10, 12) at least partially overlapping the low-beam distribution, characterized in that an LED field of the second light module is designed in such a way and/or interacts with the second optical unit in such a way that a second light bundle with a horizontal aperture angle (α 2) of a maximum of 10° and a vertical aperture angle (β 2) of a maximum of 0.5° is emitted to form a highway light distribution.
A method for assembling a laundry dryer including a heat pump system with a closed refrigerant circuit, said method comprises the steps of: providing components (12, 14, 16, 18) for the refrigerant circuit, wherein at least two components (12, 14, 16, 18) are coupleable by interconnecting a first end piece and a second end piece of refrigerant pipes, enlarging the first end piece of the refrigerant pipe, so that the inner diameter of the first end piece is marginally bigger than the outer diameter of the second end piece, the method being characterized by locally deforming the enlarged portion of the first end piece from the outer side, wherein deforming the enlarged portion of the first end piece from the outer side comprises forming one or more dots, an annular groove and/or a partially annular groove on the outer surface of the enlarged portion of the first end piece which protrude inwardly from the inner surface of the enlarged portion of said first end piece, so that the second end piece is coaxially insertable into the first end piece, inserting the second end piece into the first end piece, and welding together the first end piece and the second end piece by pouring a welding material between said first end piece and second end piece. providing components (12, 14, 16, 18) for the refrigerant circuit, wherein at least two components (12, 14, 16, 18) are coupleable by interconnecting a first end piece and a second end piece of refrigerant pipes, enlarging the first end piece of the refrigerant pipe, so that the inner diameter of the first end piece is marginally bigger than the outer diameter of the second end piece, the method being characterized by locally deforming the enlarged portion of the first end piece from the outer side, wherein deforming the enlarged portion of the first end piece from the outer side comprises forming one or more dots, an annular groove and/or a partially annular groove on the outer surface of the enlarged portion of the first end piece which protrude inwardly from the inner surface of the enlarged portion of said first end piece, so that the second end piece is coaxially insertable into the first end piece, inserting the second end piece into the first end piece, and welding together the first end piece and the second end piece by pouring a welding material between said first end piece and second end piece.
Method for transferring cutouts for the production of packaging boxes with a polygonal section from a magazine formed of at least one stack (4, 5) of cutouts made of cardboard or corrugated cardboard sheet material comprising notches, characterised in that the stack being vertical, the cutout on the top of the stack is located by camera (77, 78, 79, 80, 81, 82, 83, 84), said cut is first detached from the rest of the stack, the top cutout thus located is seized by suction, said cutout is moved with the aid of a robot arm and released to a following station, for or prior to subsequent forming, and the cycle of steps above is repeated with the following top cutout.
A manufacturing method of an electrode frame assembly for fuel cell, comprising the steps of: (a) placing a frame and a diffusion layer to be stacked; and (b) punching out the diffusion layer and the frame in the stacked state to form in the frame an opening in a shape matching with the punched-out diffusion layer. (a) placing a frame and a diffusion layer to be stacked; and (b) punching out the diffusion layer and the frame in the stacked state to form in the frame an opening in a shape matching with the punched-out diffusion layer.
A process for cooperative aerial inter-antenna beamforming for communication between (a) multiple moving platforms (9, 85, 86, 87, 90, 91), each platform having an aerial antenna (15, 16, 94) mounted thereon, such that the aerial antennas (15, 16, 94) have variable positions and orientations over time, and (b) at least first and second antennas connected to user equipment (11, 96) having a lower altitude than the aerial antennas (15, 16, 94); the process involving transmitting data relating to the positions and orientations of the aerial antennas (15, 16, 94) to a processing system (1, 53), the processing system (1, 53) calculating and transmitting beamforming instructions to the aerial antennas (15, 16, 94), the aerial antennas (15, 16, 94) thereby transmitting or receiving respective first component signals (6, 7, 95) associated with the first user antenna, and transmitting or receiving respective second component signals associated with the second user antenna, the first component signals each having essentially the same information content but differing in their phase, the second component signals each having essentially the same information content but differing in their phase, so as to form a first cooperative beam from the cooperative sum of the signals between the aerial antennas and the first user antenna, and a second cooperative beam from the cooperative sum of the signals between the aerial antennas and the second user antenna, wherein the respective relative position of each aerial antenna is determined to within a fraction of the wavelength(s) of the signals. the process involving transmitting data relating to the positions and orientations of the aerial antennas (15, 16, 94) to a processing system (1, 53), the processing system (1, 53) calculating and transmitting beamforming instructions to the aerial antennas (15, 16, 94), the aerial antennas (15, 16, 94) thereby transmitting or receiving respective first component signals (6, 7, 95) associated with the first user antenna, and transmitting or receiving respective second component signals associated with the second user antenna, the first component signals each having essentially the same information content but differing in their phase, the second component signals each having essentially the same information content but differing in their phase, so as to form a first cooperative beam from the cooperative sum of the signals between the aerial antennas and the first user antenna, and a second cooperative beam from the cooperative sum of the signals between the aerial antennas and the second user antenna, wherein the respective relative position of each aerial antenna is determined to within a fraction of the wavelength(s) of the signals.
A variable inductance type radial position sensor system comprising a rotor target of ferromagnetic material constituting a ring fixed on a rotary shaft and a stationary magnetic circuit which is placed around said rotor target, said stationary magnetic circuit comprising at least a first sensing element located along a predefined first axis X-X' perpendicular to the axis of the rotary shaft perpendicular to the axis of the rotary shaft in front of the rotor target while leaving an air gap between said first sensing element and the rotor target, said first sensing element receiving at least one induction coil, characterized in that a first end of said at least one induction coil of said first sensing element is connected to a first end of a first AC voltage source, and a second end of said at least one induction coil of said first sensing element is connected to a first connection point, which is connected to a second end of said first AC voltage source, said second end of said first AC voltage source being connected to a reference voltage and a detector device being interposed between said first connection point and said second end of said first AC voltage source in order to deliver information about the magnitude of the current flowing between said first connection point and said second end of said first AC voltage source, said information representing the value of a modification x to the width of said air gap that presents a predetermined nominal value g 0 along said first axis X-X', and wherein it comprises a capacitor C1 connected in series between said first connection point and said second end of said at least one induction coil of said first sensing element.
A receiver system, the receiver system comprising at least one receiver array, the at least one receiver array comprising a plurality of receivers (201a-201n) for receiving optical communications signals (203a, 203b) that encode or transmit information, wherein the receivers (201a-201n) are each configured to receive a DC or slowly varying component that primarily carries power and an AC component that primarily carries the transmitted or encoded information; wherein: each of the receivers (101, 201a-201n) are or comprise solar cells or photovoltaic cells configured to directly generate an electrical signal from the received optical communication signals and ambient light such that the receiver system (100, 200) is usable as a source of electrical power and the encoded or transmitted information from the received optical communication signal (103b, 203b) is recovered or recoverable from the electrical signals; and the optical communications signals are Multiple Input Multiple Output, MIMO, signals, and the at least one receiver array is configured to receive the Multiple Input Multiple Output, MIMO, signals in a band of wavelengths, the wavelengths comprising wavelengths in a range from 350nm to 2000nm, wherein the receiver system is configured such that AC components of the signals generated by each of the solar cells or photovoltaic cells of the receivers (201a-201n) are filtered out using an appropriate filter and passed to processing apparatus in order to recover information encoded in the received optical MIMO signals. each of the receivers (101, 201a-201n) are or comprise solar cells or photovoltaic cells configured to directly generate an electrical signal from the received optical communication signals and ambient light such that the receiver system (100, 200) is usable as a source of electrical power and the encoded or transmitted information from the received optical communication signal (103b, 203b) is recovered or recoverable from the electrical signals; and the optical communications signals are Multiple Input Multiple Output, MIMO, signals, and the at least one receiver array is configured to receive the Multiple Input Multiple Output, MIMO, signals in a band of wavelengths, the wavelengths comprising wavelengths in a range from 350nm to 2000nm, wherein the receiver system is configured such that AC components of the signals generated by each of the solar cells or photovoltaic cells of the receivers (201a-201n) are filtered out using an appropriate filter and passed to processing apparatus in order to recover information encoded in the received optical MIMO signals.
A method performed by a user equipment, UE, for wireless communication with a network node during a slot, comprising: determining, based on control information corresponding to the slot, that the UE is to generate and transmit acknowledgement, ACK, or negative acknowledgement, NACK, feedback in the slot for a downlink signal received by the UE in the slot; characterized in that the method further comprises receiving an intermediate downlink signal from the network node after the downlink signal is fully received and before transmission of the ACK or NACK feedback begins, wherein receiving the intermediate downlink signal comprises receiving a portion of a continuous downlink signal, wherein reception of the continuous downlink signal begins before the downlink signal is fully received. determining, based on control information corresponding to the slot, that the UE is to generate and transmit acknowledgement, ACK, or negative acknowledgement, NACK, feedback in the slot for a downlink signal received by the UE in the slot; characterized in that the method further comprises receiving an intermediate downlink signal from the network node after the downlink signal is fully received and before transmission of the ACK or NACK feedback begins, wherein receiving the intermediate downlink signal comprises receiving a portion of a continuous downlink signal, wherein reception of the continuous downlink signal begins before the downlink signal is fully received.
An object information acquiring apparatus, comprising: an acoustic wave generating member configured to absorb light and to generate an acoustic wave; an irradiating unit configured to irradiate an object or the acoustic wave generating member with light; a detector configured to detect an acoustic wave propagating from the object; a signal processing unit configured to generate object information that is information of the inside of the object, based on a signal output from the detector; and a switching unit configured to perform switching between a first mode in which a first acoustic wave generated inside the object due to irradiation of the light is detected by the detector and a second mode in which a second acoustic wave generated by the acoustic wave generating member due to irradiation of the light and having propagated inside the object is detected by the detector, characterized in that the acoustic wave generating member is movable to a first position retreated from an optical path between the irradiating unit and the object and to a second position that blocks the optical path, and the switching unit is configured to switch a position of the acoustic wave generating member so that the acoustic wave generating member moves to the first position in the first mode and the acoustic wave generating member moves to the second position in the second mode. an acoustic wave generating member configured to absorb light and to generate an acoustic wave; an irradiating unit configured to irradiate an object or the acoustic wave generating member with light; a detector configured to detect an acoustic wave propagating from the object; a signal processing unit configured to generate object information that is information of the inside of the object, based on a signal output from the detector; and a switching unit configured to perform switching between a first mode in which a first acoustic wave generated inside the object due to irradiation of the light is detected by the detector and a second mode in which a second acoustic wave generated by the acoustic wave generating member due to irradiation of the light and having propagated inside the object is detected by the detector, characterized in that the acoustic wave generating member is movable to a first position retreated from an optical path between the irradiating unit and the object and to a second position that blocks the optical path, and the switching unit is configured to switch a position of the acoustic wave generating member so that the acoustic wave generating member moves to the first position in the first mode and the acoustic wave generating member moves to the second position in the second mode.
Device for detecting deformations of a rotor blade of a wind turbine, comprising - an angle measuring device, which has a first and second subassembly (1.1, 1.2), wherein the first subassembly (1.1) is arranged such that it can be pivoted about an axis relative to the second subassembly (1.2) and the relative angular position between the first and the second subassembly (1.1, 1.2) can be measured by means of the angle measuring device, which has a scale (1.14) and a scanning element for scanning (1.26) the scale (1.14), and wherein the second subassembly (1.2) has a fixing point (1.23) which is configured such that it can be connected to the rotor blade, and - an arm, which has a connecting point (2.1) which is configured in such a way that the arm can be connected to the rotor blade at the said connecting point (2.1), the connecting point (2.1) is arranged at a distance from the fixing point (1.23) of the second subassembly (1.2), wherein the distance is oriented orthogonally relative to the axis, and wherein the arm is coupled mechanically to the first subassembly (1.1) at a radial distance, so that when the distance changes, a relative pivoting movement between the first and the second subassembly (1.1, 1.2) can be generated. - an angle measuring device, which has a first and second subassembly (1.1, 1.2), wherein the first subassembly (1.1) is arranged such that it can be pivoted about an axis relative to the second subassembly (1.2) and the relative angular position between the first and the second subassembly (1.1, 1.2) can be measured by means of the angle measuring device, which has a scale (1.14) and a scanning element for scanning (1.26) the scale (1.14), and wherein the second subassembly (1.2) has a fixing point (1.23) which is configured such that it can be connected to the rotor blade, and - an arm, which has a connecting point (2.1) which is configured in such a way that the arm can be connected to the rotor blade at the said connecting point (2.1), the connecting point (2.1) is arranged at a distance from the fixing point (1.23) of the second subassembly (1.2), wherein the distance is oriented orthogonally relative to the axis, and wherein
A sauna indoor climate adjusting device (1a,1b) wherein the device comprises a hot air and steam inlet channel, which is located in an upper section of the device and a sauna, for hot air; and a cooler air and water vapour inlet channel, which is located in an lower section of the device and the sauna, for cooler air and water vapour; a mixing chamber connected with the inlet channels, for mixing hot air, steam and cooler air and water vapour; a ventilation fan in the mixing chamber connected to an outlet channel in the sauna for releasing the mixed air and steam from the mixing chamber; wherein the sauna indoor climate adjusting device comprise a salt generator connected with the outlet channel.
A fermented fruit solution for a cleaning composition comprising: a pre-fermented fruit solution fermented with lactic acid bacteria, the pre-fermented fruit solution comprising: 2 to 20 weight percent of a sugar based on the total weight of the pre-fermented fruit solution; 20 to 50 weight percent of a fruit puree based on the total weight of the pre-fermented fruit solution, wherein the fruit comprises 95% or more of pineapple; 30 to 75 weight percent of water based on the total weight of the pre-fermented fruit solution; and a base; wherein a pH of the pre-fermented fruit solution is 5.5 to 9.0, wherein a brix level of the pre-fermented fruit solution is 12% to 24%, and wherein the fermented fruit solution has a total acid content of greater than or equal to 2%. a pre-fermented fruit solution fermented with lactic acid bacteria, the pre-fermented fruit solution comprising: 2 to 20 weight percent of a sugar based on the total weight of the pre-fermented fruit solution; 20 to 50 weight percent of a fruit puree based on the total weight of the pre-fermented fruit solution, wherein the fruit comprises 95% or more of pineapple; 30 to 75 weight percent of water based on the total weight of the pre-fermented fruit solution; and a base; 2 to 20 weight percent of a sugar based on the total weight of the pre-fermented fruit solution; 20 to 50 weight percent of a fruit puree based on the total weight of the pre-fermented fruit solution, wherein the fruit comprises 95% or more of pineapple; 30 to 75 weight percent of water based on the total weight of the pre-fermented fruit solution; and a base; wherein a pH of the pre-fermented fruit solution is 5.5 to 9.0, wherein a brix level of the pre-fermented fruit solution is 12% to 24%, and wherein the fermented fruit solution has a total acid content of greater than or equal to 2%.
A bracket for at least one object holder and a cover plate for receiving objects for the examination by means of microscopy, comprising at least two rails for receiving respectively at least one object holder and respectively at least one cover plate, wherein each of the two rails has at least two recesses (5a, 5b) which are arranged one above the other and each have an U-shaped cross section, into which recesses respectively the object holder and above it the cover plate are being inserted, and the recesses (5a, 5b) extend laterally along the longitudinal side of the respective rail, wherein respectively one recess of the two rails has a height H1 which corresponds to the thickness of the respective object holder to be received and respectively one recess of the two rails has a height H2 which corresponds to the thickness of the respective cover plate to be received, wherein the two recesses (5a, 5b) of the rails have a distance A relative to each other, which corresponds to at least the height of the object to be received.