mhurhangee/ep-ind-claims huggingface dataset:
A blower comprising: a fan which is rotated about a rotation axis; and a plurality of stationary blades which are installed to be a radial shape about the rotation axis in a direction in which the airflow generated by the rotation of the fan is discharged, and are curved in a direction opposite to the rotation direction of the fan as they extend from an inner circumferential portion to an outer circumferential portion, wherein the plurality of stationary blades each comprise an inlet edge through which the airflow generated by the fan is introduced; and an outlet edge through which the airflow introduced into the inlet edge is discharged, wherein an inlet angle (θ1) is formed between the rotation axis and a virtual straight line extending at a tangent, at the inlet edge, from a curved virtual centre line passing through the centre of the thickness of the stationary blade from the inlet edge to the outlet edge in a cross-section of the stationary blade, and a chord angle (θ3) is formed between a chord and the rotation axis, the chord representing a virtual straight line connecting the inlet edge and the outlet edge in said cross-section of the stationary blade, characterised in that the inlet angle (θ1) and the chord angle (θ3) are larger at the inner circumferential portion and the outer circumferential portion than at a central portion between the inner circumferential portion and the outer circumferential portion. a fan which is rotated about a rotation axis; and a plurality of stationary blades which are installed to be a radial shape about the rotation axis in a direction in which the airflow generated by the rotation of the fan is discharged, and are curved in a direction opposite to the rotation direction of the fan as they extend from an inner circumferential portion to an outer circumferential portion, wherein the plurality of stationary blades each comprise an inlet edge through which the airflow generated by the fan is introduced; and an outlet edge through which the airflow introduced into the inlet edge is discharged, wherein an inlet angle (θ1) is formed between the rotation axis and a virtual straight line extending at a tangent, at the inlet edge, from a curved virtual centre line passing through the centre of the thickness of the stationary blade from the inlet edge to the outlet edge in a cross-section of the stationary blade, and a chord angle (θ3) is formed between a chord and the rotation axis, the chord representing a virtual straight line connecting the inlet edge and the outlet edge in said cross-section of the stationary blade, characterised in that the inlet angle (θ1) and the chord angle (θ3) are larger at the inner circumferential portion and the outer circumferential portion than at a central portion between the inner circumferential portion and the outer circumferential portion.
A method for separating phytanic acid from oils and fats containing phytanic acid, characterized by comprising a phytanic acid-specific enzymatic thioesterification step in the presence of an enzyme selected from the group consisting of phytanate-CoA ligase (EC 6.2.1.24) and benzoate-CoA ligase (EC 6.2.1.25), which results in obtaining a solid phase comprising phytanate-CoA and a liquid fraction comprising fatty acids free of phytanic acid.
A mandibular protrusion device for a therapeutic mandibular protrusion in a patient undergoing therapy, comprising a maxillary splint body, which can be placed on the tooth crowns of at least part of the lateral maxillary teeth and completely or partially covers the tooth crowns thereof, a mandibular splint body, which can be placed on the tooth crowns of at least part of the lateral mandibular teeth and completely or partially covers the tooth crowns thereof, an advancement means, which is arranged on said two splint bodies (30, 31) and causes the therapeutic mandibular advancement, having front engagement elements arranged in the two lateral areas, preferably on the two outer sides, of the mandibular splint body, and rear engagement elements arranged in the two lateral areas, preferably on the two outer sides, of the maxillary splint body, which, on each jaw side, form a pair of engagement elements (A, B), which can be brought into protrusion-controlling engagement with one another by a mouth closing movement, having front-side guide tracks (101A, 101fA), which form protrusion-controlling guide tracks, on the rear engagement elements, characterized in that the front engagement elements are designed as scanning pins with scanning tips provided at free pin ends for scanning the guide tracks of the respective associated rear engagement elements.
A heat exchanger comprising: a heat exchanger body having a first end and a second end opposed to the first end along a flow axis; a plurality of flow channels defined in the heat exchanger body extending axially with respect to the flow axis, wherein a first set of the flow channels forms a first flow circuit, wherein a second set of the flow channels forms a second flow circuit that is in fluid isolation from the first flow circuit, wherein each flow channel is fluidly isolated from the other flow channels, wherein each flow channel of the first flow circuit includes a respective inlet on the first end of the heat exchanger body and a respective outlet on the second end of the heat exchanger body, and wherein each flow channel of the second flow circuit includes a respective inlet on one of the first and second ends of the heat exchanger body and a respective outlet on the other of the first and second ends of the heat exchanger body, the heat exchanger being characterized in that the flow channels all conform to a curvilinear profile, wherein the curvilinear profile is a common curvilinear profile for the flow channels including a sinusoidal wave pattern with waves of a first amplitude and wavelength configuration extending in a first direction normal to the flow axis, and waves of a second amplitude and wavelength configuration extending in a second direction normal to the flow axis. a heat exchanger body having a first end and a second end opposed to the first end along a flow axis; a plurality of flow channels defined in the heat exchanger body extending axially with respect to the flow axis, wherein a first set of the flow channels forms a first flow circuit, wherein a second set of the flow channels forms a second flow circuit that is in fluid isolation from the first flow circuit, wherein each flow channel is fluidly isolated from the other flow channels, wherein each flow channel of the first flow circuit includes a respective inlet on the first end of the heat exchanger body and a respective outlet on the second end of the heat exchanger body, and wherein each flow channel of the second flow circuit includes a respective inlet on one of the first and second ends of the heat exchanger body and a respective outlet on the other of the first and second ends of the heat exchanger body, the heat exchanger being characterized in that the flow channels all conform to a curvilinear profile, wherein the curvilinear profile is a common curvilinear profile for the flow channels including a sinusoidal wave pattern with waves of a first amplitude and wavelength configuration extending in a first direction normal to the flow axis, and waves of a second amplitude and wavelength configuration extending in a second direction normal to the flow axis.
A sulfide solid electrolyte material comprising an M 1 element, an M 2 element, and an S element; characterized in that M 1 is at least one kind selected from the group consisting of Li, Na, K, Mg, Ca and Zn; and M 2 is at least one kind selected from the group consisting of P, Sb, Si, Ge, Sn, B, Al, Ga, In, Ti, Zr, V and Nb; having a peak in positions of 2θ= 20.18° ± 0.50°, 20.44° ± 0.50°, 26. 96° ± 0. 50° and 29. 58° ± 0.50° in an X-ray diffraction measurement using a CuKα line; and having an I B /I A value of less than 0.50 when a diffraction intensity at the peak of 2θ= 29.58° ± 0.50° is represented by I A and a diffraction intensity at a peak of 2θ = 27.33° ± 0.50° is represented by I B.
Camera device for acquiring optical properties in a plurality of different wavelength ranges (81, 82, 83, 84) and spatial structure properties of an object, comprising: a beam splitter for splitting light coming from an object into the plurality of different wavelength ranges (81, 82, 83, 84); a first image sensor for generating a sensor signal related to a first predetermined wavelength range (83, 84) of the plurality of different wavelength ranges, wherein the first image sensor, on the basis of a temporally modulatable sensitivity, is designed for acquiring a distance between an object and the camera device from a time of flight of light (L, M, N) and is phase-sensitive; a first signal processing device for generating a first intensity image signal and a distance image signal using information about the temporal modulation of illumination light and the first sensor signal, wherein the distance image signal represents spatial structure properties of the object; at least one second image sensor (51, 52) for generating a second sensor signal, which comprises a second intensity image signal (B, G) for a second predetermined wavelength range (81, 82) of the plurality of different wavelength ranges; a second signal processing device for generating a color image signal from the first intensity image signal and the second intensity image signal (G, B), wherein the color image signal represents optical properties of the object. a beam splitter for splitting light coming from an object into the plurality of different wavelength ranges (81, 82, 83, 84); a first image sensor for generating a sensor signal related to a first predetermined wavelength range (83, 84) of the plurality of different wavelength ranges, wherein the first image sensor, on the basis of a temporally modulatable sensitivity, is designed for acquiring a distance between an object and the camera device from a time of flight of light (L, M, N) and is phase-sensitive; a first signal processing device for generating a first intensity image signal and a distance image signal using information about the temporal modulation of illumination light and the first sensor signal, wherein the distance image signal represents spatial structure properties of the object; at least one second image sensor (51, 52) for generating a second sensor signal, which comprises a second intensity image signal (B, G) for a second predetermined wavelength range (81, 82) of the plurality of different wavelength ranges; a second signal processing device for generating a color image signal from the first intensity image signal and the second intensity image signal (G, B), wherein the color image signal represents optical properties of the object.
Onboard electrical system for a motor vehicle, wherein the onboard electrical system has a low voltage subsystem for at least one low voltage load and a high voltage subsystem for at least one high voltage load and a starter generator, wherein the high voltage subsystem is connected to the low voltage subsystem by means of a coupling unit that is set up to draw power from the high voltage subsystem and to supply it to the low voltage subsystem, wherein the high voltage subsystem has a battery that is set up to produce the high voltage and to output it to the high voltage subsystem, and that has at least two battery units having individual voltage taps that are routed to the coupling unit, wherein the coupling unit has switches with forward blocking capability, wherein the switches with forward blocking capability comprise a MOSFET, IGBT or bipolar transistor and an intrinsic diode, characterized in that the switches with forward blocking capability connect the battery units in series with one another, and the coupling unit has a plurality of switches with reverse blocking capability (44, 45), wherein the switches with reverse blocking capability (44, 45) comprise an IGBT, MOSFET or bipolar transistor and comprise a diode connected in series therewith, wherein the diode is connected in the opposite direction to an intrinsic diode of the switch with reverse blocking capability (44, 45), wherein in each case a switch with reverse blocking capability is connected at the positive pole of a battery unit and a switch with reverse blocking capability is connected at the negative pole of a battery unit, wherein the switch with reverse blocking capability is connected to a positive pole of the low voltage subsystem on the output side of the coupling unit, and the switch with reverse blocking capability is connected to a negative pole of the low voltage subsystem on the output side of the coupling unit, wherein the coupling unit is set up to selectively connect the battery units to the low voltage subsystem.
A method for performing transport format combination selection in a Third Generation Partnership Project, 3GPP, network, the method comprising: when scheduled and non-scheduled grants are taken into account for a transmission time interval, giving data of a given priority belonging to a scheduled MAC-d flow precedence over any lower priority data, whether belonging to a scheduled or a non-scheduled MAC-d flow; and giving data of a given priority belonging to a non-scheduled MAC-d flow precedence over any lower priority data, whether belonging to a scheduled or a non-scheduled MAC-d flow, such that one or more data frames carrying lower priority non-scheduled data can be either delayed or ultimately discarded to allow higher priority scheduled data to be transmitted in the transmission time interval; wherein if a transmission includes any scheduled data, the size of a selected medium access control protocol data unit does not exceed the total of: all non-scheduled grants which are applicable for transmission in a transmission time interval; a maximum number of scheduled bits based on a serving grant, after adjustment for compressed frames, and a power offset; and triggered scheduling information size, if scheduling information is to be included in the transmission. when scheduled and non-scheduled grants are taken into account for a transmission time interval, giving data of a given priority belonging to a scheduled MAC-d flow precedence over any lower priority data, whether belonging to a scheduled or a non-scheduled MAC-d flow; and giving data of a given priority belonging to a non-scheduled MAC-d flow precedence over any lower priority data, whether belonging to a scheduled or a non-scheduled MAC-d flow, such that one or more data frames carrying lower priority non-scheduled data can be either delayed or ultimately discarded to allow higher priority scheduled data to be transmitted in the transmission time interval; wherein if a transmission includes any scheduled data, the size of a selected medium access control protocol data unit does not exceed the total of: all non-scheduled grants which are applicable for transmission in a transmission time interval; a maximum number of scheduled bits based on a serving grant, after adjustment for compressed frames, and a power offset; and triggered scheduling information size, if scheduling information is to be included in the transmission. all non-scheduled grants which are applicable for transmission in a transmission time interval; a maximum number of scheduled bits based on a serving grant, after adjustment for compressed frames, and a power offset; and triggered scheduling information size, if scheduling information is to be included in the transmission.
A bubble generating device comprising: a first connecting port (71 a) into which water is introduced; a second connecting port (71 d) out of which water is discharged; and a third connecting port (71 e) into which air is introduced or out of which water is discharged; characterized by a switching passage (71 c) formed between the first connecting port (71 a) and the second connecting port (71 d) and connected with the third connecting port (71 e), wherein when water flows to the second connecting port through the switching passage (71 c), air is introduced into the third connecting port (71 e), thereby generating bubbles, and when water flows to the third connecting port (71 e) through the switching passage (71 c), the water circulates. a first connecting port (71 a) into which water is introduced; a second connecting port (71 d) out of which water is discharged; and a third connecting port (71 e) into which air is introduced or out of which water is discharged; characterized by a switching passage (71 c) formed between the first connecting port (71 a) and the second connecting port (71 d) and connected with the third connecting port (71 e), wherein when water flows to the second connecting port through the switching passage (71 c), air is introduced into the third connecting port (71 e), thereby generating bubbles, and when water flows to the third connecting port (71 e) through the switching passage (71 c), the water circulates.
A MEMS sensor component, comprising: a carrier substrate; an ASIC (ASIC) embedded in the carrier substrate; a MEMS (MEMS) arranged on or above the carrier sub¬strate; a cap arranged above the carrier substrate, wherein the cap encloses a cavity and the MEMS chip is arranged in the cavity; a solder pad at a bottom side of the carrier substrate; an electrical intercon¬nection between the ASIC chip and the solder pad; a connection element comprising an elastically deformable spring element, wherein the connection element mechanically connects the MEMS chip in a flip-chip configuration to the carrier substrate and wherein the connection element electrically connects the MEMS chip to the interconnection; and a soft fixation element (S, SFE) mechanically connecting the MEMS chip to the carrier substrate. a carrier substrate; an ASIC (ASIC) embedded in the carrier substrate; a MEMS (MEMS) arranged on or above the carrier sub¬strate; a cap arranged above the carrier substrate, wherein the cap encloses a cavity and the MEMS chip is arranged in the cavity; a solder pad at a bottom side of the carrier substrate; an electrical intercon¬nection between the ASIC chip and the solder pad; a connection element comprising an elastically deformable spring element, wherein the connection element mechanically connects the MEMS chip in a flip-chip configuration to the carrier substrate and wherein the connection element electrically connects the MEMS chip to the interconnection; and a soft fixation element (S, SFE) mechanically connecting the MEMS chip to the carrier substrate.
A composite comprising a) a textured surface with a plurality of protrusions, and b) a bulk portion; wherein both the textured surface and the bulk portion comprise a polymeric matrix and particles having a mean size of between 1 nm and 100 μm, wherein the polymer in the polymeric matrix is a thermoplastic polymer; and wherein said composite is characterized in that the major amount of said particles is concentrated in the textured surface.
A method, comprising: receiving, by a mobile device, an indication of a base sequence and an indication of a cyclic shift from a base station; obtaining, by the mobile device, a mobile device-specific demodulation reference signal sequence by: calculating a mobile device-specific sequence by applying the cyclic shift indicated by the received indication of a cyclic shift to the base sequence indicated by the received indication of a base sequence; and selecting a portion of the calculated mobile device-specific sequence to use as the mobile device-specific demodulation reference signal sequence in dependence on a mobile device-specific physical resource block allocation. receiving, by a mobile device, an indication of a base sequence and an indication of a cyclic shift from a base station; obtaining, by the mobile device, a mobile device-specific demodulation reference signal sequence by: calculating a mobile device-specific sequence by applying the cyclic shift indicated by the received indication of a cyclic shift to the base sequence indicated by the received indication of a base sequence; and selecting a portion of the calculated mobile device-specific sequence to use as the mobile device-specific demodulation reference signal sequence in dependence on a mobile device-specific physical resource block allocation. calculating a mobile device-specific sequence by applying the cyclic shift indicated by the received indication of a cyclic shift to the base sequence indicated by the received indication of a base sequence; and selecting a portion of the calculated mobile device-specific sequence to use as the mobile device-specific demodulation reference signal sequence in dependence on a mobile device-specific physical resource block allocation.
An aqueous coating composition for vehicles, comprising: acrylic resin particles, a water-soluble acrylic resin, and a phosphoric acid compound represented by the following Formula: wherein m is 1 or 2, n is an integer of 1 to 20, R 1 is substituted or unsubstituted hydrocarbon having 2 or more and 20 or less carbon atoms, when m is 2, each R 1 may be the same or different, R 2 is C2-4 alkylene, when n is 2 or more, n number of oxyalkylene units (R 2 O) may be the same or different, and when m is 2, each (R 2 O) n may be the same or different. acrylic resin particles, a water-soluble acrylic resin, and a phosphoric acid compound represented by the following Formula: wherein m is 1 or 2, n is an integer of 1 to 20, R 1 is substituted or unsubstituted hydrocarbon having 2 or more and 20 or less carbon atoms, when m is 2, each R 1 may be the same or different, R 2 is C2-4 alkylene, when n is 2 or more, n number of oxyalkylene units (R 2 O) may be the same or different, and when m is 2, each (R 2 O) n may be the same or different. wherein m is 1 or 2, n is an integer of 1 to 20, R 1 is substituted or unsubstituted hydrocarbon having 2 or more and 20 or less carbon atoms, when m is 2, each R 1 may be the same or different, R 2 is C2-4 alkylene, when n is 2 or more, n number of oxyalkylene units (R 2 O) may be the same or different, and when m is 2, each (R 2 O) n may be the same or different.
A method for updating a first executable code comprised in a first package in a secure element, a class instance being instantiated from said first package and comprising instance data, characterized in that said method comprises the following steps: - loading in the secure element an upgrade file comprising a second executable code and creating a second package from said upgrade file, - changing said first executable code for said second executable code by replacing a reference to the first package by a reference to the second package in a package list stored in the secure element, while leaving the class instance alive and said instance data unchanged. - loading in the secure element an upgrade file comprising a second executable code and creating a second package from said upgrade file, - changing said first executable code for said second executable code by replacing a reference to the first package by a reference to the second package in a package list stored in the secure element, while leaving the class instance alive and said instance data unchanged.