mhurhangee/ep-ind-claims huggingface dataset:
Aerial vehicle, comprising a plurality of rotors and a flight direction indication system, the flight direction indication system comprising: for each of the plurality of rotors, at least one rotor blade comprising a plurality of light sources arranged along a radial extension of the rotor blade; a flight direction sensor for detecting a momentary flight direction of the aerial vehicle, and/or a flight direction signal input for receiving a flight direction signal indicative of a momentary flight direction of the aerial vehicle; and a control unit, coupled to the plurality of light sources of the rotor blades of the plurality of rotors; wherein the control unit is configured to effect a coordinated control of the plurality of light sources of the rotor blades of the plurality of rotors, with the coordinated control yielding an image or a sequence of images across the plurality of rotors to an observer of the aerial vehicle; wherein the control unit is configured to control the plurality of light sources of the rotor blades of the plurality of rotors on the basis of the momentary flight direction of the aerial vehicle, with said image or said sequence of images comprising a flight direction indication, indicative of the momentary flight direction of the aerial vehicle; and wherein said image comprises a green sector in a right forward direction with respect to the momentary flight direction of the aerial vehicle, a red sector in a left forward direction with respect to the momentary flight direction of the aerial vehicle, and a white sector in a rearward direction with respect to the momentary flight direction of the aerial vehicle. for each of the plurality of rotors, at least one rotor blade comprising a plurality of light sources arranged along a radial extension of the rotor blade; a flight direction sensor for detecting a momentary flight direction of the aerial vehicle, and/or a flight direction signal input for receiving a flight direction signal indicative of a momentary flight direction of the aerial vehicle; and a control unit, coupled to the plurality of light sources of the rotor blades of the plurality of rotors; wherein the control unit is configured to effect a coordinated control of the plurality of light sources of the rotor blades of the plurality of rotors, with the coordinated control yielding an image or a sequence of images across the plurality of rotors to an observer of the aerial vehicle; wherein the control unit is configured to control the plurality of light sources of the rotor blades of the plurality of rotors on the basis of the momentary flight direction of the aerial vehicle, with said image or said sequence of images comprising a flight direction indication, indicative of the momentary flight direction of the aerial vehicle; and wherein said image comprises a green sector in a right forward direction with respect to the momentary flight direction of the aerial vehicle, a red sector in a left forward direction with respect to the momentary flight direction of the aerial vehicle, and a white sector in a rearward direction with respect to the momentary flight direction of the aerial vehicle.
Method for adaptive filtering of an audio signal, in that - the audio signal is transformed by a first transformation stage and this produces a respective sub-band signal in a plurality of channels, and - in at least some of the channels the respective sub-band signal is adaptively filtered by a filter device (18, 64) of the channel (24, 26, 28), and to this end, in the channel (24, 26, 28), - the sub-band signal is transformed by a second transformation stage and split over a plurality of sub-channels of the channel (24, 26, 28), and - in each sub-channel (32 to 44, 76) the filter device (18, 64) of the channel (24, 26, 28) stipulates a weighting factor (54 to 60, 70, 72) for the signal of the sub-channel (32 to 44, 76), characterized in that in the case of at least one of the filter devices (18, 64) the weighting factor (58, 60, 70, 72) of at least one sub-channel is stipulated by computation on the basis of the signal of the sub-channel (32 to 44, 76) itself, and the computed weighting factor (58, 60, 70, 72) is transmitted from the filter device (18, 64) to at least one other filter device, and in the case of the at least one other filter device the weighting factor (54, 56) of at least one sub-channel (32 to 44, 76) is stipulated on the basis of the received, computed weighting factor (58, 60, 70, 72, 80 to 84). - the audio signal is transformed by a first transformation stage and this produces a respective sub-band signal in a plurality of channels, and - in at least some of the channels the respective sub-band signal is adaptively filtered by a filter device (18, 64) of the channel (24, 26, 28), and to this end, in the channel (24, 26, 28), - the sub-band signal is transformed by a second transformation stage and split over a plurality of sub-channels of the channel (24, 26, 28), and - in each sub-channel (32 to 44, 76) the filter device (18, 64) of the channel (24, 26, 28) stipulates a weighting factor (54 to 60, 70, 72) for the signal of the sub-channel (32 to 44, 76), characterized in that in the case of at least one of the filter devices (18, 64) the weighting factor (58, 60, 70, 72) of at least one sub-channel is stipulated by computation on the basis of the signal of the sub-channel (32 to 44, 76) itself, and the computed weighting factor (58, 60, 70, 72) is transmitted from the filter device (18, 64) to at least one other filter device, and in the case of the at least one other filter device the weighting factor (54, 56) of at least one sub-channel (32 to 44, 76) is stipulated on the basis of the received, computed weighting factor (58, 60, 70, 72, 80 to 84).
Process for separation of a processed vegetable fat, wherein said process comprises the steps of - in a distillation step, distilling the processed vegetable fat into a distillate part comprising stearic and oleic acid and/or esters thereof, and a distilled vegetable fat, - in a first fractionation step fractionating the distilled vegetable fat into a first higher melting point fraction being rich in tri-stearate triglycerides (StStSt, where St = stearic acid) and di-stearate diglycerides (StSt) and a first lower melting point fraction, and - in a second fractionation step fractionating the first lower melting point fraction into a second higher melting point fraction being rich in 1,3-distearyl-2-oleyl-triglycerides (StOSt, where O = oleic acid), and a second lower melting point fraction being rich in 1-stearyl-2,3-dioleyl-triglycerides (StOO) and trioleate-triglycerides in a solvent fractionation process. - in a distillation step, distilling the processed vegetable fat into a distillate part comprising stearic and oleic acid and/or esters thereof, and a distilled vegetable fat, - in a first fractionation step fractionating the distilled vegetable fat into a first higher melting point fraction being rich in tri-stearate triglycerides (StStSt, where St = stearic acid) and di-stearate diglycerides (StSt) and a first lower melting point fraction, and - in a second fractionation step fractionating the first lower melting point fraction into a second higher melting point fraction being rich in 1,3-distearyl-2-oleyl-triglycerides (StOSt, where O = oleic acid), and a second lower melting point fraction being rich in 1-stearyl-2,3-dioleyl-triglycerides (StOO) and trioleate-triglycerides in a solvent fractionation process.
A method for writing data to an information recording medium having a plurality of recording layers, the layers having at least a first layer and a second layer, the information recording medium to which recording is made being configured according to an opposite track path system, the method comprising the steps of: writing user data in a data zone on the first layer (S21, S31); writing dummy data immediately before a data zone in the second layer (S22, S32); and writing user data in said data zone on the second layer (S23, S33), wherein the step of writing the dummy data immediately before the data zone on the second layer occurs prior to the step of writing user data in the data zone on the second layer and after the step of writing the user data in the data zone on the first layer. writing user data in a data zone on the first layer (S21, S31); writing dummy data immediately before a data zone in the second layer (S22, S32); and writing user data in said data zone on the second layer (S23, S33), wherein the step of writing the dummy data immediately before the data zone on the second layer occurs prior to the step of writing user data in the data zone on the second layer and after the step of writing the user data in the data zone on the first layer.
Apparatus for demonstrating the visual impression for a wearer of spectacles comprising polarizing spectacle lenses (410a, 410b) comprising a) a memory for providing a first image (114, 210, 310) having a motif and an associated information regarding a first polarization direction, with which the first image (114, 210, 310) is intended to be displayed, b) a memory for providing a second image (116, 220, 320) having the same motif and an associated information regarding a second polarization direction, which is different from the first polarization direction and with which the second image (116, 220, 320) is intended to be displayed, c) a display device for displaying the first image (114, 210, 310) with light polarized in the first polarization direction and the second image (116, 220, 320) with light polarized in the second polarization direction in a superimposed representation (118, 230, 330), such that the motif of the first image (114, 210, 310) and the motif of the second image (116, 220, 320) coincide dimensionally identically, wherein one of the images (114, 116; 210, 220; 310, 320) is chosen such that it shows the motif in the way it is perceived with polarizing spectacles and the other of the images (114, 116; 210, 220; 310, 320) is chosen such that the superimposed representation (118, 230, 330) of the images (114, 116; 210, 220; 310, 320) shows the motif in the way it is perceived without polarizing spectacles. a) a memory for providing a first image (114, 210, 310) having a motif and an associated information regarding a first polarization direction, with which the first image (114, 210, 310) is intended to be displayed, b) a memory for providing a second image (116, 220, 320) having the same motif and an associated information regarding a second polarization direction, which is different from the first polarization direction and with which the second image (116, 220, 320) is intended to be displayed, c) a display device for displaying the first image (114, 210, 310) with light polarized in the first polarization direction and the second image (116, 220, 320) with light polarized in the second polarization direction in a superimposed representation (118, 230, 330), such that the motif of the first image (114, 210, 310) and the motif of the second image (116, 220, 320) coincide dimensionally identically, wherein one of the images (114, 116; 210, 220; 310, 320) is chosen such that it shows the motif in the way it is perceived with polarizing spectacles and the other of the images (114, 116; 210, 220; 310, 320) is chosen such that the superimposed representation (118, 230, 330) of the images (114, 116; 210, 220; 310, 320) shows the motif in the way it is perceived without polarizing spectacles.
An isolated antibody or antigen binding portion thereof that binds to an epitope situated within amino acids 324-429 of the EphB4 sequence of Figure 1, stimulates EphB4 kinase activity, decreases the growth of a human tumor xenograft in a mouse and comprises at least one CDR in accordance with the definition of Kabat or Chothia that is derived from an antibody expressed by a host cell having ATCC Deposit Designation No. PTA-6214.
A cable having at least one insulation layer comprising a polymer composition comprising (a) at least 94 wt.-%, based on the total weight of the polymer composition, of a crystalline polypropylene homo- or copolymer having a melt flow rate according to ISO 1133 (230°C/2.16 kg) in the range of 1.0 to 10.0 g/10min and a comonomer content of below 5.0 wt.-%, the comonomers are ethylene and/or a C 4 to C 10 α-olefin, (b) 0.5 to 5 wt.-%, based on the total weight of the polymer composition, of an adhesion promoter being a polar modified polypropylene (PM-PP) homo- or copolymer, (c) 0.0001 to 1.0 wt.-%, based on the total weight of the polymer composition, of a polymeric α-nucleating agent (pNA), and (d) optionally 0.02 to 1.0 wt.-%, based on the total weight of the polymer composition, of a soluble α-nucleating agent (sNA). (a) at least 94 wt.-%, based on the total weight of the polymer composition, of a crystalline polypropylene homo- or copolymer having a melt flow rate according to ISO 1133 (230°C/2.16 kg) in the range of 1.0 to 10.0 g/10min and a comonomer content of below 5.0 wt.-%, the comonomers are ethylene and/or a C 4 to C 10 α-olefin, (b) 0.5 to 5 wt.-%, based on the total weight of the polymer composition, of an adhesion promoter being a polar modified polypropylene (PM-PP) homo- or copolymer, (c) 0.0001 to 1.0 wt.-%, based on the total weight of the polymer composition, of a polymeric α-nucleating agent (pNA), and (d) optionally 0.02 to 1.0 wt.-%, based on the total weight of the polymer composition, of a soluble α-nucleating agent (sNA).
A structural member for an automotive body, the structural member consisting of a press-formed product made of a steel sheet, the press-formed product extending in a predetermined direction, including a top plate, a ridge continuing to the top plate, and a vertical wall continuing to the ridge, and having a substantially gutter-shaped cross section intersecting the predetermined direction, the structural member comprising: at least one groove formed in the top plate, and extending in the predetermined direction; and an outward flange formed at least in a region of the ridge in an end in the predetermined direction, the groove having a depth set according to a width of the groove and a sheet thickness of the steel sheet characterised in that, the depth (h) of the groove, the width (w) of the groove, and the sheet thickness (t) of the steel sheet in the end in the predetermined direction satisfy a relation: 0.2 × H 0 ≤ h ≤ 3.0 × H 0, where H 0 = (0.037 t - 0.25) × w - 5.7 t + 29.2. at least one groove formed in the top plate, and extending in the predetermined direction; and an outward flange formed at least in a region of the ridge in an end in the predetermined direction, the groove having a depth set according to a width of the groove and a sheet thickness of the steel sheet characterised in that, the depth (h) of the groove, the width (w) of the groove, and the sheet thickness (t) of the steel sheet in the end in the predetermined direction satisfy a relation: 0.2 × H 0 ≤ h ≤ 3.0 × H 0, where H 0 = (0.037 t - 0.25) × w - 5.7 t + 29.2.
Leading edge with a laminar flow control and obtained from composite materials the leading edge comprising: a perforated outer skin shaped with an aerodynamic leading edge profile, a perforated inner skin internally arranged with respect to the outer skin, a plurality of suction chambers formed between the outer and inner skins (3, 5), said suction chambers extending span-wise, the leading edge further comprising a plurality of perforated tubular members span-wise arranged in the leading edge and placed between the outer and inner skins (3, 5) to form said suction chambers, characterized in that, the tubular members have four sides, namely two opposing large sides and two opposing short sides, wherein the two opposing large sides are joined respectively with the outer and inner skins (3, 5), and wherein the two opposing short sides are transversal to the outer and inner skins (3, 5); wherein one of the large sides is perforated in correspondence with the position of the perforations of the outer skin, and wherein the other large side has at least one perforation overlapping with a corresponding perforation of the inner skin, such that an exterior region of the leading edge is communicated with an interior region of the leading edge through said suction chambers; wherein the outer skin, the inner skin and the tubular members are cured together; and wherein at least one pair of adjacent tubular members are spaced apart at a selected distance, such that a suction chamber is formed by perforated parts of the outer and inner skins (3, 5) and two of the short sides of said pair of adjacent and spaced tubular members. a perforated outer skin shaped with an aerodynamic leading edge profile, a perforated inner skin internally arranged with respect to the outer skin, a plurality of suction chambers formed between the outer and inner skins (3, 5), said suction chambers extending span-wise, the leading edge further comprising a plurality of perforated tubular members span-wise arranged in the leading edge and placed between the outer and inner skins (3, 5) to form said suction chambers, characterized in that, the tubular members have four sides, namely two opposing large sides and two opposing short sides, wherein the two opposing large sides are joined respectively with the outer and inner skins (3, 5), and wherein the two opposing short sides are transversal to the outer and inner skins (3, 5); wherein one of the large sides is perforated in correspondence with the position of the perforations of the outer skin, and wherein the other large side has at least one perforation overlapping with a corresponding perforation of the inner skin, such that an exterior region of the leading edge is communicated with an interior region of the leading edge through said suction chambers; wherein the outer skin, the inner skin and the tubular members are cured together; and wherein at least one pair of adjacent tubular members are spaced apart at a selected distance, such that a suction chamber is formed by perforated parts of the outer and inner skins (3, 5) and two of the short sides of said pair of adjacent and spaced tubular members.
An optical projection device (100; 200; 300) for display means such as augmented reality glasses, comprising an optical guide (103; 203), characterized in that the optical projection device (100; 200; 300) having: - at least two refractive input optics (105; 205; 305), named input optics, arranged in front of an input zone which is located on a face of the optical guide (103; 203); - at least two collimation elements (107; 207; 307) having a deflection function, each collimation element being associated with an input optics, and located directly on a face (1031; 1032) of the optical guide; and - conjugation means (106; 206; 306) disposed between the input optics (105; 205; 305) and the collimation elements (107; 207; 307), arranged to conjugate in twos an input optics (105; 205; 305) and the associated collimation element (107; 207; 307). - at least two refractive input optics (105; 205; 305), named input optics, arranged in front of an input zone which is located on a face of the optical guide (103; 203); - at least two collimation elements (107; 207; 307) having a deflection function, each collimation element being associated with an input optics, and located directly on a face (1031; 1032) of the optical guide; and - conjugation means (106; 206; 306) disposed between the input optics (105; 205; 305) and the collimation elements (107; 207; 307), arranged to conjugate in twos an input optics (105; 205; 305) and the associated collimation element (107; 207; 307).
An image forming apparatus, comprising: a printer section comprising: a first fan, comprising a ozone fan, configured to be provided with an air sucking port and an air exhaust port and to suck air in a casing; a filter section configured to cover at least one of the air sucking port and the air exhaust port of the first fan; a second fan, comprising a fixing section cooling fan, configured to supply air to an airflow path of the casing leading to the first fan; a fixing section configured to heat a sheet at a plurality of target temperatures; and a control section configured to drive, in a case of changing the target temperatures of the fixing section, the second fan, or to continue the driving of the second fan that has already been driven and drive the first fan during a period the second fan is driven, characterized in that: in case of switching from the decoloring mode to the printing mode, the control section is configured to drive the fixing section cooling fan and to continue the driving of the ozone fan during a period the fixing section cooling fan is driven. a first fan, comprising a ozone fan, configured to be provided with an air sucking port and an air exhaust port and to suck air in a casing; a filter section configured to cover at least one of the air sucking port and the air exhaust port of the first fan; a second fan, comprising a fixing section cooling fan, configured to supply air to an airflow path of the casing leading to the first fan; a fixing section configured to heat a sheet at a plurality of target temperatures; and a control section configured to drive, in a case of changing the target temperatures of the fixing section, the second fan, or to continue the driving of the second fan that has already been driven and drive the first fan during a period the second fan is driven, characterized in that: in case of switching from the decoloring mode to the printing mode, the control section is configured to drive the fixing section cooling fan and to continue the driving of the ozone fan during a period the fixing section cooling fan is driven.
An air conditioning system for a vehicle, wherein the air conditioning system comprises a cooling line adapted to transport a coolant fluid and a first heat-exchanging arrangement connected to the cooling line, wherein the air conditioning system comprises a first liquid container being arranged to hold a first liquid heat exchange medium and that the first heat-exchanging arrangement is arranged inside the first liquid container for exchanging heat between the coolant fluid and the first liquid heat exchange medium, characterized in that the air conditioning system comprises a second liquid container arranged to hold a second liquid heat exchange medium and a coolant fluid connection arranged in the second liquid container for exchanging heat between the coolant fluid and the second liquid heat exchange medium.
A composition for use as a vitreous substitute for replacing the vitreous humor of an eye, comprising a hydrogel polymer comprising: (a) oxidated hyaluronic acid; and (b) a dihydrazide, the dihydrazide cross-linking the oxidated hyaluronic acid; wherein the hydrogel polymer exhibits the following properties: (i) transparent and colorless; and (ii) transforming from a liquid state into a gel-matrix at 37° C. (a) oxidated hyaluronic acid; and (b) a dihydrazide, the dihydrazide cross-linking the oxidated hyaluronic acid; wherein the hydrogel polymer exhibits the following properties: (i) transparent and colorless; and (ii) transforming from a liquid state into a gel-matrix at 37° C. (i) transparent and colorless; and (ii) transforming from a liquid state into a gel-matrix at 37° C.