mhurhangee/patent-ind-claim-en huggingface dataset:
Protective apparatus for the protected transmission of data, consisting of at least two protective devices which are assigned to one another and can each be connected to one end of a data transmission device , each protective device having: - a first interface for connection to the data transmission device , - a second interface for direct connection to a device , and - a crypto unit which has a cryptographic function configured in an equivalent manner on each of the assigned protective devices and which cryptographically protects the data to be transmitted, the cryptographic function setting up a communications link for data transmission via the data transmission device between precisely the two protective devices and the protective devices being in the form of external plug connectors or components in the plug connectors of the data transmission device . - a first interface for connection to the data transmission device , - a second interface for direct connection to a device , and - a crypto unit which has a cryptographic function configured in an equivalent manner on each of the assigned protective devices and which cryptographically protects the data to be transmitted, the cryptographic function setting up a communications link for data transmission via the data transmission device between precisely the two protective devices and the protective devices being in the form of external plug connectors or components in the plug connectors of the data transmission device .
A capture oligomer comprising, in the 5' to 3' direction: a capture sequence, an internal extension blocker, a complement of the capture sequence, and a target-hybridizing sequence, wherein the complement of the capture sequence is configured to anneal to the capture sequence in the absence of an extended target sequence annealed to the target-hybridizing sequence and the complement of the capture sequence, characterised in that the capture oligomer comprises a first additional sequence 5' of the capture sequence and a third additional sequence 3' of the complement of the capture sequence which comprise first and second stabilizing sequences, respectively, wherein said stabilizing sequences are for stabilization of a duplex region and/or controlling the alignment of hybridization of duplex regions. a capture sequence, an internal extension blocker, a complement of the capture sequence, and a target-hybridizing sequence, wherein the complement of the capture sequence is configured to anneal to the capture sequence in the absence of an extended target sequence annealed to the target-hybridizing sequence and the complement of the capture sequence, characterised in that the capture oligomer comprises a first additional sequence 5' of the capture sequence and a third additional sequence 3' of the complement of the capture sequence which comprise first and second stabilizing sequences, respectively, wherein said stabilizing sequences are for stabilization of a duplex region and/or controlling the alignment of hybridization of duplex regions.
A pushchair comprising a rear frame and a second frame , rear wheels and a least one front wheel , the second frame pivotally mounted by a pair of pivot units on the rear frame, and in which the second frame may assume one of two stable positions with respect to the rear frame , the first position being a locked, unfolded position projecting substantially forwards with respect to the rear frame and the second, folded, position being substantially adjacent the rear frame when the pushchair folded, wherein when the pushchair unfolded, the second frame projects forwards of the rear frame , the rear wheels are mounted on the rear frame ; the at least one front wheel is mounted on the second frame ; the rear frame is arcuate in side view; each of the pivotal units is forward of a vertical plane between centres of the rear wheels and an upper part of the rear frame when the pushchair is in the unfolded position; wherein the rear frame comprises pairs of upper and lower spaced apart members which are telescopic, characterised in that the upper members telescope into the lower members , in that the pivot units are mounted on the rear frame around the telescoping upper and lower members (2 and 3) and whereby the rear frame has first latches through the upper members of the rear frame, said first latches releasing the upper members to telescope into the lower members ; and whereby at least one upper member has an actuator to engage a link member to a second latch, whereby engagement of the second latch with the link member through telescoping of the rear frame releases the second latch to allow rotation of the second frame with respect to the rear frame.
A honeycomb filter comprising a columnar body including a plurality of first flow passages (70H in ) and a plurality of second flow passages (70H out ) extending in an axial direction and including partition walls (W) separating the adjacent flow passages, wherein a cross-section area of each first flow passage (70H in ) on one end face (10E in ) of the columnar body is larger than a cross-section area of each first flow passage (70H in ) in a central part (CP) in the axial direction, and each second flow passage (70H out ) is closed on the one end face (10E in ) by crimping the partition walls (W) together, each corner part (C) that forms the first flow passages (70H in ) and is formed between an adjacent pair of the partition walls (W) has a first protrusion part (WP) that protrudes toward an interior of the first flow passage (70H in ) and extends in the axial direction, in a central part (CP) of the first flow passages (70H in ) in the axial direction; and a cross-section area of each second flow passage (70H out ) on the other end face (10E out ) of the columnar body is larger than a cross-section area of each second flow passage (70H out ) in the central part (CP) in the axial direction, and each first flow passage (70H in ) is closed on the other end face (10E out ). a cross-section area of each first flow passage (70H in ) on one end face (10E in ) of the columnar body is larger than a cross-section area of each first flow passage (70H in ) in a central part (CP) in the axial direction, and each second flow passage (70H out ) is closed on the one end face (10E in ) by crimping the partition walls (W) together, each corner part (C) that forms the first flow passages (70H in ) and is formed between an adjacent pair of the partition walls (W) has a first protrusion part (WP) that protrudes toward an interior of the first flow passage (70H in ) and extends in the axial direction, in a central part (CP) of the first flow passages (70H in ) in the axial direction; and a cross-section area of each second flow passage (70H out ) on the other end face (10E out ) of the columnar body is larger than a cross-section area of each second flow passage (70H out ) in the central part (CP) in the axial direction, and each first flow passage (70H in ) is closed on the other end face (10E out ).
Rotary indexing press comprising a plurality of processing stations for simultaneously performing sequences which essentially take place one after the other, in particular for producing green bodies from powdered materials, wherein the rotary indexing press is provided with an indexing plate that is equipped with a plurality of tool cavities that are assigned to a plurality of tool positions, wherein the tool positions are provided over the indexing plate at least for filling, compacting and ejecting workpieces, wherein more than one cavity is assigned to each tool position such that the overall method is carried out in a large number of processing stations in parallel, wherein each processing station comprises a plurality of cavities for the same processing step, characterised in that the indexing plate is connected to a press body in a form-fitting and/or force-fitting manner during the compaction and lower dies are arranged on the underside of the indexing plate , which lower dies are moved to the respective processing stations by means of force-distance devices.
A three-dimensional in vitro alveolar lung model comprising mainly the four cells types as follows: - a) alveolar type II epithelial cells able to secrete surfactant, - b) endothelial cells which form the inner lining of capillaries providing a permeable barrier - c) dendritic-like cells, - d) macrophage-like cells, able to participate to defense mechanisms by ingesting foreign materials by phagocytosis, wherein: said three-dimensional in vitro lung model is in the form of a culture well equipped with a porous membrane separating the well into an apical compartment exposed to an air-liquid interface, and a basolateral compartment submerged in a culture medium, said epithelial cells and said macrophages being present in the apical compartment, and said endothelial cells and said dendritic-like cells being present at the basolateral compartment and immerged in the culture medium, said porous membrane has pores comprised between 2 and 10 μm, allowing possible migration of the dendritic-like cells from the basolateral compartment to the apical compartment. - a) alveolar type II epithelial cells able to secrete surfactant, - b) endothelial cells which form the inner lining of capillaries providing a permeable barrier - c) dendritic-like cells, - d) macrophage-like cells, able to participate to defense mechanisms by ingesting foreign materials by phagocytosis, wherein: said three-dimensional in vitro lung model is in the form of a culture well equipped with a porous membrane separating the well into an apical compartment exposed to an air-liquid interface, and a basolateral compartment submerged in a culture medium, said epithelial cells and said macrophages being present in the apical compartment, and said endothelial cells and said dendritic-like cells being present at the basolateral compartment and immerged in the culture medium, said porous membrane has pores comprised between 2 and 10 μm, allowing possible migration of the dendritic-like cells from the basolateral compartment to the apical compartment. said three-dimensional in vitro lung model is in the form of a culture well equipped with a porous membrane separating the well into an apical compartment exposed to an air-liquid interface, and a basolateral compartment submerged in a culture medium, said epithelial cells and said macrophages being present in the apical compartment, and said endothelial cells and said dendritic-like cells being present at the basolateral compartment and immerged in the culture medium, said porous membrane has pores comprised between 2 and 10 μm, allowing possible migration of the dendritic-like cells from the basolateral compartment to the apical compartment.
A compound selected from the group consisting of: or a pharmaceutically acceptable salt or a stereoisomer thereof, wherein: Ar is X 1 is selected from the group consisting of halogen, -CN, or -OMe; X 2 is selected from the group consisting of H, halogen, -OH, -CN, C 1-6 alkoxy, and CF 3 ; and m is 1 or 2. or a pharmaceutically acceptable salt or a stereoisomer thereof, wherein: Ar is X 1 is selected from the group consisting of halogen, -CN, or -OMe; X 2 is selected from the group consisting of H, halogen, -OH, -CN, C 1-6 alkoxy, and CF 3 ; and m is 1 or 2.
A method for governing the speed of a propeller on a propeller-based engine in an aircraft, the method comprising: obtaining a synthesized or estimated blade angle (β) for the propeller of the engine ; determining one or more gains for a controller of the propeller based on the synthesized or estimated blade angle (β) and one or more engine or aircraft parameters; determining a difference between a reference propeller speed (Np ref ) and an actual propeller speed (Np); applying the one or more gains to the difference via the controller in order to generate a command signal (C o ) for controlling the propeller ; and governing the propeller of the engine using the command signal (C o ). obtaining a synthesized or estimated blade angle (β) for the propeller of the engine ; determining one or more gains for a controller of the propeller based on the synthesized or estimated blade angle (β) and one or more engine or aircraft parameters; determining a difference between a reference propeller speed (Np ref ) and an actual propeller speed (Np); applying the one or more gains to the difference via the controller in order to generate a command signal (C o ) for controlling the propeller ; and governing the propeller of the engine using the command signal (C o ).
A silenced blowing nozzle for blowing of a gas medium under overpressure, in particular air, which blowing nozzle includes a central part with a primary nozzle means which includes at least one Laval nozzle and has at least one primary discharge opening such that the primary discharge opening (s) will generate a concentrated core stream (A) of gas with supersonic velocity, which central part is surrounded by a more peripheral part containing a plurality of secondary nozzles with respective secondary discharge openings spaced from another and from said primary discharge opening(s) , characterized in that each secondary nozzle has an orientation such that each secondary discharge opening generates a gas stream that is divergent from the axis (C) of the core stream, which divergent gas stream has an angle (α) relative to the axis (C) of the core stream in the range of 1,5 - 8°, and wherein at least some of the secondary nozzles are Laval nozzles
A scanning display system , comprising: a laser light source comprising two or more offset lasers (102; 402A, 402B); and a scanning mirror system configured to scan light from the laser light source in a first direction at a higher frequency, and in a second direction at a lower frequency to form an image; characterized by : an eye tracking sensor configured to detect a gaze direction of a user; and a controller configured to map the gaze direction to a particular region in the image, to control the scanning mirror system to scan the laser light in an interlaced pattern to form the image, wherein the laser light is scanned along at least four laser traces corresponding to the output of said two or more offset lasers in two different first and second frames, which are successively interlaced, wherein the laser traces exhibit an at least partial sinusoidal motion, the controller being further configured to adjust a phase offset between the laser traces corresponding to said first frame and the laser traces corresponding to said second frame of the image based on the particular region in the image and using a mapping between regions in the image and respective phase offsets associated with the regions. a laser light source comprising two or more offset lasers (102; 402A, 402B); and a scanning mirror system configured to scan light from the laser light source in a first direction at a higher frequency, and in a second direction at a lower frequency to form an image; characterized by : an eye tracking sensor configured to detect a gaze direction of a user; and a controller configured to map the gaze direction to a particular region in the image, to control the scanning mirror system to scan the laser light in an interlaced pattern to form the image, wherein the laser light is scanned along at least four laser traces corresponding to the output of said two or more offset lasers in two different first and second frames, which are successively interlaced, wherein the laser traces exhibit an at least partial sinusoidal motion, the controller being further configured to adjust a phase offset between the laser traces corresponding to said first frame and the laser traces corresponding to said second frame of the image based on the particular region in the image and using a mapping between regions in the image and respective phase offsets associated with the regions.
A transdermal delivery device for use in treating a withdrawal syndrome in a subject diagnosed as having a withdrawal syndrome, the transdermal delivery device consisting of: a dexmedetomidine composition consisting of: dexmedetomidine; a solublility enhancer; an acrylate pressure sensitive adhesive having pendant hydroxyl functional groups; and a backing layer in contact with the dexmedetomidine composition, wherein the dexmedetomidine composition is formulated to deliver dexmedetomidine to the subject. dexmedetomidine; a solublility enhancer; an acrylate pressure sensitive adhesive having pendant hydroxyl functional groups; and a backing layer in contact with the dexmedetomidine composition, wherein the dexmedetomidine composition is formulated to deliver dexmedetomidine to the subject.
A laser brazing system , comprising a braze tool having a laser configured to emit a laser beam along a radiation path (RP), and a braze wire tool being configured to guide a braze wire along a wire path (WP) intersecting the laser beam , characterized by a jig comprising a first alignment surface and a first blocking surface , wherein the first alignment surface is configured to be in contact with the braze wire while the first blocking surface blocks at least a first part of the emitted laser beam , and a detector arranged in the radiation path (RP) and configured to detect the emitted light of the laser beam passing the jig , the brazing system further comprising a control unit being configured to receive a first signal (S1) from the detector , the first signal (S1) comprising information relating to the amount of detected laser light when the first blocking surface blocks at least a first part of the emitted laser beam , and to determine the position of the braze wire relative the radiation path (RP) based on said signal (S).
A device comprising: a light source assembled in a package , the package comprising a transparent window opposite the light source ; an optical fiber fitted with a connector capable of detachably engaging with the package to maintain an input surface of the optical fiber opposite the light source via the window ; and an interface element made of a transparent elastomeric material capable, in connected position, of being maintained compressed between the window and the input surface of the optical fiber . a light source assembled in a package , the package comprising a transparent window opposite the light source ; an optical fiber fitted with a connector capable of detachably engaging with the package to maintain an input surface of the optical fiber opposite the light source via the window ; and an interface element made of a transparent elastomeric material capable, in connected position, of being maintained compressed between the window and the input surface of the optical fiber .
An apparatus comprising: a working assembly configured to perform a work function responsive to operation of the working assembly ; an electric BLDC motor that powers the working assembly ; a power source configured to selectively power the BLDC motor ; control circuitry for controlling operation of the BLDC motor ; and a brake function configured to selectively apply braking to the BLDC motor responsive to a brake initiation event, the brake function comprises a first phase , a second phase , and a third phase , each of which includes independent circuitry for connecting a corresponding phase of the electric motor to a common point in response to the brake initiation event, effectively short-circuiting the BLDC motor characterized in that the brake function is configured to apply the braking by short-circuiting motor phase windings of the BLDC motor without requiring an external power supply during application of the braking. a working assembly configured to perform a work function responsive to operation of the working assembly ; an electric BLDC motor that powers the working assembly ; a power source configured to selectively power the BLDC motor ; control circuitry for controlling operation of the BLDC motor ; and a brake function configured to selectively apply braking to the BLDC motor responsive to a brake initiation event, the brake function comprises a first phase , a second phase , and a third phase , each of which includes independent circuitry for connecting a corresponding phase of the electric motor to a common point in response to the brake initiation event, effectively short-circuiting the BLDC motor characterized in that the brake function is configured to apply the braking by short-circuiting motor phase windings of the BLDC motor without requiring an external power supply during application of the braking.
A method for cultivation of bacteria mediating anaerobic ammonium oxidation, comprising - performing cultivation of bacteria mediating anaerobic ammonium oxidation in a stirred tank reactor , the method further comprising: A) feeding nitrite ions and ammonium ions in at least one liquid feed to the stirred tank reactor , B) discharging liquid product from the stirred tank reactor , wherein i) feeding in A) and discharging in B) are done continuously, or ii) feeding in A) is done repeatedly and discontinuously, and when discharging in B) is done, a fraction of the liquid content in the stirred tank reactor is discharged, which is done repeatedly and discontinuously, characterized in that : - the method comprises degassing the liquid feed(s) , and - in the cultivation, the bacteria are cultivated as planktonic cells. - performing cultivation of bacteria mediating anaerobic ammonium oxidation in a stirred tank reactor , the method further comprising: A) feeding nitrite ions and ammonium ions in at least one liquid feed to the stirred tank reactor , B) discharging liquid product from the stirred tank reactor , A) feeding nitrite ions and ammonium ions in at least one liquid feed to the stirred tank reactor , B) discharging liquid product from the stirred tank reactor , wherein i) feeding in A) and discharging in B) are done continuously, or ii) feeding in A) is done repeatedly and discontinuously, and when discharging in B) is done, a fraction of the liquid content in the stirred tank reactor is discharged, which is done repeatedly and discontinuously, i) feeding in A) and discharging in B) are done continuously, or ii) feeding in A) is done repeatedly and discontinuously, and when discharging in B) is done, a fraction of the liquid content in the stirred tank reactor is discharged, which is done repeatedly and discontinuously, characterized in that : - the method comprises degassing the liquid feed(s) , and - in the cultivation, the bacteria are cultivated as planktonic cells. - the method comprises degassing the liquid feed(s) , and - in the cultivation, the bacteria are cultivated as planktonic cells.